17 Commits
Author SHA1 Message Date
Kyle Schwarz f4fe69f992 CI: Adjust twine upload args 2026-11-01 11:28:02 -05:00
Kyle Schwarz 7ff14ae86d CI: Add tag upload & deploy 2026-10-31 11:24:38 -04:00
Kyle Schwarz 5c61a3b3c1 All: Remove deprecated Drivers 2026-10-29 12:33:38 -04:00
Max BrombachandKyle Schwarz 320fec74bd Device: Add SFP-AD1101 2026-10-23 12:42:08 -04:00
Bryant JonesandKyle Schwarz fd8f7b328f Message: LIN: Fix checksum 2026-10-21 19:46:48 -04:00
Thomas StoddardandKyle Schwarz 6ac041cadc Add bootloader extension 2026-10-21 19:22:50 -04:00
Thomas StoddardandKyle Schwarz 4db27aa187 Bindings: Python: Add ISO-TP 2026-10-20 21:15:12 -04:00
Thomas StoddardandKyle Schwarz 1d3039775d Device: Refactor T1S settings 2026-10-06 15:16:33 -04:00
Max BrombachandKyle Schwarz fb241dc5cd EventManager: Fix potential ABBA deadlock if callback contains locks 2026-10-02 15:38:59 -04:00
Max BrombachandKyle Schwarz 3932b54947 Device: RAD-Gigastar and RAD-Gigastar 2: Fix bootloader pipeline 2026-10-02 14:28:40 -04:00
Nicholas ZamoraandKyle Schwarz f4836f279f Device: RAD-Gemini to RAD-Argos 2026-10-02 13:53:55 -04:00
Thomas StoddardandKyle Schwarz 7ef57e6737 Device: Improve TC10 message filtering 2026-09-30 13:07:13 -04:00
David RebbeandKyle Schwarz 4c0781190e Message: EthPhyMessage: Add Status 2026-09-29 15:01:36 -04:00
Kyle Schwarz 0a67c9cf5d Platform: Servd: Add address configuration 2026-09-28 12:02:40 -04:00
David RebbeandKyle Schwarz f310938684 Message: Validate PHY register batches 2026-09-24 20:13:48 -04:00
Thomas StoddardandKyle Schwarz f0b1341cdf Device: Write MACsec configs by network ID 2026-09-24 19:49:23 -04:00
Max BrombachandKyle Schwarz b54bf80c40 EventManager: Always run callbacks on event 2026-09-24 13:26:13 -04:00
162 changed files with 15206 additions and 8148 deletions
+19 -27
View File
@@ -47,7 +47,7 @@ unit_test windows/x64:
script:
- apt update -y
- apt upgrade -y
- apt install -y g++ ninja-build cmake libpcap-dev git ca-certificates
- apt install -y g++ ninja-build cmake git ca-certificates
- echo "$ICS_IPA_CA_CRT" >/usr/local/share/ca-certificates/ica-ipa-ca.crt
- update-ca-certificates --fresh
- sh ci/build-posix.sh
@@ -64,7 +64,6 @@ unit_test windows/x64:
script:
- apt update -y
- apt upgrade -y
- apt install -y libpcap-dev
- build/libicsneo-unit-tests
tags:
- linux-build
@@ -75,7 +74,7 @@ unit_test windows/x64:
script:
- apt update -y
- apt upgrade -y
- apt install -y clang lld ninja-build cmake libpcap-dev git ca-certificates
- apt install -y clang lld ninja-build cmake git ca-certificates
- echo "$ICS_IPA_CA_CRT" >/usr/local/share/ca-certificates/ica-ipa-ca.crt
- update-ca-certificates --fresh
- CC=clang CXX=clang++ LDFLAGS=-fuse-ld=lld sh ci/build-posix.sh
@@ -92,7 +91,6 @@ unit_test windows/x64:
script:
- apt update -y
- apt upgrade -y
- apt install -y libpcap-dev
- build/libicsneo-unit-tests
tags:
- linux-build
@@ -159,7 +157,7 @@ unit_test linux/ubuntu/2604/amd64/clang:
- echo max_parallel_downloads=10 >>/etc/dnf/dnf.conf
- echo fastestmirror=True >>/etc/dnf/dnf.conf
- dnf upgrade -y
- dnf install -y g++ libpcap-devel cmake ninja-build git ca-certificates
- dnf install -y g++ cmake ninja-build git ca-certificates
- echo "$ICS_IPA_CA_CRT" >/etc/pki/ca-trust/source/anchors/ica-ipa-ca.crt
- update-ca-trust
- sh ci/build-posix.sh
@@ -180,7 +178,6 @@ unit_test linux/ubuntu/2604/amd64/clang:
- echo max_parallel_downloads=10 >>/etc/dnf/dnf.conf
- echo fastestmirror=True >>/etc/dnf/dnf.conf
- dnf upgrade -y
- dnf install -y libpcap-devel
- build/libicsneo-unit-tests
tags:
- linux-build
@@ -195,7 +192,7 @@ unit_test linux/ubuntu/2604/amd64/clang:
- echo max_parallel_downloads=10 >>/etc/dnf/dnf.conf
- echo fastestmirror=True >>/etc/dnf/dnf.conf
- dnf upgrade -y
- dnf install -y clang lld libpcap-devel cmake ninja-build git ca-certificates
- dnf install -y clang lld cmake ninja-build git ca-certificates
- echo "$ICS_IPA_CA_CRT" >/etc/pki/ca-trust/source/anchors/ica-ipa-ca.crt
- update-ca-trust
- CC=clang CXX=clang++ LDFLAGS=-fuse-ld=lld sh ci/build-posix.sh
@@ -216,7 +213,6 @@ unit_test linux/ubuntu/2604/amd64/clang:
- echo max_parallel_downloads=10 >>/etc/dnf/dnf.conf
- echo fastestmirror=True >>/etc/dnf/dnf.conf
- dnf upgrade -y
- dnf install -y libpcap-devel
- build/libicsneo-unit-tests
tags:
- linux-build
@@ -279,13 +275,9 @@ build python/linux/amd64:
tags:
- linux-native-amd64
variables:
CIBW_BEFORE_ALL: sh ci/bootstrap-cibuildwheel.sh && sh ci/bootstrap-libpcap.sh
CIBW_BUILD: "*manylinux*" # no musl
CIBW_ARCHS: x86_64
CIBW_ENVIRONMENT: PCAP_ROOT=/project/libpcap/install
SKBUILD_CMAKE_DEFINE: ICSPB_BOOTSTRAP_DIR=/project/icspb
script:
- sh ci/build-wheel-posix.sh
- sh ci/build-wheel-linux.sh
artifacts:
paths:
- wheelhouse
@@ -295,13 +287,9 @@ build python/linux/arm64:
tags:
- arm64-linux-build
variables:
CIBW_BEFORE_ALL: sh ci/bootstrap-cibuildwheel.sh && sh ci/bootstrap-libpcap.sh
CIBW_BUILD: "*manylinux*" # no musl
CIBW_ARCHS: aarch64
CIBW_ENVIRONMENT: PCAP_ROOT=/project/libpcap/install
SKBUILD_CMAKE_DEFINE: ICSPB_BOOTSTRAP_DIR=/project/icspb
script:
- sh ci/build-wheel-posix.sh
- sh ci/build-wheel-linux.sh
artifacts:
paths:
- wheelhouse
@@ -310,14 +298,8 @@ build python/macos:
stage: build
tags:
- macos-arm64
variables:
CIBW_BEFORE_ALL: sh ci/bootstrap-libpcap.sh
CIBW_ARCHS: arm64
CIBW_ENVIRONMENT: PCAP_ROOT=$CI_PROJECT_DIR/libpcap/install
SKBUILD_CMAKE_DEFINE: ICSPB_BOOTSTRAP_DIR=$CI_PROJECT_DIR/icspb
MACOSX_DEPLOYMENT_TARGET: 10.14
script:
- sh ci/build-wheel-posix.sh
- sh ci/build-wheel-macos.sh
artifacts:
paths:
- wheelhouse
@@ -347,9 +329,10 @@ deploy python/pypi:
image: python:3.13
rules:
- if: $CI_COMMIT_BRANCH == $CI_DEFAULT_BRANCH
- if: $CI_COMMIT_TAG
script:
- python3 -m pip install -U twine
- twine upload wheelhouse/*
- twine upload --verbose wheelhouse/*
dependencies:
- build python/linux/amd64
- build python/linux/arm64
@@ -367,14 +350,23 @@ push github:
tags:
- linux-build
image: alpine:latest
variables:
GIT_DEPTH: 0
rules:
- if: $CI_COMMIT_BRANCH == $CI_DEFAULT_BRANCH
when: delayed
start_in: 10 minutes
variables:
REFSPEC: HEAD:master
- if: $CI_COMMIT_TAG
when: delayed
start_in: 10 minutes
variables:
REFSPEC: $CI_COMMIT_TAG
dependencies:
- deploy python/pypi
needs:
- deploy python/pypi
script:
- apk add git
- git push https://$LIBICSNEO_GITHUB_USERNAME:$LIBICSNEO_GITHUB_TOKEN@github.com/intrepidcs/libicsneo.git HEAD:master
- git push https://$LIBICSNEO_GITHUB_USERNAME:$LIBICSNEO_GITHUB_TOKEN@github.com/intrepidcs/libicsneo.git $REFSPEC
-10
View File
@@ -1,10 +0,0 @@
# Intrepid Control System, Inc. neoVI Devices
SUBSYSTEM=="usb", ATTRS{idVendor}=="093c", GROUP="users", MODE="0666"
KERNEL=="ttyUSB?", ATTRS{idVendor}=="093c", GROUP="users", MODE="0666"
KERNEL=="ttyACM?", ATTRS{idVendor}=="093c", GROUP="users", MODE="0666"
ACTION=="add", SUBSYSTEMS=="usb", ATTRS{idVendor}=="093c", KERNEL=="ttyUSB*", \
RUN+="/bin/sh -c 'echo $id:1.0>/sys/bus/usb/drivers/ftdi_sio/unbind'"
ACTION=="add", SUBSYSTEMS=="usb", ATTRS{idVendor}=="093c", DRIVER=="usbhid", \
RUN+="/bin/sh -c 'echo $id:1.0>/sys/bus/usb/drivers/usbhid/unbind'"
+83 -145
View File
@@ -53,22 +53,20 @@ option(LIBICSNEO_BUILD_ICSNEOC2 "Build dynamic C2 library" ON)
option(LIBICSNEO_BUILD_ICSNEOC2_STATIC "Build static C2 library" ON)
option(LIBICSNEO_BUILD_ICSNEOLEGACY "Build icsnVC40 compatibility library" ON)
option(LIBICSNEO_BUILD_ICSNEOLEGACY_STATIC "Build static icsnVC40 compatibility library" ON)
set(LIBICSNEO_NPCAP_INCLUDE_DIR "" CACHE STRING "Npcap include directory; set to build with Npcap")
# Device Drivers
# You almost certainly don't want firmio for your build,
# it is only relevant for communication between Linux and
# CoreMini from the onboard processor of the device.
option(LIBICSNEO_ENABLE_FIRMIO "Enable communication between Linux and CoreMini within the same device" OFF)
option(LIBICSNEO_ENABLE_RAW_ETHERNET "Enable devices which communicate over raw ethernet" ON)
option(LIBICSNEO_ENABLE_CDCACM "Enable devices which communicate over USB CDC ACM" ON)
option(LIBICSNEO_ENABLE_TCP "Enable devices which communicate over TCP" OFF)
option(LIBICSNEO_ENABLE_DXX "Enable devices which communicate over D2XX/D3XX via libredxx" ON)
option(LIBICSNEO_ENABLE_BINDINGS_PYTHON "Enable Python library" OFF)
option(LIBICSNEO_ENABLE_BOOTLOADER "Enable bootloader firmware update support" OFF)
set(CMAKE_CXX_STANDARD 17)
set(CMAKE_MSVC_RUNTIME_LIBRARY "MultiThreaded")
set(CMAKE_POSITION_INDEPENDENT_CODE ON)
include(GNUInstallDirs)
@@ -142,82 +140,10 @@ if(LIBICSNEO_BUILD_DOCS)
endif()
endif()
if(WIN32)
set(PLATFORM_SRC
platform/windows/strings.cpp
platform/windows/registry.cpp
)
if(LIBICSNEO_ENABLE_RAW_ETHERNET)
list(APPEND PLATFORM_SRC
platform/windows/pcap.cpp
platform/windows/internal/pcapdll.cpp
)
if(LIBICSNEO_ENABLE_FIRMIO AND NOT WIN32)
set(PLATFORM_SRC platform/posix/firmio.cpp)
endif()
if(LIBICSNEO_ENABLE_CDCACM)
list(APPEND PLATFORM_SRC
platform/windows/cdcacm.cpp
)
endif()
else() # Darwin or Linux
set(PLATFORM_SRC)
if(LIBICSNEO_ENABLE_FIRMIO)
list(APPEND PLATFORM_SRC
platform/posix/firmio.cpp
)
endif()
if(LIBICSNEO_ENABLE_RAW_ETHERNET)
list(APPEND PLATFORM_SRC
platform/posix/pcap.cpp
)
endif()
if(LIBICSNEO_ENABLE_CDCACM)
list(APPEND PLATFORM_SRC
platform/posix/cdcacm.cpp
)
if(${CMAKE_SYSTEM_NAME} STREQUAL "Darwin")
list(APPEND PLATFORM_SRC
platform/posix/darwin/cdcacmdarwin.cpp
)
else() # Linux or other
list(APPEND PLATFORM_SRC
platform/posix/linux/cdcacmlinux.cpp
)
if(NOT ${CMAKE_SYSTEM_NAME} STREQUAL "Linux")
message(WARNING
"There is no CDCACM platform port defined for ${CMAKE_SYSTEM_NAME}!\n"
"The Linux platform code will be used, as it will generally allow building, but some devices may not enumerate properly."
)
endif()
endif()
endif()
endif()
if(LIBICSNEO_ENABLE_DXX)
list(APPEND PLATFORM_SRC
platform/dxx.cpp
)
endif()
if(LIBICSNEO_ENABLE_TCP)
list(APPEND PLATFORM_SRC
platform/tcp.cpp
)
endif()
# Extensions
set(LIBICSNEO_SOURCE_DIR ${CMAKE_CURRENT_SOURCE_DIR})
foreach(EXT_PATH ${LIBICSNEO_EXTENSION_DIRS})
get_filename_component(EXT_DIR ${EXT_PATH} NAME)
message("Adding extension " ${EXT_DIR})
add_subdirectory(${EXT_PATH} ${CMAKE_CURRENT_BINARY_DIR}/${EXT_DIR})
endforeach()
set(SRC_FILES
communication/message/flexray/control/flexraycontrolmessage.cpp
communication/message/callback/streamoutput/a2bwavoutput.cpp
@@ -306,6 +232,28 @@ set(SRC_FILES
${PLATFORM_SRC}
)
if(LIBICSNEO_ENABLE_BOOTLOADER)
list(APPEND SRC_FILES
device/extensions/bootloader/api.cpp
device/extensions/bootloader/version.cpp
device/extensions/bootloader/platform/logging.cpp
device/extensions/bootloader/parser/ief.cpp
device/extensions/bootloader/parser/fwzip.cpp
device/extensions/bootloader/parser/fwbin.cpp
device/extensions/bootloader/parser/fwbundle.cpp
device/extensions/bootloader/parser/fwloader.cpp
device/extensions/bootloader/communication/red.cpp
device/extensions/bootloader/communication/radmultichipcommunication.cpp
device/extensions/bootloader/communication/communication.cpp
device/extensions/bootloader/communication/radperiphcommunication.cpp
device/extensions/bootloader/communication/radcommunication.cpp
device/extensions/bootloader/communication/redpacketizer.cpp
device/extensions/bootloader/communication/redcore.cpp
device/extensions/bootloader/communication/application.cpp
device/extensions/bootloader/communication/redbase.cpp
)
endif()
# Generate build info header
execute_process(
COMMAND git rev-parse --abbrev-ref HEAD
@@ -335,17 +283,6 @@ configure_file(api/icsneocpp/buildinfo.h.template ${CMAKE_CURRENT_BINARY_DIR}/ge
configure_file(api/icsneoc/version.rc.template ${CMAKE_CURRENT_BINARY_DIR}/generated/icsneoc/version.rc)
configure_file(api/icsneoc2/version.rc.template ${CMAKE_CURRENT_BINARY_DIR}/generated/icsneoc2/version.rc)
foreach(EXTINC ${LIBICSNEO_EXTENSION_INCLUDES})
message("Including " ${EXTINC})
list(APPEND LIBICSNEO_EXT_CODE_INCS_LIST "#include \"${EXTINC}\"")
endforeach()
list(JOIN LIBICSNEO_EXT_CODE_INCS_LIST "\n" LIBICSNEO_EXT_CODE_INCS)
foreach(EXTCLASS ${LIBICSNEO_EXTENSION_CLASSES})
list(APPEND LIBICSNEO_EXT_CODE_LIST "device->addExtension(std::make_shared<${EXTCLASS}>(*device))\;")
endforeach()
list(JOIN LIBICSNEO_EXT_CODE_LIST "\n\t" LIBICSNEO_EXT_CODE)
configure_file(include/icsneo/device/extensions/builtin.h.template ${CMAKE_CURRENT_BINARY_DIR}/generated/extensions/builtin.h)
include_directories(BEFORE ${CMAKE_CURRENT_BINARY_DIR})
add_library(icsneocpp
@@ -356,78 +293,24 @@ add_library(icsneocpp
api/icsneocpp/version.cpp
${SRC_FILES}
)
message("Include paths " ${LIBICSNEO_EXTENSION_INCLUDE_PATHS})
target_include_directories(icsneocpp
PUBLIC
$<BUILD_INTERFACE:${CMAKE_CURRENT_SOURCE_DIR}/include>
$<INSTALL_INTERFACE:>
PRIVATE
${CMAKE_CURRENT_SOURCE_DIR}/include
${LIBICSNEO_EXTENSION_INCLUDE_PATHS}
)
target_link_libraries(icsneocpp PUBLIC Threads::Threads $<$<BOOL:${WIN32}>:ws2_32 iphlpapi>)
set_property(TARGET icsneocpp PROPERTY POSITION_INDEPENDENT_CODE ON)
target_compile_features(icsneocpp PUBLIC cxx_auto_type cxx_constexpr cxx_lambdas cxx_nullptr cxx_range_for cxx_rvalue_references cxx_sizeof_member cxx_strong_enums)
target_compile_options(icsneocpp PRIVATE ${LIBICSNEO_COMPILER_WARNINGS})
message("Loaded extensions: " ${LIBICSNEO_EXTENSION_TARGETS})
target_link_libraries(icsneocpp PUBLIC ${LIBICSNEO_EXTENSION_TARGETS})
if(LIBICSNEO_ENABLE_FIRMIO)
target_compile_definitions(icsneocpp PRIVATE ICSNEO_ENABLE_FIRMIO)
endif()
if(LIBICSNEO_ENABLE_RAW_ETHERNET)
target_compile_definitions(icsneocpp PRIVATE ICSNEO_ENABLE_RAW_ETHERNET)
endif()
if(LIBICSNEO_ENABLE_CDCACM)
target_compile_definitions(icsneocpp PRIVATE ICSNEO_ENABLE_CDCACM)
if(APPLE)
find_library(CORE_FOUNDATION_FRAMEWORK CoreFoundation REQUIRED)
find_library(IO_KIT_FRAMEWORK IOKit REQUIRED)
target_link_libraries(icsneocpp PRIVATE ${CORE_FOUNDATION_FRAMEWORK} ${IO_KIT_FRAMEWORK})
endif()
endif()
if(LIBICSNEO_ENABLE_DXX)
target_compile_definitions(icsneocpp PRIVATE ICSNEO_ENABLE_DXX)
target_link_libraries(icsneocpp PRIVATE libredxx::libredxx)
endif()
if(LIBICSNEO_ENABLE_TCP)
target_compile_definitions(icsneocpp PRIVATE ICSNEO_ENABLE_TCP)
if(WIN32)
target_link_libraries(icsneocpp PRIVATE ws2_32 iphlpapi)
endif()
endif()
# fatfs
add_subdirectory(third-party/fatfs)
set_property(TARGET fatfs PROPERTY POSITION_INDEPENDENT_CODE ON)
target_link_libraries(icsneocpp PRIVATE fatfs)
# dxx
if(LIBICSNEO_ENABLE_DXX)
include(FetchContent)
FetchContent_Declare(libredxx
GIT_REPOSITORY https://github.com/Zeranoe/libredxx.git
GIT_TAG e823a96c39a64ab41b7d1632dbe8f86bb854df83
)
set(LIBREDXX_DISABLE_INSTALL ON)
FetchContent_MakeAvailable(libredxx)
endif()
# pcap
if(LIBICSNEO_ENABLE_RAW_ETHERNET)
if(WIN32)
if(LIBICSNEO_NPCAP_INCLUDE_DIR STREQUAL "")
target_include_directories(icsneocpp PUBLIC AFTER third-party/winpcap/include)
add_definitions(-DWPCAP -DHAVE_REMOTE)
else()
target_include_directories(icsneocpp PUBLIC AFTER ${LIBICSNEO_NPCAP_INCLUDE_DIR})
endif()
else()
find_package(PCAP REQUIRED)
target_include_directories(icsneocpp PUBLIC ${PCAP_INCLUDE_DIR})
target_link_libraries(icsneocpp PUBLIC ${PCAP_LIBRARY})
endif(WIN32)
endif(LIBICSNEO_ENABLE_RAW_ETHERNET)
# protobuf
if(DEFINED ENV{LIBICSNEO_ICSPB_REPO})
set(LIBICSNEO_ICSPB_REPO "$ENV{LIBICSNEO_ICSPB_REPO}")
@@ -443,6 +326,59 @@ FetchContent_Declare(icspb
FetchContent_MakeAvailable(icspb)
target_link_libraries(icsneocpp PRIVATE icspb::icspb)
# libicsbl
if(LIBICSNEO_ENABLE_BOOTLOADER)
if(NOT LIBICSNEO_LIBICSBL_ZIP_URL)
if(DEFINED ENV{LIBICSNEO_LIBICSBL_ZIP_URL})
set(LIBICSNEO_LIBICSBL_ZIP_URL "$ENV{LIBICSNEO_LIBICSBL_ZIP_URL}")
else()
if(NOT LIBICSNEO_LIBICSBL_ZIP_URL_PREFIX)
if(DEFINED ENV{LIBICSNEO_LIBICSBL_ZIP_URL_PREFIX})
set(LIBICSNEO_LIBICSBL_ZIP_URL_PREFIX "$ENV{LIBICSNEO_LIBICSBL_ZIP_URL_PREFIX}")
else()
set(LIBICSNEO_LIBICSBL_ZIP_URL_PREFIX "https://cdn.intrepidcs.net/libicsbl/5ce699ada0ccaadb92cabda6e3537c09b333020e")
endif()
endif()
if(NOT LIBICSNEO_LIBICSBL_VERSION)
if(DEFINED ENV{LIBICSNEO_LIBICSBL_VERSION})
set(LIBICSNEO_LIBICSBL_VERSION "$ENV{LIBICSNEO_LIBICSBL_VERSION}")
else()
set(LIBICSNEO_LIBICSBL_VERSION "26.4.0")
endif()
endif()
if(WIN32)
if(NOT CMAKE_SIZEOF_VOID_P EQUAL 8 OR CMAKE_CXX_COMPILER_ARCHITECTURE_ID MATCHES "ARM")
message(FATAL_ERROR "Unsupported bootloader architecture: ${CMAKE_CXX_COMPILER_ARCHITECTURE_ID}")
endif()
set(LIBICSNEO_LIBICSBL_ZIP_URL "${LIBICSNEO_LIBICSBL_ZIP_URL_PREFIX}/libicsbl-${LIBICSNEO_LIBICSBL_VERSION}-windows-amd64.zip")
elseif(APPLE)
set(LIBICSNEO_LIBICSBL_ZIP_URL "${LIBICSNEO_LIBICSBL_ZIP_URL_PREFIX}/libicsbl-${LIBICSNEO_LIBICSBL_VERSION}-macos-universal.zip")
else()
if(CMAKE_SYSTEM_PROCESSOR STREQUAL "x86_64")
set(LIBICSNEO_LIBICSBL_ZIP_URL "${LIBICSNEO_LIBICSBL_ZIP_URL_PREFIX}/libicsbl-${LIBICSNEO_LIBICSBL_VERSION}-linux-x86_64-glibc.zip")
elseif(CMAKE_SYSTEM_PROCESSOR STREQUAL "aarch64")
set(LIBICSNEO_LIBICSBL_ZIP_URL "${LIBICSNEO_LIBICSBL_ZIP_URL_PREFIX}/libicsbl-${LIBICSNEO_LIBICSBL_VERSION}-linux-aarch64-glibc.zip")
else()
message(FATAL_ERROR "Unsupported CMAKE_SYSTEM_PROCESSOR: ${CMAKE_SYSTEM_PROCESSOR}")
endif()
endif()
endif()
endif()
FetchContent_Declare(
libicsbl
URL "${LIBICSNEO_LIBICSBL_ZIP_URL}"
)
FetchContent_MakeAvailable(libicsbl)
set(libicsbl_ROOT "${libicsbl_SOURCE_DIR}")
find_package(libicsbl CONFIG REQUIRED)
target_link_libraries(icsneocpp PUBLIC libicsbl::icsbl)
# miniz
add_subdirectory(third-party/miniz)
target_link_libraries(icsneocpp PRIVATE miniz)
endif()
if(LIBICSNEO_BUILD_ICSNEOC)
add_library(icsneoc SHARED api/icsneoc/icsneoc.cpp ${CMAKE_CURRENT_BINARY_DIR}/generated/icsneoc/version.rc)
target_include_directories(icsneoc
@@ -570,10 +506,12 @@ if(LIBICSNEO_BUILD_UNIT_TESTS)
test/unit/a2bencoderdecodertest.cpp
test/unit/mdioencoderdecodertest.cpp
test/unit/livedataencoderdecodertest.cpp
test/unit/macsectest.cpp
test/unit/ringbuffertest.cpp
test/unit/apperrordecodertest.cpp
test/unit/icsneoc2.cpp
test/unit/windowsstrings.cpp
test/unit/ethphyregistertest.cpp
test/unit/tc10test.cpp
test/unit/periodictest.cpp
)
+1 -1
View File
@@ -30,13 +30,13 @@ Instructions for installing each API can be found in its respective documentatio
- neoVI PLASMA
- neoVI RED 2
- RAD-A2B
- RAD-Argos
- RAD-Comet 2
- RAD-Comet 3
- RAD-Epsilon
- RAD-EpsilonXL
- RAD-Galaxy
- RAD-Galaxy 2
- RAD-Gemini
- RAD-Gigastar
- RAD-Gigastar 2
- RAD-Moon 2
+2 -2
View File
@@ -706,7 +706,7 @@ icsneoc2_error_t icsneoc2_settings_t1s_burst_timer_set(icsneoc2_device_t* device
return icsneoc2_error_success;
}
icsneoc2_error_t icsneoc2_settings_t1s_max_burst_timer_for_get(icsneoc2_device_t* device, icsneoc2_netid_t netid, uint8_t* value) {
icsneoc2_error_t icsneoc2_settings_t1s_max_burst_get(icsneoc2_device_t* device, icsneoc2_netid_t netid, uint8_t* value) {
// Make sure the device is valid
auto res = icsneoc2_device_is_valid(device);
if(res != icsneoc2_error_success) {
@@ -725,7 +725,7 @@ icsneoc2_error_t icsneoc2_settings_t1s_max_burst_timer_for_get(icsneoc2_device_t
}
}
icsneoc2_error_t icsneoc2_settings_t1s_max_burst_timer_for_set(icsneoc2_device_t* device, icsneoc2_netid_t netid, uint8_t value) {
icsneoc2_error_t icsneoc2_settings_t1s_max_burst_set(icsneoc2_device_t* device, icsneoc2_netid_t netid, uint8_t value) {
// Make sure the device is valid
auto res = icsneoc2_device_is_valid(device);
if(res != icsneoc2_error_success) {
+12
View File
@@ -117,6 +117,9 @@ static constexpr const char* GPTP_NOT_SUPPORTED = "GPTP clock synchronization is
static constexpr const char* SETTING_NOT_AVAILABLE = "Requested a setting that is not available on this device";
static constexpr const char* DISK_FORMAT_NOT_SUPPORTED = "Disk formatting is not supported on this device.";
static constexpr const char* DISK_FORMAT_INVALID_COUNT = "Disk format config disk count is mismatched with device disk count.";
static constexpr const char* TC10_REQUEST_FAILED = "The device rejected the TC10 request.";
static constexpr const char* FIRMWARE_UPDATE_NOT_SUPPORTED = "Firmware updates are not supported for this device.";
static constexpr const char* FIRMWARE_UPDATE_FAILED = "The firmware update failed.";
// Transport Errors
static constexpr const char* FAILED_TO_READ = "A read operation failed.";
@@ -168,6 +171,7 @@ static constexpr const char* SERVD_POLL_ERROR = "Error polling on Servd socket";
static constexpr const char* SERVD_NODATA_ERROR = "No data received from Servd";
static constexpr const char* SERVD_JOIN_MULTICAST_ERROR = "Error joining Servd multicast group";
static constexpr const char* SERVD_NOT_REACHABLE = "Could not reach Servd; ensure it is installed and running";
static constexpr const char* SERVD_DISABLED = "Servd is disabled via LIBICSNEO_USE_SERVD; no devices will be found";
// DXX
static constexpr const char* DXX_ERROR_SYS = "System error, check errno/GetLastError()";
@@ -381,6 +385,12 @@ const char* APIEvent::DescriptionForType(Type type) {
return DISK_FORMAT_NOT_SUPPORTED;
case Type::DiskFormatInvalidCount:
return DISK_FORMAT_INVALID_COUNT;
case Type::TC10RequestFailed:
return TC10_REQUEST_FAILED;
case Type::FirmwareUpdateNotSupported:
return FIRMWARE_UPDATE_NOT_SUPPORTED;
case Type::FirmwareUpdateFailed:
return FIRMWARE_UPDATE_FAILED;
// VSA
case Type::VSABufferCorrupted:
@@ -442,6 +452,8 @@ const char* APIEvent::DescriptionForType(Type type) {
return SERVD_JOIN_MULTICAST_ERROR;
case Type::ServdNotReachable:
return SERVD_NOT_REACHABLE;
case Type::ServdDisabled:
return SERVD_DISABLED;
// DXX
case Type::DXXErrorSys:
+6 -3
View File
@@ -65,7 +65,6 @@ void EventManager::add(APIEvent event) {
std::lock_guard<std::mutex> eventsLock(eventsMutex);
addEventInternal(event);
} // free the lock so that callbacks may modify events
runCallbacks(event);
} else {
std::lock_guard<std::mutex> errorsLock(errorsMutex);
