- Introduced a new ECC directory containing scripts and Makefile for the padless ICS55 core hardening flow.
- Updated the main Makefile to include the new ECC Makefile and added relevant help commands.
- Added dependencies for the ECC CLI in the dependencies.lock.json file.
- Created README documentation for the ECC flow detailing usage and requirements.
- Implemented various scripts for configuration generation, validation, output checking, and packaging of ECC results.
- Added unit tests to validate the ECC configuration and flow behavior.
- Introduced to handle the preparation of the SKY130 OpenRAM SRAM views.
- Updated to download and prepare the SRAM archive during PDK setup.
- Enhanced OpenSTA and Yosys configurations to accommodate SRAM macro integration.
- Added Verilog simulation models for GF180 and SKY130 SRAM macros.
- Implemented tests for SRAM setup and validation, ensuring correct integration and functionality.
- Updated various Makefiles and scripts to support SRAM size and macro configurations.
- Updated multiple RTL files in the and directories to include licensing information under the Mulan PSL v2.
- Added attribution comments for contributions from ETH Zurich and University of Bologna in .
- Enhanced test files in the directory with licensing details and ensured compliance with the Solderpad Hardware License, Version 0.51.
- Introduced a new test in to verify the preservation of attribution for PULP HyperBus sources.
- Updated filelist to include sg13g2_udp.v for IHP130.
- Modified sdram_axi4.sv to initialize read and write control signals.
- Enhanced clock and reset domain configuration to include jtag_trst_n_i_pad.
- Updated iverilog.mk to support IHP130 in tech-cell-test.
- Enhanced pin_map generation to include power pads for IHP130.
- Updated tc_io modules to handle power pins for IHP130.
- Added timing contract generation in package.py for commercial flow.
- Enhanced test cases to validate new IHP130 features and configurations.
- Added new tests for LibreLane flow specific to IHP130.
- Introduced and for STA flow, enabling scenario loading and timing analysis.
- Added for synthesis flow, defining the synthesis process and generating reports.
- Implemented for synthesis, including library handling and design checks.
- Enhanced to support additional filelists and include directories for SOC export.
- Added ICS55 PLL implementation in with corresponding testbench .
- Created comprehensive tests in for various flow components and scenarios.
- Updated to forward new filelist arguments for SOC generation.
- Improved to validate source export functionality and ensure proper file handling.
- Added i2c_if.sv and spi_if.sv to rtl_style_audit.json for proper inclusion in style checks.
- Updated test_i2c.py to reference i2c_if.sv from the serial directory instead of the cluster IP directory.
- Modified test_spisd.py to point to spi_if.sv in the storage directory instead of the cluster IP directory.
- Deleted references to XEZIM and CVC in the Makefile and related scripts.
- Removed XEZIM-specific and CVC-specific files, including external memory models and SRAM models.
- Updated the test suite to reflect the removal of XEZIM and CVC simulators, ensuring no broken references remain.
- Cleaned up the README and doctor scripts to remove mentions of XEZIM and CVC.
- Updated the testbench to conditionally include pull-up resistors and reset hold time based on the selected simulator.
- Enhanced the filelist generation script to support both XEZIM and CVC formats, allowing for simulator-specific options and exclusions.
- Introduced new makefiles ( and ) to handle compilation and simulation for the respective backends.
- Added external memory models and SRAM models specifically for XEZIM simulations.
- Created a test suite to validate the integration of optional simulator backends and ensure they do not interfere with the default backend.
- Updated README.md to clarify the status of KianV RV32IMA and PicoRV32 in the user-extension map.
- Modified Makefile to include USER_EXTENSIONS_SOURCE in MPW variant stamp dependencies.
- Enhanced integration README.md to better describe the relationship between user_extensions.json and mpw.toml.
- Updated generate_user_extensions.py to include design_id in ExtensionTarget and enforce unique design IDs.
- Changed user_extensions.json schema version to 2 and added design_id fields for core and IP targets.
- Refactored generate_mpw.py to support the new manifest structure and validate design selections.
- Adjusted sysctrl_tb.sv test cases to reflect changes in user core reset states.
- Enhanced test_opipsram.py to utilize ccache for improved compilation performance.
- Updated test_script_tools.py to include new tests for active manifest generation.
- Modified test_user_extensions.py to validate isolated scalar bindings and reject duplicate design selections.
