VectorBlox ORCA is an implementation of RISC-V. It is intended to target FPGAs and can be configured as either #RV32I a #RV32IM core.
ORCA can be used as a standalone processor, but was built to be a host to Vectorblox's proprietary Lightweight Vector Extensions (LVE) or full-fledged Matrix processor MXP.
It has optional #AXI3/4 instruction and data caches, a separate #AXI4-Lite interface for uncached transactions, and an auxiliary interface that can be configured as either #WISHBONE, Intel #Avalon, or Xilinx #LMB.
https://github.com/VectorBlox/orca
#VHDL #RISCV @ipcores
ORCA can be used as a standalone processor, but was built to be a host to Vectorblox's proprietary Lightweight Vector Extensions (LVE) or full-fledged Matrix processor MXP.
It has optional #AXI3/4 instruction and data caches, a separate #AXI4-Lite interface for uncached transactions, and an auxiliary interface that can be configured as either #WISHBONE, Intel #Avalon, or Xilinx #LMB.
https://github.com/VectorBlox/orca
#VHDL #RISCV @ipcores
FPGALink - Library for JTAG-programming and subsequently interacting with an FPGA over USB using a microcontroller (primarily the Cypress FX2LP). It allows you to:
* Load and save Cypress FX2LP firmware
* Communicate with the FPGA using HiSpeed USB (~25Mbyte/s)
* Reprogram the FPGA using JTAG over USB
* Bootstrap an FPGA design standalone using minimal components
https://github.com/makestuff/libfpgalink
https://github.com/makestuff/libfpgalink/wiki/FPGALink
#USB #FX2LP #FIFO #Interface #VHDL #verilog @ipcores
* Load and save Cypress FX2LP firmware
* Communicate with the FPGA using HiSpeed USB (~25Mbyte/s)
* Reprogram the FPGA using JTAG over USB
* Bootstrap an FPGA design standalone using minimal components
https://github.com/makestuff/libfpgalink
https://github.com/makestuff/libfpgalink/wiki/FPGALink
#USB #FX2LP #FIFO #Interface #VHDL #verilog @ipcores
๐1
Open-source RISC-V from Bluespec, Inc; this is one of a family of free, open-source RISC-V CPUs.
* Piccolo: 3-stage, in-order pipeline: Piccolo is intended for low-end applications (Embedded Systems, IoT, microcontrollers, etc.).
* Flute: 5-stage, in-order pipeline: Flute is intended for low-end to medium applications that require 64-bit operation, an MMU (Virtual Memory) and more performance than Piccolo-class processors.
* Tooba: superscalar, out-of-order pipeline: slight variation on MIT's RISCY-OOO [In progress!]
* Bassoon: deep, out-of-order pipeline: [Coming!]
https://github.com/bluespec/Piccolo
https://github.com/bluespec/Flute
https://github.com/bluespec/Toooba
https://github.com/bluespec/Bassoon
#Verilog #RISCV #BlueSpec #BSV #AXI4
@ipcores
* Piccolo: 3-stage, in-order pipeline: Piccolo is intended for low-end applications (Embedded Systems, IoT, microcontrollers, etc.).
* Flute: 5-stage, in-order pipeline: Flute is intended for low-end to medium applications that require 64-bit operation, an MMU (Virtual Memory) and more performance than Piccolo-class processors.
* Tooba: superscalar, out-of-order pipeline: slight variation on MIT's RISCY-OOO [In progress!]
* Bassoon: deep, out-of-order pipeline: [Coming!]
https://github.com/bluespec/Piccolo
https://github.com/bluespec/Flute
https://github.com/bluespec/Toooba
https://github.com/bluespec/Bassoon
#Verilog #RISCV #BlueSpec #BSV #AXI4
@ipcores
๐1
GLIP is a solution for transferring data through FIFOs between a host, usually a PC, and a target, usually a HW-component such as an FPGA or a microcontroller. The actual data transport can happen through various interfaces, such as USB 3.0, JTAG or TCP. GLIP encapsulates all low-level details of the data transfers and provides on the host side an easy to use C library, and on the target side ready to use interfaces to quickly setup a working communication.
https://www.glip.io/
https://github.com/TUM-LIS/glip
#GLIP #Cypress #FX2LP #FX3 #verilog #OprenOCD #JTAG #FT2232 #UART #linux
@ipcores
https://www.glip.io/
https://github.com/TUM-LIS/glip
#GLIP #Cypress #FX2LP #FX3 #verilog #OprenOCD #JTAG #FT2232 #UART #linux
@ipcores
LISNoC is a free Network-on-Chip implementation, mainly for academic or teaching purposes (but freely available for any use under the MIT license).