lastUserErrors[std::this_thread::get_id()] = event;
@@ -75,8 +74,8 @@ void EventManager::add(APIEvent event) {
std::lock_guard<std::mutex> eventsLock(eventsMutex);
addEventInternal(event);
} // free the lock so that callbacks may modify events
runCallbacks(event);
}
runCallbacks(event);
}
void EventManager::addEventInternal(APIEvent event) {
@@ -100,8 +99,12 @@ void EventManager::addEventInternal(APIEvent event) {
}
void EventManager::runCallbacks(APIEvent event) {
std::map<int, icsneo::EventCallback> tempCallbacks;
{
std::lock_guard<std::mutex> lk(callbacksMutex);
for(auto& i : callbacks)
tempCallbacks = callbacks;
}
for(auto& i : tempCallbacks)
i.second.callIfMatch(std::make_shared<APIEvent>(event));
}
+2 -2
View File
@@ -1073,8 +1073,8 @@ int LegacyDLLExport icsneoGetDeviceSettingsType(void* hObject, EPlasmaIonVnetCha
case NEODEVICE_RADMOON3:
*pDeviceSettingsType = DeviceRADMoon3SettingsType;
break;
case NEODEVICE_RADGEMINI:
*pDeviceSettingsType = DeviceRADGeminiSettingsType;
case NEODEVICE_RADARGOS:
*pDeviceSettingsType = DeviceRADArgosSettingsType;
break;
case NEODEVICE_RED2:
*pDeviceSettingsType = DeviceRed2SettingsType;
+13
View File
@@ -26,6 +26,7 @@ pybind11_add_module(icsneopy
icsneopy/communication/message/message.cpp
icsneopy/communication/message/canmessage.cpp
icsneopy/communication/message/canerrormessage.cpp
icsneopy/communication/message/iso15765message.cpp
icsneopy/communication/message/ethernetmessage.cpp
icsneopy/communication/message/linmessage.cpp
icsneopy/communication/message/tc10statusmessage.cpp
@@ -56,6 +57,18 @@ pybind11_add_module(icsneopy
)
target_link_libraries(icsneopy PRIVATE icsneocpp)
if(LIBICSNEO_ENABLE_BOOTLOADER)
target_sources(icsneopy PRIVATE icsneopy/bootloader/bootloader.cpp)
target_compile_definitions(icsneopy PRIVATE ICSNEO_ENABLE_BOOTLOADER)
if(WIN32)
# Windows has no build RPATH; the .pyd only finds DLLs in its own directory
add_custom_command(TARGET icsneopy POST_BUILD
COMMAND "${CMAKE_COMMAND}" -E copy_if_different "$<TARGET_FILE:libicsbl::icsbl>" "$<TARGET_FILE_DIR:icsneopy>"
VERBATIM
)
endif()
endif()
install(TARGETS icsneopy LIBRARY DESTINATION icsneopy)
find_program(STUBGEN_EXE stubgen)
+4
View File
@@ -92,6 +92,9 @@ void init_event(pybind11::module_& m) {
.value("SettingNotAvaiableDevice", APIEvent::Type::SettingNotAvaiableDevice)
.value("DiskFormatNotSupported", APIEvent::Type::DiskFormatNotSupported)
.value("DiskFormatInvalidCount", APIEvent::Type::DiskFormatInvalidCount)
.value("TC10RequestFailed", APIEvent::Type::TC10RequestFailed)
.value("FirmwareUpdateNotSupported", APIEvent::Type::FirmwareUpdateNotSupported)
.value("FirmwareUpdateFailed", APIEvent::Type::FirmwareUpdateFailed)
.value("FailedToRead", APIEvent::Type::FailedToRead)
.value("FailedToWrite", APIEvent::Type::FailedToWrite)
.value("DriverFailedToOpen", APIEvent::Type::DriverFailedToOpen)
@@ -127,6 +130,7 @@ void init_event(pybind11::module_& m) {
.value("ServdNoDataError", APIEvent::Type::ServdNoDataError)
.value("ServdJoinMulticastError", APIEvent::Type::ServdJoinMulticastError)
.value("ServdNotReachable", APIEvent::Type::ServdNotReachable)
.value("ServdDisabled", APIEvent::Type::ServdDisabled)
.value("DXXErrorSys", APIEvent::Type::DXXErrorSys)
.value("DXXErrorInt", APIEvent::Type::DXXErrorInt)
.value("DXXErrorOverflow", APIEvent::Type::DXXErrorOverflow)
@@ -0,0 +1,37 @@
#include <pybind11/pybind11.h>
#include <pybind11/stl.h>
#include <pybind11/functional.h>
#include "icsneo/device/extensions/bootloader/api.h"
#include "icsneo/device/extensions/bootloader/parser/fwloader.h"
namespace icsneo {
struct BootloaderNamespace {};
void init_bootloader(pybind11::module_& m) {
// Dummy class to act as Bootloader namespace
pybind11::classh<BootloaderNamespace> bootloader(m, "Bootloader");
// Opaque handle returned by FWLoader.load and consumed by update
pybind11::classh<Bootloader::FWRepo>(bootloader, "FWRepo");
pybind11::classh<Bootloader::FWLoader>(bootloader, "FWLoader")
.def_static("load", &Bootloader::FWLoader::Load, pybind11::arg("path"), pybind11::call_guard<pybind11::gil_scoped_release>());
bootloader.def_static("update",
[](Device& device, const Bootloader::FWRepo& fw, Bootloader::Logger logger, bool alreadyInBootloader, bool forceFlash) {
if(!logger) {
logger = [](Device::OpenStatusType, const std::string&, std::optional<double>) { return Device::OpenDirective::Continue; };
}
return Bootloader::update(device, fw, logger, alreadyInBootloader, forceFlash);
},
pybind11::arg("device"),
pybind11::arg("fw"),
pybind11::arg("logger") = pybind11::none(),
pybind11::arg("already_in_bootloader") = false,
pybind11::arg("force_flash") = false,
pybind11::call_guard<pybind11::gil_scoped_release>());
}
} // namespace icsneo
@@ -0,0 +1,48 @@
#include <pybind11/pybind11.h>
#include <pybind11/stl.h>
#include "icsneo/communication/message/iso15765message.h"
namespace icsneo {
void init_iso15765message(pybind11::module_& m) {
auto args = pybind11::classh<Iso15765MessageArgs>(m, "Iso15765MessageArgs");
pybind11::classh<Iso15765MessageArgs::ArbId>(args, "ArbId")
.def(pybind11::init<uint32_t, bool>(), pybind11::arg("id") = 0, pybind11::arg("is_29bit") = false)
.def_readwrite("id", &Iso15765MessageArgs::ArbId::Id)
.def_readwrite("is_29bit", &Iso15765MessageArgs::ArbId::Is29Bit);
args.def(pybind11::init<>())
.def_property("tx_index", &Iso15765MessageArgs::getTxIndex, &Iso15765MessageArgs::setTxIndex)
.def_property("arb_id",
[](Iso15765MessageArgs& self) -> Iso15765MessageArgs::ArbId& {
return const_cast<Iso15765MessageArgs::ArbId&>(self.getArbId());
},
&Iso15765MessageArgs::setArbId,
pybind11::return_value_policy::reference_internal)
.def_property("flow_control_arb_id",
[](Iso15765MessageArgs& self) -> Iso15765MessageArgs::ArbId& {
return const_cast<Iso15765MessageArgs::ArbId&>(self.getFlowControlArbId());
},
&Iso15765MessageArgs::setFlowControlArbId,
pybind11::return_value_policy::reference_internal)
.def_property("flow_control_arb_id_mask", &Iso15765MessageArgs::getFlowControlArbIdMask, &Iso15765MessageArgs::setFlowControlArbIdMask)
.def_property("is_can_fd", &Iso15765MessageArgs::getIsCanFd, &Iso15765MessageArgs::setIsCanFd)
.def_property("is_brs_enabled", &Iso15765MessageArgs::getIsBrsEnabled, &Iso15765MessageArgs::setIsBrsEnabled)
.def_property("tx_dl", &Iso15765MessageArgs::getTxDl, &Iso15765MessageArgs::setTxDl)
.def_property("st_min", &Iso15765MessageArgs::getStMin, &Iso15765MessageArgs::setStMin)
.def_property("block_size", &Iso15765MessageArgs::getBlockSize, &Iso15765MessageArgs::setBlockSize)
.def_property("extended_address", &Iso15765MessageArgs::getExtendedAddress, &Iso15765MessageArgs::setExtendedAddress)
.def_property("flow_control_extended_address", &Iso15765MessageArgs::getFlowControlExtendedAddress, &Iso15765MessageArgs::setFlowControlExtendedAddress)
.def_property("padding_value", &Iso15765MessageArgs::getPaddingValue, &Iso15765MessageArgs::setPaddingValue)
.def_property("fs_timeout", &Iso15765MessageArgs::getFsTimeout, &Iso15765MessageArgs::setFsTimeout)
.def_property("fs_wait_timeout", &Iso15765MessageArgs::getFsWaitTimeout, &Iso15765MessageArgs::setFsWaitTimeout)
.def_property("cf_timeout", &Iso15765MessageArgs::getCfTimeout, &Iso15765MessageArgs::setCfTimeout)
.def_property("data",
&Iso15765MessageArgs::getData,
[](Iso15765MessageArgs& self, std::vector<uint8_t> data) { self.setData(std::move(data)); })
.def_property("is_flow_control_enabled", &Iso15765MessageArgs::getIsFlowControlEnabled, &Iso15765MessageArgs::setIsFlowControlEnabled);
}
} // namespace icsneo
@@ -154,7 +154,6 @@ void init_macsecconfig(pybind11::module_ & m)
.def("set_storage", &MACsecConfig::setStorage, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("clear", &MACsecConfig::clear, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("serialize", &MACsecConfig::serialize, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("get_bin_index", &MACsecConfig::getBinIndex, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("get_type", &MACsecConfig::getType, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("get_max_num_rule", &MACsecConfig::getMaxNumRule, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("get_max_num_secy", &MACsecConfig::getMaxNumSecY, pybind11::call_guard<pybind11::gil_scoped_release>())
+2 -1
View File
@@ -134,7 +134,8 @@ void init_chipid(pybind11::module_& m) {
.value("SFPModule_lan8670_MCHIP", ChipID::SFPModule_lan8670_MCHIP)
.value("RADGigastar2_ZYNQ", ChipID::RADGigastar2_ZYNQ)
.value("SFPModule_ent11100_MCHIP", ChipID::SFPModule_ent11100_MCHIP)
.value("RADGemini_MCHIP", ChipID::RADGemini_MCHIP)
.value("RADArgos_MCHIP", ChipID::RADArgos_MCHIP)
.value("SFPModule_ad1101_MCHIP", ChipID::SFPModule_ad1101_MCHIP)
.value("Invalid", ChipID::Invalid)
.finalize();
}
+23 -2
View File
@@ -2,6 +2,7 @@
#include <pybind11/stl.h>
#include <pybind11/functional.h>
#include <pybind11/chrono.h>
#include <pybind11/native_enum.h>
#include "icsneo/device/device.h"
#include "icsneo/device/extensions/deviceextension.h"
@@ -12,7 +13,22 @@
namespace icsneo {
void init_device(pybind11::module_& m) {
pybind11::classh<Device>(m, "Device")
pybind11::classh<Device> device(m, "Device");
pybind11::native_enum<Device::OpenDirective>(device, "OpenDirective", "enum.IntEnum")
.value("Continue", Device::OpenDirective::Continue)
.value("Cancel", Device::OpenDirective::Cancel)
.value("Skip", Device::OpenDirective::Skip)
.finalize();
pybind11::native_enum<Device::OpenStatusType>(device, "OpenStatusType", "enum.IntEnum")
.value("QuestionContinueSkipCancel", Device::OpenStatusType::QuestionContinueSkipCancel)
.value("QuestionContinueCancel", Device::OpenStatusType::QuestionContinueCancel)
.value("Progress", Device::OpenStatusType::Progress)
.value("Failed", Device::OpenStatusType::Failed)
.finalize();
device
.def("__repr__", &Device::describe)
.def("add_message_callback", &Device::addMessageCallback, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("clear_script", &Device::clearScript, pybind11::call_guard<pybind11::gil_scoped_release>())
@@ -34,6 +50,7 @@ void init_device(pybind11::module_& m) {
.def("get_serial", &Device::getSerial)
.def("get_pcb_serial", &Device::getPCBSerial, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("get_mac_addresses", &Device::getMACAddresses, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("get_macsec_networks", &Device::getMACsecNetworks)
.def("get_supported_rx_networks", &Device::getSupportedRXNetworks, pybind11::return_value_policy::reference)
.def("get_supported_tx_networks", &Device::getSupportedTXNetworks, pybind11::return_value_policy::reference)
.def("get_tc10_status", &Device::getTC10Status, pybind11::call_guard<pybind11::gil_scoped_release>())
@@ -44,6 +61,10 @@ void init_device(pybind11::module_& m) {
.def("is_online_supported", &Device::isOnlineSupported)
.def("is_online", &Device::isOnline)
.def("is_open", &Device::isOpen)
.def("iso15765_enable", &Device::iso15765Enable, pybind11::arg("network"), pybind11::call_guard<pybind11::gil_scoped_release>())
.def("iso15765_disable_all", &Device::iso15765DisableAll, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("iso15765_transmit_message", &Device::iso15765TransmitMessage, pybind11::arg("network"), pybind11::arg("message"), pybind11::arg("timeout"), pybind11::call_guard<pybind11::gil_scoped_release>())
.def("iso15765_setup_rx_flow_control", &Device::iso15765SetupRxFlowControl, pybind11::arg("network"), pybind11::arg("message"), pybind11::call_guard<pybind11::gil_scoped_release>())
.def("open", [](Device& device) { return device.open(); }, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("prepare_script_load", &Device::prepareScriptLoad, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("remove_message_callback", &Device::removeMessageCallback, pybind11::call_guard<pybind11::gil_scoped_release>())
@@ -64,7 +85,7 @@ void init_device(pybind11::module_& m) {
.def("set_value_live_data", &Device::setValueLiveData, pybind11::arg("message"), pybind11::call_guard<pybind11::gil_scoped_release>())
.def("transmit", pybind11::overload_cast<std::shared_ptr<Frame>>(&Device::transmit), pybind11::call_guard<pybind11::gil_scoped_release>())
.def("upload_coremini", [](Device& device, std::string& path, Disk::MemoryType memType) { std::ifstream ifs(path, std::ios::binary); return device.uploadCoremini(ifs, memType); }, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("write_macsec_config", &Device::writeMACsecConfig, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("write_macsec_config", &Device::writeMACsecConfig, pybind11::arg("config"), pybind11::arg("network"), pybind11::call_guard<pybind11::gil_scoped_release>())
.def("send_eth_phy_msg", &Device::sendEthPhyMsg, pybind11::arg("message"), pybind11::arg("timeout") = std::chrono::milliseconds(50), pybind11::call_guard<pybind11::gil_scoped_release>())
.def("get_chip_versions", &Device::getChipVersions, pybind11::arg("refreshComponents") = true, pybind11::call_guard<pybind11::gil_scoped_release>())
.def("supports_disk_formatting", &Device::supportsDiskFormatting, pybind11::call_guard<pybind11::gil_scoped_release>())
@@ -38,7 +38,7 @@ void init_devicetype(pybind11::module_& m) {
.value("RADGalaxy2", DeviceType::Enum::RADGalaxy2)
.value("RADwBMS", DeviceType::Enum::RADwBMS)
.value("RADMoon3", DeviceType::Enum::RADMoon3)
.value("RADGemini", DeviceType::Enum::RADGemini)
.value("RADArgos", DeviceType::Enum::RADArgos)
.value("RADComet2", DeviceType::Enum::RADComet2)
.value("FIRE3_FlexRay", DeviceType::Enum::FIRE3_FlexRay)
.value("FIRE3_T1S_LIN", DeviceType::Enum::FIRE3_T1S_LIN)
+8
View File
@@ -15,6 +15,7 @@ void init_devicetype(pybind11::module_&);
void init_message(pybind11::module_&);
void init_canmessage(pybind11::module_&);
void init_canerrormessage(pybind11::module_&);
void init_iso15765message(pybind11::module_&);
void init_ethernetmessage(pybind11::module_&);
void init_linmessage(pybind11::module_&);
void init_tc10statusmessage(pybind11::module_&);
@@ -43,6 +44,9 @@ void init_idevicesettings(pybind11::module_&);
void init_ethphymessage(pybind11::module_&);
void init_livedata(pybind11::module_&);
void init_livedatamessage(pybind11::module_&);
#ifdef ICSNEO_ENABLE_BOOTLOADER
void init_bootloader(pybind11::module_&);
#endif
PYBIND11_MODULE(icsneopy, m) {
pybind11::options options;
@@ -60,6 +64,7 @@ PYBIND11_MODULE(icsneopy, m) {
init_message(m);
init_canmessage(m);
init_canerrormessage(m);
init_iso15765message(m);
init_ethernetmessage(m);
init_linmessage(m);
init_tc10statusmessage(m);
@@ -86,6 +91,9 @@ PYBIND11_MODULE(icsneopy, m) {
init_device(m);
init_deviceextension(m);
init_idevicesettings(m);
#ifdef ICSNEO_ENABLE_BOOTLOADER
init_bootloader(m);
#endif
m.def("find_all_devices", &FindAllDevices);
m.def("get_supported_devices", &GetSupportedDevices);
-18
View File
@@ -1,18 +0,0 @@
#!/bin/sh
VERSION="1.10.5"
ROOT="$PWD/libpcap"
SOURCE="$ROOT/source"
BUILD="$ROOT/build"
INSTALL="$ROOT/install"
mkdir -p "$ROOT"
cd "$ROOT" || exit 1
curl -LO "https://www.tcpdump.org/release/libpcap-$VERSION.tar.xz" || exit 1
tar -xf "libpcap-$VERSION.tar.xz" || exit 1
mv "libpcap-$VERSION" "$SOURCE" || exit 1
cmake -D CMAKE_POSITION_INDEPENDENT_CODE=ON -D CMAKE_INSTALL_PREFIX="$INSTALL" -D BUILD_SHARED_LIBS=OFF -D BUILD_WITH_LIBNL=OFF -D DISABLE_DBUS=ON -D DISABLE_LINUX_USBMON=ON -D DISABLE_BLUETOOTH=ON -D DISABLE_NETMAP=ON -D DISABLE_DPDK=ON -D DISABLE_RDMA=ON -D DISABLE_DAG=ON -D DISABLE_SEPTEL=ON -D DISABLE_SNF=ON -D DISABLE_TC=ON -B "$BUILD" -S "$SOURCE" || exit 1
cmake --build "$BUILD" || exit 1
cmake --install "$BUILD" || exit 1
+1 -1
View File
@@ -1,6 +1,6 @@
#!/bin/sh
cmake -GNinja -Bbuild -DCMAKE_BUILD_TYPE=Release -DLIBICSNEO_BUILD_EXAMPLES=ON -DLIBICSNEO_BUILD_UNIT_TESTS=ON -DLIBICSNEO_ENABLE_TCP=OFF || exit 1
cmake -GNinja -Bbuild -DCMAKE_BUILD_TYPE=Release -DLIBICSNEO_BUILD_EXAMPLES=ON -DLIBICSNEO_BUILD_UNIT_TESTS=ON -DLIBICSNEO_ENABLE_BOOTLOADER=ON || exit 1
cmake --build build || exit 1
+8
View File
@@ -0,0 +1,8 @@
#!/bin/sh
export CIBW_BEFORE_ALL="sh ci/bootstrap-cibuildwheel.sh"
export CIBW_BUILD="*manylinux*" # no musl
export CIBW_ENVIRONMENT="LD_LIBRARY_PATH=/project/fc/libicsbl-src/lib64"
export SKBUILD_CMAKE_DEFINE="LIBICSNEO_ENABLE_BOOTLOADER=ON;ICSPB_BOOTSTRAP_DIR=/project/icspb;FETCHCONTENT_BASE_DIR=/project/fc"
sh ci/build-wheel-posix.sh
+8
View File
@@ -0,0 +1,8 @@
#!/bin/sh
export CIBW_ARCHS="arm64"
export SKBUILD_CMAKE_DEFINE="LIBICSNEO_ENABLE_BOOTLOADER=ON;ICSPB_BOOTSTRAP_DIR=$PWD/icspb;FETCHCONTENT_BASE_DIR=$PWD/fc"
export REPAIR_LIBRARY_PATH="$PWD/fc/libicsbl-src/lib"
export MACOSX_DEPLOYMENT_TARGET="10.14"
sh ci/build-wheel-posix.sh
+3
View File
@@ -3,6 +3,9 @@
call "%VCVARS64_2022%"
set "SKBUILD_CMAKE_DEFINE=LIBICSNEO_ENABLE_BOOTLOADER=ON;ICSPB_BOOTSTRAP_DIR=%CD%\icspb;FETCHCONTENT_BASE_DIR=%CD%\fc"
set "PATH=%CD%\fc\libicsbl-src\bin;%PATH%"
python.exe -m venv env || exit /b 1
call env\Scripts\Activate.bat || exit /b 1
python.exe -m pip install cibuildwheel || exit /b 1
+1 -1
View File
@@ -3,6 +3,6 @@
mkdir build >nul 2>&1
cmake -GNinja -Bbuild -DCMAKE_BUILD_TYPE=Release -DCMAKE_COMPILE_WARNING_AS_ERROR=ON -DLIBICSNEO_BUILD_UNIT_TESTS=ON-DLIBICSNEO_ENABLE_TCP=ON || exit /b 1
cmake -GNinja -Bbuild -DCMAKE_BUILD_TYPE=Release -DCMAKE_COMPILE_WARNING_AS_ERROR=ON -DLIBICSNEO_BUILD_UNIT_TESTS=ON -DLIBICSNEO_ENABLE_BOOTLOADER=ON || exit /b 1
cmake --build build || exit /b 1
-74
View File
@@ -1,74 +0,0 @@
# - Try to find libpcap include dirs and libraries
#
# Usage of this module as follows:
#
# find_package(PCAP)
#
# Variables used by this module, they can change the default behaviour and need
# to be set before calling find_package:
#
# PCAP_ROOT_DIR Set this variable to the root installation of
# libpcap if the module has problems finding the
# proper installation path.
#
# Variables defined by this module:
#
# PCAP_FOUND System has libpcap, include and library dirs found
# PCAP_INCLUDE_DIR The libpcap include directories.
# PCAP_LIBRARY The libpcap library (possibly includes a thread
# library e.g. required by pf_ring's libpcap)
# HAVE_PF_RING If a found version of libpcap supports PF_RING
find_path(PCAP_ROOT_DIR
NAMES include/pcap.h
)
find_path(PCAP_INCLUDE_DIR
NAMES pcap.h
HINTS ${PCAP_ROOT_DIR}/include
)
find_library(PCAP_LIBRARY
NAMES pcap
HINTS ${PCAP_ROOT_DIR}/lib
)
include(FindPackageHandleStandardArgs)
find_package_handle_standard_args(PCAP DEFAULT_MSG
PCAP_LIBRARY
PCAP_INCLUDE_DIR
)
include(CheckCSourceCompiles)
set(CMAKE_REQUIRED_LIBRARIES ${PCAP_LIBRARY})
check_c_source_compiles("int main() { return 0; }" PCAP_LINKS_SOLO)
set(CMAKE_REQUIRED_LIBRARIES)
# check if linking against libpcap also needs to link against a thread library
if (NOT PCAP_LINKS_SOLO)
find_package(Threads)
if (THREADS_FOUND)
set(CMAKE_REQUIRED_LIBRARIES ${PCAP_LIBRARY} ${CMAKE_THREAD_LIBS_INIT})
check_c_source_compiles("int main() { return 0; }" PCAP_NEEDS_THREADS)
set(CMAKE_REQUIRED_LIBRARIES)
endif ()
if (THREADS_FOUND AND PCAP_NEEDS_THREADS)
set(_tmp ${PCAP_LIBRARY} ${CMAKE_THREAD_LIBS_INIT})
list(REMOVE_DUPLICATES _tmp)
set(PCAP_LIBRARY ${_tmp}
CACHE STRING "Libraries needed to link against libpcap" FORCE)
else ()
message(FATAL_ERROR "Couldn't determine how to link against libpcap")
endif ()
endif ()
include(CheckFunctionExists)
set(CMAKE_REQUIRED_LIBRARIES ${PCAP_LIBRARY})
check_function_exists(pcap_get_pfring_id HAVE_PF_RING)
set(CMAKE_REQUIRED_LIBRARIES)
mark_as_advanced(
PCAP_ROOT_DIR
PCAP_INCLUDE_DIR
PCAP_LIBRARY
)
@@ -152,6 +152,7 @@ static std::vector<uint8_t> EncodeFromMessageLIN(std::shared_ptr<Frame> frame, c
linmsg->linMsgType == LINMessage::Type::LIN_UPDATE_RESPONDER) && dataLen > 0;
if(hasData) {
LINMessage::calcChecksum(*linmsg);
// len includes data bytes + 1 checksum byte
linpacket->CoreMiniBitsLIN.len = static_cast<uint16_t>(dataLen + 1);
std::copy(linmsg->data.begin(), linmsg->data.begin() + dataLen, linpacket->data);
+25 -3
View File
@@ -20,7 +20,7 @@ std::shared_ptr<EthPhyMessage> HardwareEthernetPhyRegisterPacket::DecodeToMessag
if(
(PhyPacketVersion == pHeader->version) &&
(sizeof(PhyRegisterPacket_t) == pHeader->entryBytes) &&
(numEntries <= MaxPhyEntries) &&
(numEntries > 0 && numEntries <= MaxPhyEntries) &&
((bytestream.size() - sizeof(PhyRegisterHeader_t))
== (sizeof(PhyRegisterPacket_t) * numEntries))
)
@@ -30,11 +30,16 @@ std::shared_ptr<EthPhyMessage> HardwareEthernetPhyRegisterPacket::DecodeToMessag
for(size_t entryIdx{0}; entryIdx < numEntries; ++entryIdx)
{
const PhyRegisterPacket_t* pEntry = (pFirstEntry + entryIdx);
if(pEntry->version != PhyPacketVersion) {
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return nullptr;
}
auto phyMessage = std::make_shared<PhyMessage>();
phyMessage->Enabled = (pEntry->Enabled != 0u);
phyMessage->WriteEnable = (pEntry->WriteEnable != 0u);
phyMessage->Clause45Enable = (pEntry->Clause45Enable != 0u);
phyMessage->BusIndex = static_cast<uint8_t>(pEntry->BusIndex);
phyMessage->Status = static_cast<uint8_t>(pEntry->status);
phyMessage->Version = static_cast<uint8_t>(pEntry->version);
if(phyMessage->Clause45Enable)
phyMessage->Clause45 = pEntry->clause45;
@@ -43,6 +48,10 @@ std::shared_ptr<EthPhyMessage> HardwareEthernetPhyRegisterPacket::DecodeToMessag
msg->messages.push_back(phyMessage);
}
}
else {
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return nullptr;
}
return msg;
}
@@ -59,7 +68,20 @@ bool HardwareEthernetPhyRegisterPacket::EncodeFromMessage(const EthPhyMessage& m
report(APIEvent::Type::MessageMaxLengthExceeded, APIEvent::Severity::Error);
return false;
}
auto byteSize = (messageCount * sizeof(PhyRegisterPacket_t)) + sizeof(PhyRegisterHeader_t);
// Validate every entry before touching the caller's output or submitting a command.