- Introduced a new USB2 transaction engine testbench to validate the functionality of the USB2 transaction engine.
- Updated clock and reset domain tests to include USB2 ULPI crossings.
- Enhanced memory map tests to verify USB2 base addresses and performance offsets.
- Modified pin map tests to ensure USB2 ULPI pins are correctly generated.
- Updated SOC topology tests to account for USB2 peripherals and IRQ mappings.
- Added static timing analysis constraints for USB2 clock domains.
- Created dedicated USB2 tests for various components including packet RAM, descriptor validation, and transaction engine.
- Implemented a register parity test to ensure ABI consistency between RTL and C header definitions.
- Updated filelist to include new XPI source files.
- Modified IRQ compatibility mapping for XPI in the SOC topology generator.
- Adjusted JSON topology configuration to reflect new IRQ signal naming.
- Changed software.mk to reference the new XPI HAL source file.
- Enhanced APB4 peripheral module to include XPI IRQ signal.
- Updated RTL style audit to include new XPI files.
- Documented new XPI programming script in README.
- Added a new script for programming XPI flash through OpenOCD.
- Enhanced XPI IO testbench to validate new LUT engine and isolation behavior.
- Created unit tests for the new XPI programming tool and its functionalities.
- Increased the number of masters in the AXI4 interconnect testbench from 5 to 6.
- Added new testbench for SPI-SD clock functionality (spisd_clock_tb).
- Introduced testbench for SPI-SD command engine (spisd_command_tb).
- Created testbench for SPI-SD CRC calculation (spisd_crc_tb).
- Implemented testbench for SPI-SD data handling (spisd_data_tb).
- Developed wrapper testbench for SPI-SD with APB and training checks (spisd_wrapper_tb).
- Added Python test suite for SPI-SD RTL regressions (test_spisd.py).
- Created a test for verifying register parity between RTL and C header definitions (test_spisd_register_parity.py).
- Introduced a new testbench for the SDIO wrapper () to validate APB interactions.
- Updated to include IRQ handling for SDIO0 and SDIO1.
- Enhanced to account for performance management of SDIO0 and SDIO1.
- Modified memory map tests to include SDIO base addresses and performance wait offsets.
- Updated pin mapping tests to include SDIO1 signals.
- Created a comprehensive suite of SDIO tests () covering various functionalities including CRC, command engine, DMA, and standalone operations.
- Added a new test for verifying SDIO register parity against the RTL definition.
- Adjusted SOC topology tests to reflect the addition of SDIO in the IRQ and APB fabric.
- Updated memory map tests to include OPI PSRAM address and size definitions.
- Introduced new test suite for OPI PSRAM to ensure RTL and HAL ABI consistency.
- Enhanced script tools tests to validate formal filelists for OPI PSRAM.
- Modified SOC topology tests to incorporate OPI PSRAM bindings and IRQ mappings.
- Introduced to define formal properties for the DMA design, ensuring correct behavior under various conditions.
- Created as a testbench for the DMA register interface, implementing APB and AXI4 protocols to validate register operations.
- Added to verify synchronization between RTL and SDK register constants, ensuring consistency across implementations.
- Introduced burst length handling in the SDRAM Verilator model, allowing for more flexible read/write operations.
- Added new SDRAM-related source files to the project structure, including sdram_pkg.sv and sdram_axi4.sv.
- Updated software makefile to include new SDRAM-related C source files for HAL.
- Enhanced C test suite with new tests for SDRAM timing and functionality, ensuring proper integration with the HAL.
- Improved RTL testbench for SDRAM, adding support for burst writes and reads, and verifying data integrity.
- Updated Python test scripts to reflect changes in SDRAM handling and ensure comprehensive coverage of SDRAM functionality.
- Added checks to ensure register offsets between RTL and HAL definitions match, maintaining consistency across the codebase.
- Updated the PSRAM register module to include additional signals for better control and data management.
- Introduced dedicated signals for each register's data and enable lines, enhancing clarity and maintainability.
- Replaced synchronous assignments with combinational logic for register updates.
- Added new D flip-flops for various control signals to ensure proper synchronization.
- Improved the performance control logic to reset counters based on specific conditions.
- Minor formatting adjustments in the I2S register and APB4 I2S modules for consistency.
- Updated test script to include additional utility files for comprehensive testing.
- Updated filelist to include I2S related files.
