FPGA Architecture Overview. Generic FPGA Architecture (1) FPGA Architecture
|
|
- Cornelia Bruce
- 6 years ago
- Views:
Transcription
1 FPGA Architecture Overview dr chris dick dsp chief architect wireless and signal processing group xilinx inc. Generic FPGA Architecture () Generic FPGA architecture consists of an array of logic tiles Tile typically consists of lookup table(s) register(s) multipliers/multiplyaccumulate unit (MAC) Vertical Wiring Channel Routing resources in the channels between the logic tiles provide the connectivity between tiles, I/O, onchip memory & other resources FPGA Architecture 2
2 Generic FPGA Architecture (2) FPGA Architecture 3 VirtexII FPGA Brief overview of an older generation FPGA FPGA Architecture 4 2
3 VirtexII Platform FPGA Active Interconnect Powerful CLB Slice S3 Switch Matrix CLB, IOB, DCM Switch Matrix Slice S Slice S2 Fully Buffered Fast, Predictable Slice S BRAM Block RAM KBit True Dual Port Up to 3.5Mbits / device Multipliers b x b multiplier 2MHz pipelined 8 LUTs 28b distributed RAM Wide Input functions (32:) FPGA Architecture 5 CLB Contains 4 Slides Each CLB is connected to one switch matrix Providing access to general routing resources Switch Matrix TBUF TBUF SHIFT Slice S XY Slice S XY COUT CIN Slice S3 XY Slice S2 XY COUT CIN Fast Connects High level of logic integration Wideinput functions: 6: multiplexer in CLB or any 7input function 32: multiplixer in 2 CLBs ( level of LUT) Fast arithmetic functions 2 lookahead carry chains per CLB column Addressable shift registers in LUT 6b shift register in LUT 28b shift register in CLB (dedicated shift chain) FPGA Architecture 6 3
4 FPGA Logic Slice slice = 2 LUTs + 2 Registers PRE LUT Carry D Q CE CLR F5 F6 LUT Carry PRE D Q CE CLR FPGA Architecture 7 VirtexII Slice Each Function Generator F & G: 4input Lookup Table 6bit distributed RAM 6bit Shift Register Each Register: D FlipFlop Latch Dedicated Logic: Muxes Multiplier fabric FPGA Architecture 8 4
5 VirtexII Slice Detailed View diagram shows ½ slice FPGA Architecture 9 Dedicated Carry Logic The limited arithmetic performance achievable using LUT elements alone to implement carry logic is solved by the dedicated carry logic contained in each slice. Dedicated fast connection path to next slice I3 I2 I I I3 I2 I I O O D D Q Q MUXCY XORCY The dedicated, and much simpler structure of the MUXCY and XORCY carry logic components enables a very high performance (low delay) path from carry input to carry output. It also allows a 2bit operation to be performed in a slice. However, it is not so obvious how this is achieved.. Dedicated fast connection from previous slice FPGA Architecture 5
6 The Xilinx Full Adder A B Half_sum Cin Sum Half_sum A Cout Cin XOR function Cout Multiplexer function 2 input XOR function B A SUM Connects to A Cin Fast MSB resolution FPGA Architecture VirtexII Family FPGA Architecture 2 6
7 CLB Multiplexors Slice S3 Slice S2 F5 F5 F6 F8 MUXF8 combines the 2 MUXF7 outputs (Two CLB) MUXF6 combines Slices XY & XY Slice S F5 F7 MUXF7 combines the 2 MUXF6 outputs Slice S F5 F6 MUXF6 combines Slices XY & XY CLB FPGA Architecture 3 Hierarchical Routing Resources FPGA Architecture 4 7
8 VirtexII Memory Hierarchy 6x 6x 6x 6x Distributed RAM 6x 6x 6x 6x HighPerformance External Memory Interfaces DDR SDRAM 6k x 8k x 2 4k x 4 2k x 9 k x 52 x TrueDual Port Synchronous Block RAM ZBT SRAM QDR SRAM FPGA Architecture 5 Unique Distributed RAM LUTs used as memory inside the fabric Flexible, can be used as RAM, ROM, or shift register 64b 64b Dual Port RAM Distributed memory with fast access time Cascadable with builtin CLB routing Applications Linear Feedback Shift Register Distributed arithmetic Timeshared registers Small FIFO Digital delay lines RAM6 SRL6 LUT 6b 28b CLB Single Port RAM CLB Shift register 28b 6b CLB FPGA Architecture 6 8