for(const auto& entry : message.messages) {
if(!entry) {
report(APIEvent::Type::RequiredParameterNull, APIEvent::Severity::Error);
return false;
}
if(entry->BusIndex > 15 || entry->Version != PhyPacketVersion ||
(entry->Clause45Enable ? (entry->Clause45.port > FiveBits || entry->Clause45.device > FiveBits) :
(entry->Clause22.phyAddr > FiveBits || entry->Clause22.regAddr > FiveBits))) {
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return false;
}
}
auto byteSize = bytestream.size() + (messageCount * sizeof(PhyRegisterPacket_t)) + sizeof(PhyRegisterHeader_t);
bytestream.reserve(byteSize);
bytestream.push_back(static_cast<uint8_t>(messageCount & 0xFF));
bytestream.push_back(static_cast<uint8_t>((messageCount >> 8) & 0xFF));
@@ -67,7 +89,7 @@ bool HardwareEthernetPhyRegisterPacket::EncodeFromMessage(const EthPhyMessage& m
bytestream.push_back(static_cast<uint8_t>(sizeof(PhyRegisterPacket_t)));
for(auto& phyMessage : message.messages)
{
PhyRegisterPacket_t tempPacket;
PhyRegisterPacket_t tempPacket{};
tempPacket.Enabled = phyMessage->Enabled ? 0x1u : 0x0u;
tempPacket.WriteEnable = phyMessage->WriteEnable ? 0x1u : 0x0u;
tempPacket.BusIndex = (phyMessage->BusIndex & 0xF);
+2 -6
View File
@@ -231,16 +231,16 @@ MACsecConfig::MACsecConfig(const DeviceType& deviceType) : type(deviceType) {
case icsneo::DeviceType::Enum::RADMoon3:
case icsneo::DeviceType::Enum::RADEpsilon:
case icsneo::DeviceType::Enum::RADGigastar2:
case icsneo::DeviceType::Enum::RADComet2:
case icsneo::DeviceType::Enum::RADComet3:
maxSecY = 2;
maxRule = 2;
maxSa = 4;
binIndex = 0;
break;
default:
maxSecY = 0;
maxSa = 0;
maxRule = 0;
binIndex = 0;
ReportEvent(APIEvent::Type::MACsecNotSupported, APIEvent::Severity::Error);
return;
}
@@ -515,10 +515,6 @@ MACsecConfig::operator bool() const {
return (maxSa != 0) || (maxSecY != 0) || (maxRule != 0);
}
uint16_t MACsecConfig::getBinIndex() const {
return binIndex;
}
DeviceType MACsecConfig::getType() const {
return type;
}
+35 -7
View File
@@ -2053,7 +2053,12 @@ std::optional<EthPhyMessage> Device::sendEthPhyMsg(const EthPhyMessage& message,
}
std::vector<uint8_t> bytes;
HardwareEthernetPhyRegisterPacket::EncodeFromMessage(message, bytes, report);
if(timeout.count() <= 0) {
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return std::nullopt;
}
if(!HardwareEthernetPhyRegisterPacket::EncodeFromMessage(message, bytes, report))
return std::nullopt;
std::shared_ptr<Message> response = com->waitForMessageSync(
[this, bytes](){ return com->sendCommand(Command::PHYControlRegisters, bytes); },
std::make_shared<MessageFilter>(Message::Type::EthernetPhyRegister), timeout);
@@ -3654,7 +3659,7 @@ bool Device::requestTC10Wake(Network::NetID network) {
*(Network::NetID*)args.data() = network;
auto msg = com->waitForMessageSync([&] {
return com->sendCommand(ExtendedCommand::RequestTC10Wake, args);
}, std::make_shared<MessageFilter>(Message::Type::ExtendedResponse), std::chrono::milliseconds(1000));
}, std::make_shared<ExtendedResponseFilter>(ExtendedCommand::RequestTC10Wake), std::chrono::milliseconds(1000));
if(!msg) {
report(APIEvent::Type::NoDeviceResponse, APIEvent::Severity::Error);
@@ -3667,7 +3672,11 @@ bool Device::requestTC10Wake(Network::NetID network) {
return false;
}
return resp->response == ExtendedResponse::OK;
if(resp->response != ExtendedResponse::OK) {
report(APIEvent::Type::TC10RequestFailed, APIEvent::Severity::Error);
return false;
}
return true;
}
bool Device::requestTC10Sleep(Network::NetID network) {
@@ -3679,7 +3688,7 @@ bool Device::requestTC10Sleep(Network::NetID network) {
*(Network::NetID*)args.data() = network;
auto msg = com->waitForMessageSync([&] {
return com->sendCommand(ExtendedCommand::RequestTC10Sleep, args);
}, std::make_shared<MessageFilter>(Message::Type::ExtendedResponse), std::chrono::milliseconds(1000));
}, std::make_shared<ExtendedResponseFilter>(ExtendedCommand::RequestTC10Sleep), std::chrono::milliseconds(1000));
if(!msg) {
report(APIEvent::Type::NoDeviceResponse, APIEvent::Severity::Error);
@@ -3692,7 +3701,11 @@ bool Device::requestTC10Sleep(Network::NetID network) {
return false;
}
return typed->response == ExtendedResponse::OK;
if(typed->response != ExtendedResponse::OK) {
report(APIEvent::Type::TC10RequestFailed, APIEvent::Severity::Error);
return false;
}
return true;
}
bool Device::reboot(bool safe) {
@@ -3761,7 +3774,15 @@ std::optional<GPTPStatus> Device::getGPTPStatus(std::chrono::milliseconds timeou
return *retMsg;
}
bool Device::writeMACsecConfig(const MACsecConfig& cfg) {
std::vector<Network> Device::getMACsecNetworks() const {
std::vector<Network> networks;
for(const auto& network : getMACsecNetworkMap()) {
networks.emplace_back(network.first);
}
return networks;
}
bool Device::writeMACsecConfig(const MACsecConfig& cfg, Network::NetID network) {
if(!cfg) {
report(APIEvent::Type::MACsecNotSupported, APIEvent::Severity::Error);
return false;
@@ -3772,8 +3793,15 @@ bool Device::writeMACsecConfig(const MACsecConfig& cfg) {
return false;
}
const auto& networks = getMACsecNetworkMap();
const auto binaryIndex = networks.find(network);
if(binaryIndex == networks.end()) {
report(APIEvent::Type::MACsecNotSupported, APIEvent::Severity::Error);
return false;
}
std::vector<uint8_t> raw = cfg.serialize();
return writeBinaryFile(raw, cfg.getBinIndex());
return writeBinaryFile(raw, binaryIndex->second);
}
bool Device::enableNetworkCommunication(bool enable, uint32_t timeout) {
+6 -41
View File
@@ -1,29 +1,12 @@
#include "icsneo/device/devicefinder.h"
#include "icsneo/platform/devices.h"
#include "icsneo/device/founddevice.h"
#include "generated/extensions/builtin.h"
#include "icsneo/platform/servd.h"
#ifdef ICSNEO_ENABLE_FIRMIO
#include "icsneo/platform/firmio.h"
#endif
#ifdef ICSNEO_ENABLE_RAW_ETHERNET
#include "icsneo/platform/pcap.h"
#endif
#ifdef ICSNEO_ENABLE_CDCACM
#include "icsneo/platform/cdcacm.h"
#endif
#ifdef ICSNEO_ENABLE_DXX
#include "icsneo/platform/dxx.h"
#endif
#ifdef ICSNEO_ENABLE_TCP
#include "icsneo/platform/tcp.h"
#endif
using namespace icsneo;
template<typename T>
@@ -56,22 +39,8 @@ std::vector<std::shared_ptr<Device>> DeviceFinder::FindAll() {
} else {
#ifdef ICSNEO_ENABLE_FIRMIO
FirmIO::Find(newDriverFoundDevices);
#endif
#ifdef ICSNEO_ENABLE_TCP
TCP::Find(newDriverFoundDevices);
#endif
#ifdef ICSNEO_ENABLE_RAW_ETHERNET
PCAP::Find(newDriverFoundDevices);
#endif
#ifdef ICSNEO_ENABLE_CDCACM
CDCACM::Find(newDriverFoundDevices);
#endif
#ifdef ICSNEO_ENABLE_DXX
DXX::Find(newDriverFoundDevices);
#else
EventManager::GetInstance().add(APIEvent::Type::ServdDisabled, APIEvent::Severity::EventWarning);
#endif
}
@@ -221,8 +190,8 @@ std::vector<std::shared_ptr<Device>> DeviceFinder::FindAll() {
makeIfSerialMatches<RADMoon3>(dev, newFoundDevices);
#endif
#ifdef __RADGEMINI_H_
makeIfSerialMatches<RADGemini>(dev, newFoundDevices);
#ifdef __RADARGOS_H_
makeIfSerialMatches<RADArgos>(dev, newFoundDevices);
#endif
#ifdef __RADMOONDUO_H_
@@ -274,10 +243,6 @@ std::vector<std::shared_ptr<Device>> DeviceFinder::FindAll() {
#endif
}
for(auto& device : newFoundDevices) {
AddBuiltInExtensionsTo(device);
}
// Grab a weak pointer from the new devices
foundDevices.insert(foundDevices.end(), newFoundDevices.begin(), newFoundDevices.end());
@@ -388,8 +353,8 @@ const std::vector<DeviceType>& DeviceFinder::GetSupportedDevices() {
RADMoon3::DEVICE_TYPE,
#endif
#ifdef __RADGEMINI_H_
RADGemini::DEVICE_TYPE,
#ifdef __RADARGOS_H_
RADArgos::DEVICE_TYPE,
#endif
#ifdef __RADMOONDUO_H_
+366
View File
@@ -0,0 +1,366 @@
#include "icsneo/device/extensions/bootloader/api.h"
#include "icsneo/device/extensions/bootloader/communication/radcommunication.h"
#include "icsneo/device/extensions/bootloader/communication/radmultichipcommunication.h"
#include "icsneo/device/extensions/bootloader/communication/radperiphcommunication.h"
#include "icsneo/device/extensions/bootloader/communication/redcore.h"
#include "icsneo/device/extensions/bootloader/communication/red.h"
#include "icsneo/device/extensions/bootloader/communication/application.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include "icsneo/communication/message/resetstatusmessage.h"
#include "icsneo/api/lifetime.h"
#include <algorithm>
#include <chrono>
#include <set>
#include <thread>
#include <unordered_set>
using namespace icsneo;
using namespace icsneo::Bootloader;
static std::unique_ptr<Bootloader::Communication> getCommunication(
icsneo::Device& device, const FlashPhase& phase, const ChipInfo& chip
) {
switch(phase.comm) {
case BootloaderCommunication::Application:
return std::make_unique<Application>(device, chip, phase.authenticate, phase.encrypt);
case BootloaderCommunication::RED:
return std::make_unique<REDCommunication>(device, chip, phase.authenticate, phase.encrypt);
case BootloaderCommunication::REDCore:
return std::make_unique<REDCoreCommunication>(device, chip);
case BootloaderCommunication::RAD:
return std::make_unique<RADCommunication>(device, chip);
case BootloaderCommunication::RADMultiChip:
return std::make_unique<RADMultiChipCommunication>(device, chip, phase.authenticate, phase.slot);
case BootloaderCommunication::RADGalaxy2Peripheral:
return std::make_unique<RADPeriphCommunication>(device, chip);
case BootloaderCommunication::Invalid:
break;
}
return nullptr;
}
static bool findInfo(icsneo::Device& device, ChipID chip, ChipInfo& info) {
const auto& allInfo = device.getChipInfo();
auto iter = std::find_if(allInfo.begin(), allInfo.end(), [chip](const auto& candidate) { return candidate.id == chip; });
if(iter == allInfo.end()) {
return false;
}
info = *iter;
return true;
}
static const FlashPhase* findCorrespondingFlashPhase(const BootloaderPipeline& pipeline, ChipID chip) {
for(const auto& phase : pipeline.phases) {
if(phase->getType() == BootloaderPhase::Type::Flash) {
const auto* flashPhase = static_cast<const FlashPhase*>(phase.get());
if(flashPhase->chip == chip) {
return flashPhase;
}
}
}
return nullptr;
}
static std::string chipString(ChipID chip) {
return "chip id: " + std::to_string(static_cast<int>(chip));
}
bool Bootloader::requiresUpdate(icsneo::Device& device, const FWRepo& fw) {
const auto versions = device.getChipVersions();
for(const auto& info : device.getChipInfo()) {
if(!info.defaultEnabled || !info.iefName) {
continue;
}
auto iter = std::find_if(versions.begin(), versions.end(), [&info](const auto& ver) { return ver.id == info.id; });
if(iter == versions.end()) {
continue;
}
auto ver = fw.getChipVersion(info.iefName);
if(ver && *ver != iter->makeAppVersion()) {
return true;
}
}
return false;
}
/**
* Open the communication, run the action, then close it
*/
template<typename Action>
static bool withCommunication(Bootloader::Communication* com, const ChipInfo& info, const char* phaseName, Action action) {
if(!com) {
Log::Error(phaseName, "no bootloader communication for " + chipString(info.id));
return false;
}
if(!com->open()) {
Log::Error(phaseName, "failed to open communication for " + chipString(info.id));
return false;
}
if(!action(*com)) {
return false;
}
if(!com->close()) {
Log::Error(phaseName, "failed to close communication for " + chipString(info.id));
return false;
}
return true;
}
static bool runPipeline(
icsneo::Device& device,
const BootloaderPipeline& pipeline,
const FWRepo& fw,
const Logger& logger,
bool alreadyInBootloader,
bool forceFlash
) {
icsneo::Lifetime suppressHeartbeats = device.suppressDisconnects();
const auto versions = device.getChipVersions();
std::unordered_set<icsneo::ChipID> chipsFlashed;
bool updateAll = false;
if(auto iter = pipeline.settings.find(BootloaderSetting::UpdateAll); iter != pipeline.settings.end()) {
updateAll = std::get<bool>(iter->second);
}
for(const auto& phase : pipeline.phases) {
switch(phase->getType()) {
case BootloaderPhase::Type::EnterBootloader: {
if(alreadyInBootloader) {
Log::Trace("EnterBootloaderPhase", "device already in bootloader, skipping");
break;
}
Log::Info("EnterBootloaderPhase", "entering bootloader");
if(!enterBootloader(device)) {
Log::Error("EnterBootloaderPhase", "failed to enter bootloader");
return false;
}
break;
}
case BootloaderPhase::Type::Flash: {
const auto& flashPhase = static_cast<const FlashPhase&>(*phase);
Log::Info("FlashPhase", "started for " + chipString(flashPhase.chip));
ChipInfo info;
if(!findInfo(device, flashPhase.chip, info)) {
Log::Error("FlashPhase", "failed to find chip info for " + chipString(flashPhase.chip));
return false;
}
const auto sourceVer = info.iefName ? fw.getChipVersion(info.iefName) : std::nullopt;
if(!sourceVer) {
Log::Trace("FlashPhase", "skipped, no source version for " + chipString(flashPhase.chip));
break;
}
if(!updateAll && !forceFlash) {
auto iter = std::find_if(versions.begin(), versions.end(), [&info](const auto& ver) { return ver.id == info.id; });
if(iter == versions.end()) {
Log::Trace("FlashPhase", "skipped, chip not reported by the device, " + chipString(flashPhase.chip));
break;
}
if(iter->makeAppVersion() == *sourceVer) {
Log::Trace("FlashPhase", "skipped, chip already at target version, " + chipString(flashPhase.chip));
break;
}
}
auto com = getCommunication(device, flashPhase, info);
if(!withCommunication(com.get(), info, "FlashPhase", [&](Bootloader::Communication& opened) {
if(!opened.flash(fw, logger)) {
Log::Error("FlashPhase", "failed to flash " + chipString(flashPhase.chip));
return false;
}
return true;
})) {
return false;
}
chipsFlashed.insert(info.id);
Log::Info("FlashPhase", "completed successfully for " + chipString(flashPhase.chip));
break;
}
case BootloaderPhase::Type::Finalize: {
const auto& finalizePhase = static_cast<const FinalizePhase&>(*phase);
if(!chipsFlashed.count(finalizePhase.chip)) {
Log::Trace("FinalizePhase", "skipped, chip not flashed, " + chipString(finalizePhase.chip));
break;
}
Log::Info("FinalizePhase", "started for " + chipString(finalizePhase.chip));
const FlashPhase* flashPhase = findCorrespondingFlashPhase(pipeline, finalizePhase.chip);
ChipInfo info;
if(!flashPhase || !findInfo(device, finalizePhase.chip, info)) {
// Should never happen (developer error)
Log::Error("FinalizePhase", "no flash phase or chip info for " + chipString(finalizePhase.chip));
return false;
}
auto com = getCommunication(device, *flashPhase, info);
if(com && !com->hasFinalizationStep()) {
Log::Trace("FinalizePhase", "skipped, no finalization step for " + chipString(finalizePhase.chip));
break;
}
if(!withCommunication(com.get(), info, "FinalizePhase", [&](Bootloader::Communication& opened) {
if(!opened.finalize()) {
Log::Error("FinalizePhase", "failed to finalize " + chipString(finalizePhase.chip));
return false;
}
return true;
})) {
return false;
}
Log::Info("FinalizePhase", "completed successfully for " + chipString(finalizePhase.chip));
break;
}
case BootloaderPhase::Type::Reconnect: {
Log::Info("ReconnectPhase", "reconnecting to device");
if(!device.reconnect(std::chrono::milliseconds(60000))) {
Log::Error("ReconnectPhase", "failed to reconnect to device");
return false;
}
break;
}
case BootloaderPhase::Type::Wait: {
const auto& waitPhase = static_cast<const WaitPhase&>(*phase);
Log::Trace("WaitPhase", "waiting " + std::to_string(waitPhase.timeout.count()) + "ms");
std::this_thread::sleep_for(waitPhase.timeout);
break;
}
case BootloaderPhase::Type::EnterApplication: {
const auto& enterAppPhase = static_cast<const EnterApplicationPhase&>(*phase);
if(!chipsFlashed.count(enterAppPhase.chip)) {
Log::Trace("EnterApplicationPhase", "skipped, chip not flashed, " + chipString(enterAppPhase.chip));
break;
}
Log::Info("EnterApplicationPhase", "started for " + chipString(enterAppPhase.chip));
const FlashPhase* flashPhase = findCorrespondingFlashPhase(pipeline, enterAppPhase.chip);
ChipInfo info;
if(!flashPhase || !findInfo(device, enterAppPhase.chip, info)) {
// Should never happen (developer error)
Log::Error("EnterApplicationPhase", "no flash phase or chip info for " + chipString(enterAppPhase.chip));
return false;
}
auto com = getCommunication(device, *flashPhase, info);
if(!withCommunication(com.get(), info, "EnterApplicationPhase", [&](Bootloader::Communication& opened) {
if(!opened.enterApplication()) {
Log::Error("EnterApplicationPhase", "failed to enter application for " + chipString(enterAppPhase.chip));
return false;
}
return true;
})) {
return false;
}
Log::Info("EnterApplicationPhase", "completed successfully for " + chipString(enterAppPhase.chip));
break;
}
}
}
return exitBootloader(device, logger, !chipsFlashed.empty());
}
bool Bootloader::update(
icsneo::Device& device,
const FWRepo& fw,
Logger logger,
bool alreadyInBootloader,
bool forceFlash
) {
const auto pipeline = device.getBootloader();
if(!pipeline) {
device.getEventHandler()(APIEvent::Type::FirmwareUpdateNotSupported, APIEvent::Severity::Error);
return false;
}
if(!runPipeline(device, pipeline, fw, logger, alreadyInBootloader, forceFlash)) {
device.getEventHandler()(APIEvent::Type::FirmwareUpdateFailed, APIEvent::Severity::Error);
return false;
}
return true;
}
bool Bootloader::enterBootloader(icsneo::Device& device) {
if(!device.com->sendCommand(icsneo::Command::EnterBootloader)) {
return false;
}
return device.reconnect(std::chrono::milliseconds(30000));
}
bool Bootloader::exitBootloader(icsneo::Device& device, Logger logger, bool updatedChips) {
if(!updatedChips) {
return true;
}
logger(icsneo::Device::OpenStatusType::Progress, "Connecting to the device...", std::nullopt);
return verifyConnection(device, logger);
}
/**
* Toggle network communication and wait up to 5 seconds for a reset status confirming the change.
* Like icsneo::Device::goOnline(), a timeout is not an error.
*/
static bool setCommunicationEnabled(icsneo::Device& device, const Logger& logger, bool enable, double progressStart) {
static constexpr std::chrono::seconds Timeout(5);
const auto filter = std::make_shared<MessageFilter>(Message::Type::ResetStatus);
if(!device.com->sendCommand(Command::EnableNetworkCommunication, enable)) {
return false;
}
device.com->sendCommand(Command::UpdateLEDState, std::vector<uint8_t>({uint8_t(enable ? 0x10 : 0x04)}));
const auto startTime = std::chrono::steady_clock::now();
auto elapsedTime = std::chrono::duration<double>(0);
while(elapsedTime < Timeout) {
bool failOut = false;
auto msg = device.com->waitForMessageSync([&device, &failOut]() {
if(!device.com->sendCommand(Command::RequestStatusUpdate)) {
failOut = true;
return false;
}
return true;
}, filter, std::chrono::milliseconds(100));
if(failOut) {
return false;
}
if(msg && std::static_pointer_cast<icsneo::ResetStatusMessage>(msg)->comEnabled == enable) {
break;
}
// Each call covers half of the overall progress
logger(icsneo::Device::OpenStatusType::Progress, "Connecting to the device...", progressStart + (elapsedTime / Timeout) / 2.0);
elapsedTime = std::chrono::steady_clock::now() - startTime;
}
logger(icsneo::Device::OpenStatusType::Progress, "Connecting to the device...", progressStart + 0.5);
return true;
}
bool Bootloader::verifyConnection(icsneo::Device& device, Logger logger) {
// Firmware needs to confirm the update by verifying that it can enable/disable the connection on the device
return setCommunicationEnabled(device, logger, true, 0.0) && setCommunicationEnabled(device, logger, false, 0.5);
}
bool Bootloader::isSFPChip(const icsneo::Bootloader::Chip& chip) {
static const std::set<icsneo::ChipID> sfpChipIDs = {
icsneo::ChipID::SFPModule_88q2112_MCHIP,
icsneo::ChipID::SFPModule_88q2221_MCHIP,
icsneo::ChipID::SFPModule_88q3244_MCHIP,
icsneo::ChipID::SFPModule_ent11100_MCHIP,
icsneo::ChipID::SFPModule_lan8670_MCHIP,
icsneo::ChipID::SFPModule_ad1101_MCHIP,
};
return sfpChipIDs.find(chip.getID()) != sfpChipIDs.end();
}
bool Bootloader::isSFPIEF(const icsneo::Bootloader::IEF& ief) {
static const std::set<icsneo::Device::ProductID> sfpProductIDs = {
icsneo::Device::ProductID::SFPModule_88q2112,
icsneo::Device::ProductID::SFPModule_88q2221m,
icsneo::Device::ProductID::SFPModule_88q4364,
icsneo::Device::ProductID::SFPModule_ent11100,
icsneo::Device::ProductID::SFPModule_lan8670,
icsneo::Device::ProductID::SFPModule_ad1101,
};
return sfpProductIDs.find(static_cast<icsneo::Device::ProductID>(ief.getVersion().prodId)) != sfpProductIDs.end();
}
@@ -0,0 +1,407 @@
#include "icsneo/device/extensions/bootloader/communication/application.h"
#include "icsneo/device/extensions/bootloader/parser/fwrepo.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include "icsneo/device/extensions/bootloader/api.h"
#include "icsneo/communication/message/extendedresponsemessage.h"
#include "icsneo/communication/message/main51message.h"
#include <algorithm>
#include <condition_variable>
#include <cstring>
#include <limits>
#include <mutex>
#include <optional>
#include <thread>
#include <icsbl/icsbl.h>
namespace icsneo {
namespace Bootloader {
bool Application::enterApplication() {
// Always reboot
Log::Info(__func__, "sending reboot command");
bool ok = device.com->sendCommand(icsneo::ExtendedCommand::Reboot);
if(!ok) {
Log::Error(__func__, "reboot command failed");
}
return ok;
}
bool Application::finalize() {
Log::Debug(__func__, "sending finalize command");
bool ok = sendCommand(Update::Finalize, [](double) {});
if(!ok) {
Log::Error(__func__, "finalize command failed");
}
return ok;
}
bool Application::flash(const FWRepo& fw, const icsneo::Device::OpenStatusHandler& handler) {
Log::Info(__func__, "starting flash for " + targetChip.getName());
const auto& srcVer = fw.getVersion();
std::vector<uint8_t> bin;
if(!fw.getFW(targetChip.getIEFName(), bin)) {
Log::Error(__func__, "failed to get firmware for " + targetChip.getIEFName());
return false;
}
IEF ief;
if(!ief.load(std::move(bin))) {
Log::Error(__func__, "failed to load IEF for " + targetChip.getName());
return false;
}
auto currentString = "Preparing to update " + targetChip.getName() + "...";
handler(icsneo::Device::OpenStatusType::Progress, currentString, std::nullopt);
// The supplied IEF is not for this product
if(ief.getVersion().prodId != static_cast<uint8_t>(device.getProductID())) {
Log::Error(__func__, "IEF product ID mismatch for " + targetChip.getName());
return false;
}
// The supplied IEF is for this product, but not for this chip
if(ief.getVersion().chipId != static_cast<uint8_t>(targetChip.getID())) {
Log::Error(__func__, "IEF chip ID mismatch for " + targetChip.getName());
return false;
}
if(doAuthChecks) {
if(!authenticate()) {
Log::Error(__func__, "authentication failed for " + targetChip.getName());
return false;
}
// Tell the application software what version of Vehicle Spy 3 this firmware is from.
// We check to make sure it approves, but also, the device will not accept new firmware
// if we have not sent this.
// Sometimes new hardware revisions can not accept firmware which is too old.
if(!sendCommand(Update::CheckVersion, [](double) {}, 0, {srcVer.major, srcVer.minor, srcVer.release, srcVer.build})) {
Log::Error(__func__, "version check failed for " + targetChip.getName());
return false;
}
}
bool ok = sendSoftware(ief.getSectors(), ief.getBlockSize(), handler);
if(!ok) {
Log::Error(__func__, "sendSoftware failed for " + targetChip.getName());
}
return ok;
}
bool Application::authenticate() {
icsbl_seed_v1 seed = {};
if(!icsbl_generate_seed_v1(device.getSerialNumber(), &seed)) {
Log::Error(__func__, "libicsbl could not generate an authentication challenge");
return false;
}
// Send the challenge (seed.a), the device replies with seed.b and one trailing byte
std::vector<uint8_t> cmdArgs(sizeof(seed.a));
writeLE32(cmdArgs.data(), seed.a[0]);
writeLE32(cmdArgs.data() + 4, seed.a[1]);
auto filter = std::make_shared<icsneo::MessageFilter>(icsneo::Message::Type::Main51);
auto msg = device.com->waitForMessageSync([&] {
return device.com->sendCommand(icsneo::Command::ValidateDevice, cmdArgs);
}, filter, std::chrono::milliseconds(200));
if(!msg) {
Log::Error(__func__, "No response from the device");
return false;
}
auto main51Msg = std::static_pointer_cast<icsneo::Main51Message>(msg);
if(main51Msg->data.size() != sizeof(seed.b) + 1) {
Log::Error(__func__, "Unexpected authentication reply size from the device");
return false;
}
const bool authenticated = readLE32(main51Msg->data.data()) == seed.b[0] && readLE32(main51Msg->data.data() + 4) == seed.b[1];
if(!authenticated) {
Log::Error(__func__, "The authentication reply does not match, the device did not authenticate");
}
return authenticated;
}
bool Application::validateFirmware(const DeviceAppVersion& chipSrcVer) {
return sendCommand(Update::CheckComponentVersion, [](double) {}, 0, {chipSrcVer.major, chipSrcVer.minor});
}
bool Application::sendSoftware(const std::vector<uint8_t>& bin, const icsneo::Device::OpenStatusHandler& handler) {
Log::Debug(__func__, "starting for " + targetChip.getName() + " (" + std::to_string(bin.size()) + " bytes)");
auto currentString = "Preparing to update " + targetChip.getName() + "...";
handler(icsneo::Device::OpenStatusType::Progress, currentString, std::nullopt);
if(bin.empty() || bin.size() > std::numeric_limits<uint32_t>::max()) {
Log::Error(__func__, "invalid firmware size for " + targetChip.getName());
return false;
}
const uint32_t totalSize = static_cast<uint32_t>(bin.size());
Log::Debug(__func__, "erasing " + targetChip.getName());
if(!sendCommand(Update::Erase, 0, totalSize, [&](double progress) {
handler(icsneo::Device::OpenStatusType::Progress, currentString, progress);
}, std::chrono::milliseconds(45000))) {
Log::Error(__func__, "erase failed for " + targetChip.getName());
return false;
}
currentString = "Updating " + targetChip.getName() + "...";
handler(icsneo::Device::OpenStatusType::Progress, currentString, std::nullopt);
const uint32_t stepSize = std::min<uint32_t>(totalSize, 2048);
uint32_t bytesTransferred = 0;
while(bytesTransferred < totalSize) {
const uint32_t bytesToSend = std::min(stepSize, totalSize - bytesTransferred);
if(!sendCommand(Update::Write, [](double) {}, bytesTransferred, { bin.begin() + bytesTransferred, bin.begin() + bytesTransferred + bytesToSend})) {
Log::Error(__func__, "write failed at offset " + std::to_string(bytesTransferred) + " for " + targetChip.getName());
return false;
}
bytesTransferred += bytesToSend;
handler(icsneo::Device::OpenStatusType::Progress, currentString, double(bytesTransferred) / totalSize);
}
Log::Debug(__func__, "write complete, validating " + targetChip.getName());
if(!validateComponent()) {
Log::Error(__func__, "validation failed for " + targetChip.getName());
return false;
}
Log::Debug(__func__, "completed successfully for " + targetChip.getName());
return true;
}
bool Application::sendSoftware(const std::vector<IEF::Sector>& sectorPairs, uint32_t blockSize, const icsneo::Device::OpenStatusHandler& handler) {
if(sectorPairs.empty()) {
Log::Error(__func__, "no sectors to flash for " + targetChip.getName());
return false;
}
Log::Debug(__func__, "starting for " + targetChip.getName() + " (" + std::to_string(sectorPairs.size()) + " sectors)");
auto currentString = "Preparing to update " + targetChip.getName() + "...";
handler(icsneo::Device::OpenStatusType::Progress, currentString, std::nullopt);
uint64_t totalSize = 0;
for(const auto& sector : sectorPairs) {
totalSize += sector.second.size();
}
if(totalSize > std::numeric_limits<uint32_t>::max()) {
Log::Error(__func__, "total size too large for " + targetChip.getName());
return false;
}
if(totalSize == 0) {
Log::Error(__func__, "total size is 0 for " + targetChip.getName());
return false;
}
Log::Debug(__func__, "erasing " + targetChip.getName() + " (" + std::to_string(totalSize) + " bytes)");
if(!sendCommand(Update::Erase, 0, static_cast<uint32_t>(totalSize), [&](double progress) {
handler(icsneo::Device::OpenStatusType::Progress, currentString, progress);
}, std::chrono::milliseconds(45000))) {
Log::Error(__func__, "erase failed for " + targetChip.getName());
return false;
}
if(isSFPChip(targetChip)) {
// SFPs are not ready to write until 4 seconds after finishing erasing (for some reason)
Log::Trace(__func__, "SFP chip detected, waiting 4000ms after erase");
std::this_thread::sleep_for(std::chrono::milliseconds(4000));
}
currentString = "Updating " + targetChip.getName() + "...";
handler(icsneo::Device::OpenStatusType::Progress, currentString, std::nullopt);
uint32_t bytesTransferred = 0;
for(const auto& pair : sectorPairs) {
const auto& rawData = pair.second;
const uint32_t offset = pair.first * blockSize;
std::vector<uint8_t> processedData(rawData.begin(), rawData.end());
if(encrypted) {
if(rawData.size() % 8 != 0) {
Log::Error(__func__, "raw data size not aligned");
return false;
}
icsbl_encrypt_v1(device.getSerialNumber(), rawData.data(), rawData.size(), processedData.data());
}
if(!sendCommand(Update::Write, [](double) {}, offset, processedData)) {
Log::Error(__func__, "write failed at offset " + std::to_string(offset) + " for " + targetChip.getName());
return false;
}
bytesTransferred += static_cast<uint32_t>(rawData.size());
handler(icsneo::Device::OpenStatusType::Progress, currentString, double(bytesTransferred) / double(totalSize));
}
Log::Debug(__func__, "write complete, validating " + targetChip.getName());
bool ok = validateComponent();
if(!ok) {
Log::Error(__func__, "validation failed for " + targetChip.getName());
}
else {
Log::Debug(__func__, "completed successfully for " + targetChip.getName());
}
return ok;
}
bool Application::validateComponent() {
Log::Debug(__func__, "validating " + targetChip.getName());
bool ok = sendCommand(Update::ValidateComponent, [](double) {}, 0, {}, std::chrono::milliseconds(45000));
if(!ok) {
Log::Error(__func__, "validation failed for " + targetChip.getName());
}
return ok;
}
/**
* Send one SoftwareUpdate sub-command and wait for it to complete.
*
* The device answers the request with OK when it is already done, or OperationPending when it will
* finish later. For a pending command we poll Update::GetProgress (except for Write and
* ValidateComponent, which do not report progress) until the device sends a final OK or the timeout
* passes. Progress replies are OperationPending with a SoftwareUpdateCommandHeader whose
* commandSizeOrProgress holds the progress so far, or a GenericReturn with no progress.