- Enhanced formal file generation script to support I2S target.
- Introduced I2S formal design and properties for verification.
- Modified formal makefile to include I2S targets and source files.
- Added I2S related source files to software build.
- Updated style audit to include I2S files.
- Implemented I2S helper functions in C tests.
- Created I2S testbench for RTL simulation.
- Added regression test for I2S controller functionality.
- Updated RTL style audit to reflect new APB4 naming conventions.
- Changed performance log parsing to accommodate new APB4 wait signals.
- Modified AXI4 interconnect and rib bus testbenches to use updated performance wait signals.
- Adjusted IRQ topology testbench to use new APB4 peripheral and system IRQ widths.
- Updated sysctrl testbench to reflect changes in APB4 performance wait signals.
- Refined memory map tests to check for new APB4 definitions.
- Enhanced performance log tests to validate new APB4 wait signal parsing.
- Revised SOC topology tests to ensure correct APB4 peripheral and system bindings.
- Updated user extensions tests to align with new APB4 interface naming.
- Introduced SYNTH_RECIPE variable to select between balanced, area, and speed synthesis recipes.
- Updated Makefile to handle new SYNTH_RECIPE variable and its validation.
- Modified synthesis scripts to utilize the selected recipe, ensuring outputs are directed to the appropriate directories.
- Enhanced documentation to reflect changes in synthesis flow and directory structure.
- Added tests to verify correct behavior of new synthesis recipes and their integration into the regression suite.
- Removed obsolete scripts and configurations related to previous synthesis methods.
- Updated test files to change instances of ribp_if to apb4_if in various test cases, ensuring consistency with the new APB4 interface.
- Modified assertions and checks in tests to reflect the new APB4 naming conventions, including changes in expected output and input files.
- Adjusted the test descriptions to accurately represent the APB4 functionality being tested, particularly in timer, UART, and GPIO tests.
- Ensured that all relevant paths and file names in the tests are updated to point to the new APB4 implementations, maintaining the integrity of the test suite.
- Introduced sysctrl_define.svh to define register offsets and constants for SysCtrl.
- Created sysctrl_if.sv interface for communication with SysCtrl.
- Implemented sysctrl_reg.sv module to handle register read/write operations and state management.
- Developed sysctrl_tb.sv testbench to validate SysCtrl functionality, including lifecycle, fault handling, performance monitoring, and RTC wake status.
- Added Python regression test (test_sysctrl.py) to automate SysCtrl verification using Icarus Verilog.
- Updated formal.mk to include PSRAM in formal verification targets and source files.
- Modified software.mk to include psram_math.c for HAL.
- Enhanced pin_map.json to map GPIO pins for PSRAM control signals.
- Refactored ip_ribp_wrapper.sv to integrate PSRAM interface and remove unused ribp interfaces.
- Updated rtl_style_audit.json to include PSRAM related files.
- Added PSRAM testbench (psram_tb.sv) for integration testing.
- Created test_psram.py to validate PSRAM controller functionality and register offsets.
- Adjusted memory map tests to reflect new PSRAM address space and size.
- Enhanced the RTL style checker script to include new diagnostic rules for function declarations, primary design units, and synthesis exclusions.
- Added functions to handle audit issues, ensuring that the audit records match the current inventory of RTL files.
- Updated test cases to reflect changes in RTL file names and paths, ensuring consistency with the new naming conventions.
- Introduced additional tests for style violations, including mismatched primary design units and synthesizable initial blocks.
- Adjusted file paths in various test files to align with the new RTL structure and naming conventions.
- Introduced common setup script for Yosys () to manage global variables and configurations.
- Added output filtering script () to enhance log readability.
- Created technology initialization script () for handling different PDKs.
- Developed main synthesis script () to orchestrate the synthesis flow using Yosys.
- Added a configuration makefile () for synthesis settings.
- Updated Yosys makefile () to integrate new scripts and configurations.
- Adjusted paths in and RTL filelists to reflect new directory structure under .
- Modified various scripts and test files to accommodate the new PDK paths and ensure compatibility.
- Enhanced warning normalization in the analysis script to preserve PDK signatures.
- Added burst handling to the AXI42RAM and AXI42RIBP modules, including support for fixed, increment, and wrap burst types.
- Introduced address generation logic for read and write operations based on burst parameters.
- Updated the AXI4 interconnect to validate burst types and lengths, ensuring compatibility with the AXI4 protocol.