It is a straight forward implementation with follow basic features:
โ Virtual channel support
โ Flexible router configuration (number of input ports, number of output ports,..)
โ Wormhole routing, strict ordering
โ Round-robin arbitration for link multiplexing
http://www.lisnoc.org/
https://github.com/TUM-LIS/lisnoc
#NoC #router #interconnect #verilog
@ipcores
It is a straight forward implementation with follow basic features:
โ Virtual channel support
โ Flexible router configuration (number of input ports, number of output ports,..)
โ Wormhole routing, strict ordering
โ Round-robin arbitration for link multiplexing
http://www.lisnoc.org/
https://github.com/TUM-LIS/lisnoc
#NoC #router #interconnect #verilog
@ipcores
Forwarded from FPG๐ธSIC
Reusable Integration Framework for FPGA Accelerators (RIFFA) is a simple framework for communicating data from a host CPU to a FPGA via a PCI-E. RIFFA supports Windows/Linux, Altera/Xilinx, with bindings for C/C++, Python, MATLAB and Java.
https://github.com/KastnerRG/riffa
#PCI-E #DMA #Linux
https://github.com/KastnerRG/riffa
#PCI-E #DMA #Linux
GitHub
GitHub - KastnerRG/riffa: The RIFFA development repository
The RIFFA development repository. Contribute to KastnerRG/riffa development by creating an account on GitHub.
Forwarded from FPG๐ธSIC
Yet another solution (IP+driver) for DMA over PCI-E for Linux/Windows Xilinx/Altera. http://xillybus.com/ #DMA #PCI-E #RIFFA #Xillybus
Verilog implementation of DisplayPort protocol for FPGA
#DisplayPort #verilog #video #FullHD
Resolution| Lanes |Eff.Pix.clockhttps://github.com/hamsternz/DisplayPort_Verilog
----------+-------+-------------
800x600 | 1 | 40.00 MHz
800x600 | 2 | 40.00 MHz
800x600 | 3 | 40.00 MHz
1280x720 | 1 | 74.25 MHz
1920x1080 | 2 | 148.50 MHz
3240x2160 | 2 | 165.00 MHz
#DisplayPort #verilog #video #FullHD
BaseJump STL: A standard library for SystemVerilog
This library has many of the standard components that you use in hardware design. But these ones are nicely parameterized, and try to use latency-insensitive
interfaces where it does not hurt performance.
Available sources, paper and video
#SV #library #STL #primitives
This library has many of the standard components that you use in hardware design. But these ones are nicely parameterized, and try to use latency-insensitive
interfaces where it does not hurt performance.
Available sources, paper and video
#SV #library #STL #primitives
VHDL-extras - provides some extra bits of code that are not found in the standard VHDL libraries. The VHDL-extras library contains 50+ components and many more utility functions that can enhance and simplify many hardware development tasks.
โ Core packages
โฆ pipelining โ Pipeline registers
โฆ sizing โ Generalized integer logarithms and array size computation
โฆ synchronizing โ Clock domain synchronizing components
โฆ timing_ops โ Conversions for time, frequency, and clock cycles
โ Arithmetic
โฆ arithmetic โ Pipelined adder
โฆ bit_ops โ Bitwise operations
โฆ cordic โ CORDIC rotation algorithm and Sine/Cosine generation
โฆ filtering โ Digital filters
โ Signal processing
โฆ ddfs โ Direct Digital Frequency Synthesizer
โฆ oscillator โ Sinusoidal frequency generators
โ Error handling
โฆ crc_ops โ Compute CRCs
โฆ hamming_edac โ Generalized Hamming error correction encoding and decoding
โฆ parity_ops โ Basic parity operations
โฆ secded_edac โ Hamming extension with double-error detection
โ Encoding
โฆ bcd_conversion โ Encode and decode packed Binary Coded Decimal
โฆ gray_code โ Encode and decode Gray code
โฆ muxing โ Decoder and muxing operations
โ Memories
โฆ fifos โ General purpose FIFOs
โฆ memory โ Synthesizable memories
โฆ reg_file โ General purpose register file
โ Randomization
โฆ lcar_ops โ Linear Cellular Automata
โฆ lfsr_ops โ Linear Feedback Shift Registers
โฆ random โ Simulation-only random number generation
โ Miscellaneous
โฆ binaryio โ Binary file I/O
โฆ interrupt_ctl โ General purpose priority interrupt controller
โฆ text_buffering โ Store text files in internal buffers
โฆ glitch_filtering โ Clean up noisy inputs
Docs and sources
#VHDL #library #primitives
โ Core packages
โฆ pipelining โ Pipeline registers
โฆ sizing โ Generalized integer logarithms and array size computation
โฆ synchronizing โ Clock domain synchronizing components
โฆ timing_ops โ Conversions for time, frequency, and clock cycles