*/
bool Application::sendCommand(Update command, uint32_t offset, uint32_t length, const StatusHandler& handler, std::chrono::milliseconds timeout, std::vector<uint8_t> args) {
bool finishedResponse = false;
std::condition_variable finishedResponseCV;
std::mutex finishedResponseMutex;
std::optional<uint32_t> progress;
std::condition_variable progressCV;
std::mutex progressMutex;
bool firstResponse = true;
// Register the callback before sending the command, so that if it goes from pending to finished quickly we will still catch it
const auto callback = std::make_shared<icsneo::MessageCallback>(std::make_shared<icsneo::MessageFilter>(icsneo::Message::Type::ExtendedResponse), [&](std::shared_ptr<icsneo::Message> msg) {
if(firstResponse) {
firstResponse = false;
return true; // let waitForMessageSync handle the first message
}
auto extMsg = std::static_pointer_cast<ExtendedResponseMessage>(msg);
if(extMsg->command != ExtendedCommand::SoftwareUpdate) {
Log::Error(__func__, "Got an extended response for a command other than SoftwareUpdate");
return false;
}
if(extMsg->response == ExtendedResponse::OK) {
{
std::scoped_lock lk(finishedResponseMutex);
finishedResponse = true;
}
finishedResponseCV.notify_one();
} else if(extMsg->response == ExtendedResponse::OperationPending) {
if(extMsg->data.size() < sizeof(ExtendedResponseMessage::ResponseHeader)) {
Log::Error(__func__, "The pending response is too short to contain a header");
return false;
}
ExtendedResponseMessage::ResponseHeader respHeader;
std::memcpy(&respHeader, extMsg->data.data(), sizeof(respHeader));
if(respHeader.command == ExtendedCommand::SoftwareUpdate) {
if(respHeader.length != sizeof(SoftwareUpdateCommandHeader) ||
extMsg->data.size() < sizeof(ExtendedResponseMessage::ResponseHeader) + sizeof(SoftwareUpdateCommandHeader)) {
Log::Error(__func__, "The progress response does not contain a SoftwareUpdate header");
return false;
}
SoftwareUpdateCommandHeader resp;
std::memcpy(&resp, extMsg->data.data() + sizeof(ExtendedResponseMessage::ResponseHeader), sizeof(resp));
{
std::scoped_lock lk(progressMutex);
progress.emplace(resp.commandSizeOrProgress);
}
progressCV.notify_one();
} else if(respHeader.command == ExtendedCommand::GenericReturn) {
// No progress information, the final OK comes later
{
std::scoped_lock lk(progressMutex);
progress.emplace(0);
}
progressCV.notify_one();
} else {
Log::Error(__func__, "The pending response is for an unexpected command");
return false;
}
} else {
Log::Error(__func__, "The device reported an error for the SoftwareUpdate command");
return false;
}
return true;
});
const auto finishedCallbackHandle = device.com->addMessageCallback(callback);
Lifetime statusCallbackCleanup([&] {
device.com->removeMessageCallback(finishedCallbackHandle);
});
SoftwareUpdateCommandHeader header = {};
header.componentIdentifier = static_cast<uint32_t>(targetChip.getID());
header.commandType = command;
header.offset = offset;
header.commandSizeOrProgress = length;
header.expansionSlot = targetChip.expansionSlot;
const auto headerBytes = reinterpret_cast<const uint8_t*>(&header);
args.insert(args.begin(), headerBytes, headerBytes + sizeof(header));
{
auto msg = device.com->waitForMessageSync([&] {
return device.com->sendCommand(ExtendedCommand::SoftwareUpdate, args);
}, std::make_shared<icsneo::MessageFilter>(icsneo::Message::Type::ExtendedResponse), timeout);
if(!msg) {
Log::Error(__func__, "No response to the SoftwareUpdate command");
return false;
}
auto extMsg = std::static_pointer_cast<ExtendedResponseMessage>(msg);
if(extMsg->command != ExtendedCommand::SoftwareUpdate) {
Log::Error(__func__, "Got an extended response for a command other than SoftwareUpdate");
return false;
}
if(extMsg->response == ExtendedResponse::OK) {
return true;
}
if(extMsg->response != ExtendedResponse::OperationPending) {
Log::Error(__func__, "The device rejected the SoftwareUpdate command");
return false;
}
}
SoftwareUpdateCommandHeader progressHeader = {};
progressHeader.componentIdentifier = static_cast<uint32_t>(targetChip.getID());
progressHeader.commandType = Update::GetProgress;
progressHeader.expansionSlot = targetChip.expansionSlot;
const auto progressHeaderBytes = reinterpret_cast<const uint8_t*>(&progressHeader);
const std::vector<uint8_t> progressArgs(progressHeaderBytes, progressHeaderBytes + sizeof(progressHeader));
const auto deadline = std::chrono::steady_clock::now() + timeout;
// Write and ValidateComponent do not report progress, just wait for the final OK
if(command != Update::Write && command != Update::ValidateComponent) {
while(std::chrono::steady_clock::now() < deadline) {
{
std::unique_lock lk(progressMutex);
progress.reset();
if(!device.com->sendCommand(ExtendedCommand::SoftwareUpdate, progressArgs)) {
Log::Error(__func__, "Failed to send progress request to the device");
return false;
}
if(!progressCV.wait_for(lk, std::chrono::milliseconds(5000), [&]{ return progress.has_value(); })) {
Log::Error(__func__, "No progress response from device");
return false;
}
handler(*progress / double(length));
}
{
std::scoped_lock lk(finishedResponseMutex);
if(finishedResponse) {
break;
}
}
}
}
std::unique_lock lk(finishedResponseMutex);
return finishedResponseCV.wait_until(lk, deadline, [&]{ return finishedResponse; });
}
} // namespace Bootloader
} // namespace icsneo
@@ -0,0 +1,14 @@
#include "icsneo/device/extensions/bootloader/communication/communication.h"
using namespace icsneo::Bootloader;
uint32_t Communication::readLE32(const uint8_t* buf) {
return (uint32_t)buf[0] | ((uint32_t)buf[1] << 8) | ((uint32_t)buf[2] << 16) | ((uint32_t)buf[3] << 24);
}
void Communication::writeLE32(uint8_t* buf, uint32_t num) {
buf[0] = num & 0xFFu;
buf[1] = (num >> 8) & 0xFFu;
buf[2] = (num >> 16) & 0xFFu;
buf[3] = (num >> 24) & 0xFFu;
}
@@ -0,0 +1,547 @@
#include "icsneo/device/extensions/bootloader/communication/radcommunication.h"
#include "icsneo/device/extensions/bootloader/communication/bootloaderversion.h"
#include "icsneo/device/extensions/bootloader/parser/fwzip.h"
#include "icsneo/device/extensions/bootloader/parser/fwrepo.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include <algorithm>
#include <cstring>
#include <thread>
#include <icsbl/icsbl.h>
using namespace icsneo::Bootloader;
RADCommunication::RADCommunication(icsneo::Device& dev, const ChipInfo& info)
: Communication(dev), targetChip(info) {}
bool RADCommunication::supportsFlashBuffer() const {
switch(targetChip.getID()) {
case icsneo::ChipID::RADGigastar_USBZ_ZYNQ:
case icsneo::ChipID::RADGigastar_USBZ_Z7007S_ZYNQ:
case icsneo::ChipID::RADGigastar_USBZ_Z7010_ZYNQ: {
return true;
}
default:
return false;
}
}
RADCommunication::Request RADCommunication::makeRequest(Request::Type type, size_t payloadSize, size_t expectedResponseLen) {
const size_t headerSize = supportsZynqBinaryFlasher ? ZynqFlasherHeaderSize : 0;
const size_t packetSize = headerSize + 1 + payloadSize; // Header + command + payload
// This shouldn't cause any re-allocations since we already reserved the MaxMessageLength in initialize()
txBuffer.resize(packetSize, 0);
if(supportsZynqBinaryFlasher) {
std::copy(std::begin(ZynqFlasherSync), std::end(ZynqFlasherSync), txBuffer.begin());
// The length covers the command byte and the payload
const uint16_t payloadPlusCmd = static_cast<uint16_t>(payloadSize) + 1;
txBuffer[4] = payloadPlusCmd & 0xFFu;
txBuffer[5] = (payloadPlusCmd >> 8) & 0xFFu;
}
txBuffer[headerSize] = static_cast<uint8_t>(type);
Request newRequest;
newRequest.type = type;
newRequest.expectedResponseLen = expectedResponseLen;
if(payloadSize > 0) {
newRequest.payload = &txBuffer[headerSize + 1]; // First byte right after the command
}
return newRequest;
}
bool RADCommunication::sendRequestNoResponse() {
/**
* Send our current packet, the payload was written to it if the user
* of this function wrote to request.payload. The remaining details were
* written when makeRequest() was called
*/
return device.com->sendPacket(txBuffer);
}
RADCommunication::Response& RADCommunication::sendRequest(const Request& request, std::chrono::milliseconds timeout) {
static constexpr size_t ResponseHeaderSize = 2;
const size_t rxSize = ResponseHeaderSize + request.expectedResponseLen;
/**
* Clear previous response
*/
lastResponse = Response();
if(!sendRequestNoResponse()) {
Log::Error(__func__, "Failed to send request " + std::to_string(static_cast<uint8_t>(request.type)));
return lastResponse;
}
auto& rb = device.com->driver->getReadBuffer();
rb.clear();
auto result = device.com->driver->waitForRx(rxSize, timeout);
if(!result) {
Log::Error(__func__, "No response to request " + std::to_string(static_cast<uint8_t>(request.type)));
return lastResponse;
}
rb.read(rxBuffer.data(), 0, rxSize);
rb.clear();
lastResponse.done = true;
/**
* Second byte is success/failure byte
*/
lastResponse.type = static_cast<Response::Type>(rxBuffer[1]);
/**
* The rest is the payload, if we requested any
*/
if(request.expectedResponseLen > 0) {
lastResponse.payload = &rxBuffer[2];
lastResponse.size = request.expectedResponseLen;
}
return lastResponse;
}
bool RADCommunication::enterApplication() {
Log::Info(__func__, "sending EnterApplication request");
makeRequest(Request::Type::EnterApplication);
bool ok = sendRequestNoResponse();
if(!ok) {
Log::Error(__func__, "EnterApplication request failed");
}
return ok;
}
bool RADCommunication::close() {
device.com->resumeReads();
return true;
}
bool RADCommunication::open() {
device.com->pauseReads();
if(!initialize()) {
close();
return false;
}
if(!sanityCheck()) {
// Note: RAD-Gigastar on low power USB flash fails here for some reason, try another sanity check
if(!sanityCheck()) {
close();
return false;
}
}
if(!getBootloaderVersion()) {
// Try again, just like the sanity checks
if(!getBootloaderVersion()) {
close();
return false;
}
}
if(!sanityCheck()) {
// Note: RAD-Gigastar on low power USB flash fails here for some reason, try another sanity check
if(!sanityCheck()) {
close();
return false;
}
}
if(!authenticate()) {
close();
return false;
}
return true;
}
bool RADCommunication::initialize() {
auto& rb = device.com->driver->getReadBuffer();
rxBuffer = std::vector<uint8_t>(MaxMessageLength, 0);
txBuffer.reserve(MaxMessageLength);
// An EnterBootloader command on Main51, as a framed short packet (0xAA, then length << 4 | netid)
// with a trailing 0xAF, followed by the same command without the 0xAA framing
const uint8_t lengthAndNetID = (1 << 4) | static_cast<uint8_t>(icsneo::Network::NetID::Main51);
std::vector<uint8_t> pkt = {
0xAA,
lengthAndNetID,
static_cast<uint8_t>(icsneo::Command::EnterBootloader),
0xAF
};
rb.clear();
if(!device.com->sendPacket(pkt)) {
Log::Error(__func__, "Failed to send the framed enter bootloader command");
return false;
}
pkt = {
lengthAndNetID,
static_cast<uint8_t>(icsneo::Command::EnterBootloader)
};
if(!device.com->sendPacket(pkt)) {
Log::Error(__func__, "Failed to send the unframed enter bootloader command");
return false;
}
// The Zynq binary flasher answers with the command, Success, then ZynqFlasherSync
static constexpr size_t ZynqFlasherReplySize = 2 + sizeof(ZynqFlasherSync);
if(!device.com->driver->waitForRx(ZynqFlasherReplySize, std::chrono::milliseconds(1000))) {
Log::Error(__func__, "No response to the enter bootloader command");
return false;
}
const size_t rxLen = rb.size();
if(rxLen == ZynqFlasherReplySize) {
rb.read(rxBuffer.data(), 0, rxLen);
}
rb.clear();
supportsZynqBinaryFlasher =
rxLen == ZynqFlasherReplySize &&
rxBuffer[0] == static_cast<uint8_t>(icsneo::Command::EnterBootloader) &&
rxBuffer[1] == static_cast<uint8_t>(Response::Type::Success) &&
std::equal(std::begin(ZynqFlasherSync), std::end(ZynqFlasherSync), rxBuffer.begin() + 2);
return true;
}
bool RADCommunication::finalize() {
return true;
}
bool RADCommunication::hasFinalizationStep() const {
return false;
}
bool RADCommunication::sanityCheck() {
if(!supportsZynqBinaryFlasher) {
return true;
}
// Two numbered test patterns the bootloader must accept, the 8 byte replies are not checked
constexpr uint8_t PatternA[8] = {0xAA, 0x55, 0xAA, 0x55, 0xAA, 0xAA, 0x55, 0x55};
constexpr uint8_t PatternB[8] = {0x12, 0x21, 0x34, 0x43, 0x56, 0x65, 0x78, 0x87};
auto request = makeRequest(Request::Type::SanityCheck, 1 + sizeof(PatternA), sizeof(PatternA));
request.payload[0] = 0x01u;
std::copy(std::begin(PatternA), std::end(PatternA), request.payload + 1);
if(!sendRequest(request, std::chrono::milliseconds(1000))) {
return false;
}
request.payload[0] = 0x02u;
std::copy(std::begin(PatternB), std::end(PatternB), request.payload + 1);
return sendRequest(request, std::chrono::milliseconds(1000));
}
bool RADCommunication::getBootloaderVersion() {
auto request = makeRequest(Request::Type::BootloaderVersion, 0, sizeof(BootloaderVersionResponse));
auto response = sendRequest(request, std::chrono::milliseconds(1000));
if(!response) {
return false;
}
if(response.size < sizeof(BootloaderVersionResponse)) {
return false;
}
BootloaderVersionResponse version;
std::memcpy(&version, response.payload, sizeof(version));
targetChip.info.id = static_cast<ChipID>(version.zynqId);
return true;
}
bool RADCommunication::validateChipVersion(const icsneo::DeviceAppVersion& chipSrcVer) {
if(!supportsZynqBinaryFlasher) {
return true;
}
auto request = makeRequest(Request::Type::ValidateVersion, 2, 2);
request.payload[0] = chipSrcVer.major;
request.payload[1] = chipSrcVer.minor;
return sendRequest(request, std::chrono::milliseconds(1000));
}
bool RADCommunication::authenticate() {
icsbl_seed_v1 seed = {};
if(!icsbl_generate_seed_v1(device.getSerialNumber(), &seed)) {
Log::Error(__func__, "libicsbl could not generate an authentication challenge");
return false;
}
auto request = makeRequest(Request::Type::Authenticate, sizeof(seed.a), sizeof(seed.b));
writeLE32(&request.payload[0], seed.a[0]);
writeLE32(&request.payload[4], seed.a[1]);
auto response = sendRequest(request, std::chrono::milliseconds(2000));
if(!response) {
return false;
}
return seed.b[0] == readLE32(&response.payload[0]) && seed.b[1] == readLE32(&response.payload[4]);
}
bool RADCommunication::sendSoftware(const std::vector<uint8_t>& chipSoftware) {
Log::Debug(__func__, "starting for " + targetChip.getName() + " (" + std::to_string(chipSoftware.size()) + " bytes)");
static constexpr size_t MaxEthernetPayload = 1487;
if(supportsZynqBinaryFlasher && chipSoftware.size() < sizeof(uint32_t)) {
Log::Error(__func__, "firmware too short to contain a CRC for " + targetChip.getName());
return false;
}
Log::Trace(__func__, "sending BeginTransfer for " + targetChip.getName());
auto request = makeRequest(Request::Type::BeginTransfer, 0, 0);
auto response = sendRequest(request, std::chrono::milliseconds(10000));
if(!response) {
Log::Error(__func__, "BeginTransfer failed for " + targetChip.getName());
return false;
}
const size_t headerSize = 1 + (supportsZynqBinaryFlasher ? ZynqFlasherHeaderSize : 0); // Command byte plus the optional Zynq flasher header
const size_t maxPayloadSize = MaxEthernetPayload - headerSize;
size_t remainingBytes = chipSoftware.size();
size_t currentlyReading = 0;
logger(
icsneo::Device::OpenStatusType::Progress,
"Flashing " + targetChip.getName() + "...",
std::nullopt
);
while(remainingBytes > 0) {
const double progress = static_cast<double>(currentlyReading) / static_cast<double>(chipSoftware.size());
logger(
icsneo::Device::OpenStatusType::Progress,
"Flashing " + targetChip.getName() + "...",
progress
);
size_t numToSend = std::min<size_t>(maxPayloadSize, remainingBytes);
request = makeRequest(Request::Type::FWPayload, numToSend, supportsZynqBinaryFlasher ? 2 : 0);
std::copy(
chipSoftware.begin() + currentlyReading,
chipSoftware.begin() + currentlyReading + numToSend,
request.payload
);
if(supportsFlashBuffer()) {
if(!sendRequest(request, std::chrono::milliseconds(2000))) {
return false;
}
} else if(!sendRequestNoResponse()) {
return false;
}
currentlyReading += numToSend;
remainingBytes -= numToSend;
if(device.com->driver->isEthernet()) {
std::this_thread::sleep_for(std::chrono::milliseconds(1));
}
}
Log::Trace(__func__, "sending EndTransfer for " + targetChip.getName());
request = makeRequest(Request::Type::EndTransfer, 0, 0);
response = sendRequest(request, std::chrono::milliseconds(10000));
if(!response) {
Log::Error(__func__, "EndTransfer failed for " + targetChip.getName());
return false;
}
request = makeRequest(Request::Type::DownloadedBinInfo, 0, 4);
response = sendRequest(request, std::chrono::milliseconds(6000));
if(!response) {
Log::Error(__func__, "DownloadedBinInfo failed for " + targetChip.getName());
return false;
}
const uint32_t numDownloaded = readLE32(response.payload);
if(numDownloaded != static_cast<uint32_t>(chipSoftware.size())) {
Log::Error(__func__, "downloaded size mismatch for " + targetChip.getName() + ": expected " + std::to_string(chipSoftware.size()) + ", got " + std::to_string(numDownloaded));
return false;
}
if(supportsZynqBinaryFlasher) {
request = makeRequest(Request::Type::VerifyCRC, sizeof(uint32_t), 2);
/**
* Copy CRC from end of the binary
*/
std::copy(chipSoftware.end() - sizeof(uint32_t), chipSoftware.end(), request.payload);
response = sendRequest(request, std::chrono::milliseconds(2000));
if(!response) {
return false;
}
// The first response byte is 1 when the CRC matched
if(response.payload[0] != 0x01) {
Log::Error(__func__, "CRC mismatch for " + targetChip.getName());
return false;
}
}
logger(
icsneo::Device::OpenStatusType::Progress,
"Flashing " + targetChip.getName() + "...",
1.0
);
Log::Debug(__func__, "completed successfully for " + targetChip.getName());
return true;
}
bool RADCommunication::getProgrammingStatus(size_t sizeToValidate) {
Log::Debug(__func__, "starting for " + targetChip.getName());
auto request = makeRequest(Request::Type::ProgramFlash, 0, supportsZynqBinaryFlasher ? 2 : 0);
if(!sendRequest(request, std::chrono::milliseconds(2000))) {
Log::Error(__func__, "ProgramFlash failed for " + targetChip.getName());
return false;
}
request = makeRequest(Request::Type::ProgrammingStatus, 0, 4);
uint32_t status = 0;
const auto beginTime = std::chrono::steady_clock::now();
logger(
icsneo::Device::OpenStatusType::Progress,
"Programming " + targetChip.getName() + "...",
std::nullopt
);
while(status < static_cast<uint32_t>(sizeToValidate)) {
const double progress = static_cast<double>(status) / static_cast<double>(sizeToValidate);
logger(
icsneo::Device::OpenStatusType::Progress,
"Programming " + targetChip.getName() + "...",
progress
);
const auto& response = sendRequest(request, std::chrono::milliseconds(60000));
if(!response) {
return false;
}
status = readLE32(response.payload);
if(std::chrono::steady_clock::now() - beginTime >= std::chrono::milliseconds(180000)) {
return false;
}
}
logger(
icsneo::Device::OpenStatusType::Progress,
"Programming " + targetChip.getName() + "...",
1.0
);
Log::Debug(__func__, "completed successfully for " + targetChip.getName());
return true;
}
bool RADCommunication::loadZips(const FWRepo& fw, std::vector<uint8_t>& chipSoftware) {
if(const auto& segmentNames = targetChip.getMultiIEFName(); !segmentNames.empty()) {
std::vector<std::unique_ptr<FWZip>> zips;
zips.reserve(segmentNames.size());
size_t totalSize = 0;
for(const auto& name : segmentNames) {
std::vector<uint8_t> segment;
if(!fw.getFW(name, segment)) {
return false;
}
zips.push_back(std::make_unique<FWZip>(std::move(segment)));
auto& zip = zips.back();
if(!zip->size()) {
return false;
}
totalSize += *zip->size();
}
chipSoftware.resize(totalSize, 0);
size_t offset = 0;
for(auto& zip : zips) {
if(!zip->readAll(chipSoftware.data() + offset)) {
return false;
}
offset += *(zip->size());
}
return true;
} else if(!targetChip.getIEFName().empty()) {
std::vector<uint8_t> bin;
if(!fw.getFW(targetChip.getIEFName(), bin)) {
return false;
}
FWZip fwZip(std::move(bin));
if(!fwZip.readAll(chipSoftware)) {
return false;
}
return true;
}
// Should never happen
return false;
}
bool RADCommunication::flash(const FWRepo& fw, const icsneo::Device::OpenStatusHandler& handler) {
Log::Info(__func__, "starting flash for " + targetChip.getName());
auto chipSrcVer = fw.getChipVersion(targetChip.getIEFName());
if(!chipSrcVer) {
Log::Error(__func__, "no chip version found for " + targetChip.getIEFName());
return false;
}
std::vector<uint8_t> chipSoftware;
if(!loadZips(fw, chipSoftware)) {
Log::Error(__func__, "loadZips failed for " + targetChip.getName());
return false;
}
logger = handler;
if(!validateChipVersion(*chipSrcVer)) {
Log::Error(__func__, "validateChipVersion failed for " + targetChip.getName());
return false;
}
if(!sendSoftware(chipSoftware)) {
Log::Error(__func__, "sendSoftware failed for " + targetChip.getName());
return false;
}
if(!supportsFlashBuffer()) {
if(!getProgrammingStatus(chipSoftware.size())) {
Log::Error(__func__, "getProgrammingStatus failed for " + targetChip.getName());
return false;
}
}
Log::Info(__func__, "completed successfully for " + targetChip.getName());
return true;
}
@@ -0,0 +1,144 @@
#include "icsneo/device/extensions/bootloader/communication/radmultichipcommunication.h"
#include "icsneo/device/extensions/bootloader/parser/fwrepo.h"
#include "icsneo/device/extensions/bootloader/parser/ief.h"
#include "icsneo/device/extensions/bootloader/api.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include <algorithm>
#include <thread>
using namespace icsneo::Bootloader;
RADMultiChipCommunication::RADMultiChipCommunication(icsneo::Device& dev, const ChipInfo& chipToFlash, bool auth, uint8_t slot)
: RADCommunication(dev, chipToFlash), doAuthChecks(auth), slot(slot) {}
bool RADMultiChipCommunication::authenticate() {
if(!doAuthChecks) {
Log::Trace(__func__, "auth checks disabled, skipping");
return true;
}
Log::Debug(__func__, "starting authentication");
if(!standardComm->authenticate()) {
Log::Warning(__func__, "standardComm auth failed, retrying with sanity check");
device.com->pauseReads();
if(!sanityCheck()) {
if(!sanityCheck()) {
device.com->resumeReads();
Log::Error(__func__, "sanity check failed after retries");
return false;
}
}
if(!RADCommunication::authenticate()) {
device.com->resumeReads();
Log::Error(__func__, "RADCommunication auth failed");
return false;
}
device.com->resumeReads();
}
Log::Debug(__func__, "authentication successful");
return true;
}
bool RADMultiChipCommunication::flash(const FWRepo& fw, const icsneo::Device::OpenStatusHandler& handler) {
Log::Info(__func__, "starting flash for " + targetChip.getName());
auto chipSrcVer = fw.getChipVersion(targetChip.getIEFName());
if(!chipSrcVer) {
Log::Error(__func__, "no chip version found for " + targetChip.getIEFName());
return false;
}
if(!authenticate()) {
Log::Error(__func__, "authentication failed for " + targetChip.getName());
return false;
}
if(!standardComm->validateFirmware(*chipSrcVer)) {
Log::Error(__func__, "firmware validation failed for " + targetChip.getName());
handler(icsneo::Device::OpenStatusType::Failed, "Failed to validate firmware", std::nullopt);
return false;
}
if(targetChip.getFirmwareType() == FirmwareType::Zip) {
std::vector<uint8_t> chipSoftware;
if(!loadZips(fw, chipSoftware)) {
Log::Error(__func__, "loadZips failed for " + targetChip.getName());
return false;
}
if(!standardComm->sendSoftware(chipSoftware, handler)) {
return false;
}
} else {
std::vector<uint8_t> bin;
if(!fw.getFW(targetChip.getIEFName(), bin)) {
return false;
}
IEF ief;
if(!ief.load(std::move(bin))) {
return false;
}
// The supplied IEF is not for this product
if(ief.getVersion().prodId != static_cast<uint8_t>(device.getProductID()) && !isSFPIEF(ief)) {
Log::Error(__func__, "IEF product ID mismatch for " + targetChip.getName());
return false;
}
// The supplied IEF is for this product, but not for this chip
if(ief.getVersion().chipId != static_cast<uint8_t>(targetChip.getID())) {
Log::Error(__func__, "IEF chip ID mismatch for " + targetChip.getName());
return false;
}
if(!standardComm->sendSoftware(ief.getSectors(), ief.getBlockSize(), handler)) {
return false;
}
}
Log::Debug(__func__, "calling finalize");
if(!standardComm->finalize()) {
Log::Error(__func__, "finalize failed");
return false;
}
Log::Debug(__func__, "finalize successful, proceeding to reboot");
handler(icsneo::Device::OpenStatusType::Progress, "Rebooting device...", std::nullopt);
return true;
}
bool RADMultiChipCommunication::enterApplication() {
Log::Info(__func__, "starting");
if(!standardComm->enterApplication()) {
Log::Error(__func__, "reboot failed");
return false;
}
Log::Debug(__func__, "reboot sent, waiting 5000ms");
std::this_thread::sleep_for(std::chrono::milliseconds(5000));
return true;
}
bool RADMultiChipCommunication::open() {
const auto& components = device.getComponentVersions();
auto component = std::find_if(components.begin(), components.end(), [this](const auto& candidate) {
if(slot != UINT8_MAX && slot != candidate.expansionSlot) {
return false;
}
return targetChip.getID() == (ChipID)candidate.identifier;
});
if(component == components.end()) {
Log::Error(__func__, "no component found for " + targetChip.getName());
return false;
}
standardComm = std::make_unique<Application>(device, targetChip.info);
standardComm->setExpansionSlot(component->expansionSlot);
// Pause the read thread so it doesn't consume any responses
device.com->pauseReads();
const bool res = initialize();
device.com->resumeReads();
return res;
}
bool RADMultiChipCommunication::close() {
return true;
}
@@ -0,0 +1,334 @@
#include "icsneo/device/extensions/bootloader/communication/radperiphcommunication.h"
#include "icsneo/device/extensions/bootloader/parser/fwrepo.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include <cstddef>
#include <thread>
#include <icsbl/icsbl.h>
using namespace icsneo::Bootloader;
RADPeriphCommunication::RADPeriphCommunication(icsneo::Device& dev, const ChipInfo& chipToFlash)
: Communication(dev), targetChip(chipToFlash) {}
RADPeriphCommunication::~RADPeriphCommunication() {
if(device.com->readsArePaused()) {
device.com->resumeReads();
}
}
bool RADPeriphCommunication::sendRequestNoResponse(Request req, std::vector<uint8_t>&& args) {
return sendRequestNoResponse(req, targetChip.getID(), std::move(args));
}
bool RADPeriphCommunication::sendRequestNoResponse(Request req, ChipID id, std::vector<uint8_t>&& args) {
args.insert(args.begin(), {
(uint8_t)id,
(uint8_t)req,
});
return device.com->sendCommand(icsneo::Command::PeripheralBootloader, args);
}
RADPeriphCommunication::Response RADPeriphCommunication::sendRequest(Request req, std::vector<uint8_t>&& args, std::chrono::milliseconds timeout) {
return sendRequest(req, targetChip.getID(), std::move(args), timeout);
}
RADPeriphCommunication::Response RADPeriphCommunication::sendRequest(Request req, ChipID id, std::vector<uint8_t>&& args, std::chrono::milliseconds timeout) {
// Total reply sizes, including the header bytes
size_t expectedResponseLength = 0;
bool checkBlAccepted = false;
switch(req) {
case Request::Mode:
expectedResponseLength = 6;
break;
case Request::Version:
expectedResponseLength = 24;
checkBlAccepted = true;
break;
case Request::Authenticate:
expectedResponseLength = 13;
checkBlAccepted = true;
break;
case Request::Echo:
expectedResponseLength = 3;
break;
case Request::Erase:
case Request::FirmwareValidate:
case Request::FlashSector:
expectedResponseLength = 3;
checkBlAccepted = true;
break;
default:
expectedResponseLength = 3;
break;
}
auto& rb = device.com->driver->getReadBuffer();
rb.clear();
if(!sendRequestNoResponse(req, id, std::move(args))) {
Log::Error(__func__, "Failed to send request " + std::to_string(static_cast<uint8_t>(req)));
return {};
}
auto result = device.com->driver->waitForRx(expectedResponseLength, timeout);
if(!result) {
Log::Error(__func__, "No response to request " + std::to_string(static_cast<uint8_t>(req)));
return {};
}
Response resp;
resp.data.resize(expectedResponseLength, 0);
rb.read(resp.data.data(), 0, expectedResponseLength);
resp.success = resp.data[ReplySuccessOffset] == ReplySuccess;
if(!resp.success) {
Log::Error(__func__, "The peripheral reported failure for request " + std::to_string(static_cast<uint8_t>(req)));
return resp;
}
if(checkBlAccepted && resp.data[ReplyAcceptedOffset] != ReplyAccepted) {
Log::Error(__func__, "The bootloader rejected request " + std::to_string(static_cast<uint8_t>(req)));
return {};
}
return resp;
}
RADPeriphCommunication::Mode RADPeriphCommunication::getMode() {
auto resp = sendRequest(Request::Mode, {}, std::chrono::milliseconds(2000));
if(!resp) {
return Mode::NoAnswer;
}
static constexpr size_t ModeOffset = 4;
return (Mode)resp.data[ModeOffset];
}
bool RADPeriphCommunication::sendPeriphTest() {
// Echo is sent to chip id 0, the reply carries the bitwise inverse of the test byte
const uint8_t testByte = 0x00;
auto resp = sendRequest(Request::Echo, (ChipID)0x00, {testByte}, std::chrono::milliseconds(2000));
if(!resp) {
return false;
}
if(resp.data[2] != static_cast<uint8_t>(~testByte)) {
Log::Error(__func__, "The peripheral echo reply did not match");
return false;
}
return true;
}
bool RADPeriphCommunication::readSerialNumber() {
auto resp = sendRequest(Request::Version, {0x00}, std::chrono::milliseconds(2000));
if(!resp) {
return false;
}
// The reply payload is the start of a BootloaderVersionResponse
static constexpr size_t SerialOffset = ReplyHeaderSize + offsetof(BootloaderVersionResponse, serialNum);
serialNumber = readLE32(resp.data.data() + SerialOffset);
return true;
}
bool RADPeriphCommunication::authenticate() {
icsbl_seed_v1 seed = {};
if(!icsbl_generate_seed_v1(serialNumber, &seed)) {
Log::Error(__func__, "libicsbl could not generate an authentication challenge");
return false;
}
std::vector<uint8_t> args(BootloaderArgsOffset + sizeof(seed.a), 0);
writeLE32(args.data() + BootloaderArgsOffset, seed.a[0]);
writeLE32(args.data() + BootloaderArgsOffset + 4, seed.a[1]);
auto resp = sendRequest(Request::Authenticate, std::move(args), std::chrono::milliseconds(3000));
if(!resp) {
return false;
}
// seed.b follows the header and one more byte
static constexpr size_t ReplyOffset = ReplyHeaderSize + 1;
return readLE32(resp.data.data() + ReplyOffset) == seed.b[0] &&
readLE32(resp.data.data() + ReplyOffset + 4) == seed.b[1];
}
bool RADPeriphCommunication::validateFirmware() {
return sendRequest(Request::FirmwareValidate, {0x00u}, std::chrono::milliseconds(2000));
}
bool RADPeriphCommunication::flashSector(const IEF::Sector& sector) {
if(sector.second.size() < FlashSectorFirstChunkSize) {
Log::Error(__func__, "Invalid sector length");
return false;
}
// The first request is the 32-bit little-endian address followed by the first chunk, encrypted
std::vector<uint8_t> args(BootloaderArgsOffset + sizeof(uint32_t) + FlashSectorFirstChunkSize, 0);
writeLE32(args.data() + BootloaderArgsOffset, sector.first);
icsbl_encrypt_v1(serialNumber, sector.second.begin(), FlashSectorFirstChunkSize, args.data() + BootloaderArgsOffset + sizeof(uint32_t));
if(!sendRequestNoResponse(Request::FlashSector, std::move(args))) {
return false;
}
std::this_thread::sleep_for(std::chrono::milliseconds(400));
// The second request is the rest of the sector, encrypted
const size_t bytesLeft = sector.second.size() - FlashSectorFirstChunkSize;
args = std::vector<uint8_t>(bytesLeft, 0);
icsbl_encrypt_v1(serialNumber, sector.second.begin() + FlashSectorFirstChunkSize, bytesLeft, args.data());
return sendRequest(Request::FlashSector, std::move(args), std::chrono::milliseconds(3000));
}
bool RADPeriphCommunication::flash(const FWRepo& fw, const icsneo::Device::OpenStatusHandler& handler) {
// Validate the firmware before touching the device so a bad file can not leave it erased
std::vector<uint8_t> bin;
if(!fw.getFW(targetChip.getIEFName(), bin)) {
return false;
}
IEF ief;
if(!ief.load(std::move(bin))) {
return false;
}
// The supplied IEF is not for this product
if(ief.getVersion().prodId != static_cast<uint8_t>(device.getProductID())) {
Log::Error(__func__, "IEF product ID mismatch for " + targetChip.getName());
return false;
}
// The supplied IEF is for this product, but not for this chip
if(ief.getVersion().chipId != static_cast<uint8_t>(targetChip.getID())) {
Log::Error(__func__, "IEF chip ID mismatch for " + targetChip.getName());
return false;
}
const auto& sectors = ief.getSectors();
uint32_t totalSize = 0;
for(const auto& sector : sectors) {
if(sector.second.size() < FlashSectorFirstChunkSize) {
Log::Error(__func__, "Invalid sector length in IEF for " + targetChip.getName());
return false;
}
totalSize += static_cast<uint32_t>(sector.second.size());
}
if(!readSerialNumber()) {
return false;
}
if(!authenticate()) {
return false;
}
if(!sendRequest(Request::Erase)) {
Log::Error(__func__, "Failed to erase firmware");
return false;
}
handler(
icsneo::Device::OpenStatusType::Progress,
"Flashing " + targetChip.getName() + "...",
std::nullopt
);
uint32_t sizeFlashed = 0;
for(const auto& sector : sectors) {
if(!flashSector(sector)) {
return false;
}
sizeFlashed += static_cast<uint32_t>(sector.second.size());
handler(
icsneo::Device::OpenStatusType::Progress,
"Flashing " + targetChip.getName() + "...",
(double)sizeFlashed / (double)totalSize
);
}
return validateFirmware();
}
bool RADPeriphCommunication::waitForConnect(std::chrono::milliseconds timeout) {
const auto deadline = std::chrono::steady_clock::now() + timeout;
while(std::chrono::steady_clock::now() < deadline) {
if(sendPeriphTest()) {
return true;
}
}
return false;
}
bool RADPeriphCommunication::open() {
device.com->pauseReads();
int attempts = 3;
do {
mode = getMode();
if(mode == Mode::NoAnswer) {
std::this_thread::sleep_for(std::chrono::milliseconds(500));
mode = getMode();
if(mode == Mode::NoAnswer) {
return false;
}
}
if(mode == Mode::MainApplication) {
if(!sendRequestNoResponse(Request::SwitchToBootloader)) {
return false;
}
if(!device.reconnect(std::chrono::seconds(30))) {
return false;
}
if(!waitForConnect(std::chrono::seconds(30))) {
return false;
}
} else if(mode == Mode::Bootloader) {
return true;
}
} while(attempts--);
return false;
}
bool RADPeriphCommunication::close() {
if(mode != Mode::Bootloader) {
device.com->resumeReads();
return true;
}
if(!sendRequestNoResponse(Request::SwitchToApp)) {
return false;
}
std::this_thread::sleep_for(std::chrono::seconds(5)); // measured at 2s, 5s for buffer, yes this is needed
if(!device.reconnect(std::chrono::seconds(30))) {
return false;
}
if(!waitForConnect()) {
return false;
}
mode = getMode();
if(mode == Mode::MainApplication) {
device.com->resumeReads();
return true;
}
return false;
}
bool RADPeriphCommunication::enterApplication() {
return true;
}
bool RADPeriphCommunication::finalize() {
return true;
}
bool RADPeriphCommunication::hasFinalizationStep() const {
return false;
}
@@ -0,0 +1,244 @@
#include "icsneo/device/extensions/bootloader/communication/red.h"
#include "icsneo/device/extensions/bootloader/parser/ief.h"
#include "icsneo/device/extensions/bootloader/parser/fwrepo.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include <cstring>
#include <optional>
#include <icsbl/icsbl.h>
namespace icsneo {
namespace Bootloader {
REDCommunication::REDCommunication(icsneo::Device& dev, const ChipInfo& chip, bool auth, bool encryptWithDeviceKey)
: REDCommunicationBase(dev, chip), doAuthChecks(auth), encryptFirmwareWithDeviceKey(encryptWithDeviceKey) {}
bool REDCommunication::open() {
device.com->pauseReads();
if(doAuthChecks) {
if(!authenticate()) {
return false;
}
}
return getVersion();
}
bool REDCommunication::authenticate(bool firstTime) {
icsbl_seed_v1 seed = {};
if(!icsbl_generate_seed_v1(device.getSerialNumber(), &seed)) {
Log::Error(__func__, "libicsbl could not generate an authentication challenge");
return false;
}
// The challenge is sent as: uint8_t 0x09, uint16_t 0 (a length on top of the protocol length, always zero here),
// one padding byte, then seed.a
std::vector<uint8_t> challenge(3 + sizeof(seed.a));
challenge[0] = 0x09;
std::memcpy(&challenge[3], &seed.a, sizeof(seed.a));
// Ask the bootloader to decode the seed
Log::Debug(__func__, "Authenticating");
if(!sendCommand(uint8_t(Command::Authenticate), challenge, std::chrono::seconds(1), false)) {
if(firstTime) {
// Attempt to flush out any buffers
Log::Debug(__func__, "Authentication failed, flushing buffers");
std::vector<uint8_t> flush(4096, PaddingByte);
device.com->sendPacket(flush);
// Allow any failure messages to come back
const bool any = waitForRx(std::chrono::milliseconds(100));
Log::Trace(__func__, any ? "A message came back" : "No communication came back");
lastData.clear();
// Now try again
return authenticate(false); // Either way, we don't need to continue authenticating
} else {
Log::Error(__func__, "The bootloader rejected the authentication challenge twice");
enterApplication();
return false;
}
}
// The reply is one byte followed by seed.b
if(lastData.back().data.size() < 1 + sizeof(seed.b)) {
Log::Error(__func__, "The authentication reply is too short");
enterApplication();
return false;
}
if(std::memcmp(&lastData.back().data[1], &seed.b, sizeof(seed.b)) != 0) {
Log::Error(__func__, "The authentication reply does not match, the device did not authenticate");
enterApplication();
return false;
}
lastData.clear();
return true;
}
bool REDCommunication::getVersion() {
if(!sendCommand(uint8_t(Command::GetVersion), std::chrono::seconds(1), false)) {
Log::Error(__func__, "The bootloader did not answer the version request");
enterApplication();
return false;
}
if(lastData.front().data.size() < VersionResponse::EncodedSize) {
Log::Error(__func__, "The bootloader version reply is too short");
enterApplication();
return false;
}
currentVersion = VersionResponse(lastData.front());
lastData.clear();
if(doAuthChecks) {
// Check that the serial number the bootloader reports is correct
uint8_t correctSerial[sizeof(VersionResponse::serial_num)] = {};
uint32_t devSerial = device.getSerialNumber();
std::memcpy(correctSerial, &devSerial, sizeof(devSerial));
if(std::memcmp(correctSerial, currentVersion.serial_num, sizeof(correctSerial))) {
Log::Error(__func__, "The serial number reported by the bootloader does not match the device");
enterApplication();
return false;
}
}
blockSize = currentVersion.block_size;
device.setBootloaderVersion({currentVersion.bl_major, currentVersion.bl_minor});
return true;
}
bool REDCommunication::flash(const FWRepo& fw, const icsneo::Device::OpenStatusHandler& handler) {
const auto& srcVer = fw.getVersion();
std::vector<uint8_t> bin;
if(!fw.getFW(targetChip.getIEFName(), bin)) {
return false;
}
IEF ief;
if(!ief.load(std::move(bin))) {
return false;
}
// The supplied IEF is not for this product
if(ief.getVersion().prodId != static_cast<uint8_t>(device.getProductID())) {
Log::Error(__func__, "IEF product ID mismatch for " + targetChip.getName());
return false;
}
// The supplied IEF is for this product, but not for this chip
if(ief.getVersion().chipId != static_cast<uint8_t>(targetChip.getID())) {
Log::Error(__func__, "IEF chip ID mismatch for " + targetChip.getName());
return false;
}
Log::Debug(__func__, "IEF version " + std::to_string(ief.getVersion().appMajor) + "." + std::to_string(ief.getVersion().appMinor)
+ ", " + std::to_string(ief.getSectors().size()) + " sectors");
if(doAuthChecks && device.supportsSwVersionValidate()) {
// Tell the bootloader what version of Vehicle Spy 3 this firmware is from.