- Modified the SDRAM controller and testbench to accommodate the new burst handling features.
- Enhanced test cases to verify the correct behavior of burst transactions and address patterns.
- Adjusted memory map and topology tests to reflect changes in the SDRAM size and interface connections.
- Changed parameter names in various modules from uppercase to camel case for consistency.
- Updated local parameters in testbenches to follow the same naming convention.
- Modified the RTL style manifest to include additional prefixes for better organization.
- Enhanced the check_format and check_rtl_style scripts to improve file tracking and naming validation.
- Added new tests to ensure compliance with the updated naming conventions and allowed local parameters in specific contexts.
- Updated RTL paths in various files to remove the 'ribp' prefix, reflecting the new directory structure.
- Modified test descriptions to remove version indicators (e.g., V2, V3) for clarity and consistency.
- Adjusted file references in scripts and tests to align with the new peripheral and multimedia directory structure.
- Added a new test to ensure repository layout invariants, confirming the absence of deprecated paths.
- Renamed parameters and signals for better clarity (e.g., DVP_PAYLOAD_WIDTH to DvpPayloadWidth).
- Updated signal assignments and logic to maintain consistent naming conventions.
- Changed output signal names in DVP_CAMERA and DVP_CORE modules to follow a unified naming scheme.
- Adjusted the configuration and command handling in dvp_reg and dvp_core modules to reflect new naming.
- Enhanced the formal verification module to align with updated signal names.
- Ensured all changes maintain functionality while improving code maintainability.
- Updated to enforce stricter naming rules for new owned RTL.
- Expanded documentation on RTL coding style to include detailed naming contracts.
- Refactored RTL code to comply with new naming conventions, including:
- Renaming typedefs to use suffix for enums and for other types.
- Ensuring module names use lower snake case and ports have appropriate direction suffixes.
- Adjusting instance names to start with and ensuring state variables use and suffixes.
- Modified scripts to include checks for new naming rules and updated tests to validate these changes.
- Updated to reflect new naming guidelines and exceptions.
- Updated multiple modules to enhance code formatting and readability by breaking long lines and aligning conditions.
- Improved comments for clarity in , , and .
- Added checks in to reject forbidden constructs such as , non-ASCII characters, and lines exceeding 100 characters.
- Introduced unit tests to validate style checks for forbidden constructs and non-ASCII characters.
- Modified dma_core to accommodate a wider data width for FIFO operations.
- Updated filelists to include new DVP source files and formal verification files.
- Introduced formal verification modules for DVP functionality.
- Enhanced clock and reset domain configurations for DVP integration.
- Added DVP interrupt handling in the IRQ topology.
- Implemented a testbench for DVP to validate register access and frame processing.
- Updated software build scripts to include DVP-related source files.
- Adjusted the system topology to reflect the new DVP interrupt and IRQ mapping.
- Renamed error signals in rib2ribp, rib_error_slave, ribp2axi4, and ribp2rib modules for consistency.
- Updated state machine logic to use new error signal names.
- Enhanced RTL style checking scripts to enforce naming conventions and positional parameter connections.
- Introduced migration scripts to convert positional instances to named connections and shorten local identifiers.
- Added tests to validate migration scripts and ensure correct functionality.
- Introduced a comprehensive RTL coding style document at detailing naming conventions, module structure, formatting, and ownership boundaries.
- Updated to reference the new coding style document and clarify the python3 /nfs/share/home/miaoyuchi/retroSoC/scripts/check_rtl_style.py --root /nfs/share/home/miaoyuchi/retroSoC \
--profile owned --changed-only --verible-verilog-lint verible-verilog-lint
rtl-style-check: owned passed (0 baseline findings) process.
- Refactored several RTL modules in to adhere to the new naming conventions for clock and reset signals.
- Created to define profiles for owned, verification, and technology RTL sources, including suffixes and linting rules.
- Developed to check for compliance with the ownership-aware RTL style rules, focusing on positional connections and legacy constructs.
- Added tests in to validate the functionality of the RTL style checker.
- Updated to document the new style checking script and its usage.
- Introduced a new testbench for the AXI4 interconnect () to validate fault classification for decode and access errors.
- Updated and to reflect changes in bus naming conventions.
- Enhanced to include AXI4-Stream interface checks and validate stream data transfers.