โ Arithmetic
โฆ arithmetic โ Pipelined adder
โฆ bit_ops โ Bitwise operations
โฆ cordic โ CORDIC rotation algorithm and Sine/Cosine generation
โฆ filtering โ Digital filters
โ Signal processing
โฆ ddfs โ Direct Digital Frequency Synthesizer
โฆ oscillator โ Sinusoidal frequency generators
โ Error handling
โฆ crc_ops โ Compute CRCs
โฆ hamming_edac โ Generalized Hamming error correction encoding and decoding
โฆ parity_ops โ Basic parity operations
โฆ secded_edac โ Hamming extension with double-error detection
โ Encoding
โฆ bcd_conversion โ Encode and decode packed Binary Coded Decimal
โฆ gray_code โ Encode and decode Gray code
โฆ muxing โ Decoder and muxing operations
โ Memories
โฆ fifos โ General purpose FIFOs
โฆ memory โ Synthesizable memories
โฆ reg_file โ General purpose register file
โ Randomization
โฆ lcar_ops โ Linear Cellular Automata
โฆ lfsr_ops โ Linear Feedback Shift Registers
โฆ random โ Simulation-only random number generation
โ Miscellaneous
โฆ binaryio โ Binary file I/O
โฆ interrupt_ctl โ General purpose priority interrupt controller
โฆ text_buffering โ Store text files in internal buffers
โฆ glitch_filtering โ Clean up noisy inputs
Docs and sources
#VHDL #library #primitives
๐1
OpenSource Hybrid Memory Cube Controller (meets HMC specification Rev 1.1).
Features
โ Full link-training, sleep mode, and link retraining
โ 16Byte up to 128Byte read and write transactions
โ Posted and non-posted bit-write and atomic requests
โ Mode Read and Write
โ Full packet flow control
โ Packet integrity checks (sequence number, packet length, CRC,...)
โ Full automatic link retry
Configurations
โ 2 FLITs per Word / 256-bit datapath
โ 4 FLITs per Word / 512-bit datapath
โ 6 FLITs per Word / 768-bit datapath
โ 8 FLITs per Word / 1024-bit datapath
Sources, docs
#HMC #memory #SV
Features
โ Full link-training, sleep mode, and link retraining
โ 16Byte up to 128Byte read and write transactions
โ Posted and non-posted bit-write and atomic requests
โ Mode Read and Write
โ Full packet flow control
โ Packet integrity checks (sequence number, packet length, CRC,...)
โ Full automatic link retry
Configurations
โ 2 FLITs per Word / 256-bit datapath
โ 4 FLITs per Word / 512-bit datapath
โ 6 FLITs per Word / 768-bit datapath
โ 8 FLITs per Word / 1024-bit datapath
Sources, docs
#HMC #memory #SV
Wave Computingยฎ Inc., the Silicon Valley company launches MIPS Openโข, provides royalty-free access to chip design data. New Release of MIPSOpen Components Includes Verilog RTL Code for MIPS32 microAptiv Cores
The new set of MIPS Open program components will include two different versions of the microAptiv Verilog RTL code:
โ microAptiv MCU core: designed with application-specific features and real-time performance for microcontroller SoC development
โ microAptiv MPU core: includes a cache controller and MMU facilitating embedded system designs executing operating systems such as Linux
In addition to the Verilog RTL code, the package also includes documentation, configuration tools and a verification suite.
MIPS Open program components are available for immediate download
#MIPS #MIPS32 #MIPSOpen #microAptiv #microMIPS #RTL #verilog
The new set of MIPS Open program components will include two different versions of the microAptiv Verilog RTL code:
โ microAptiv MCU core: designed with application-specific features and real-time performance for microcontroller SoC development
โ microAptiv MPU core: includes a cache controller and MMU facilitating embedded system designs executing operating systems such as Linux
In addition to the Verilog RTL code, the package also includes documentation, configuration tools and a verification suite.
MIPS Open program components are available for immediate download
#MIPS #MIPS32 #MIPSOpen #microAptiv #microMIPS #RTL #verilog
Display Controller project written in verilog and supports VGA, DVI, and HDMI displays. It includes full configuration for 640x480, 800x600, 1280x720, and 1920x1080, as well as the ability to define custom resolutions. TMDS Encoder model already included in src.
https://github.com/projf/display-controller
#HDMI #DVI #TMDS #SerDes #VGA #verilog #Xilinx
https://github.com/projf/display-controller
#HDMI #DVI #TMDS #SerDes #VGA #verilog #Xilinx
๐2
ARM provide easy access to Cortex-M Soft Processor IP on Xilinx FPGA.