// We check to make sure it approves, but also, some devices will not accept
// new firmware if we have not sent this.
// Sometimes new hardware revisions can not accept firmware which is too old.
if(!sendCommand(uint8_t(Command::ValidateSWVersion), {srcVer.major, srcVer.minor, srcVer.release, srcVer.build})) {
Log::Error(__func__, "SW version validation failed for " + targetChip.getName());
return false;
}
}
handler(icsneo::Device::OpenStatusType::Progress,
"Preparing to update " + targetChip.getName() + "...", std::nullopt);
Log::Debug(__func__, "Erasing " + targetChip.getName());
if(!sendCommand(uint8_t(Command::Erase), std::chrono::seconds(45))) {
Log::Error(__func__, "Erase failed for " + targetChip.getName());
return false;
}
const auto& sectorPairs = ief.getSectors();
size_t sectorsFlashed = 0;
for(const auto& [id, sector] : sectorPairs) {
Log::Trace(__func__, "Flashing sector " + std::to_string(id));
handler(icsneo::Device::OpenStatusType::Progress,
"Updating " + targetChip.getName() + "...",
double(sectorsFlashed++) / sectorPairs.size());
if(sector.size() > blockSize) {
Log::Error(__func__, "Sector " + std::to_string(id) + " too large");
return false;
}
// Sectors smaller than the block size are padded out with zeros
std::vector<uint8_t> padded(sector.begin(), sector.end());
padded.resize(blockSize, 0);
std::vector<uint8_t> encrypted(padded.size());
if(encryptFirmwareWithDeviceKey)
icsbl_encrypt_v1(device.getSerialNumber(), padded.data(), padded.size(), encrypted.data());
else
encrypted = std::move(padded);
encrypted.insert(encrypted.begin(), {
0x00, 0x00, 0x00, // Padding bytes
// Address
uint8_t((id >> 0x00) & 0xFF),
uint8_t((id >> 0x08) & 0xFF),
uint8_t((id >> 0x10) & 0xFF),
uint8_t((id >> 0x18) & 0xFF),
});
// Unencrypted firmware is used for FIRE2 Zynq (and VNET) which also uses the top bit of the ID
// to denote whether the sector is flashed to chip A or chip B. That is indicated
// with a 1 (for chip B) or a 0 as the first byte of the flash packet payload.
if(!encryptFirmwareWithDeviceKey)
encrypted.insert(encrypted.begin(), uint8_t(id & (1u << 31) ? 1 : 0));
if(!sendCommand(uint8_t(Command::Flash), encrypted)) {
Log::Error(__func__, "Flash failed at sector " + std::to_string(id) + " for " + targetChip.getName());
return false;
}
}
// Tell the application that we flashed 100%
handler(icsneo::Device::OpenStatusType::Progress,
"Updating " + targetChip.getName() + "...",
1.0);
handler(icsneo::Device::OpenStatusType::Progress, "Finalizing update...", std::nullopt);
if(!sendCommand(uint8_t(Command::ValidateFirmware))) {
Log::Error(__func__, "Firmware validation failed for " + targetChip.getName());
return false;
}
return true;
}
REDCommunication::VersionResponse::VersionResponse(const REDPacketizer::RxFrame& r) {
auto i = r.data.begin();
bl_major = *i++;
bl_minor = *i++;
app_major = *i++;
app_minor = *i++;
hardware_rev_major = *i++;
hardware_rev_minor = *i++;
flags = *i++;
block_size = *i++;
block_size |= uint16_t(*i++) << 8;
man_day = *i++;
man_month = *i++;
man_year = *i++;
man_year |= uint16_t(*i++) << 8;
for(size_t x = 0; x != sizeof(serial_num); ++x)
serial_num[x] = *i++;
prod_id = *i++;
last_error_code = *i++;
pad_byte = *i++;
}
} // namespace Bootloader
} // namespace icsneo
@@ -0,0 +1,86 @@
#include "icsneo/device/extensions/bootloader/communication/redbase.h"
#include <limits>
namespace icsneo {
namespace Bootloader {
REDCommunicationBase::REDCommunicationBase(icsneo::Device& dev, const ChipInfo& chip)
: Communication(dev), targetChip(chip) {}
bool REDCommunicationBase::open() {
device.com->pauseReads();
return true;
}
bool REDCommunicationBase::close() {
device.com->resumeReads();
return true;
}
bool REDCommunicationBase::handleData() {
auto& rb = device.com->driver->getReadBuffer();
if(rp.input(rb)) {
lastData = rp.output();
return true;
}
return false;
}
bool REDCommunicationBase::waitForRx(std::chrono::milliseconds timeout) {
return device.com->driver->waitForRx([this]() { return handleData(); }, timeout);
}
bool REDCommunicationBase::sendCommand(uint8_t cmd, std::vector<uint8_t> args, std::chrono::seconds timeout, bool clearLastResponse) {
lastData.clear();
device.com->driver->getReadBuffer().clear();
if(!sendCommandRaw(cmd, std::move(args)))
return false;
if(!waitForRx(std::chrono::duration_cast<std::chrono::milliseconds>(timeout)))
return false;
const bool ret = lastData.front().resp == REDPacketizer::Response::Accepted;
if(clearLastResponse) {
lastData.clear();
}
return ret;
}
bool REDCommunicationBase::sendCommandRaw(uint8_t cmd, std::vector<uint8_t> args) {
// For some reason, some devices need it padded to even total bytes, and some to odd total bytes
const bool padEven = device.getType() == DeviceType::FIRE2;
args.insert(args.begin(), uint8_t(cmd)); // Prepend the command byte to the arguments
if(args.size() > std::numeric_limits<uint16_t>::max())
return false;
uint16_t size = uint16_t(args.size());
// The header counts, and the header is 5 bytes, so we're checking for even inner size here
const bool padding = size % 2 != (padEven ? 0 : 1);
if(padding) // We will add padding, so make space for it
size++;
// Prepend the magic, 16-bit little-endian chip ID, and 16-bit little-endian size
const uint16_t chipID = uint16_t(targetChip.getID());
args.insert(args.begin(), {
REDPacketizer::Magic,
uint8_t(chipID & 0xFF), uint8_t(chipID >> 8),
uint8_t(size & 0xFF), uint8_t(size >> 8)
});
if(padding)
args.push_back(PaddingByte); // Ignored by the firmware
// Write it to the device
return device.com->sendPacket(args);
}
} // namespace Bootloader
} // namespace icsneo
@@ -0,0 +1,111 @@
#include "icsneo/device/extensions/bootloader/communication/redcore.h"
#include "icsneo/device/extensions/bootloader/parser/fwrepo.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include <algorithm>
#include <limits>
namespace icsneo {
namespace Bootloader {
bool REDCoreCommunication::flash(const FWRepo& fw, const icsneo::Device::OpenStatusHandler& handler) {
constexpr const size_t MaxSectorSize = 0x600;
std::vector<uint8_t> bin;
if(!fw.getFW(targetChip.getIEFName(), bin)) {
return false;
}
if(bin.size() > std::numeric_limits<uint32_t>::max()) {
Log::Error(__func__, "Firmware too large for " + targetChip.getName());
return false;
}
const std::string message = "Updating " + targetChip.getName() + "...";
// First send the firmware
const uint32_t fileSize = uint32_t(bin.size());
size_t sectorsFlashed = 0;
const size_t sectorCount = (fileSize / MaxSectorSize) + (fileSize % MaxSectorSize ? 1 : 0);
std::vector<uint8_t> sector;
for(size_t i = 0; i < fileSize; i += MaxSectorSize) {
Log::Trace(__func__, "Sending sector " + std::to_string(sectorsFlashed));
handler(icsneo::Device::OpenStatusType::Progress, message, double(sectorsFlashed++) / sectorCount);
sector.assign(bin.begin() + i, bin.begin() + i + std::min<size_t>(MaxSectorSize, fileSize - i));
if(!sendCommand(uint8_t(Command::SendFirmware), sector)) {
Log::Error(__func__, "Failed to send sector " + std::to_string(sectorsFlashed - 1) + " for " + targetChip.getName());
return false;
}
}
// Then flash it
Log::Debug(__func__, "Starting core flash for " + targetChip.getName());
handler(icsneo::Device::OpenStatusType::Progress, message, std::nullopt);
// There is a long timeout on the StartFirmwareFlash because the bootloader may block here,
// potentially for the entire duration of the flash
if(!sendCommand(uint8_t(Command::StartFirmwareFlash), {
uint8_t(fileSize & 0xFF), uint8_t((fileSize >> 8) & 0xFF),
uint8_t((fileSize >> 16) & 0xFF), uint8_t((fileSize >> 24) & 0xFF),
}, std::chrono::seconds(60))) {
Log::Error(__func__, "Failed to start core flash for " + targetChip.getName());
return false;
}
// Watch the responses to know when it's done
const auto endTime = std::chrono::steady_clock::now() + std::chrono::seconds(60);
uint32_t flashed = 0;
while(flashed < fileSize && std::chrono::steady_clock::now() < endTime) {
if(!sendCommandRaw(uint8_t(Command::GetFlashProgress))) {
Log::Error(__func__, "Failed to request flash progress for " + targetChip.getName());
return false;
}
if(!waitForRx(std::chrono::milliseconds(3000))) {
Log::Trace(__func__, "No flash progress packet within 3 seconds");
continue;
}
const uint32_t oldFlashed = flashed;
for(const auto& packet : lastData) {
if(packet.resp != REDPacketizer::Response::Accepted)
return false;
if(packet.data.size() != 4) {
Log::Trace(__func__, "Got a flash progress packet of length " + std::to_string(packet.data.size()));
continue;
}
const uint32_t newFlashed = readLE32(packet.data.data());
if(newFlashed >= flashed)
flashed = newFlashed;
else
Log::Trace(__func__, "Got a flash progress packet which went backwards " + std::to_string(newFlashed) + " " + std::to_string(flashed));
// After sending us the packet that confirms the flash, the flash position is cleared and will send us zeros.
// We don't need any of these other packets, in that case.
if(flashed >= fileSize)
break;
}
lastData.clear();
Log::Trace(__func__, "Flashed " + std::to_string(flashed) + " of " + std::to_string(fileSize));
if(flashed != oldFlashed)
handler(icsneo::Device::OpenStatusType::Progress, message, std::min(double(flashed) / fileSize, 1.0));
}
return flashed == fileSize;
}
bool REDCoreCommunication::sendCommandRaw(uint8_t cmd, std::vector<uint8_t> args) {
if(args.size() > std::numeric_limits<uint16_t>::max())
return false;
const uint16_t size = static_cast<uint16_t>(args.size());
args.insert(args.begin(), { CoreFlasherMagic, uint8_t(size & 0xFF), uint8_t((size >> 8) & 0xFF), cmd });
return REDCommunicationBase::sendCommandRaw(CoreFlasherCommand, std::move(args));
}
} // namespace Bootloader
} // namespace icsneo
@@ -0,0 +1,85 @@
#include "icsneo/device/extensions/bootloader/communication/redpacketizer.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include <algorithm>
namespace icsneo {
namespace Bootloader {
bool REDPacketizer::input(icsneo::RingBuffer& bytes) {
while(bytes.size() > 0) {
switch(state) {
case HEADER:
if(bytes[0] == Magic) {
working.emplace_back();
state = CMD;
} else {
Log::Trace(__func__, "Got bootloader unknown byte: " + std::to_string(bytes[0]));
}
bytes.pop_front();
break;
case CMD:
working.back().resp = Response(bytes[0]);
if(working.back().resp != Response::Accepted && working.back().resp != Response::Rejected) {
Log::Trace(__func__, "Got bootloader unknown response: " + std::to_string(bytes[0]));
working.pop_back();
state = HEADER;
} else {
state = LENGTH_LOWER;
}
bytes.pop_front();
break;
case LENGTH_LOWER:
working.back().len = bytes[0];
state = LENGTH_UPPER;
bytes.pop_front();
break;
case LENGTH_UPPER:
working.back().len |= uint16_t(bytes[0]) << 8;
if(working.back().len == 0) {
working.back().done = true;
state = HEADER;
} else {
state = DATA;
}
bytes.pop_front();
break;
case DATA: {
// The RingBuffer is not contiguous, so copy out with read() rather than taking a pointer
auto& frame = working.back();
const size_t dataToGo = frame.len - frame.data.size();
const size_t toCopy = std::min(bytes.size(), dataToGo);
const size_t oldSize = frame.data.size();
frame.data.resize(oldSize + toCopy);
bytes.read(frame.data.data() + oldSize, 0, toCopy);
bytes.pop(toCopy);
if(toCopy == dataToGo) {
frame.done = true;
state = HEADER;
}
break;
}
}
}
return std::any_of(working.begin(), working.end(), [](const RxFrame& rx) { return rx.done; });
}
std::vector<REDPacketizer::RxFrame> REDPacketizer::output() {
// Hand back the completed frames, anything still in progress stays in working
std::vector<RxFrame> done;
std::vector<RxFrame> pending;
for(auto& rx : working) {
if(rx.done)
done.push_back(std::move(rx));
else
pending.push_back(std::move(rx));
}
working = std::move(pending);
return done;
}
} // namespace Bootloader
} // namespace icsneo
@@ -0,0 +1,249 @@
#include "icsneo/device/extensions/bootloader/parser/fwbin.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include "icsneo/device/extensions/bootloader/parser/ief.h"
#include <unordered_map>
namespace icsneo {
namespace Bootloader {
/**
* fw.bin file format (all integers little-endian):
*
* uint8_t versionLength
* char version[versionLength] Vehicle Spy 3 version, "major.minor.release.build"
* uint8_t hashLength
* char hash[hashLength] Build hash, unused
* Then tags until the end of the file:
* uint32_t nameHash HashDjb2() of the tag name, e.g. "fire2_core"
* uint8_t type TagData::Type
* uint32_t length
* uint8_t data[length]
*
* Exactly one Signature tag is required, it uses the reserved name hash 0.
*/
uint32_t FWBin::HashDjb2(const std::string& tag) {
uint32_t retv = 5381;
for(char c : tag)
retv = ((retv << 5) + retv) + c;
return retv;
}
bool FWBin::load(const std::string& path) {
file.open(path, std::ios::binary);
if(!file.is_open() || file.fail() || file.eof()) {
Log::Error(__func__, "Could not open file at " + path);
return false;
}
// Read out the version string, it is a single byte length followed by a string
uint8_t size;
file.read((char*)&size, 1);
if(file.fail() || file.eof()) {
Log::Error(__func__, "The fw.bin is truncated, could not read the version length");
return false;
}
std::string unparsedVersion;
unparsedVersion.resize(size);
file.read(unparsedVersion.data(), size);
if(file.fail() || file.eof()) {
Log::Error(__func__, "The fw.bin is truncated, could not read the version string");
return false;
}
if(!version.load(unparsedVersion)) {
Log::Error(__func__, "The fw.bin version string is invalid: " + unparsedVersion);
return false;
}
// Read out the hash string, it is a single byte length followed by a string
file.read((char*)&size, 1);
if(file.fail() || file.eof()) {
Log::Error(__func__, "The fw.bin is truncated, could not read the hash length");
return false;
}
// The hash string is not used, skip over it
file.seekg(size, file.cur);
if(file.fail() || file.eof()) {
Log::Error(__func__, "The fw.bin is truncated, could not read the hash string");
return false;
}
while(true) {
uint32_t tagHash;
file.read((char*)&tagHash, sizeof(uint32_t));
if(file.eof()) {
break;
}
if(file.fail()) {
Log::Error(__func__, "The fw.bin is truncated, could not read a tag name hash");
return false;
}
if(tags.count(tagHash)) {
// Duplicate tag
Log::Error(__func__, "The fw.bin contains a duplicate tag");
return false;
}
TagData& current = tags[tagHash];
// Read the type field
file.read((char*)&current.type, sizeof(TagData::Type));
if(file.fail() || file.eof()) {
Log::Error(__func__, "The fw.bin is truncated, could not read a tag type");
return false;
}
switch(current.type) {
case TagData::Type::DataBytes:
case TagData::Type::DataLength:
case TagData::Type::IEFVersion:
if(tagHash == SignatureHash) {
Log::Error(__func__, "The fw.bin contains a data tag using the reserved signature name hash");
return false;
}
break;
case TagData::Type::Signature:
if(tagHash != SignatureHash) {
Log::Error(__func__, "The fw.bin contains a signature tag with a non-signature name hash");
return false;
}
break;
default: // Unknown type
Log::Error(__func__, "The fw.bin contains a tag of unknown type " + std::to_string(static_cast<int>(current.type)));
return false;
}
// Read the length field
file.read((char*)&current.arrayLength, sizeof(uint32_t));
if(file.fail() || file.eof()) {
Log::Error(__func__, "The fw.bin is truncated, could not read a tag length");
return false;
}
// Note the current position so we can jump back to it and read it later
current.arrayPosition = file.tellg();
file.seekg(current.arrayLength, file.cur);
if(file.fail()) {
Log::Error(__func__, "The fw.bin is truncated, a tag extends past the end of the file");
return false;
}
}
file.clear();
// The signature tag is required to be present, but it is not verified
if(tags.count(SignatureHash) == 0) {
Log::Error(__func__, "The fw.bin is missing its signature tag");
return false;
}
return true;
}
bool FWBin::readTag(const std::string& tag, std::vector<uint8_t>& out) const {
const auto hash = HashDjb2(tag);
if(hash == SignatureHash) {
Log::Error(__func__, "The signature tag can not be read as data");
return false;
}
const auto it = tags.find(hash);
if(it == tags.end()) {
Log::Error(__func__, "The fw.bin does not contain the tag " + tag);
return false;
}
return it->second.read(file, out);
}
bool FWBin::TagData::read(std::ifstream& stream, std::vector<uint8_t>& out) const {
stream.clear();
stream.seekg(arrayPosition, stream.beg);
out.resize(arrayLength);
stream.read((char*)out.data(), arrayLength);
if(stream.fail()) {
Log::Error(__func__, "The fw.bin is truncated, could not read tag data");
return false;
}
return true;
}
bool FWBin::getFW(const std::string& iefName, std::vector<uint8_t>& fw) const {
return readTag(iefName, fw);
}
FWBin::VersionTags FWBin::GetVersionTags(const std::string& iefName) {
static const std::unordered_map<std::string, VersionTags> VersionTable = {
{"fire2_core", {"fire2_core_version_major", "fire2_core_version_minor"}},
{"fire2_core_sg4", {"fire2_core_sg4_version_major", "fire2_core_sg4_version_minor"}},
{"RADA2B_SW_bin", {"RADA2B_SW_Version_Major", "RADA2B_SW_Version_Minor"}},
{"RADA2B_REVB_SW_bin", {"RADA2B_SW_Version_Major", "RADA2B_SW_Version_Minor"}},
{"RADComet_SW_bin", {"RADComet_SW_Version_Major", "RADComet_SW_Version_Minor"}},
{"RADComet3_SW_bin", {"RADComet3_SW_Version_Major", "RADComet3_SW_Version_Minor"}},
{"RADGalaxy_SG2_SW_bin", {"RADGalaxy_SG2_SW_Version_Major", "RADGalaxy_SG2_SW_Version_Minor"}},
{"RADGalaxy_SG2_FFG_SW_bin", {"RADGalaxy_SG2_FFG_SW_Version_Major", "RADGalaxy_SG2_SW_Version_Minor"}},
{"RADGalaxy2_SW_bin_p1", {"RADGalaxy2_SW_Version_Major", "RADGalaxy2_SW_Version_Minor"}},
{"RADGalaxy2_SW_bin_p2", {"RADGalaxy2_SW_Version_Major", "RADGalaxy2_SW_Version_Minor"}},
{"RADGigastar_SW_bin", {"RADGigastar_SW_Version_Major", "RADGigastar_SW_Version_Minor"}},
{"RADGigastar_FFG_SW_bin", {"RADGigastar_SW_Version_Major", "RADGigastar_SW_Version_Minor"}},
{"RADGigastar_USBz_SW_bin", {"RADGigastar_USBz_SW_Version_Major", "RADGigastar_USBz_SW_Version_Minor"}},
{"RADGigastar_USBz_Z7010_SW_bin", {"RADGigastar_USBz_SW_Version_Major", "RADGigastar_USBz_SW_Version_Minor"}},
{"RADGigastar_USBz_Z7007s_SW_bin", {"RADGigastar_USBz_SW_Version_Major", "RADGigastar_USBz_SW_Version_Minor"}},
{"RADGigastar2_T1S_LIN_SW_bin", {"RADGigastar2_T1S_LIN_SW_Version_Major", "RADGigastar2_T1S_LIN_SW_Version_Minor"}},
{"RADGigastar2_T1S_CAN_SW_bin", {"RADGigastar2_T1S_CAN_SW_Version_Major", "RADGigastar2_T1S_CAN_SW_Version_Minor"}},
{"RADMoon2_SW_bin", {"RADMoon2_SW_Version_Major", "RADMoon2_SW_Version_Minor"}},
{"RADMoon2_Z7010_SW_bin", {"RADMoon2_SW_Version_Major", "RADMoon2_SW_Version_Minor"}},
{"RADMoonT1S_SW_bin", {"RADMoonT1S_SW_Version_Major", "RADMoonT1S_SW_Version_Minor"}},
{"vcan44_core_ief", {"vcan44_core_version_major", "vcan44_core_version_minor"}}
};
auto iter = VersionTable.find(iefName);
return iter != VersionTable.end() ? iter->second : VersionTags();
}
std::optional<icsneo::DeviceAppVersion> FWBin::getChipVersion(const std::string& iefName) const {
auto versionTags = GetVersionTags(iefName);
if(versionTags) {
std::vector<uint8_t> majData;
std::vector<uint8_t> minData;
if(!readTag(versionTags.majorTag, majData)) {
return std::nullopt;
}
if(!readTag(versionTags.minorTag, minData)) {
return std::nullopt;
}
if(majData.size() != 1)
return std::nullopt;
if(minData.size() != 1)
return std::nullopt;
icsneo::DeviceAppVersion chipVersion;
chipVersion.major = majData[0];
chipVersion.minor = minData[0];
return chipVersion;
}
std::vector<uint8_t> buf;
if(!readTag(iefName, buf)) {
return std::nullopt;
}
IEF ief;
if(!ief.load(std::move(buf))) {
return std::nullopt;
}
icsneo::DeviceAppVersion chipVersion;
chipVersion.major = ief.getVersion().appMajor;
chipVersion.minor = ief.getVersion().appMinor;
return chipVersion;
}
} // namespace Bootloader
} // namespace icsneo
@@ -0,0 +1,142 @@
#include "icsneo/device/extensions/bootloader/parser/fwbundle.h"
#include "icsneo/device/extensions/bootloader/parser/fwbin.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include "icsneo/core/crc32.h"
#include <cstddef>
#include <cstring>
#include <fstream>
#include <iterator>
#include <limits>
namespace icsneo {
namespace Bootloader {
/**
* Firmware bundle file format (all integers little-endian):
*
* FWBundleHeader
* Then chips until the end of the file:
* FWBundleChip
* uint8_t data[FWBundleChip::length]
*
* The CRC32 covers the whole file with the crc field set to zero.