- Modified to integrate AXI4-Stream interfaces for improved DMA testing.
- Added new Python tests () to verify AXI4 to RIBP burst bridge functionality and interconnect fault classification.
- Updated existing tests to include AXI4 interfaces and ensure proper error handling and response validation.
- Adjusted memory map generation and test setups to accommodate new AXI4 interface requirements.
- Removed UART files from clusterip and updated file lists accordingly.
- Added new UART flow control module and interface to manage RTS/CTS signals.
- Updated UART formal verification files to include new flow control signals.
- Modified UART testbench to validate flow control behavior and updated test cases.
- Adjusted top-level design to integrate new UART interface and signal connections.
- Enhanced GPIO pin mapping to accommodate new UART control signals.
- Updated linting and formal generation scripts to reflect changes in UART structure.
- Deleted the UART interface and related components from the RTL design, including the UART TX/RX signals and instances.
- Removed the timer interface and its associated files from the project, including the timer definitions and references in the integration files.
- Updated the APB target configurations to reflect the removal of the UART and timer components, ensuring the IRQ and memory map configurations are consistent.
- Adjusted the formal verification properties and testbenches to exclude references to the removed components.
- Cleaned up the integration documentation to accurately describe the current state of the system without the UART and timer interfaces.
- Introduced PWM V2 alternate functions in the documentation, detailing the GPIO mappings and fault handling.
- Updated the filelist to include new PWM RTL files for the PWM V2 implementation.
- Modified the SOC topology JSON to reflect new GPIO alternate functions for PWM, including synchronization and capture inputs.
- Updated software makefile to include PWM source and header files.
- Enhanced the APB wrapper to integrate the PWM module with proper parameters.
- Updated the ASIC top-level module to include new GPIO mappings for PWM functionality.
- Added tests to validate the new GPIO and PWM connections in the topology.
- Updated file lists to include new watchdog RTL files in clusterip.
- Replaced async_reqack source in commonip file list with top-level CDC file.
- Modified clock and reset domain configurations to incorporate watchdog reset signals.
- Updated the SoC topology generation script and JSON to reflect changes in watchdog interrupt handling.
- Added watchdog source files to software makefile for compilation.
- Enhanced APB wrapper to connect watchdog reset request signal.
- Updated RCU module to handle watchdog reset requests.
- Modified testbench to validate watchdog reset functionality.
- Updated test cases to reflect changes in interrupt naming conventions for the watchdog.
- Updated filelist to replace old CRC models with new core and register files.
- Added source file for CRC implementation in software.mk.
- Included new CRC header files in the include paths for compilation.
- Introduced signal in sysctrl interface and module to handle RTC wake events.
- Added RTC wake status register in memory map and updated related tests.
- Integrated RTC wake handling in the APB wrapper and core wrapper.
- Enhanced clock and reset domain configurations to include RTC signals.
- Updated software build configurations to include RTC source files and headers.
- Modified formal verification and testbench files to accommodate RTC wake functionality.
- Ensured proper synchronization and status recording for RTC wake events in the sysctrl module.
- Updated the PS2 interface in the APB wrapper to include RX and TX FIFO depths.
- Replaced the kdb_model with ps2_device_model in the testbench for better PS2 handling.
- Added new PS2 source files and headers for keyboard and mouse functionality.
- Refactored GPIO alternate functions to support PS2 clock and data signals.
- Implemented PS2 decoder tests for keyboard and mouse in the runtime tests.
- Updated the software makefile to include new PS2 source files and headers.
- Modified the topology tests to validate PS2 GPIO assignments.
- Updated Makefile to include a check for the RNG metadata script and added a dependency for it.
- Modified memory_map.json to change the user access level of APB_RNG to 'none'.
- Updated clusterip filelist to include new RNG source files.
- Adjusted generate_soc_topology.py to replace the reserved IRQ with the RNG IRQ.
- Updated soc_topology.json to reflect the new RNG interrupt configuration.
- Added RNG source files to software.mk for compilation.
- Enhanced ip_apb_wrapper.sv to instantiate the RNG core and connect it to the APB interface.
- Updated test_memory_map.py to ensure SOC_ADDR_IS_APB_RNG is not defined.
- Modified test_script_tools.py to ensure dry runs do not write filelists.
- Updated test_soc_topology.py to verify the new RNG IRQ and adjust the user IRQ mask.
- Introduced scripts and makefile targets for generating architecture information metadata.