DesignStart FPGA offers instant and free access to Cortex-M1 and Cortex-M3 soft CPU IP for use on Xilinx FPGA designs for prototypes and commercial deployments.
The Cortex-M1 and Cortex-M3 processor IP is at full release quality (REL) and suitable for mass deployment. The example systems, board support package and tool integration are released at beta with updates and improvements on an ongoing basis.
Link (registration required)
#ARM #Xilinx #Cortex #CPU #DesignStart
DesignStart FPGA offers instant and free access to Cortex-M1 and Cortex-M3 soft CPU IP for use on Xilinx FPGA designs for prototypes and commercial deployments.
The Cortex-M1 and Cortex-M3 processor IP is at full release quality (REL) and suitable for mass deployment. The example systems, board support package and tool integration are released at beta with updates and improvements on an ongoing basis.
Link (registration required)
#ARM #Xilinx #Cortex #CPU #DesignStart
The AMBA Bus Protocol Assertions is a verification and validation product designed to work with a range of different user environments and usage scenarios. The underlying goal is to provide protocol specific SystemVerilog assertions for the AMBA v3 & v4: ACE, AXI3, AXI4, AXI4-Lite and AXI4-Stream protocols.
Features:
โฆ Support for the latest version of the AXI Specification
โฆ Support for separate parameterisation for read and write ID widths
โฆ Enhancements to end of simulation checks
This release has been developed and tested:
โฆ SystemVerilog v3.1a
โฆ Mentor ModelSim SE 10.1a
โฆ Cadence Incisive 11.10.008
โฆ Synopsys VCS 2011.12-3
Download links:
โฆ AMBA 3 AXI3 Protocol Assertions
โฆ AMBA 4 AXI4 Protocol Assertions
โฆ AMBA 4 ACE Protocol Checker
โฆ [All downloads required registration]
#AMBA #AXI #AXIlite #AXIS #SVA #SV #BFM #verification #ProtocolChecker
Features:
โฆ Support for the latest version of the AXI Specification
โฆ Support for separate parameterisation for read and write ID widths
โฆ Enhancements to end of simulation checks
This release has been developed and tested:
โฆ SystemVerilog v3.1a
โฆ Mentor ModelSim SE 10.1a
โฆ Cadence Incisive 11.10.008
โฆ Synopsys VCS 2011.12-3
Download links:
โฆ AMBA 3 AXI3 Protocol Assertions
โฆ AMBA 4 AXI4 Protocol Assertions
โฆ AMBA 4 ACE Protocol Checker
โฆ [All downloads required registration]
#AMBA #AXI #AXIlite #AXIS #SVA #SV #BFM #verification #ProtocolChecker
๐2โค1๐ฅ1
Your preferable way to make RTL:
Anonymous Poll
66%
Verilog
25%
VHDL
4%
HLS
5%
Python (MyHDL/MiGen/etc)
Forwarded from FPG๐ธSIC
In order to improving of content relevancy please help us by voting for favourite/most used FPGA vendor:
Anonymous Poll
66%
Xilinx
22%
Altera/Intel
6%
LatticeSemi/Micosemi/Microchip/etc
6%
I don't use FPGA (e.g. ASIC or so)
BOOM - an open-source out-of-order RISC-V CPU (RV64G ISA).
Like most contemporary high-performance cores, BOOM is superscalar (able to execute multiple instructions per cycle) and out-of-order (able to execute instructions as their dependencies are resolved and not restricted to their program order).
The main features of BOOMv2:
โฆ updated 3-stage front-end design with a bigger set-associative Branch Target Buffer (BTB)
โฆ pipelined register rename stage
โฆ split floating point and integer register files
โฆ dedicated floating point pipeline
โฆ separate issue windows for floating point, integer, and memory micro-operations
โฆ separate stages for issue-select and register read
Links:
โฆ Sources
โฆ Publication
โฆ Presentation
#RISCV #RV64 #out-of-order #scala #chisel #CPU #BOOM
Like most contemporary high-performance cores, BOOM is superscalar (able to execute multiple instructions per cycle) and out-of-order (able to execute instructions as their dependencies are resolved and not restricted to their program order).
The main features of BOOMv2:
โฆ updated 3-stage front-end design with a bigger set-associative Branch Target Buffer (BTB)
โฆ pipelined register rename stage
โฆ split floating point and integer register files
โฆ dedicated floating point pipeline
โฆ separate issue windows for floating point, integer, and memory micro-operations
โฆ separate stages for issue-select and register read
Links:
โฆ Sources
โฆ Publication
โฆ Presentation
#RISCV #RV64 #out-of-order #scala #chisel #CPU #BOOM