*/
#pragma pack(push, 1)
struct FWBundleHeader {
char magic[2]; // "FW"
uint16_t fmtVersion;
uint32_t crc;
uint8_t build;
uint8_t maintenance;
uint8_t minor;
uint8_t major;
uint8_t type; // Build type, unused
};
struct FWBundleChip {
uint32_t hash; // FWBin::HashDjb2() of the chip's IEF name
uint8_t build;
uint8_t maintenance;
uint8_t minor;
uint8_t major;
uint32_t length;
};
#pragma pack(pop)
bool FWBundle::IsFWBundle(const std::string& path) {
std::ifstream file(path, std::ios::binary);
if(!file.is_open())
return false;
// Only check the magic, so a truncated bundle is still reported as a bundle error by load()
char magic[sizeof(FWBundleHeader::magic)];
file.read(magic, sizeof(magic));
if(file.fail())
return false;
return magic[0] == 'F' && magic[1] == 'W';
}
bool FWBundle::load(const std::string& path) {
std::ifstream file(path, std::ios::binary);
if(!file.is_open()) {
Log::Error(__func__, "Could not open file at " + path);
return false;
}
std::vector<uint8_t> bytes((std::istreambuf_iterator<char>(file)), std::istreambuf_iterator<char>());
if(file.bad()) {
Log::Error(__func__, "Could not read file at " + path);
return false;
}
if(bytes.size() < sizeof(FWBundleHeader) || bytes.size() > std::numeric_limits<uint32_t>::max()) {
Log::Error(__func__, "The firmware bundle is smaller than its header or larger than 4 GiB");
return false;
}
FWBundleHeader header;
std::memcpy(&header, bytes.data(), sizeof(header));
if(header.magic[0] != 'F' || header.magic[1] != 'W') {
Log::Error(__func__, "The file is not a firmware bundle, bad magic");
return false;
}
// The CRC is computed with the CRC field zeroed
std::memset(bytes.data() + offsetof(FWBundleHeader, crc), 0, sizeof(header.crc));
if(icsneo::crc32(0, bytes.data(), static_cast<uint32_t>(bytes.size())) != header.crc) {
Log::Error(__func__, "The firmware bundle failed CRC validation");
return false;
}
std::unordered_map<uint32_t, ChipBinary> parsed;
size_t offset = sizeof(FWBundleHeader);
while(offset < bytes.size()) {
if(bytes.size() - offset < sizeof(FWBundleChip)) {
Log::Error(__func__, "The firmware bundle is truncated, could not read a chip header");
return false;
}
FWBundleChip chip;
std::memcpy(&chip, bytes.data() + offset, sizeof(chip));
offset += sizeof(FWBundleChip);
if(bytes.size() - offset < chip.length) {
Log::Error(__func__, "The firmware bundle is truncated, a chip binary extends past the end of the file");
return false;
}
auto& bin = parsed[chip.hash];
bin.data.assign(bytes.begin() + offset, bytes.begin() + offset + chip.length);
bin.version.major = chip.major;
bin.version.minor = chip.minor;
bin.version.release = chip.maintenance;
bin.version.build = chip.build;
offset += chip.length;
}
version.major = header.major;
version.minor = header.minor;
version.release = header.maintenance;
version.build = header.build;
binaries = std::move(parsed);
return true;
}
bool FWBundle::getFW(const std::string& iefName, std::vector<uint8_t>& fw) const {
const auto it = binaries.find(FWBin::HashDjb2(iefName));
if(it == binaries.end()) {
Log::Error(__func__, "The chip binary could not be found");
return false;
}
fw = it->second.data;
return true;
}
std::optional<icsneo::DeviceAppVersion> FWBundle::getChipVersion(const std::string& iefName) const {
const auto it = binaries.find(FWBin::HashDjb2(iefName));
if(it == binaries.end())
return std::nullopt;
return icsneo::DeviceAppVersion(it->second.version.major, it->second.version.minor);
}
} // namespace Bootloader
} // namespace icsneo
@@ -0,0 +1,25 @@
#include "icsneo/device/extensions/bootloader/parser/fwloader.h"
#include "icsneo/device/extensions/bootloader/parser/fwbin.h"
#include "icsneo/device/extensions/bootloader/parser/fwbundle.h"
namespace icsneo {
namespace Bootloader {
std::unique_ptr<FWRepo> FWLoader::Load(const std::string& path) {
if(FWBundle::IsFWBundle(path)) {
auto bundle = std::make_unique<FWBundle>();
if(!bundle->load(path))
return nullptr;
return bundle;
}
auto bin = std::make_unique<FWBin>();
if(!bin->load(path))
return nullptr;
return bin;
}
} // namespace Bootloader
} // namespace icsneo
@@ -0,0 +1,73 @@
#include "icsneo/device/extensions/bootloader/parser/fwzip.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include <miniz.h>
namespace icsneo {
namespace Bootloader {
class ZipHandle {
public:
ZipHandle() {
mz_zip_zero_struct(&handle);
}
~ZipHandle() {
mz_zip_reader_end(&handle);
}
operator mz_zip_archive*() {
return &handle;
}
private:
mz_zip_archive handle;
};
// A zip firmware image holds a single entry, the raw binary to send to the device
FWZip::FWZip(std::vector<uint8_t>&& tagData)
: handle(std::make_unique<ZipHandle>()), zipData(std::move(tagData)) {
if(!mz_zip_reader_init_mem(*handle, zipData.data(), zipData.size(), 0)) {
Log::Error(__func__, "The firmware zip could not be opened");
return;
}
mz_zip_archive_file_stat file;
if(!mz_zip_reader_file_stat(*handle, 0, &file)) {
Log::Error(__func__, "The firmware zip is empty or its first entry could not be read");
} else {
uncompressedSize = static_cast<size_t>(file.m_uncomp_size);
}
}
FWZip::~FWZip() = default;
bool FWZip::readAll(uint8_t* out) {
if(!uncompressedSize) {
return false;
}
if(!out) {
Log::Error(__func__, "No output buffer for the firmware zip");
return false;
}
if(!mz_zip_reader_extract_to_mem(*handle, 0, out, *uncompressedSize, 0)) {
Log::Error(__func__, "The firmware zip could not be decompressed");
return false;
}
return true;
}
bool FWZip::readAll(std::vector<uint8_t>& out) {
if(!uncompressedSize) {
return false;
}
out = std::vector<uint8_t>(*uncompressedSize, 0);
return readAll(out.data());
}
} // namespace Bootloader
} // namespace icsneo
@@ -0,0 +1,74 @@
#include "icsneo/device/extensions/bootloader/parser/ief.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include <cstring>
namespace icsneo {
namespace Bootloader {
/**
* IEF file format (all integers little-endian):
*
* uint8_t magic 0xAA
* Version version
* uint8_t configLength
* uint8_t config[configLength] Unused
* Then sectors until the end of the file:
* uint8_t magic 0xAA
* uint32_t index Sector index, see the communication for how this maps to an address
* uint32_t length
* uint8_t data[length]
*/
bool IEF::load(std::vector<uint8_t>&& bytes) {
static constexpr uint8_t Magic = 0xAA;
// Magic, version, config byte count
static constexpr size_t FixedHeaderSize = 1 + sizeof(Version) + 1;
// Magic, index, size
static constexpr size_t SectorHeaderSize = 1 + sizeof(uint32_t) + sizeof(uint32_t);
data = std::move(bytes);
sectors.clear();
if(data.size() < FixedHeaderSize) {
Log::Error(__func__, "IEF too short");
return false;
}
if(data.front() != Magic) {
Log::Error(__func__, "Invalid IEF magic");
return false;
}
std::memcpy(&version, data.data() + 1, sizeof(Version));
const size_t headerSize = FixedHeaderSize + data[FixedHeaderSize - 1];
if(data.size() <= headerSize) {
Log::Error(__func__, "Invalid IEF config bytes");
return false;
}
size_t offset = headerSize;
while(data.size() - offset >= SectorHeaderSize) {
if(data[offset] != Magic) {
Log::Error(__func__, "Invalid IEF sector magic");
return false;
}
uint32_t index;
uint32_t size;
std::memcpy(&index, data.data() + offset + 1, sizeof(index));
std::memcpy(&size, data.data() + offset + 1 + sizeof(index), sizeof(size));
offset += SectorHeaderSize;
if(data.size() - offset < size) {
Log::Error(__func__, "Invalid IEF sector");
return false;
}
sectors.emplace_back(index, BytesView(data.data() + offset, size));
offset += size;
}
return true;
}
} // namespace Bootloader
} // namespace icsneo
@@ -0,0 +1,57 @@
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include <cstdlib>
#include <iostream>
namespace icsneo {
namespace Bootloader {
namespace Log {
// Set ICS_BOOTLOADER_LOG_LEVEL to 1 (error) through 5 (trace) to enable logging to stderr
static int GetLogLevel() {
static const int level = [] {
#ifdef _MSC_VER
#pragma warning(push)
#pragma warning(disable: 4996) // getenv
#endif
const char* env = std::getenv("ICS_BOOTLOADER_LOG_LEVEL");
#ifdef _MSC_VER
#pragma warning(pop)
#endif
return env ? std::atoi(env) : 0;
}();
return level;
}
static void Write(int level, const char* prefix, const std::string& subject, const std::string& msg) {
if(GetLogLevel() >= level)
std::cerr << prefix << subject << " - " << msg << std::endl;
}
void Trace(const std::string& subject, const std::string& msg) {
Write(5, "[TRACE] ", subject, msg);
}
void Debug(const std::string& subject, const std::string& msg) {
Write(4, "[DEBUG] ", subject, msg);
}
void Info(const std::string& subject, const std::string& msg) {
Write(3, "[INFO] ", subject, msg);
}
void Warning(const std::string& subject, const std::string& msg) {
Write(2, "[WARN] ", subject, msg);
}
void Error(const std::string& subject, const std::string& msg) {
Write(1, "[ERROR] ", subject, msg);
}
} // namespace Log
} // namespace Bootloader
} // namespace icsneo
+50
View File
@@ -0,0 +1,50 @@
#include "icsneo/device/extensions/bootloader/version.h"
#include "icsneo/device/extensions/bootloader/platform/logging.h"
#include <limits>
#include <optional>
#include <regex>
namespace icsneo {
namespace Bootloader {
bool FirmwareSourceVersion::load(const std::string& toParse) {
static const std::regex VersionRegex{"(\\d+)\\.(\\d+)\\.(\\d+)\\.(\\d+)"};
std::smatch match;
if(!std::regex_match(toParse, match, VersionRegex)) {
Log::Error(__func__, "Failed to parse version");
return false;
}
const auto parse = [](const std::string& input) -> std::optional<ValueType> {
// The regex guarantees only digits, limit the length so stoul can not overflow
if(input.size() > 3) {
return std::nullopt;
}
const auto value = std::stoul(input);
if(value > std::numeric_limits<ValueType>::max()) {
return std::nullopt;
}
return static_cast<ValueType>(value);
};
const auto parsedMajor = parse(match[1]);
const auto parsedMinor = parse(match[2]);
const auto parsedRelease = parse(match[3]);
const auto parsedBuild = parse(match[4]);
if(!parsedMajor || !parsedMinor || !parsedRelease || !parsedBuild) {
Log::Error(__func__, "Invalid sized version number");
return false;
}
major = *parsedMajor;
minor = *parsedMinor;
release = *parsedRelease;
build = *parsedBuild;
return true;
}
} // namespace Bootloader
} // namespace icsneo
+174
View File
@@ -1113,3 +1113,177 @@ bool IDeviceSettings::setLinuxConfigurationPort(LinuxConfigurationPort port) {
(*os)->ethConfigurationPort = static_cast<uint8_t>(port);
return true;
}
namespace {
void reportT1SUnavailable(const icsneo::device_eventhandler_t& report) {
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
}
std::optional<bool> t1sFlag(const ETHERNET10T1S_SETTINGS* t1s, uint8_t flag, const icsneo::device_eventhandler_t& report) {
if(t1s == nullptr) {
reportT1SUnavailable(report);
return std::nullopt;
}
return (t1s->flags & flag) != 0;
}
bool setT1SFlag(ETHERNET10T1S_SETTINGS* t1s, uint8_t flag, bool enable, const icsneo::device_eventhandler_t& report) {
if(t1s == nullptr) {
reportT1SUnavailable(report);
return false;
}
if(enable)
t1s->flags |= flag;
else
t1s->flags = static_cast<uint8_t>(t1s->flags & ~flag);
return true;
}
std::optional<uint8_t> t1sByte(const uint8_t* field, const icsneo::device_eventhandler_t& report) {
if(field == nullptr) {
reportT1SUnavailable(report);
return std::nullopt;
}
return *field;
}
bool setT1SByte(uint8_t* field, uint8_t value, const icsneo::device_eventhandler_t& report) {
if(field == nullptr) {
reportT1SUnavailable(report);
return false;
}
*field = value;
return true;
}
} // namespace
std::optional<bool> IDeviceSettings::isT1SPLCAEnabledFor(Network net) const {
return t1sFlag(getT1SSettingsFor(net), ETHERNET10T1S_SETTINGS_FLAG_ENABLE_PLCA, report);
}
bool IDeviceSettings::setT1SPLCAFor(Network net, bool enable) {
return setT1SFlag(getMutableT1SSettingsFor(net), ETHERNET10T1S_SETTINGS_FLAG_ENABLE_PLCA, enable, report);
}
std::optional<uint8_t> IDeviceSettings::getT1SLocalIDFor(Network net) const {
const auto* t1s = getT1SSettingsFor(net);
return t1sByte(t1s == nullptr ? nullptr : &t1s->local_id, report);
}
bool IDeviceSettings::setT1SLocalIDFor(Network net, uint8_t id) {
auto* t1s = getMutableT1SSettingsFor(net);
return setT1SByte(t1s == nullptr ? nullptr : &t1s->local_id, id, report);
}
std::optional<uint8_t> IDeviceSettings::getT1SMaxNodesFor(Network net) const {
const auto* t1s = getT1SSettingsFor(net);
return t1sByte(t1s == nullptr ? nullptr : &t1s->max_num_nodes, report);
}
bool IDeviceSettings::setT1SMaxNodesFor(Network net, uint8_t nodes) {
auto* t1s = getMutableT1SSettingsFor(net);
return setT1SByte(t1s == nullptr ? nullptr : &t1s->max_num_nodes, nodes, report);
}
std::optional<uint8_t> IDeviceSettings::getT1STxOppTimerFor(Network net) const {
const auto* t1s = getT1SSettingsFor(net);
return t1sByte(t1s == nullptr ? nullptr : &t1s->to_timer, report);
}
bool IDeviceSettings::setT1STxOppTimerFor(Network net, uint8_t timer) {
auto* t1s = getMutableT1SSettingsFor(net);
return setT1SByte(t1s == nullptr ? nullptr : &t1s->to_timer, timer, report);
}
std::optional<uint8_t> IDeviceSettings::getT1SMaxBurstFor(Network net) const {
const auto* t1s = getT1SSettingsFor(net);
return t1sByte(t1s == nullptr ? nullptr : &t1s->max_burst_count, report);
}
bool IDeviceSettings::setT1SMaxBurstFor(Network net, uint8_t burst) {
auto* t1s = getMutableT1SSettingsFor(net);
return setT1SByte(t1s == nullptr ? nullptr : &t1s->max_burst_count, burst, report);
}
std::optional<uint8_t> IDeviceSettings::getT1SBurstTimerFor(Network net) const {
const auto* t1s = getT1SSettingsFor(net);
return t1sByte(t1s == nullptr ? nullptr : &t1s->burst_timer, report);
}
bool IDeviceSettings::setT1SBurstTimerFor(Network net, uint8_t timer) {
auto* t1s = getMutableT1SSettingsFor(net);
return setT1SByte(t1s == nullptr ? nullptr : &t1s->burst_timer, timer, report);
}
std::optional<uint8_t> IDeviceSettings::getT1SLocalIDAlternateFor(Network net) const {
const auto* t1s = getT1SSettingsFor(net);
return t1sByte(t1s == nullptr ? nullptr : &t1s->local_id_alternate, report);
}
bool IDeviceSettings::setT1SLocalIDAlternateFor(Network net, uint8_t id) {
auto* t1s = getMutableT1SSettingsFor(net);
return setT1SByte(t1s == nullptr ? nullptr : &t1s->local_id_alternate, id, report);
}
std::optional<bool> IDeviceSettings::isT1STerminationEnabledFor(Network net) const {
return t1sFlag(getT1SSettingsFor(net), ETHERNET10T1S_SETTINGS_FLAG_TERMINATION, report);
}
bool IDeviceSettings::setT1STerminationFor(Network net, bool enable) {
return setT1SFlag(getMutableT1SSettingsFor(net), ETHERNET10T1S_SETTINGS_FLAG_TERMINATION, enable, report);
}
std::optional<bool> IDeviceSettings::isT1SBusDecodingBeaconsEnabledFor(Network net) const {
return t1sFlag(getT1SSettingsFor(net), ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_BEACONS, report);
}
bool IDeviceSettings::setT1SBusDecodingBeaconsFor(Network net, bool enable) {
return setT1SFlag(getMutableT1SSettingsFor(net), ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_BEACONS, enable, report);
}
std::optional<bool> IDeviceSettings::isT1SBusDecodingAllEnabledFor(Network net) const {
return t1sFlag(getT1SSettingsFor(net), ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_ALL, report);
}
bool IDeviceSettings::setT1SBusDecodingAllFor(Network net, bool enable) {
return setT1SFlag(getMutableT1SSettingsFor(net), ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_ALL, enable, report);
}
std::optional<uint8_t> IDeviceSettings::getT1SMultiIDEnableMaskFor(Network net) const {
const auto* ext = getT1SSettingsExtFor(net);
return t1sByte(ext == nullptr ? nullptr : &ext->enable_multi_id, report);
}
bool IDeviceSettings::setT1SMultiIDEnableMaskFor(Network net, uint8_t mask) {
auto* ext = getMutableT1SSettingsExtFor(net);
return setT1SByte(ext == nullptr ? nullptr : &ext->enable_multi_id, mask, report);
}
std::optional<uint8_t> IDeviceSettings::getT1SMultiIDFor(Network net, uint8_t index) const {
const auto* ext = getT1SSettingsExtFor(net);
if(ext == nullptr) {
reportT1SUnavailable(report);
return std::nullopt;
}
if(index >= sizeof(ext->multi_id)) {
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return std::nullopt;
}
return ext->multi_id[index];
}
bool IDeviceSettings::setT1SMultiIDFor(Network net, uint8_t index, uint8_t id) {
auto* ext = getMutableT1SSettingsExtFor(net);
if(ext == nullptr) {
reportT1SUnavailable(report);
return false;
}
if(index >= sizeof(ext->multi_id)) {
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return false;
}
ext->multi_id[index] = id;
return true;
}
-8
View File
@@ -8,7 +8,6 @@ Dependencies
The minimum requirements to build libicsneo are:
- CMake version 3.12 or newer
- A C++17 compiler
- libpcap on Linux and macOS
Building library & examples
@@ -30,10 +29,3 @@ libicsneo supports being added as a sub-projects with CMake's
#. Clone libicsneo into the desired location within the project
#. Add ``add_subdirectory(path/to/libicsneo)`` to ``CMakeLists.txt``
#. Link the project to libicsneo with ``target_link_libraries(app icsneocpp)``
Linux udev Rules
================
Linux users may want to install the included udev rules to run libicsneo based
applications without root, this can be done with:
``cp 99-intrepidcs.rules /etc/udev/rules.d/``
+22
View File
@@ -107,3 +107,25 @@ Analog Output Control
.. literalinclude:: ../../examples/python/analog_out/analog_out_basic.py
:language: python
ISO-TP CAN1 Loopback
====================
Two devices, CAN1 wired together. ``--raw`` checks the cable, ``--sf`` sends one
firmware single frame, ``--both`` sends a segmented payload with firmware flow control.
:download:`Download example <../../examples/python/iso15765/iso15765_loopback.py>`
.. literalinclude:: ../../examples/python/iso15765/iso15765_loopback.py
:language: python
Firmware Update
===============
Updates the first device found from a ``fw.bin`` or firmware bundle, see
:doc:`firmware_update`.
:download:`Download example <../../examples/python/bootloader/update.py>`
.. literalinclude:: ../../examples/python/bootloader/update.py
:language: python
-11
View File
@@ -25,14 +25,3 @@ To upgrade an existing installation:
.. code-block:: bash
pip install --pre --upgrade icsneopy
Linux udev Rules
================
Linux users may want to install the included udev rules to run icsneopy-based
applications without root. The rules file can be found in the libicsneo source
repository at https://github.com/intrepidcs/libicsneo/.
.. code-block:: bash
sudo cp 99-intrepidcs.rules /etc/udev/rules.d/
-14
View File
@@ -15,17 +15,3 @@ communication library. The source code for libicsneo can be found on GitHub:
icsneoc/index
icsneoc2/index
Linux Installation
==================
Applications that use raw Ethernet device discovery, such as PCAP-backed
discovery, need permission to open raw network sockets. Instead of running your
application with ``sudo``, grant the installed executable the required Linux
capabilities:
.. code-block:: bash
sudo setcap cap_net_raw,cap_net_admin=eip /usr/bin/your-app
Replace ``/usr/bin/your-app`` with the full path to the application executable.
+2 -3
View File
@@ -52,7 +52,7 @@ Although the example program will build without successfully completing the step
First, we are going to build the icsneoc library into a .so file that we can later use in order to access the library functions.
1. Install dependencies with `sudo apt update` then `sudo apt install build-essential cmake libpcap0.8-dev`
1. Install dependencies with `sudo apt update` then `sudo apt install build-essential cmake`
2. Change directories to `libicsneo-examples/third-party/libicsneo` and create a build directory by running `mkdir -p build`
3. Enter the build directory with `cd build`
4. Run `cmake ..` to generate your Makefile.
@@ -72,8 +72,7 @@ Although the example program will build without successfully completing the step
* Hint! Running `cmake -DCMAKE_BUILD_TYPE=Debug ..` will generate the proper scripts to build debug, and `cmake -DCMAKE_BUILD_TYPE=Release ..` will generate the proper scripts to build with all optimizations on.
5. Run `make` to build the library.
* Hint! Speed up your build by using multiple processors! Use `make -j#` where `#` is the number of cores/threads your system has plus one. For instance, on a standard 8 thread Intel i7, you might use `-j9` for an ~8x speedup.
6. Run `sudo ./libicsneoc-example` to run the example.
* Hint! In order to run without sudo, you will need to set up the udev rules. Copy `libicsneo-examples/third-party/libicsneo/99-intrepidcs.rules` to `/etc/udev/rules.d`, then run `udevadm control --reload-rules && udevadm trigger` afterwards. While the program will still run without setting up these rules, it will fail to open any devices.
6. Run `./libicsneoc-example` to run the example.
## macOS
+2 -3
View File
@@ -52,7 +52,7 @@ Although the example program will build without successfully completing the step
First, we are going to build the icsneoc library into a .so file that we can later use in order to access the library functions.
1. Install dependencies with `sudo apt update` then `sudo apt install build-essential cmake libpcap0.8-dev`
1. Install dependencies with `sudo apt update` then `sudo apt install build-essential cmake`
2. Change directories to `libicsneo-examples/third-party/libicsneo` and create a build directory by running `mkdir -p build`
3. Enter the build directory with `cd build`
4. Run `cmake ..` to generate your Makefile.
@@ -72,8 +72,7 @@ Although the example program will build without successfully completing the step
* Hint! Running `cmake -DCMAKE_BUILD_TYPE=Debug ..` will generate the proper scripts to build debug, and `cmake -DCMAKE_BUILD_TYPE=Release ..` will generate the proper scripts to build with all optimizations on.
5. Run `make` to build the library.
* Hint! Speed up your build by using multiple processors! Use `make -j#` where `#` is the number of cores/threads your system has plus one. For instance, on a standard 8 thread Intel i7, you might use `-j9` for an ~8x speedup.
6. Run `sudo ./libicsneoc-example` to run the example.
* Hint! In order to run without sudo, you will need to set up the udev rules. Copy `libicsneo-examples/third-party/libicsneo/99-intrepidcs.rules` to `/etc/udev/rules.d`, then run `udevadm control --reload-rules && udevadm trigger` afterwards. While the program will still run without setting up these rules, it will fail to open any devices.
6. Run `./libicsneoc-example` to run the example.
## macOS
+2 -3
View File
@@ -52,7 +52,7 @@ Although the example program will build without successfully completing the step
First, we are going to build the icsneoc library into a .so file that we can later use in order to access the library functions.
1. Install dependencies with `sudo apt update` then `sudo apt install build-essential cmake libpcap0.8-dev`
1. Install dependencies with `sudo apt update` then `sudo apt install build-essential cmake`
2. Change directories to `libicsneo-examples/third-party/libicsneo` and create a build directory by running `mkdir -p build`
3. Enter the build directory with `cd build`
4. Run `cmake ..` to generate your Makefile.
@@ -72,8 +72,7 @@ Although the example program will build without successfully completing the step
* Hint! Running `cmake -DCMAKE_BUILD_TYPE=Debug ..` will generate the proper scripts to build debug, and `cmake -DCMAKE_BUILD_TYPE=Release ..` will generate the proper scripts to build with all optimizations on.
5. Run `make` to build the library.
* Hint! Speed up your build by using multiple processors! Use `make -j#` where `#` is the number of cores/threads your system has plus one. For instance, on a standard 8 thread Intel i7, you might use `-j9` for an ~8x speedup.
6. Run `sudo ./libicsneoc-example` to run the example.
* Hint! In order to run without sudo, you will need to set up the udev rules. Copy `libicsneo-examples/third-party/libicsneo/99-intrepidcs.rules` to `/etc/udev/rules.d`, then run `udevadm control --reload-rules && udevadm trigger` afterwards. While the program will still run without setting up these rules, it will fail to open any devices.
6. Run `./libicsneoc-example` to run the example.
## macOS
+1 -1
View File
@@ -378,7 +378,7 @@ static int configure_t1s_port(icsneoc2_device_t* device, icsneoc2_netid_t netid,
if(res != icsneoc2_error_success) return print_error_code("Failed to set T1S TX opportunity timer", res);
res = icsneoc2_settings_t1s_burst_timer_set(device, netid, T1S_BURST_TIMER);
if(res != icsneoc2_error_success) return print_error_code("Failed to set T1S burst timer", res);
res = icsneoc2_settings_t1s_max_burst_timer_for_set(device, netid, T1S_MAX_BURST);
res = icsneoc2_settings_t1s_max_burst_set(device, netid, T1S_MAX_BURST);
if(res != icsneoc2_error_success) return print_error_code("Failed to set T1S max burst", res);
res = icsneoc2_settings_t1s_is_termination_enabled_for(device, netid, &termination);
+2 -3
View File
@@ -32,15 +32,14 @@ If you haven't done this, `third-party/libicsneo` will be empty and you won't be
### Ubuntu 18.04 LTS
1. Install dependencies with `sudo apt update` then `sudo apt install build-essential cmake libpcap0.8-dev`
1. Install dependencies with `sudo apt update` then `sudo apt install build-essential cmake`
2. Change directories to your `libicsneo-examples/libicsneocpp-example` folder and create a build directory by running `mkdir -p build`
3. Enter the build directory with `cd build`
4. Run `cmake ..` to generate your Makefile.
* Hint! Running `cmake -DCMAKE_BUILD_TYPE=Debug ..` will generate the proper scripts to build debug, and `cmake -DCMAKE_BUILD_TYPE=Release ..` will generate the proper scripts to build with all optimizations on.
5. Run `make libicsneocpp-interactive-example` to build.
* Hint! Speed up your build by using multiple processors! Use `make libicsneocpp-interactive-example -j#` where `#` is the number of cores/threads your system has plus one. For instance, on a standard 8 thread Intel i7, you might use `-j9` for an ~8x speedup.
6. Now run `sudo ./libicsneocpp-interactive-example` to run the example.
* Hint! In order to run without sudo, you will need to set up the udev rules. Copy `libicsneo-examples/third-party/libicsneo/99-intrepidcs.rules` to `/etc/udev/rules.d`, then run `udevadm control --reload-rules && udevadm trigger` afterwards. While the program will still run without setting up these rules, it will fail to open any devices.
6. Now run `./libicsneocpp-interactive-example` to run the example.
7. If you wish to run the simple example instead, replace any instances of "interactive" with "simple" in steps 5 and 6.
### macOS
+1 -1
View File
@@ -77,7 +77,7 @@ int main(int, char**) {
cfg.setTxEnable(true);
// Write config to the device
if(!device->writeMACsecConfig(cfg)) {
if(!device->writeMACsecConfig(cfg, icsneo::Network::NetID::AE_01)) {
std::cout << "Failed to write MACsec config" << std::endl;
std::cout << icsneo::GetLastError() << std::endl;
return -1;
+2 -3
View File
@@ -32,15 +32,14 @@ If you haven't done this, `third-party/libicsneo` will be empty and you won't be
### Ubuntu 18.04 LTS
1. Install dependencies with `sudo apt update` then `sudo apt install build-essential cmake libpcap0.8-dev`
1. Install dependencies with `sudo apt update` then `sudo apt install build-essential cmake`
2. Change directories to your `libicsneo-examples/libicsneocpp-example` folder and create a build directory by running `mkdir -p build`
3. Enter the build directory with `cd build`
4. Run `cmake ..` to generate your Makefile.
* Hint! Running `cmake -DCMAKE_BUILD_TYPE=Debug ..` will generate the proper scripts to build debug, and `cmake -DCMAKE_BUILD_TYPE=Release ..` will generate the proper scripts to build with all optimizations on.
5. Run `make libicsneocpp-interactive-example` to build.
* Hint! Speed up your build by using multiple processors! Use `make libicsneocpp-interactive-example -j#` where `#` is the number of cores/threads your system has plus one. For instance, on a standard 8 thread Intel i7, you might use `-j9` for an ~8x speedup.
6. Now run `sudo ./libicsneocpp-interactive-example` to run the example.
* Hint! In order to run without sudo, you will need to set up the udev rules. Copy `libicsneo-examples/third-party/libicsneo/99-intrepidcs.rules` to `/etc/udev/rules.d`, then run `udevadm control --reload-rules && udevadm trigger` afterwards. While the program will still run without setting up these rules, it will fail to open any devices.
6. Now run `./libicsneocpp-interactive-example` to run the example.
7. If you wish to run the simple example instead, replace any instances of "interactive" with "simple" in steps 5 and 6.
### macOS
+49
View File
@@ -0,0 +1,49 @@
import sys
import icsneopy
def update(firmware_path):
devices = icsneopy.find_all_devices()
if len(devices) == 0:
print("no devices found")
return False
device = devices[0]
print(f"selected {device}")
if not device.open():
print("unable to open device")
return False
fw = icsneopy.Bootloader.FWLoader.load(firmware_path)
if fw is None:
print(f"unable to load firmware from {firmware_path}")
return False
last_status = None
# repeated status messages overwrite the current line so progress updates in place
def logger(status_type, status, progress):
nonlocal last_status
if last_status not in (None, status):
print()
last_status = status
print(f"\r{status}" + (f" ({progress * 100:.1f}%)" if progress is not None else ""), end="", flush=True)
return icsneopy.Device.OpenDirective.Continue
# force_flash updates every chip, even those already at the version in the firmware file
ok = icsneopy.Bootloader.update(device, fw, logger, force_flash=True)
print()
if not ok:
print(f"update failed: {icsneopy.get_last_error()}")
return False
print("update complete")
return True
if __name__ == "__main__":
if len(sys.argv) != 2:
print(f"usage: {sys.argv[0]} <fw.bin|bundle>")
sys.exit(1)
sys.exit(0 if update(sys.argv[1]) else 1)
@@ -0,0 +1,264 @@
"""
Two-device ISO-TP loopback on CAN1.
Firmware segments the payload. This script sends it once and prints CAN1
frames with the ISO-TP PCI nibble decoded (SF/FF/CF/FC).
Wire CAN1 of two devices together (CANH/CANL, terminated).
python iso15765_loopback.py --raw
python iso15765_loopback.py --sf
python iso15765_loopback.py --both
"""
import argparse
import threading
import time
from datetime import timedelta
import icsneopy
CAN1 = icsneopy.Network.NetID.DWCAN_01
def pci_describe(data):
if not data:
return ""
pci_type = data[0] >> 4
pci_low = data[0] & 0x0F
if pci_type == 0x0:
if pci_low > 7 or len(data) < 1 + pci_low:
return ""
return f"SF len={pci_low}"
if pci_type == 0x1:
if len(data) < 8:
return ""
length = (pci_low << 8) | data[1]
if length < 8:
return ""
return f"FF len={length}"
if pci_type == 0x2:
if len(data) < 2:
return ""
return f"CF SN={pci_low}"
if pci_type == 0x3:
if len(data) < 3 or pci_low > 2:
return ""
fs_name = ("CTS", "WAIT", "OVFLW")[pci_low]
return f"FC FS={fs_name} BS={data[1]} STmin=0x{data[2]:02X}"
return ""
def print_api_result(what, ok):
line = f" {what}: {'OK' if ok else 'FAIL'}"
if not ok:
err = icsneopy.get_last_error()
if err.get_type() != icsneopy.APIEvent.Type.NoErrorFound:
line += f" [{err.describe()}]"
print(line)
def is_extended(arb_id):
return arb_id > 0x7FF
def make_args(tx_id, fc_id, payload, rx):
msg = icsneopy.Iso15765MessageArgs()
msg.tx_index = 0
msg.arb_id = icsneopy.Iso15765MessageArgs.ArbId(tx_id, is_extended(tx_id))
msg.flow_control_arb_id = icsneopy.Iso15765MessageArgs.ArbId(fc_id, is_extended(fc_id))
msg.flow_control_arb_id_mask = 0x1FFFFFFF if is_extended(tx_id) else 0x7FF
msg.is_can_fd = False
msg.is_brs_enabled = False
msg.tx_dl = 8
msg.padding_value = 0x00
msg.fs_timeout = 75
msg.fs_wait_timeout = 150
msg.cf_timeout = 150
msg.is_flow_control_enabled = rx
if payload:
msg.data = payload
return msg
def transmit_can(device, arb_id, data):
frame = icsneopy.CANMessage()
frame.network = icsneopy.Network(CAN1)
frame.arbid = arb_id
# RawMessage.data is vector<uint8_t>: a list of ints, not bytes.
frame.data = list(data)
frame.isExtended = is_extended(arb_id)
frame.isCANFD = False
ok = device.transmit(frame)
if not ok:
print_api_result("transmit CAN", ok)
return ok
class Sniffer:
def __init__(self, tag):
self.tag = tag
self.t0 = None
self.lock = threading.Lock()
def on_message(self, message):
if not isinstance(message, icsneopy.CANMessage):
return
if message.network.get_type() != icsneopy.Network.Type.CAN:
return
with self.lock:
if self.t0 is None:
self.t0 = message.timestamp
rel_ms = 0.0
if message.timestamp >= self.t0:
rel_ms = (message.timestamp - self.t0) / 1e6
direction = "TX" if message.transmitted else "RX"
width = 8 if is_extended(message.arbid) else 3
data = " ".join(f"{b:02X}" for b in message.data)
line = (
f" [{self.tag} {direction}] {rel_ms:8.3f} ms "
f"{message.network} 0x{message.arbid:0{width}X} "
f"[{len(message.data)}] {data}"
)
pci = pci_describe(message.data)
if pci:
line += f" {pci}"
print(line)
def open_and_online(device, baud, keep_baud):
print(f"Opening {device.describe()} ...")
if not device.open():
print_api_result("open", False)
return False
if not keep_baud and device.settings is not None:
net = icsneopy.Network(CAN1)
if not device.settings.set_baudrate(net, baud):
print_api_result("set_baudrate", False)
elif not device.settings.apply(True):
print_api_result("settings.apply(temporary)", False)
if not device.go_online():
print_api_result("go_online", False)
device.close()
return False
return True
def close_device(device):
if device is None:
return
device.iso15765_disable_all()
if device.is_online():
device.go_offline()
if device.is_open():
device.close()
def find_by_serial(devices, serial):
for device in devices:
if device.get_serial().lower() == serial.lower():
return device
return None
def parse_args():
parser = argparse.ArgumentParser(
description="Two Intrepid devices with CAN1 wired together (CANH/CANL, terminated)."
)
mode = parser.add_mutually_exclusive_group(required=True)
mode.add_argument("--raw", action="store_true", help="Raw CAN ping-pong (cable check)")
mode.add_argument("--sf", action="store_true", help="Firmware ISO-TP single-frame TX from tester")
mode.add_argument("--both", action="store_true", help="Firmware ISO-TP TX on tester, firmware flow-control on ECU")
parser.add_argument("--tester", default="", help="Tester (sender) serial. Optional if exactly two devices are found.")
parser.add_argument("--ecu", default="", help="ECU / peer serial. Optional if exactly two devices are found.")
parser.add_argument("--baud", type=int, default=500000, help="CAN1 baud, applied temporarily (default 500000)")
parser.add_argument("--keep-baud", action="store_true", help="Do not change device baud")
parser.add_argument("--tx-id", type=lambda s: int(s, 0), default=0x7E0, help="Tester ISO-TP CAN ID (default 0x7E0)")
parser.add_argument("--fc-id", type=lambda s: int(s, 0), default=0x7E8, help="Flow-control CAN ID (default 0x7E8)")
parser.add_argument("--bytes", type=int, default=None, help="ISO-TP payload size (sf default 5, both default 20)")
parser.add_argument("--listen-ms", type=int, default=2000, help="Time to listen after the action (default 2000)")
return parser.parse_args()
def main():
args = parse_args()
print(f"libicsneo {icsneopy.get_version()}")
devices = icsneopy.find_all_devices()
print(f"Found {len(devices)} device(s)")
for device in devices:
print(f" {device.describe()} serial={device.get_serial()}")
if len(devices) < 2:
raise SystemExit("Need two devices connected.")
if not args.tester and not args.ecu:
if len(devices) != 2:
raise SystemExit("More than two devices found; pass --tester and --ecu serials.")
tester, ecu = devices[0], devices[1]
print("No serials given; using first as tester, second as ECU.")
else:
if not args.tester or not args.ecu:
raise SystemExit("Pass both --tester and --ecu, or neither.")
tester = find_by_serial(devices, args.tester)
ecu = find_by_serial(devices, args.ecu)
if tester is None or ecu is None:
raise SystemExit("Could not match tester/ECU serials.")
payload_size = args.bytes if args.bytes is not None else (5 if args.sf else 20)
payload = [i & 0xFF for i in range(payload_size)]
print(f"Tester: {tester.describe()}")
print(f"ECU: {ecu.describe()}")
if not args.raw:
print(f"CAN1 TX 0x{args.tx_id:X} FC 0x{args.fc_id:X} payload {payload_size} bytes")
print()
network = icsneopy.Network(CAN1)
try:
if not open_and_online(tester, args.baud, args.keep_baud):
return 1
if not open_and_online(ecu, args.baud, args.keep_baud):
return 1
for device, sniffer in ((tester, Sniffer("TESTER")), (ecu, Sniffer("ECU "))):
callback = icsneopy.MessageCallback(sniffer.on_message, icsneopy.MessageFilter(CAN1))
device.add_message_callback(callback)
if args.raw:
print("Mode --raw: tester 0x123, then ECU 0x456")
transmit_can(tester, 0x123, [0x11, 0x22, 0x33, 0x44])
time.sleep(0.2)
transmit_can(ecu, 0x456, [0x55, 0x66, 0x77, 0x88])
elif args.sf:
print("Mode --sf: firmware ISO-TP single frame from tester")
if len(payload) > 7:
print(" warning: payload > 7 bytes will be a First Frame (no flow control in this mode)")
ok = tester.iso15765_enable(network)
print_api_result("tester iso15765_enable", ok)
msg = make_args(args.tx_id, args.fc_id, payload, rx=False)
ok = tester.iso15765_transmit_message(network, msg, timedelta(0))
print_api_result("tester iso15765_transmit_message", ok)
else:
print("Mode --both: firmware TX on tester, firmware flow-control on ECU")
ok = tester.iso15765_enable(network)
print_api_result("tester iso15765_enable", ok)
ok = ecu.iso15765_enable(network)
print_api_result("ECU iso15765_enable", ok)
msg = make_args(args.tx_id, args.fc_id, [], rx=True)
ok = ecu.iso15765_setup_rx_flow_control(network, msg)
print_api_result("ECU iso15765_setup_rx_flow_control", ok)
time.sleep(0.1)
msg = make_args(args.tx_id, args.fc_id, payload, rx=False)
ok = tester.iso15765_transmit_message(network, msg, timedelta(0))
print_api_result("tester iso15765_transmit_message", ok)
time.sleep(args.listen_ms / 1000.0)
finally:
close_device(tester)
close_device(ecu)
return 0
if __name__ == "__main__":
raise SystemExit(main())
+4
View File
@@ -126,6 +126,9 @@ public:
SettingNotAvaiableDevice = 0x2057,
DiskFormatNotSupported = 0x2058,
DiskFormatInvalidCount = 0x2059,
TC10RequestFailed = 0x205A,
FirmwareUpdateNotSupported = 0x205B,
FirmwareUpdateFailed = 0x205C,
// Transport Events
FailedToRead = 0x3000,
@@ -167,6 +170,7 @@ public:
ServdNoDataError = ServdBindError + 9,
ServdJoinMulticastError = ServdBindError + 10,
ServdNotReachable = ServdBindError + 11,
ServdDisabled = ServdBindError + 12,
// DXX
DXXErrorSys = 0x6100,
+3
View File
@@ -31,7 +31,10 @@ enum class Command : uint8_t {
LoadCoreMini = 0x43,
GetRTC = 0x49,
SetRTC = 0x50,
PeripheralBootloader = 0x83,
EnterBootloader = 0xA0,
RequestSerialNumber = 0xA1,
ValidateDevice = 0xA2,
GetMainVersion = 0xA3, // Previously known as RED_CMD_APP_VERSION_REQ
SetSettings = 0xA4, // Previously known as RED_CMD_SET_BAUD_REQ, follow up with SaveSettings to write to EEPROM
//GetSettings = 0xA5, // Previously known as RED_CMD_READ_BAUD_REQ, now unused
@@ -8,6 +8,7 @@
#include "icsneo/communication/packet.h"
#include <vector>
#include <memory>
#include <optional>
namespace icsneo {
@@ -17,13 +18,16 @@ namespace icsneo {
#endif
struct PhyMessage {
bool Enabled;
bool WriteEnable;
bool Clause45Enable;
uint8_t BusIndex;
uint8_t Version;
bool Enabled = false;
bool WriteEnable = false;
bool Clause45Enable = false;
uint8_t BusIndex = 0;
uint8_t Version = PhyPacketVersion;
// Unset on locally constructed messages; every decoded response sets the raw wire status.