- Updated the filelist generation to include archinfo metadata files.
- Modified software.mk to include archinfo source files and headers.
- Enhanced the ip_apb_wrapper and user_ip_wrapper to integrate archinfo components.
- Updated tests to ensure stability and correct path expansions for generated files.
- Removed unnecessary files from the clusterip filelist.
- Updated to include I2C1 in IRQ bindings.
- Modified to increase IRQ group width and add I2C1 interrupt.
- Enhanced to include I2C formal properties and adjust timeouts.
- Added I2C-related source files to the formal verification flow.
- Updated DMA wrapper in to handle I2C DMA signals.
- Created a new testbench for I2C functionality verification.
- Implemented I2C helper functions in for testing.
- Added I2C tests in to validate controller behavior and recovery.
- Updated existing tests to accommodate changes in DMA and IRQ handling.
- Updated filelist to include new UART source files.
- Enhanced formal file generation script to support UART target.
- Introduced formal verification module and properties for UART.
- Modified makefiles to include UART in formal targets and source files.
- Added UART-related source files to software build.
- Updated top-level wrapper to integrate UART DMA signals.
- Implemented UART testbench for comprehensive testing of functionality.
- Created Python test script for UART V2 register, FIFO, and interrupt tests.
- Added UART helper functions in C test runtime.
- Updated DMA error testbench to handle UART signals.
- Ensured WS2812 DMA testbench accommodates UART signals.
- Updated to include for testing.
- Modified to include GPIO header and added tests for GPIO functionality.
- Created a new testbench for GPIO V2, covering register and pad-control contracts.
- Removed obsolete and its associated test.
- Updated to include GPIO admin base routing.
- Added a new Python test for GPIO V2 register and pad-control contract.
- Removed as its functionality is now covered in .
- Updated memory map tests to ensure GPIO admin base is correctly referenced.
- Adjusted formal filelist generation to reflect changes in GPIO handling.
- Enhanced SOC topology tests to include GPIO interrupt handling.
- Updated the formal file list generator to include CLINT source files.
- Added CLINT timebase to the clock and reset domains configuration.
- Enhanced the SOC topology generation to include CLINT interrupts and their mappings.
- Introduced a new CLINT testbench to validate multi-hart and timebase functionality.
- Modified the software build configuration to define CLINT timebase frequency.
- Updated the RCU module to integrate CLINT timebase generation.
- Adjusted the IRQ configuration to reflect changes in CLINT interrupt signals.
- Added user-visible flags for interrupts in the topology configuration.
- Enhanced the clock reset domain checks to include CLINT timebase.
- Updated the memory map tests to validate CLINT peripheral integration.
- Updated filelist to include new timer peripheral files.
- Enhanced formal file generation script to support timer target.
- Created timer formal design and properties for formal verification.
- Modified formal makefile to include timer targets and source files.
- Added timer-related source files to software makefile.
- Updated core and management wrappers to include debug halted signal.
- Implemented timer testbench for RTL simulation.
- Added regression tests for timer functionality in Python.
- Introduced timer helper functions in C tests for validation.
- Replace onewire interface with ws2812 interface in retrosoc module.
- Include ws2812_math.c in C test sources.
- Add ws2812 header in test_runtime.c and implement ws2812 helper tests.
- Update ribp_topology_tb and soc_irq_topology_tb to handle ws2812 interface.
- Create ws2812_dma_tb and ws2812_tb for testing WS2812 DMA and waveform functionality.
- Enhance test_script_tools.py to include ws2812 in formal filelists.
- Modify test_soc_topology.py to ensure proper IRQ mapping for ws2812.
- Introduce test_ws2812.py for WS2812 register, waveform, and streaming regression tests.
- Introduced test status signals (test_done_o, test_pass_o, test_code_o) in sysctrl interface and module.
- Updated memory map to include TEST_STATUS offset.
- Enhanced retrosoc_tb to monitor test completion and report results.
- Modified Emulator to handle test status and return appropriate exit codes.
- Updated formal verification to include assertions for test status.
- Added CoreMark log parsing script and integrated it into the regression tests.
- Implemented tests for test status handling in sysctrl_fault_tb.
- Adjusted simulation success and failure markers in various scripts and tests.
- Ensured compatibility with existing performance logging and regression testing frameworks.