// Ignored when sending. A value does not establish firmware error coverage.
std::optional<uint8_t> Status;
union {
Clause22Message Clause22;
Clause22Message Clause22{};
Clause45Message Clause45;
};
};
@@ -65,7 +65,7 @@ struct PhyRegisterPacket_t {
#pragma pack(pop)
static constexpr size_t MaxPhyEntries = 128u;
static constexpr size_t MaxBytesPhyEntries = MaxPhyEntries * sizeof(PhyRegisterHeader_t);
static constexpr size_t MaxBytesPhyEntries = MaxPhyEntries * sizeof(PhyRegisterPacket_t);
static constexpr uint8_t PhyPacketVersion = 1u;
static constexpr uint8_t FiveBits = 0x1Fu;
-2
View File
@@ -150,7 +150,6 @@ private:
uint8_t maxSecY;
uint8_t maxSa;
uint8_t maxRule;
uint16_t binIndex;
DeviceType type;
std::vector<MACsecRxRule> rxRule;
@@ -205,7 +204,6 @@ public:
void clear();
std::vector<uint8_t> serialize() const;
operator bool() const;
uint16_t getBinIndex() const;
DeviceType getType() const;
uint8_t getMaxNumRule() const;
uint8_t getMaxNumSecY() const;
+3 -2
View File
@@ -91,9 +91,10 @@ struct FlashPhase : public BootloaderPhase {
bool authenticate = true;
bool encrypt = true;
bool checkOutOfDate = true;
uint8_t slot = UINT8_MAX;
FlashPhase(ChipID chip, BootloaderCommunication comm, bool authenticate = true, bool encrypt = true, bool checkOutOfDate = true)
: chip(chip), comm(comm), authenticate(authenticate), encrypt(encrypt), checkOutOfDate(checkOutOfDate) {}
FlashPhase(ChipID chip, BootloaderCommunication comm, bool authenticate = true, bool encrypt = true, bool checkOutOfDate = true, uint8_t slot = UINT8_MAX)
: chip(chip), comm(comm), authenticate(authenticate), encrypt(encrypt), checkOutOfDate(checkOutOfDate), slot(slot) {}
};
enum class BootloaderSetting {
+2 -1
View File
@@ -138,7 +138,8 @@ enum class ChipID : icsneoc2_chip_id_t {
RADMOONT1S_ZCHIP = icsneoc2_chip_id_radmoont1s_zchip,
RADGigastar2_ZYNQ = icsneoc2_chip_id_radgigastar2_zynq,
SFPModule_ent11100_MCHIP = icsneoc2_chip_id_sfpmodule_ent11100_mchip,
RADGemini_MCHIP = icsneoc2_chip_id_radgemini_mchip,
RADArgos_MCHIP = icsneoc2_chip_id_radargos_mchip,
SFPModule_ad1101_MCHIP = icsneoc2_chip_id_sfpmodule_ad1101_mchip,
Invalid = icsneoc2_chip_id_invalid
};
+12 -2
View File
@@ -12,6 +12,7 @@
#include <type_traits>
#include <optional>
#include <unordered_map>
#include <map>
#include <set>
#include <unordered_set>
#include <chrono>
@@ -150,7 +151,8 @@ public:
RADMoonT1S = 56,
RADGigastar2 = 57,
SFPModule_ent11100 = 58,
RADGemini = 60,
RADArgos = 60,
SFPModule_ad1101 = 61,
};
virtual ProductID getProductID() const = 0;
@@ -897,7 +899,8 @@ public:
std::optional<GPTPStatus> getGPTPStatus(std::chrono::milliseconds timeout = std::chrono::milliseconds(100));
/* MACsec support */
virtual bool writeMACsecConfig(const MACsecConfig& cfg);
std::vector<Network> getMACsecNetworks() const;
bool writeMACsecConfig(const MACsecConfig& cfg, Network::NetID network);
std::shared_ptr<DeviceExtension> getExtension(const std::string& name) const;
@@ -917,6 +920,13 @@ public:
bool iso15765SetupRxFlowControl(const Network& network, const Iso15765MessageArgs& msg);
protected:
using MACsecNetworkMap = std::map<Network::NetID, uint16_t>;
virtual const MACsecNetworkMap& getMACsecNetworkMap() const {
static const MACsecNetworkMap networks;
return networks;
}
bool online = false;
int messagePollingCallbackID = 0;
int internalHandlerCallbackID = 0;
+4 -4
View File
@@ -62,7 +62,7 @@ public:
RADGigastar2 = icsneoc2_devicetype_rad_gigastar2,
FIRE3_T1S_LIN = icsneoc2_devicetype_fire3_t1s_lin,
FIRE3_T1S_SENT = icsneoc2_devicetype_fire3_t1s_sent,
RADGemini = icsneoc2_devicetype_rad_gemini,
RADArgos = icsneoc2_devicetype_rad_argos,
RED = icsneoc2_devicetype_red,
ECU = icsneoc2_devicetype_ecu,
IEVB = icsneoc2_devicetype_ievb,
@@ -153,8 +153,8 @@ public:
return "RAD-EpsilonXL";
case RADMoon3:
return "RAD-Moon 3";
case RADGemini:
return "RAD-Gemini";
case RADArgos:
return "RAD-Argos";
case RADComet2:
return "RAD-Comet 2";
case RED:
@@ -281,7 +281,7 @@ private:
#define ICSNEO_DEVICETYPE_RADGIGASTAR2 ((devicetype_t)icsneoc2_devicetype_rad_gigastar2)
#define ICSNEO_DEVICETYPE_FIRE3_T1S_LIN ((devicetype_t)icsneoc2_devicetype_fire3_t1s_lin)
#define ICSNEO_DEVICETYPE_FIRE3_T1S_SENT ((devicetype_t)icsneoc2_devicetype_fire3_t1s_sent)
#define ICSNEO_DEVICETYPE_RADGEMINI ((devicetype_t)icsneoc2_devicetype_rad_gemini)
#define ICSNEO_DEVICETYPE_RADARGOS ((devicetype_t)icsneoc2_devicetype_rad_argos)
#define ICSNEO_DEVICETYPE_RED ((devicetype_t)icsneoc2_devicetype_red)
#define ICSNEO_DEVICETYPE_ECU ((devicetype_t)icsneoc2_devicetype_ecu)
#define ICSNEO_DEVICETYPE_IEVB ((devicetype_t)icsneoc2_devicetype_ievb)
@@ -0,0 +1,42 @@
#ifndef __BOOTLOADER_API_H_
#define __BOOTLOADER_API_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/chip.h"
#include "icsneo/device/extensions/bootloader/parser/fwrepo.h"
#include "icsneo/device/extensions/bootloader/parser/ief.h"
#include "icsneo/device/device.h"
#include <string>
#include <optional>
namespace icsneo {
namespace Bootloader {
using Logger = icsneo::Device::OpenStatusHandler;
bool requiresUpdate(icsneo::Device& device, const FWRepo& fw);
bool update(
icsneo::Device& device,
const FWRepo& fw,
Logger logger = [](icsneo::Device::OpenStatusType, const std::string&, std::optional<double>) { return icsneo::Device::OpenDirective::Continue; },
bool alreadyInBootloader = false,
bool forceFlash = false
);
bool enterBootloader(icsneo::Device& device);
bool exitBootloader(icsneo::Device& device, Logger logger, bool updatedChips);
bool verifyConnection(icsneo::Device& device, Logger logger);
bool isSFPChip(const icsneo::Bootloader::Chip& chip);
bool isSFPIEF(const icsneo::Bootloader::IEF& ief);
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_API_H_
@@ -0,0 +1,48 @@
#ifndef __BOOTLOADER_BYTESVIEW_H_
#define __BOOTLOADER_BYTESVIEW_H_
#ifdef __cplusplus
#include <cstdint>
#include <cstddef>
namespace icsneo {
namespace Bootloader {
class BytesView {
private:
const uint8_t* ptr = nullptr;
size_t length = 0;
public:
BytesView() = default;
BytesView(const uint8_t* buf, size_t size) : ptr(buf), length(size) {}
const uint8_t* begin() const {
return ptr;
}
const uint8_t* end() const {
return ptr + length;
}
const uint8_t* data() const {
return ptr;
}
size_t size() const {
return length;
}
const uint8_t& operator[](size_t index) const {
return ptr[index];
}
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_BYTESVIEW_H_
@@ -0,0 +1,35 @@
#ifndef __BOOTLOADER_CHIP_H_
#define __BOOTLOADER_CHIP_H_
#ifdef __cplusplus
#include "icsneo/device/chipinfo.h"
#include <cstdint>
#include <string>
#include <vector>
namespace icsneo {
namespace Bootloader {
struct Chip {
uint8_t expansionSlot = 0;
ChipInfo info;
Chip(const ChipInfo& info) : info(info) {}
ChipID getID() const { return info.id; }
std::string getName() const { return info.name ? info.name : ""; }
std::string getIEFName() const { return info.iefName ? info.iefName : ""; }
const std::vector<const char*>& getMultiIEFName() const { return info.iefSegments; }
FirmwareType getFirmwareType() const { return info.fwType; }
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_CHIP_H_
@@ -0,0 +1,92 @@
#ifndef __BOOTLOADER_APPLICATION_H_
#define __BOOTLOADER_APPLICATION_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/communication/communication.h"
#include "icsneo/device/extensions/bootloader/parser/ief.h"
#include <chrono>
#include <cstdint>
#include <functional>
#include <vector>
namespace icsneo {
namespace Bootloader {
/**
* The software update protocol used with the application
* on RED devices, does not require entering the bootloader.
*/
class Application : public Communication {
public:
Application(icsneo::Device& dev, const ChipInfo& chip, bool doAuthChecks = false, bool encrypt = false)
: Communication(dev), targetChip(chip), doAuthChecks(doAuthChecks), encrypted(encrypt) {}
void setExpansionSlot(uint8_t slot) { targetChip.expansionSlot = slot; }
bool enterApplication() override;
bool hasFinalizationStep() const override {
return true;
}
bool finalize() override;
bool flash(const FWRepo& repo, const icsneo::Device::OpenStatusHandler& handler) override;
bool open() override {
return true;
}
bool close() override {
return true;
}
bool authenticate();
bool sendSoftware(const std::vector<uint8_t>& bin, const icsneo::Device::OpenStatusHandler& handler);
bool sendSoftware(const std::vector<IEF::Sector>& sectors, uint32_t blockSize, const icsneo::Device::OpenStatusHandler& handler);
bool validateFirmware(const DeviceAppVersion& chipSrcVer);
bool validateComponent();
private:
// Sub-commands of ExtendedCommand::SoftwareUpdate
enum class Update : uint8_t {
Write = 0,
Erase = 1,
GetProgress = 2,
CheckVersion = 5,
ValidateComponent = 6,
Finalize = 7,
CheckComponentVersion = 9
};
// Prefixes the arguments of every ExtendedCommand::SoftwareUpdate request, and is echoed back with progress
#pragma pack(push, 2)
struct SoftwareUpdateCommandHeader {
uint32_t componentIdentifier; // unique id for the software component - analogous to what used to be "chip id"
Update commandType;
uint8_t expansionSlot;
uint32_t offset;
uint32_t commandSizeOrProgress; // size
};
#pragma pack(pop)
Chip targetChip;
const bool doAuthChecks;
const bool encrypted;
using StatusHandler = std::function<void(double progress)>;
bool sendCommand(Update command, const StatusHandler& handler, uint32_t offset = 0,
const std::vector<uint8_t>& args = {}, std::chrono::milliseconds timeout = std::chrono::milliseconds(3000)) {
return sendCommand(command, offset, static_cast<uint32_t>(args.size()), handler, timeout, args);
}
bool sendCommand(Update command, uint32_t offset, uint32_t length, const StatusHandler& handler,
std::chrono::milliseconds timeout = std::chrono::milliseconds(3000), std::vector<uint8_t> args = {});
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_APPLICATION_H_
@@ -0,0 +1,37 @@
#ifndef __BOOTLOADER_BOOTLOADERVERSION_H_
#define __BOOTLOADER_BOOTLOADERVERSION_H_
#ifdef __cplusplus
#include <cstdint>
namespace icsneo {
namespace Bootloader {
#pragma pack(push, 1)
struct BootloaderVersionResponse {
uint8_t blMajor;
uint8_t blMinor;
uint16_t reserved1;
uint8_t hwMajor;
uint8_t hwMinor;
uint8_t hwPlatform;
uint16_t reserved2;
uint8_t manDay;
uint8_t manMonth;
uint16_t manYear;
uint8_t serialNum[8];
uint8_t hwId;
uint8_t reserved3;
uint8_t zynqId;
};
#pragma pack(pop)
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_BOOTLOADERVERSION_H_
@@ -0,0 +1,49 @@
#ifndef __BOOTLOADER_COMMUNICATION_H_
#define __BOOTLOADER_COMMUNICATION_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/chip.h"
#include "icsneo/device/device.h"
#include <cstdint>
namespace icsneo {
namespace Bootloader {
class FWRepo;
/**
* A bootloader protocol for one chip.
*
* Authentication is a challenge/response handled by libicsbl: icsbl_generate_seed_v1() derives
* a challenge (seed.a) and the reply the device must send back (seed.b) from the serial number.
* Firmware is encrypted for a specific device with icsbl_encrypt_v1(), also keyed by the serial number.
*/
class Communication {
public:
Communication(icsneo::Device& dev) : device(dev) {}
virtual ~Communication() = default;
virtual bool enterApplication() = 0;
virtual bool hasFinalizationStep() const = 0;
virtual bool finalize() = 0;
virtual bool flash(const FWRepo& repo, const icsneo::Device::OpenStatusHandler& handler) = 0;
virtual bool open() = 0;
virtual bool close() = 0;
protected:
static uint32_t readLE32(const uint8_t* data);
static void writeLE32(uint8_t* data, uint32_t val);
icsneo::Device& device;
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_COMMUNICATION_H_
@@ -0,0 +1,108 @@
#ifndef __BOOTLOADER_RADCOMMUNICATION_H_
#define __BOOTLOADER_RADCOMMUNICATION_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/communication/communication.h"
#include <chrono>
#include <cstdint>
#include <vector>
namespace icsneo {
namespace Bootloader {
/**
* The bootloader protocol used by RAD devices.
*
* Requests are a command byte followed by the payload, responses are the command byte,
* a Response::Type byte and then the payload. Newer RAD bootloaders (the "Zynq binary
* flasher") also prefix each request with ZynqFlasherSync and a 16-bit little-endian
* length of the command byte plus payload.
*/
class RADCommunication : public Communication {
protected:
static constexpr size_t MaxMessageLength = 1518;
static constexpr uint8_t ZynqFlasherSync[4] = {0xAA, 0xAA, 0x55, 0x55};
static constexpr size_t ZynqFlasherHeaderSize = sizeof(ZynqFlasherSync) + sizeof(uint16_t);
struct Request {
enum class Type : uint8_t {
BootloaderVersion = 0x01,
EnterApplication = 0x02,
BeginTransfer = 0x03,
FWPayload = 0x04,
EndTransfer = 0x05,
ProgramFlash = 0x06,
DownloadedBinInfo = 0x07,
ProgrammingStatus = 0x08,
Authenticate = 0x09,
SanityCheck = 0x0A,
VerifyCRC = 0x0B,
ValidateVersion = 0x0F,
Invalid = 0xFF
} type = Type::Invalid;
uint8_t* payload = nullptr;
size_t expectedResponseLen = 0;
};
Request makeRequest(Request::Type type, size_t payloadSize = 0, size_t expectedResponseLen = 0);
struct Response {
enum class Type {
Failure = 0x00,
Success = 0x01
} type = Type::Failure;
uint8_t* payload = nullptr;
size_t size = 0;
bool done = false;
operator bool() const {
return done && type == Type::Success;
}
};
Response& sendRequest(const Request& request, std::chrono::milliseconds timeout = std::chrono::milliseconds(2000));
bool sendRequestNoResponse();
icsneo::Device::OpenStatusHandler logger; // Progress updates, set in flash()
Response lastResponse; // Last response received from sendRequest
bool supportsZynqBinaryFlasher = false; // Dictates how messages are formatted, this gets set in initialize()
std::vector<uint8_t> rxBuffer;
std::vector<uint8_t> txBuffer;
Chip targetChip; // Chip to flash
bool loadZips(const FWRepo& fw, std::vector<uint8_t>& chipSoftware);
bool initialize();
bool sanityCheck();
bool getBootloaderVersion();
bool validateChipVersion(const icsneo::DeviceAppVersion& srcVer);
virtual bool authenticate();
bool sendSoftware(const std::vector<uint8_t>& chipSoftware);
bool getProgrammingStatus(size_t sizeToValidate);
bool supportsFlashBuffer() const;
public:
RADCommunication(icsneo::Device& dev, const ChipInfo& chipToFlash);
bool enterApplication() override;
bool finalize() override;
bool flash(const FWRepo& fw, const icsneo::Device::OpenStatusHandler& handler) override;
bool open() override;
bool close() override;
bool hasFinalizationStep() const override;
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_RADCOMMUNICATION_H_
@@ -0,0 +1,37 @@
#ifndef __BOOTLOADER_RADMULTICHIPCOMMUNICATION_H_
#define __BOOTLOADER_RADMULTICHIPCOMMUNICATION_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/communication/radcommunication.h"
#include "icsneo/device/extensions/bootloader/communication/application.h"
#include <cstdint>
#include <memory>
namespace icsneo {
namespace Bootloader {
class RADMultiChipCommunication : public RADCommunication {
private:
std::unique_ptr<Application> standardComm;
const bool doAuthChecks;
const uint8_t slot;
bool authenticate() override;
public:
RADMultiChipCommunication(icsneo::Device& dev, const ChipInfo& chipToFlash, bool auth, uint8_t slot = UINT8_MAX);
bool flash(const FWRepo& fw, const icsneo::Device::OpenStatusHandler& handler) override;
bool open() override;
bool close() override;
bool enterApplication() override;
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_RADMULTICHIPCOMMUNICATION_H_
@@ -0,0 +1,96 @@
#ifndef __BOOTLOADER_RADPERIPHCOMMUNICATION_H_
#define __BOOTLOADER_RADPERIPHCOMMUNICATION_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/communication/communication.h"
#include "icsneo/device/extensions/bootloader/communication/bootloaderversion.h"
#include "icsneo/device/extensions/bootloader/parser/ief.h"
#include <chrono>
#include <cstdint>
#include <vector>
namespace icsneo {
namespace Bootloader {
/**
* The bootloader protocol used by peripheral chips on the RAD-Galaxy 2, tunneled through
* Command::PeripheralBootloader. Requests are the chip id, the Request and the arguments.
* Replies are a byte, ReplySuccess, then for bootloader requests ReplyAccepted, then the payload.
*/
class RADPeriphCommunication : public Communication {
protected:
static constexpr size_t ReplySuccessOffset = 1;
static constexpr size_t ReplyAcceptedOffset = 2;
static constexpr uint8_t ReplySuccess = 0x01;
static constexpr uint8_t ReplyAccepted = 0x77;
static constexpr size_t ReplyHeaderSize = 3;
// Requests that write to the bootloader have three leading zero bytes before their arguments
static constexpr size_t BootloaderArgsOffset = 3;
// Flash sectors are sent as two requests, the first with this many bytes and the second with the rest
static constexpr size_t FlashSectorFirstChunkSize = 1024;
enum class Mode : uint8_t {
NoAnswer = 0x00u,
MainApplication = 0xAFu,
Bootloader = 0xFEu
} mode = Mode::NoAnswer;
Chip targetChip;
uint32_t serialNumber = 0;
public:
enum class Request : uint8_t {
SwitchToApp = 0x01u,
SwitchToBootloader = 0x02u,
Version = 0x12u,
Authenticate = 0x13u,
FlashSector = 0x14u,
FirmwareValidate = 0x16u,
Erase = 0x20u,
Echo = 0xAFu,
Mode = 0xADu,
};
struct Response {
bool success = false;
std::vector<uint8_t> data;
operator bool() const {
return success;
}
};
bool waitForConnect(std::chrono::milliseconds timeout = std::chrono::milliseconds(30000));
bool sendRequestNoResponse(Request req, std::vector<uint8_t>&& args = {});
bool sendRequestNoResponse(Request req, ChipID id, std::vector<uint8_t>&& args = {});
Response sendRequest(Request req, std::vector<uint8_t>&& args = {}, std::chrono::milliseconds timeout = std::chrono::milliseconds(2000));
Response sendRequest(Request req, ChipID id, std::vector<uint8_t>&& args = {}, std::chrono::milliseconds timeout = std::chrono::milliseconds(2000));
Mode getMode();
bool sendPeriphTest();
bool readSerialNumber();
bool authenticate();
bool validateFirmware();
bool flashSector(const IEF::Sector& sector);
RADPeriphCommunication(icsneo::Device& dev, const ChipInfo& chipToFlash);
~RADPeriphCommunication();
bool flash(const FWRepo& fw, const icsneo::Device::OpenStatusHandler& handler) override;
bool open() override;
bool close() override;
bool enterApplication() override;
bool finalize() override;
bool hasFinalizationStep() const override;
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_RADPERIPHCOMMUNICATION_H_
@@ -0,0 +1,72 @@
#ifndef __BOOTLOADER_RED_H_
#define __BOOTLOADER_RED_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/communication/redbase.h"
#include <cstddef>
#include <cstdint>
namespace icsneo {
namespace Bootloader {
/**
* The bootloader communication protocol used for non-FPGA
* chips on neoVI and ValueCAN devices.
*
* Zynq doesn't count as an FPGA chip for the sake of
* this, so it's handled here.
*/
class REDCommunication : public REDCommunicationBase {
public:
REDCommunication(icsneo::Device& dev, const ChipInfo& chip, bool auth, bool encryptWithDeviceKey = true);
bool enterApplication() override { return sendCommand(uint8_t(Command::EnterApplication)); }
bool flash(const FWRepo& fw, const icsneo::Device::OpenStatusHandler& handler) override;
bool open() override;
private:
const bool doAuthChecks;
const bool encryptFirmwareWithDeviceKey;
size_t blockSize = 2048;
enum class Command : uint8_t {
GetVersion = 0x12,
Authenticate = 0x13,
Flash = 0x14,
ValidateFirmware = 0x16,
Erase = 0x20,
EnterApplication = 0x21,
ValidateSWVersion = 0x27,
};
// The reply to Command::GetVersion
struct VersionResponse {
uint8_t bl_major, bl_minor, app_major, app_minor, flags, prod_id;
uint8_t hardware_rev_major, hardware_rev_minor;
uint8_t man_day, man_month;
uint16_t man_year;
uint8_t serial_num[8];
uint16_t block_size;
uint8_t last_error_code;
uint8_t pad_byte;
static constexpr size_t EncodedSize = 24;
VersionResponse() = default;
VersionResponse(const REDPacketizer::RxFrame& r);
} currentVersion;
// Called from open()
bool authenticate(bool firstTime = true);
bool getVersion();
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_RED_H_
@@ -0,0 +1,66 @@
#ifndef __BOOTLOADER_REDBASE_H_
#define __BOOTLOADER_REDBASE_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/communication/communication.h"
#include "icsneo/device/extensions/bootloader/communication/redpacketizer.h"
#include <chrono>
#include <cstdint>
#include <vector>
namespace icsneo {
namespace Bootloader {
/**
* Implementation shared by REDCommunication and REDCoreCommunication
*
* Requests are framed as:
* uint8_t REDPacketizer::Magic
* uint16_t chip id (little-endian)
* uint16_t length of the command byte, arguments and padding (little-endian)
* uint8_t command
* uint8_t arguments[]
* uint8_t optional PaddingByte, see sendCommandRaw()
*/
class REDCommunicationBase : public Communication {
public:
REDCommunicationBase(icsneo::Device& dev, const ChipInfo& chip);
~REDCommunicationBase() {
// This must happen before the Packetizer is destroyed
device.com->resumeReads();
}
bool open() override;
bool close() override;
bool hasFinalizationStep() const override {
return false;
}
bool finalize() override {
return true;
}
protected:
static constexpr uint8_t PaddingByte = 0x55;
Chip targetChip;
std::vector<REDPacketizer::RxFrame> lastData;
REDPacketizer rp;
bool handleData();
bool sendCommand(uint8_t cmd, std::chrono::seconds timeout, bool clearLastResponse = true) { return sendCommand(cmd, {}, timeout, clearLastResponse); }
bool sendCommand(uint8_t cmd, std::vector<uint8_t> args = {}, std::chrono::seconds timeout = std::chrono::seconds(1), bool clearLastResponse = true);
virtual bool sendCommandRaw(uint8_t cmd, std::vector<uint8_t> args = {});
bool waitForRx(std::chrono::milliseconds timeout);
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_REDBASE_H_
@@ -0,0 +1,54 @@
#ifndef __BOOTLOADER_REDCORE_H_
#define __BOOTLOADER_REDCORE_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/communication/redbase.h"
#include <cstdint>
#include <vector>
namespace icsneo {
namespace Bootloader {
/**
* The bootloader communication protocol used for FPGA
* chips on neoVI and ValueCAN devices.
*
* Zynq doesn't count as an FPGA chip for the sake of
* this, it's just targetting the non-hybrid FPGAs.
*
* This was previously called FIRE 2 Core Flasher, but
* it does more than just FIRE 2 nowadays.
*/
class REDCoreCommunication : public REDCommunicationBase {
public:
using REDCommunicationBase::REDCommunicationBase;
bool enterApplication() override { return false; }
bool flash(const FWRepo& fw, const icsneo::Device::OpenStatusHandler& handler) override;
private:
/**
* Core flasher commands are tunneled through a RED request using CoreFlasherCommand,
* the arguments are CoreFlasherMagic, a 16-bit little-endian length, then the core command and its arguments
*/
static constexpr uint8_t CoreFlasherCommand = 0xCD;
static constexpr uint8_t CoreFlasherMagic = 0xEF;
enum class Command : uint8_t {
SendFirmware = 0,
StartFirmwareFlash = 1,
GetFlashProgress = 2,
};
bool sendCommandRaw(uint8_t cmd, std::vector<uint8_t> args = {}) override;
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_REDCORE_H_
@@ -0,0 +1,56 @@
#ifndef __BOOTLOADER_REDPACKETIZER_H_
#define __BOOTLOADER_REDPACKETIZER_H_
#ifdef __cplusplus
#include "icsneo/core/ringbuffer.h"
#include <cstdint>
#include <vector>
namespace icsneo {
namespace Bootloader {
/**
* Splits bytes from a RED bootloader into frames:
* uint8_t Magic
* uint8_t Response
* uint16_t length (little-endian)
* uint8_t data[length]
*/
class REDPacketizer {
public:
static constexpr uint8_t Magic = 0xAA;
enum class Response : uint8_t {
Accepted = 0x77,
Rejected = 0x7F,
};
struct RxFrame {
uint16_t len = 0;
Response resp = Response::Rejected;
std::vector<uint8_t> data;
bool done = false;
};
/**
* Call with bytes received from the device.
* The returned boolean indicates if there is output waiting in output()
*/
bool input(icsneo::RingBuffer& bytes);
std::vector<RxFrame> output();
private:
enum ReadState { HEADER, CMD, LENGTH_LOWER, LENGTH_UPPER, DATA };
ReadState state = HEADER;
std::vector<RxFrame> working;
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_REDPACKETIZER_H_
@@ -0,0 +1,74 @@
#ifndef __BOOTLOADER_FWBIN_H_
#define __BOOTLOADER_FWBIN_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/parser/fwrepo.h"
#include <cstdint>
#include <fstream>
#include <map>
#include <optional>
#include <string>
#include <vector>
namespace icsneo {
namespace Bootloader {
class FWBin : public FWRepo {
public:
FWBin() = default;
bool load(const std::string& path);
const FirmwareSourceVersion& getVersion() const override { return version; }
bool getFW(const std::string& iefName, std::vector<uint8_t>& fw) const override;
std::optional<icsneo::DeviceAppVersion> getChipVersion(const std::string& iefName) const override;
static uint32_t HashDjb2(const std::string& str);
private:
static constexpr const uint32_t SignatureHash = 0;
struct VersionTags {
const char* majorTag = nullptr;
const char* minorTag = nullptr;
operator bool() const {
return majorTag && minorTag;
}
};
static VersionTags GetVersionTags(const std::string& iefName);
struct TagData {
enum class Type : uint8_t {
DataBytes = 0,
DataLength = 1,
IEFVersion = 2,
Signature = 3,
Unknown = 0xFF
};
Type type = Type::Unknown;
std::streampos arrayPosition = 0;
uint32_t arrayLength = 0;
bool read(std::ifstream& stream, std::vector<uint8_t>& out) const;
};
bool readTag(const std::string& tag, std::vector<uint8_t>& out) const;
mutable std::ifstream file;
FirmwareSourceVersion version;
std::map<uint32_t, TagData> tags;
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_FWBIN_H_
@@ -0,0 +1,45 @@
#ifndef __BOOTLOADER_FWBUNDLE_H_
#define __BOOTLOADER_FWBUNDLE_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/parser/fwrepo.h"
#include <cstdint>
#include <optional>
#include <string>
#include <unordered_map>
#include <vector>
namespace icsneo {
namespace Bootloader {
class FWBundle : public FWRepo {
public:
FWBundle() = default;
bool load(const std::string& path);
static bool IsFWBundle(const std::string& path);
const FirmwareSourceVersion& getVersion() const override { return version; }
bool getFW(const std::string& iefName, std::vector<uint8_t>& fw) const override;
std::optional<icsneo::DeviceAppVersion> getChipVersion(const std::string& iefName) const override;
private:
struct ChipBinary {
std::vector<uint8_t> data;
FirmwareSourceVersion version;
};
FirmwareSourceVersion version;
std::unordered_map<uint32_t, ChipBinary> binaries;
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_FWBUNDLE_H_
@@ -0,0 +1,27 @@
#ifndef __BOOTLOADER_FWLOADER_H_
#define __BOOTLOADER_FWLOADER_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/parser/fwrepo.h"
#include <memory>
#include <string>
namespace icsneo {
namespace Bootloader {
class FWLoader {
public:
// Detects whether the file is a firmware bundle or a fw.bin and loads it, returns nullptr on failure
static std::unique_ptr<FWRepo> Load(const std::string& path);
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_FWLOADER_H_
@@ -0,0 +1,34 @@
#ifndef __BOOTLOADER_FWREPO_H_
#define __BOOTLOADER_FWREPO_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/version.h"
#include "icsneo/device/deviceversion.h"
#include <cstdint>
#include <optional>
#include <string>
#include <vector>
namespace icsneo {
namespace Bootloader {
class FWRepo {
public:
FWRepo() = default;
virtual ~FWRepo() = default;
virtual bool getFW(const std::string& iefName, std::vector<uint8_t>& fw) const = 0;
virtual std::optional<icsneo::DeviceAppVersion> getChipVersion(const std::string& iefName) const = 0;
virtual const FirmwareSourceVersion& getVersion() const = 0;
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_FWREPO_H_
@@ -0,0 +1,37 @@
#ifndef __BOOTLOADER_FWZIP_H_
#define __BOOTLOADER_FWZIP_H_
#ifdef __cplusplus
#include <cstdint>
#include <memory>
#include <optional>
#include <vector>
namespace icsneo {
namespace Bootloader {
class ZipHandle;
class FWZip {
private:
std::unique_ptr<ZipHandle> handle;
std::vector<uint8_t> zipData;
std::optional<size_t> uncompressedSize = std::nullopt;
public:
FWZip(std::vector<uint8_t>&& tagData);
~FWZip();
std::optional<size_t> size() const { return uncompressedSize; }
bool readAll(uint8_t* out);
bool readAll(std::vector<uint8_t>& out);
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_FWZIP_H_
@@ -0,0 +1,47 @@
#ifndef __BOOTLOADER_IEF_H_
#define __BOOTLOADER_IEF_H_
#ifdef __cplusplus
#include "icsneo/device/extensions/bootloader/bytesview.h"
#include <cstdint>
#include <utility>
#include <vector>
namespace icsneo {
namespace Bootloader {
class IEF {
public:
struct Version {
uint8_t appMajor;
uint8_t appMinor;
uint8_t prodId;
uint8_t chipId;
};
using Sector = std::pair<uint32_t, BytesView>;
IEF() = default;
bool load(std::vector<uint8_t>&& bytes);
const Version& getVersion() const { return version; }
const std::vector<Sector>& getSectors() const { return sectors; }
// IEFs are comprised of equally sized blocks of data - take the size of the first
uint32_t getBlockSize() const { return sectors.empty() ? 0 : static_cast<uint32_t>(sectors.front().second.size()); }
private:
std::vector<uint8_t> data;
Version version = {};
std::vector<Sector> sectors;
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_IEF_H_
@@ -0,0 +1,28 @@
#ifndef __BOOTLOADER_LOGGING_H_
#define __BOOTLOADER_LOGGING_H_
#ifdef __cplusplus
#include <string>
namespace icsneo {
namespace Bootloader {
namespace Log {
void Trace(const std::string& subject, const std::string& msg);
void Debug(const std::string& subject, const std::string& msg);
void Info(const std::string& subject, const std::string& msg);
void Warning(const std::string& subject, const std::string& msg);
void Error(const std::string& subject, const std::string& msg);
} // namespace Log
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_LOGGING_H_
@@ -0,0 +1,32 @@
#ifndef __BOOTLOADER_VERSION_H_
#define __BOOTLOADER_VERSION_H_
#ifdef __cplusplus
#include <cstdint>
#include <string>
namespace icsneo {
namespace Bootloader {
/**
* Tracks the Vehicle Spy 3 version that a firmware
* package is intended for.
*/
struct FirmwareSourceVersion {
using ValueType = uint8_t;
ValueType major = 0;
ValueType minor = 0;
ValueType release = 0;
ValueType build = 0;
bool load(const std::string& toParse);
};
} // namespace Bootloader
} // namespace icsneo
#endif // __cplusplus
#endif // __BOOTLOADER_VERSION_H_
@@ -1,17 +0,0 @@
#ifndef __ICSNEO_DEVICE_EXTENSIONS_BUILTIN_H_
#define __ICSNEO_DEVICE_EXTENSIONS_BUILTIN_H_
@LIBICSNEO_EXT_CODE_INCS@
#include "icsneo/device/device.h"
#include <memory>
namespace icsneo {
static void AddBuiltInExtensionsTo(const std::shared_ptr<icsneo::Device>& device) {
(void)device; // [[maybe_unused]]
@LIBICSNEO_EXT_CODE@
}
}
#endif
+48 -137
View File
@@ -1205,143 +1205,32 @@ public:
return std::nullopt;
}
virtual std::optional<bool> isT1SPLCAEnabledFor(Network net) const {
(void)net;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1SPLCAFor(Network net, bool enable) {
(void)net; (void)enable;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return false;
}
virtual std::optional<uint8_t> getT1SLocalIDFor(Network net) const {
(void)net;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1SLocalIDFor(Network net, uint8_t id) {
(void)net; (void)id;
return false;
}
virtual std::optional<uint8_t> getT1SMaxNodesFor(Network net) const {
(void)net;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1SMaxNodesFor(Network net, uint8_t nodes) {
(void)net; (void)nodes;
return false;
}
virtual std::optional<uint8_t> getT1STxOppTimerFor(Network net) const {
(void)net;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1STxOppTimerFor(Network net, uint8_t timer) {
(void)net; (void)timer;
return false;
}
virtual std::optional<uint8_t> getT1SMaxBurstFor(Network net) const {
(void)net;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1SMaxBurstFor(Network net, uint8_t burst) {
(void)net; (void)burst;
return false;
}
virtual std::optional<uint8_t> getT1SBurstTimerFor(Network net) const {
(void)net;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1SBurstTimerFor(Network net, uint8_t timer) {
(void)net; (void)timer;
return false;
}
virtual std::optional<uint8_t> getT1SLocalIDAlternateFor(Network net) const {
(void)net;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1SLocalIDAlternateFor(Network net, uint8_t id) {
(void)net; (void)id;
return false;
}
virtual std::optional<bool> isT1STerminationEnabledFor(Network net) const {
(void)net;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1STerminationFor(Network net, bool enable) {
(void)net; (void)enable;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return false;
}
virtual std::optional<bool> isT1SBusDecodingBeaconsEnabledFor(Network net) const {
(void)net;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1SBusDecodingBeaconsFor(Network net, bool enable) {
(void)net; (void)enable;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return false;
}
virtual std::optional<bool> isT1SBusDecodingAllEnabledFor(Network net) const {
(void)net;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1SBusDecodingAllFor(Network net, bool enable) {
(void)net; (void)enable;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return false;
}
virtual std::optional<uint8_t> getT1SMultiIDEnableMaskFor(Network net) const {
(void)net;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1SMultiIDEnableMaskFor(Network net, uint8_t mask) {
(void)net; (void)mask;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return false;
}
virtual std::optional<uint8_t> getT1SMultiIDFor(Network net, uint8_t index) const {
(void)net; (void)index;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return std::nullopt;
}
virtual bool setT1SMultiIDFor(Network net, uint8_t index, uint8_t id) {
(void)net; (void)index; (void)id;
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
return false;
}
// 10BASE-T1S. Devices expose a network by overriding getT1SSettingsFor / getT1SSettingsExtFor.
// Every field in the mapped struct is readable; a null accessor means the network has no T1S block.
std::optional<bool> isT1SPLCAEnabledFor(Network net) const;
bool setT1SPLCAFor(Network net, bool enable);
std::optional<uint8_t> getT1SLocalIDFor(Network net) const;
bool setT1SLocalIDFor(Network net, uint8_t id);
std::optional<uint8_t> getT1SMaxNodesFor(Network net) const;
bool setT1SMaxNodesFor(Network net, uint8_t nodes);
std::optional<uint8_t> getT1STxOppTimerFor(Network net) const;
bool setT1STxOppTimerFor(Network net, uint8_t timer);
std::optional<uint8_t> getT1SMaxBurstFor(Network net) const;
bool setT1SMaxBurstFor(Network net, uint8_t burst);
std::optional<uint8_t> getT1SBurstTimerFor(Network net) const;
bool setT1SBurstTimerFor(Network net, uint8_t timer);
std::optional<uint8_t> getT1SLocalIDAlternateFor(Network net) const;
bool setT1SLocalIDAlternateFor(Network net, uint8_t id);
std::optional<bool> isT1STerminationEnabledFor(Network net) const;
bool setT1STerminationFor(Network net, bool enable);
std::optional<bool> isT1SBusDecodingBeaconsEnabledFor(Network net) const;
bool setT1SBusDecodingBeaconsFor(Network net, bool enable);
std::optional<bool> isT1SBusDecodingAllEnabledFor(Network net) const;
bool setT1SBusDecodingAllFor(Network net, bool enable);
std::optional<uint8_t> getT1SMultiIDEnableMaskFor(Network net) const;
bool setT1SMultiIDEnableMaskFor(Network net, uint8_t mask);
std::optional<uint8_t> getT1SMultiIDFor(Network net, uint8_t index) const;
bool setT1SMultiIDFor(Network net, uint8_t index, uint8_t id);
virtual std::optional<bool> isPerfTestEnabled() const {
report(APIEvent::Type::SettingNotAvaiableDevice, APIEvent::Severity::EventWarning);
@@ -1427,6 +1316,28 @@ protected:
return reinterpret_cast<ICSNEO_UNALIGNED(uint64_t*)>((void*)(settings.data() + (offset - settingsInDeviceRAM.data())));
}
// Pointer into the device RAM image. Override per device. Unknown networks return nullptr
// and do not report; the public T1S methods report SettingNotAvaiableDevice.
virtual const ETHERNET10T1S_SETTINGS* getT1SSettingsFor(Network net) const { (void)net; return nullptr; }
ETHERNET10T1S_SETTINGS* getMutableT1SSettingsFor(Network net) {
if(disabled || readonly)
return nullptr;
const uint8_t* offset = reinterpret_cast<const uint8_t*>(getT1SSettingsFor(net));
if(offset == nullptr)
return nullptr;
return reinterpret_cast<ETHERNET10T1S_SETTINGS*>(settings.data() + (offset - settingsInDeviceRAM.data()));
}
virtual const ETHERNET10T1S_SETTINGS_EXT* getT1SSettingsExtFor(Network net) const { (void)net; return nullptr; }
ETHERNET10T1S_SETTINGS_EXT* getMutableT1SSettingsExtFor(Network net) {
if(disabled || readonly)
return nullptr;
const uint8_t* offset = reinterpret_cast<const uint8_t*>(getT1SSettingsExtFor(net));
if(offset == nullptr)
return nullptr;
return reinterpret_cast<ETHERNET10T1S_SETTINGS_EXT*>(settings.data() + (offset - settingsInDeviceRAM.data()));
}
static bool SetNetworkEnabled(uint64_t* bitfields, size_t count, uint64_t networkID) {
const size_t index = networkID / 64;
const size_t offset = networkID & 0x3F;
@@ -269,215 +269,6 @@ public:
}
}
std::optional<bool> isT1SPLCAEnabledFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional((t1s->flags & ETHERNET10T1S_SETTINGS_FLAG_ENABLE_PLCA) != 0);
}
bool setT1SPLCAFor(Network net, bool enable) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
if(enable)
t1s->flags |= ETHERNET10T1S_SETTINGS_FLAG_ENABLE_PLCA;
else
t1s->flags &= ~ETHERNET10T1S_SETTINGS_FLAG_ENABLE_PLCA;
return true;
}
std::optional<uint8_t> getT1SLocalIDFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->local_id);
}
bool setT1SLocalIDFor(Network net, uint8_t id) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->local_id = id;
return true;
}
std::optional<uint8_t> getT1SMaxNodesFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->max_num_nodes);
}
bool setT1SMaxNodesFor(Network net, uint8_t nodes) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->max_num_nodes = nodes;
return true;
}
std::optional<uint8_t> getT1STxOppTimerFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->to_timer);
}
bool setT1STxOppTimerFor(Network net, uint8_t timer) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->to_timer = timer;
return true;
}
std::optional<uint8_t> getT1SMaxBurstFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->max_burst_count);
}
bool setT1SMaxBurstFor(Network net, uint8_t burst) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->max_burst_count = burst;
return true;
}
std::optional<uint8_t> getT1SBurstTimerFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->burst_timer);
}
bool setT1SBurstTimerFor(Network net, uint8_t timer) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->burst_timer = timer;
return true;
}
std::optional<uint8_t> getT1SLocalIDAlternateFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->local_id_alternate);
}
bool setT1SLocalIDAlternateFor(Network net, uint8_t id) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->local_id_alternate = id;
return true;
}
std::optional<bool> isT1SBusDecodingBeaconsEnabledFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional<bool>((t1s->flags & ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_BEACONS) != 0);
}
bool setT1SBusDecodingBeaconsFor(Network net, bool enable) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
if(enable)
t1s->flags |= ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_BEACONS;
else
t1s->flags &= ~ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_BEACONS;
return true;
}
std::optional<bool> isT1SBusDecodingAllEnabledFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional<bool>((t1s->flags & ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_ALL) != 0);
}
bool setT1SBusDecodingAllFor(Network net, bool enable) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
if(enable)
t1s->flags |= ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_ALL;
else
t1s->flags &= ~ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_ALL;
return true;
}
std::optional<uint8_t> getT1SMultiIDEnableMaskFor(Network net) const override {
const ETHERNET10T1S_SETTINGS_EXT* t1sExt = getT1SSettingsExtFor(net);
if(t1sExt == nullptr)
return std::nullopt;
return std::make_optional(t1sExt->enable_multi_id);
}
bool setT1SMultiIDEnableMaskFor(Network net, uint8_t mask) override {
ETHERNET10T1S_SETTINGS_EXT* t1sExt = getMutableT1SSettingsExtFor(net);
if(t1sExt == nullptr)
return false;
t1sExt->enable_multi_id = mask;
return true;
}
std::optional<uint8_t> getT1SMultiIDFor(Network net, uint8_t index) const override {
const ETHERNET10T1S_SETTINGS_EXT* t1sExt = getT1SSettingsExtFor(net);
if(t1sExt == nullptr)
return std::nullopt;
if(index >= 7) {
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return std::nullopt;
}
return std::make_optional(t1sExt->multi_id[index]);
}
bool setT1SMultiIDFor(Network net, uint8_t index, uint8_t id) override {
ETHERNET10T1S_SETTINGS_EXT* t1sExt = getMutableT1SSettingsExtFor(net);
if(t1sExt == nullptr)
return false;
if(index >= 7) {
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return false;
}
t1sExt->multi_id[index] = id;
return true;
}
std::optional<bool> isPerfTestEnabled() const override {
auto cfg = getStructurePointer<neovifire3t1slin_settings_t>();
if(cfg == nullptr)
@@ -496,11 +287,10 @@ public:
}
private:
const ETHERNET10T1S_SETTINGS* getT1SSettingsFor(Network net) const {
const ETHERNET10T1S_SETTINGS* getT1SSettingsFor(Network net) const override {
auto cfg = getStructurePointer<neovifire3t1slin_settings_t>();
if(cfg == nullptr)
return nullptr;
switch(net.getNetID()) {
case Network::NetID::AE_01: return &(cfg->t1s1);
case Network::NetID::AE_02: return &(cfg->t1s2);
@@ -510,69 +300,24 @@ private:
case Network::NetID::AE_06: return &(cfg->t1s6);
case Network::NetID::AE_07: return &(cfg->t1s7);
case Network::NetID::AE_08: return &(cfg->t1s8);
default:
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return nullptr;
default: return nullptr;
}
}
ETHERNET10T1S_SETTINGS* getMutableT1SSettingsFor(Network net) {
auto cfg = getMutableStructurePointer<neovifire3t1slin_settings_t>();
if(cfg == nullptr)
return nullptr;
switch(net.getNetID()) {
case Network::NetID::AE_01: return &(cfg->t1s1);
case Network::NetID::AE_02: return &(cfg->t1s2);
case Network::NetID::AE_03: return &(cfg->t1s3);
case Network::NetID::AE_04: return &(cfg->t1s4);
case Network::NetID::AE_05: return &(cfg->t1s5);
case Network::NetID::AE_06: return &(cfg->t1s6);
case Network::NetID::AE_07: return &(cfg->t1s7);
case Network::NetID::AE_08: return &(cfg->t1s8);
default:
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return nullptr;
}
}
const ETHERNET10T1S_SETTINGS_EXT* getT1SSettingsExtFor(Network net) const {
const ETHERNET10T1S_SETTINGS_EXT* getT1SSettingsExtFor(Network net) const override {
auto cfg = getStructurePointer<neovifire3t1slin_settings_t>();
if(cfg == nullptr)
return nullptr;
switch(net.getNetID()) {
case Network::NetID::AE_03: return &(cfg->t1s1Ext);
case Network::NetID::AE_04: return &(cfg->t1s2Ext);
case Network::NetID::AE_05: return &(cfg->t1s3Ext);
case Network::NetID::AE_06: return &(cfg->t1s4Ext);
case Network::NetID::AE_07: return &(cfg->t1s5Ext);
case Network::NetID::AE_08: return &(cfg->t1s6Ext);
case Network::NetID::AE_09: return &(cfg->t1s7Ext);
case Network::NetID::AE_10: return &(cfg->t1s8Ext);
default:
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return nullptr;
}
}
ETHERNET10T1S_SETTINGS_EXT* getMutableT1SSettingsExtFor(Network net) {
auto cfg = getMutableStructurePointer<neovifire3t1slin_settings_t>();
if(cfg == nullptr)
return nullptr;
switch(net.getNetID()) {
case Network::NetID::AE_03: return &(cfg->t1s1Ext);
case Network::NetID::AE_04: return &(cfg->t1s2Ext);
case Network::NetID::AE_05: return &(cfg->t1s3Ext);
case Network::NetID::AE_06: return &(cfg->t1s4Ext);
case Network::NetID::AE_07: return &(cfg->t1s5Ext);
case Network::NetID::AE_08: return &(cfg->t1s6Ext);
case Network::NetID::AE_09: return &(cfg->t1s7Ext);
case Network::NetID::AE_10: return &(cfg->t1s8Ext);
default:
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return nullptr;
case Network::NetID::AE_01: return &(cfg->t1s1Ext);
case Network::NetID::AE_02: return &(cfg->t1s2Ext);
case Network::NetID::AE_03: return &(cfg->t1s3Ext);
case Network::NetID::AE_04: return &(cfg->t1s4Ext);
case Network::NetID::AE_05: return &(cfg->t1s5Ext);
case Network::NetID::AE_06: return &(cfg->t1s6Ext);
case Network::NetID::AE_07: return &(cfg->t1s7Ext);
case Network::NetID::AE_08: return &(cfg->t1s8Ext);
default: return nullptr;
}
}
@@ -1,19 +1,19 @@
#ifndef __RADGEMINI_H_
#define __RADGEMINI_H_
#ifndef __RADARGOS_H_
#define __RADARGOS_H_
#ifdef __cplusplus
#include "icsneo/device/device.h"
#include "icsneo/device/devicetype.h"
#include "icsneo/device/tree/radgemini/radgeminisettings.h"
#include "icsneo/device/tree/radargos/radargossettings.h"
namespace icsneo {
class RADGemini : public Device {
class RADArgos : public Device {
public:
// Serial numbers start with GE
// USB PID is 0x110E, standard driver is CDCACM
ICSNEO_FINDABLE_DEVICE(RADGemini, DeviceType::RADGemini, "GE");
ICSNEO_FINDABLE_DEVICE(RADArgos, DeviceType::RADArgos, "GE");
static const std::vector<Network>& GetSupportedNetworks() {
static std::vector<Network> supportedNetworks = {
@@ -28,11 +28,11 @@ public:
bool supportsTC10() const override { return true; }
ProductID getProductID() const override { return ProductID::RADGemini; }
ProductID getProductID() const override { return ProductID::RADArgos; }
const std::vector<ChipInfo>& getChipInfo() const override {
static std::vector<ChipInfo> chips = {
{ChipID::RADGemini_MCHIP, true, "MCHIP", "radgemini_mchip_ief", 0, FirmwareType::IEF},
{ChipID::RADArgos_MCHIP, true, "MCHIP", "radargos_mchip_ief", 0, FirmwareType::IEF},
};
return chips;
}
@@ -40,15 +40,15 @@ public:
BootloaderPipeline getBootloader() override {
return BootloaderPipeline()
.add<EnterBootloaderPhase>()
.add<FlashPhase>(ChipID::RADGemini_MCHIP, BootloaderCommunication::RED)
.add<EnterApplicationPhase>(ChipID::RADGemini_MCHIP)
.add<FlashPhase>(ChipID::RADArgos_MCHIP, BootloaderCommunication::RED)
.add<EnterApplicationPhase>(ChipID::RADArgos_MCHIP)
.add<ReconnectPhase>()
.add<WaitPhase>(std::chrono::milliseconds(3000));
}
protected:
RADGemini(neodevice_t neodevice, const driver_factory_t& makeDriver) : Device(neodevice) {
initialize<RADGeminiSettings>(makeDriver);
RADArgos(neodevice_t neodevice, const driver_factory_t& makeDriver) : Device(neodevice) {
initialize<RADArgosSettings>(makeDriver);
}
void setupPacketizer(Packetizer& packetizer) override {
@@ -74,4 +74,4 @@ protected:
#endif // __cplusplus
#endif // __RADGEMINI_H_
#endif // __RADARGOS_H_
@@ -1,5 +1,5 @@
#ifndef LIBICSNEO_RADGEMINISETTINGS_H
#define LIBICSNEO_RADGEMINISETTINGS_H
#ifndef LIBICSNEO_RADARGOSSETTINGS_H
#define LIBICSNEO_RADARGOSSETTINGS_H
#include <stdint.h>
#include "icsneo/device/idevicesettings.h"
@@ -31,18 +31,18 @@ typedef struct {
uint16_t enableLatencyTest : 1;
uint16_t reserved : 15;
} flags; // 2
} radgemini_settings_t;
} radargos_settings_t;
#pragma pack(pop)
#ifdef __cplusplus
static_assert(sizeof(radgemini_settings_t) == 86, "RADGemini settings size mismatch");
static_assert(sizeof(radargos_settings_t) == 86, "RADArgos settings size mismatch");
#include <iostream>
class RADGeminiSettings : public IDeviceSettings {
class RADArgosSettings : public IDeviceSettings {
public:
RADGeminiSettings(Device* device) : IDeviceSettings(device, sizeof(radgemini_settings_t)) {}
RADArgosSettings(Device* device) : IDeviceSettings(device, sizeof(radargos_settings_t)) {}
};
}
@@ -50,4 +50,4 @@ public:
#endif // __cplusplus
#endif // LIBICSNEO_RADGEMINISETTINGS_H
#endif // LIBICSNEO_RADARGOSSETTINGS_H
@@ -70,6 +70,13 @@ public:
}
protected:
const MACsecNetworkMap& getMACsecNetworkMap() const override {
static const MACsecNetworkMap networks = {
{Network::NetID::AE_01, 0},
};
return networks;
}
RADComet2(neodevice_t neodevice, const driver_factory_t& makeDriver) : Device(neodevice) {
initialize<RADComet2Settings, Disk::NeoMemoryDiskDriver, Disk::NeoMemoryDiskDriver>(makeDriver);
}
@@ -130,133 +130,6 @@ public:
}
}
std::optional<bool> isT1SPLCAEnabledFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional((t1s->flags & ETHERNET10T1S_SETTINGS_FLAG_ENABLE_PLCA) != 0);
}
bool setT1SPLCAFor(Network net, bool enable) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
if(enable)
t1s->flags |= ETHERNET10T1S_SETTINGS_FLAG_ENABLE_PLCA;
else
t1s->flags &= ~ETHERNET10T1S_SETTINGS_FLAG_ENABLE_PLCA;
return true;
}
std::optional<uint8_t> getT1SLocalIDFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->local_id);
}
bool setT1SLocalIDFor(Network net, uint8_t id) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->local_id = id;
return true;
}
std::optional<uint8_t> getT1SMaxNodesFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->max_num_nodes);
}
bool setT1SMaxNodesFor(Network net, uint8_t nodes) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->max_num_nodes = nodes;
return true;
}
std::optional<uint8_t> getT1STxOppTimerFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->to_timer);
}
bool setT1STxOppTimerFor(Network net, uint8_t timer) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->to_timer = timer;
return true;
}
std::optional<uint8_t> getT1SMaxBurstFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->max_burst_count);
}
bool setT1SMaxBurstFor(Network net, uint8_t burst) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->max_burst_count = burst;
return true;
}
std::optional<uint8_t> getT1SBurstTimerFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->burst_timer);
}
bool setT1SBurstTimerFor(Network net, uint8_t timer) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->burst_timer = timer;
return true;
}
std::optional<bool> isT1STerminationEnabledFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional<bool>((t1s->flags & ETHERNET10T1S_SETTINGS_FLAG_TERMINATION) != 0);
}
bool setT1STerminationFor(Network net, bool enable) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
if(enable)
t1s->flags |= ETHERNET10T1S_SETTINGS_FLAG_TERMINATION;
else
t1s->flags &= ~ETHERNET10T1S_SETTINGS_FLAG_TERMINATION;
return true;
}
std::optional<bool> isPerfTestEnabled() const override {
auto cfg = getStructurePointer<radcomet2_settings_t>();
if(cfg == nullptr)
@@ -274,32 +147,41 @@ public:
return true;
}
private:
const ETHERNET10T1S_SETTINGS* getT1SSettingsFor(Network net) const {
std::vector<TerminationGroup> getTerminationGroups() const override {
return {
{ Network(Network::NetID::DWCAN_01) },
{ Network(Network::NetID::DWCAN_02) }
};
}
protected:
ICSNEO_UNALIGNED(const uint64_t*) getTerminationEnables() const override {
auto cfg = getStructurePointer<radcomet2_settings_t>();
if(cfg == nullptr)
return nullptr;
switch(net.getNetID()) {
case Network::NetID::AE_02: return &(cfg->t1s1);
case Network::NetID::AE_03: return &(cfg->t1s2);
default:
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return nullptr;
}
return &cfg->termination_enables;
}
ETHERNET10T1S_SETTINGS* getMutableT1SSettingsFor(Network net) {
auto cfg = getMutableStructurePointer<radcomet2_settings_t>();
private:
const ETHERNET10T1S_SETTINGS* getT1SSettingsFor(Network net) const override {
auto cfg = getStructurePointer<radcomet2_settings_t>();
if(cfg == nullptr)
return nullptr;
switch(net.getNetID()) {
case Network::NetID::AE_02: return &(cfg->t1s1);
case Network::NetID::AE_03: return &(cfg->t1s2);
default:
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
default: return nullptr;
}
}
const ETHERNET10T1S_SETTINGS_EXT* getT1SSettingsExtFor(Network net) const override {
auto cfg = getStructurePointer<radcomet2_settings_t>();
if(cfg == nullptr)
return nullptr;
switch(net.getNetID()) {
case Network::NetID::AE_02: return &(cfg->t1s1Ext);
case Network::NetID::AE_03: return &(cfg->t1s2Ext);
default: return nullptr;
}
}
@@ -77,6 +77,13 @@ public:
}
protected:
const MACsecNetworkMap& getMACsecNetworkMap() const override {
static const MACsecNetworkMap networks = {
{Network::NetID::AE_01, 0},
};
return networks;
}
RADComet3(neodevice_t neodevice, const driver_factory_t& makeDriver) : Device(neodevice) {
initialize<RADComet3Settings, Disk::NeoMemoryDiskDriver, Disk::NeoMemoryDiskDriver>(makeDriver);
}
@@ -165,215 +165,6 @@ public:
}
}
std::optional<bool> isT1SPLCAEnabledFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional((t1s->flags & ETHERNET10T1S_SETTINGS_FLAG_ENABLE_PLCA) != 0);
}
bool setT1SPLCAFor(Network net, bool enable) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
if(enable)
t1s->flags |= ETHERNET10T1S_SETTINGS_FLAG_ENABLE_PLCA;
else
t1s->flags &= ~ETHERNET10T1S_SETTINGS_FLAG_ENABLE_PLCA;
return true;
}
std::optional<uint8_t> getT1SLocalIDFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->local_id);
}
bool setT1SLocalIDFor(Network net, uint8_t id) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->local_id = id;
return true;
}
std::optional<uint8_t> getT1SMaxNodesFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->max_num_nodes);
}
bool setT1SMaxNodesFor(Network net, uint8_t nodes) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->max_num_nodes = nodes;
return true;
}
std::optional<uint8_t> getT1STxOppTimerFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->to_timer);
}
bool setT1STxOppTimerFor(Network net, uint8_t timer) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->to_timer = timer;
return true;
}
std::optional<uint8_t> getT1SMaxBurstFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->max_burst_count);
}
bool setT1SMaxBurstFor(Network net, uint8_t burst) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->max_burst_count = burst;
return true;
}
std::optional<uint8_t> getT1SBurstTimerFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->burst_timer);
}
bool setT1SBurstTimerFor(Network net, uint8_t timer) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->burst_timer = timer;
return true;
}
std::optional<uint8_t> getT1SLocalIDAlternateFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional(t1s->local_id_alternate);
}
bool setT1SLocalIDAlternateFor(Network net, uint8_t id) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
t1s->local_id_alternate = id;
return true;
}
std::optional<bool> isT1SBusDecodingBeaconsEnabledFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional<bool>((t1s->flags & ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_BEACONS) != 0);
}
bool setT1SBusDecodingBeaconsFor(Network net, bool enable) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
if(enable)
t1s->flags |= ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_BEACONS;
else
t1s->flags &= ~ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_BEACONS;
return true;
}
std::optional<bool> isT1SBusDecodingAllEnabledFor(Network net) const override {
const ETHERNET10T1S_SETTINGS* t1s = getT1SSettingsFor(net);
if(t1s == nullptr)
return std::nullopt;
return std::make_optional<bool>((t1s->flags & ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_ALL) != 0);
}
bool setT1SBusDecodingAllFor(Network net, bool enable) override {
ETHERNET10T1S_SETTINGS* t1s = getMutableT1SSettingsFor(net);
if(t1s == nullptr)
return false;
if(enable)
t1s->flags |= ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_ALL;
else
t1s->flags &= ~ETHERNET10T1S_SETTINGS_FLAG_BUS_DECODING_ALL;
return true;
}
std::optional<uint8_t> getT1SMultiIDEnableMaskFor(Network net) const override {
const ETHERNET10T1S_SETTINGS_EXT* t1sExt = getT1SSettingsExtFor(net);
if(t1sExt == nullptr)
return std::nullopt;
return std::make_optional(t1sExt->enable_multi_id);
}
bool setT1SMultiIDEnableMaskFor(Network net, uint8_t mask) override {
ETHERNET10T1S_SETTINGS_EXT* t1sExt = getMutableT1SSettingsExtFor(net);
if(t1sExt == nullptr)
return false;
t1sExt->enable_multi_id = mask;
return true;
}
std::optional<uint8_t> getT1SMultiIDFor(Network net, uint8_t index) const override {
const ETHERNET10T1S_SETTINGS_EXT* t1sExt = getT1SSettingsExtFor(net);
if(t1sExt == nullptr)
return std::nullopt;
if(index >= 7) {
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return std::nullopt;
}
return std::make_optional(t1sExt->multi_id[index]);
}
bool setT1SMultiIDFor(Network net, uint8_t index, uint8_t id) override {
ETHERNET10T1S_SETTINGS_EXT* t1sExt = getMutableT1SSettingsExtFor(net);
if(t1sExt == nullptr)
return false;
if(index >= 7) {
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return false;
}
t1sExt->multi_id[index] = id;
return true;
}
bool setPhyRoleFor(Network net, AELinkMode mode) override {
if (mode != AE_LINK_AUTO && mode != AE_LINK_MASTER && mode != AE_LINK_SLAVE) {
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
@@ -668,12 +459,26 @@ public:
return true;
}
std::vector<TerminationGroup> getTerminationGroups() const override {
return {
{ Network(Network::NetID::DWCAN_01) },
{ Network(Network::NetID::DWCAN_02) }
};
}
protected:
ICSNEO_UNALIGNED(const uint64_t*) getTerminationEnables() const override {
auto cfg = getStructurePointer<radcomet3_settings_t>();
if(cfg == nullptr)
return nullptr;
return &cfg->termination_enables;
}
private:
const ETHERNET10T1S_SETTINGS* getT1SSettingsFor(Network net) const {
const ETHERNET10T1S_SETTINGS* getT1SSettingsFor(Network net) const override {
auto cfg = getStructurePointer<radcomet3_settings_t>();
if(cfg == nullptr)
return nullptr;
switch(net.getNetID()) {
case Network::NetID::AE_02: return &(cfg->t1s1);
case Network::NetID::AE_03: return &(cfg->t1s2);
@@ -681,35 +486,14 @@ private:
case Network::NetID::AE_05: return &(cfg->t1s4);
case Network::NetID::AE_06: return &(cfg->t1s5);
case Network::NetID::AE_07: return &(cfg->t1s6);
default:
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return nullptr;
default: return nullptr;
}
}
ETHERNET10T1S_SETTINGS* getMutableT1SSettingsFor(Network net) {
auto cfg = getMutableStructurePointer<radcomet3_settings_t>();
if(cfg == nullptr)
return nullptr;
switch(net.getNetID()) {
case Network::NetID::AE_02: return &(cfg->t1s1);
case Network::NetID::AE_03: return &(cfg->t1s2);
case Network::NetID::AE_04: return &(cfg->t1s3);
case Network::NetID::AE_05: return &(cfg->t1s4);
case Network::NetID::AE_06: return &(cfg->t1s5);
case Network::NetID::AE_07: return &(cfg->t1s6);
default:
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return nullptr;
}
}
const ETHERNET10T1S_SETTINGS_EXT* getT1SSettingsExtFor(Network net) const {
const ETHERNET10T1S_SETTINGS_EXT* getT1SSettingsExtFor(Network net) const override {
auto cfg = getStructurePointer<radcomet3_settings_t>();
if(cfg == nullptr)
return nullptr;
switch(net.getNetID()) {
case Network::NetID::AE_02: return &(cfg->t1s1Ext);
case Network::NetID::AE_03: return &(cfg->t1s2Ext);
@@ -717,27 +501,7 @@ private:
case Network::NetID::AE_05: return &(cfg->t1s4Ext);
case Network::NetID::AE_06: return &(cfg->t1s5Ext);
case Network::NetID::AE_07: return &(cfg->t1s6Ext);
default:
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return nullptr;
}
}
ETHERNET10T1S_SETTINGS_EXT* getMutableT1SSettingsExtFor(Network net) {
auto cfg = getMutableStructurePointer<radcomet3_settings_t>();
if(cfg == nullptr)
return nullptr;
switch(net.getNetID()) {
case Network::NetID::AE_02: return &(cfg->t1s1Ext);
case Network::NetID::AE_03: return &(cfg->t1s2Ext);
case Network::NetID::AE_04: return &(cfg->t1s3Ext);
case Network::NetID::AE_05: return &(cfg->t1s4Ext);
case Network::NetID::AE_06: return &(cfg->t1s5Ext);
case Network::NetID::AE_07: return &(cfg->t1s6Ext);
default:
report(APIEvent::Type::ParameterOutOfRange, APIEvent::Severity::Error);
return nullptr;
default: return nullptr;
}
}
@@ -41,7 +41,8 @@ public:
{ChipID::SFPModule_88q2221_MCHIP, true, "SFP-MV2221M", "sfp_mv2221m_b2_mchip_ief", 3, FirmwareType::IEF},
{ChipID::SFPModule_lan8670_MCHIP, true, "SFP-MC8670", "sfp_module_lan8670_ief", 3, FirmwareType::IEF},
{ChipID::SFPModule_88q3244_MCHIP, true, "SFP-MV3244", "sfp_module_88q3244_ief", 3, FirmwareType::IEF},
{ChipID::SFPModule_ent11100_MCHIP, true, "SFP-EN11100", "sfp_module_ent11100_ief", 3, FirmwareType::IEF}
{ChipID::SFPModule_ent11100_MCHIP, true, "SFP-EN11100", "sfp_module_ent11100_ief", 3, FirmwareType::IEF},
{ChipID::SFPModule_ad1101_MCHIP, true, "SFP-AD1101", "sfp_module_adi1101_ief", 3, FirmwareType::IEF},
};
return chips;
}
@@ -87,9 +88,32 @@ public:
}
BootloaderPipeline pipeline;
auto compVersions = getComponentVersions();
for(size_t i = 0; i < chipVersions.size(); i++) {
const auto& version = chipVersions[i];
pipeline.add<FlashPhase>(version.id, BootloaderCommunication::RADMultiChip, i == 0);
auto it = compVersions.begin();
std::vector<ComponentVersion> sameIdComponents;
while(it != compVersions.end()) {
it = std::find_if(it, compVersions.end(), [&version](const auto& component) {
return (ChipID)component.identifier == version.id;
});
if (it != compVersions.end()) {
sameIdComponents.push_back(*it);
it++;
}
}
if (sameIdComponents.size() > 1) {
std::vector<ComponentVersion> tempCompVersions;
for (const auto& component : compVersions) {
if ((ChipID)component.identifier != version.id || component.expansionSlot != sameIdComponents[0].expansionSlot) {
tempCompVersions.push_back(component);
}
}
compVersions = std::move(tempCompVersions);
}
if (!sameIdComponents.empty()) {
pipeline.add<FlashPhase>(version.id, BootloaderCommunication::RADMultiChip, i == 0, true, true, sameIdComponents[0].expansionSlot);
}
}
pipeline.add<EnterApplicationPhase>(mainChipID);
pipeline.add<WaitPhase>(std::chrono::milliseconds(3000));

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