- Eliminated the HAVE_DEBUG preprocessor directive and all associated code from the RTL and test files.
- Updated the Emulator class to remove JTAG-related debug signals and configurations.
- Adjusted the pin map and JSON configurations to exclude debug-related entries.
- Modified the management core wrapper to only support the HAZARD3 core, removing references to the PICORV32 core.
- Updated tests to reflect the removal of the HAVE_DEBUG feature, ensuring they no longer check for debug-related conditions.
- Cleaned up various scripts and makefiles to remove dependencies on the HAVE_DEBUG flag, streamlining the build process.
- Implemented module to handle debug reset requests, ensuring proper synchronization with the AHB-Lite bridge.
- Created to integrate JTAG-DTM and Debug Module, facilitating abstract command exposure.
- Updated and modules to include JTAG interface signals.
- Enhanced the development environment with scripts for running debug sessions using OpenOCD and GDB.
- Added tests for management debug reset functionality and JTAG integration, ensuring correct behavior under various scenarios.
- Updated SDC generation to include JTAG clock domain and port requirements.
- Modified various scripts to support new debug features and ensure compatibility with the Hazard3 architecture.
- Added .dockerignore to exclude unnecessary files from Docker context.
- Updated Makefile to include a new setup-regression target for installing dependencies for all PR PDK profiles.
- Enhanced README with installation instructions for Docker and Nix environments.
- Created Dockerfile for a lock-pinned Ubuntu 22.04 development image.
- Added entrypoint script for Docker container to set up the environment.
- Introduced flake.lock and flake.nix for Nix package management.
- Updated dependency_lock.py to validate Nix inputs and container images in the lock file.
- Implemented development_environment.py for managing the development environment setup.
- Enhanced package.py to include container components in the SBOM.
- Added tests to ensure the development environment contract is lock-pinned and validate container and Nix environment files.
- Changed the interface from ribp to rib in soc_topology.json and related files.
- Updated formal.mk to reflect the new rib2apb naming convention.
- Implemented rib2apb module to handle RIB to APB communication.
- Modified bus.sv to integrate the new rib2apb module and adjust signal assignments accordingly.
- Updated testbench files to use the new rib interface and validate the RIB to APB functionality.
- Created rib2apb_tb for testing the direct RIB to APB bridge.
- Adjusted script tools and test scripts to accommodate the new naming and structure.
- Included a block diagram of the Mini SoC architecture in the main README.
- Updated documentation to reference the new block diagram and its Graphviz source.
- Added the Graphviz source file for the Mini SoC block diagram.
- Generated and added the SVG representation of the block diagram.
- Renamed and to and respectively across various test files and modules.
- Updated response codes in tests to use new definitions ().
- Added new testbench to validate RIB to RAM interactions.
- Created for testing RIBP topology routing.
- Adjusted memory map tests to reflect new interface names.
- Ensured all references to old interface names were replaced in Python test scripts.
- Verified that all test cases pass with the new interface structure.
- Introduced to define formal properties for the sysctrl module.
- Updated to include new formal properties and source files.
- Renamed to in the bus module and created a new file.
- Implemented a testbench for in .
- Removed the obsolete test file.
- Updated test scripts to reference the new instead of the old RAM module.
- Adjusted various test files to ensure compatibility with the new structure and naming conventions.
- Updated test cases in , , , , , , , and to replace references from RIB to RIBP.
- Modified file names and paths in tests to align with the new RIBP naming conventions.
- Ensured that all assertions and checks in the tests are consistent with the updated RIBP interfaces and functionality.
- Added a new test for migrating user core RIBP interfaces in .
- Updated dma_error_tb to implement burst transfer handling and performance measurement for INCR4 transfers.
- Introduced rib_burst_bus_tb to validate RIB burst arbitration and protocol compliance.
- Added soc_rib_burst_ram_tb to test SRAM behavior with burst commands.
- Created spill_register_tb to verify the functionality of the spill register under various conditions.
- Modified test_dma.py to reflect changes in DMA error handling and performance reporting.
- Updated test_memory_map.py to include new RIB burst interfaces and spill register utilities.
- Enhanced test_rib_burst.py with directed tests for RIB burst building blocks and spill register behavior.
- Adjusted test_soc_topology.py to ensure correct instantiation counts for RIB interfaces.
- Improved test_user_extensions.py to validate the generation of isolated scalar bindings for burst interfaces.
maksyuki