9 Efficient Shift Register in LUT 6 latches in the LUT can be configured as shift register Maximum delay of 6 clock cycles in one LUT, up to 28 in one CLB Can be read asynchronously by toggling address lines Efficient programmable delay for balancing pipelined designs Can also be used for small FIFOs or to reprogram LUTs IN CE CLK LUT D Q CE D Q CE D Q CE OUT D Q CE ADDRESS CASCADE FPGA Architecture 7 SRL6 Applications Pipeline compensation (different length per branch ) FIFO, pseudorandom number generator (LFSR) Serial frame synchronizer Runningaverage calculator Pulse generator and clock divider Pattern generator, state machine Website: FPGA Architecture 9
10 Time Division Multiplexing Hardware with the SRL6 () Channel (28,22) RS encoder 56 slices gate g g g 2 g2t b GF multiplier GF adder b b 2 2t x a( X ) message b2 t Parity Bits Output FPGA Architecture 9 Time Division Multiplexing Hardware with the SRL6 (2) 6 Channel (28,22) RS encoder 9 slices 6chn arch 9 = = % 6 copies of chn. arch 6 56 gate g g g2 b b b 2 GF multiplier SRL6 GF adder 2t x a( X ) message g2t b2 t Parity Bits Output FPGA Architecture 2
11 Kb True DualPort Block RAM Configuration Depth 6K x 6K 8K x 2 8K 4K x 4 4K 2K x 9 2K K x K 52 x 52 Data Bits Parity Bits bit bit Port A: 9b Port B: b 9Bit bit Each Port Independent Width Supports data width conversion including parity bits Synchronous read and write 25 MHz registered performance FPGA Architecture 2 BRAM Data Width Conversion Block RAMs Provide Data Width Conversion And FIFO Function in One Narrow Data Stream Narrow Data Stream Wide Processing Data Path FPGA Architecture 22
12 Dual Port Memory Configurations for VirtexII FPGA Architecture 23 Virtex4 FPGA FPGA Architecture 24 2
13 Virtex4 FPGA Revolutionary Advance in FPGA Architecture ASMBL Enables DialIn Resource Allocation Mix Logic, DSP, BRAM, I/O, MGT, DCM, PowerPC Enabled by FlipChip Packaging Technology I/O Columns Distributed Throughout the Device FPGA Architecture 25 Three Virtex4 Platforms Device Logic Cells Block RAM [Kb] DCM SelectIO XtremeDSP Slice PowerPC // EMAC RocketIO transceiver XC4VLX5 3, XC4VLX25 24,92, XC4VLX4 4,472, XC4VLX6 59,94 2, XC4VLX8 8,64 3, XC4VLX,592 4, XC4VLX6 52,64 5, XC4VLX2 2,4 6, XC4VSX25 23,4 2, XC4VSX35 34,56 3, XC4VSX55 55,296 5, XC4VFX2 2, XC4VFX2 9,224, XC4VFX4 4,94 2, XC4VFX6 56,88 4, XC4VFX 94,896 6, XC4VFX4 42,28 9, FPGA Architecture 26 3
14 DSP Tile think of this as the main computational element C BCOUT To Adjacent DSP Tile PCOUT Shared with adjacent DSP A B 72 X Y CIN ± P ZERO Z SUB Register BCIN Wire Shift Right By 7b PCIN FPGA Architecture 27 Dynamically Reconfigurable DSP OPMODEs OpMode Zero Hold P A:B Select Multiply C Select Feedback Add Bit Adder P Cascade Select P Cascade Feedback Add P Cascade Add P Cascade Multiply Add P Cascade Add P Cascade Feedback Add Add P Cascade Add Add Hold P Double Feedback Add Feedback Add MultiplyAccumulate Feedback Add Double Feedback Add Feedback Add Add C Select Feedback Add Bit Adder MultiplyAdd 7Bit Shift P Cascade Select 7Bit Shift P Cascade Feedback Add 7Bit Shift P Cascade Add 7Bit Shift P Cascade Multiply Add 7Bit Shift P Cascade Add 7Bit Shift P Cascade Add Add 7Bit Shift Feedback 7Bit Shift Feedback Feedback Add 7Bit Shift Feedback Add 7Bit Shift Feedback Multiply Add 7Bit Shift Feedback Add Z Y X / Cin +/ (P + Cin) Output +/ (A:B + Cin) +/ (A * B + Cin) +/ (C + Cin) +/ (C + P + Cin) +/ (A:B + C + Cin) PCIN +/ Cin PCIN +/ (P + Cin) PCIN +/ (A:B + Cin) PCIN +/ (A * B + Cin) PCIN +/ (C + Cin) PCIN +/ (C + P + Cin) PCIN +/ (A:B + C + Cin) P +/ Cin P +/ (P + Cin) P +/ (A:B + Cin) P +/ (A * B + Cin) P +/ (C + Cin) P +/ (C + P + Cin) P +/ (A:B + C + Cin) C +/ Cin C +/ (P + Cin) C +/ (A:B + Cin) C +/ (A * B + Cin) Shift(PCIN) +/ Cin Shift(PCIN) +/ (P + Cin) Shift(PCIN) +/ (A:B + Cin) Shift(PCIN) +/ (A * B + Cin) Shift(PCIN) +/ (C + Cin) Shift(PCIN) +/ (A:B + C + Cin) Shift(P) +/ Cin Shift(P) +/ (P + Cin) Shift(P) +/ (A:B + Cin) Shift(P) +/ (A * B + Cin) Shift(P) +/ (C + Cin) Over 4 Different Modes Each XtremeDSP Slice individually controllable Change operation in a single clock cycle Enables resource sharing for maximum utilization FPGA Architecture 28 4
15 Combinatorial Multiplier C To Adjacent DSP Tile BCOUT PCOUT MS Word LS Word A B 72 X Y CIN ± P A B P (PCOUT) ZERO Z SUB b product sign extended to b Register Wire Shift Right By 7b BCIN PCIN FPGA Architecture 29 Pipelined Multiplier C To Adjacent DSP Tile BCOUT 3 delay latency PCOUT MS Word LS Word A B 72 X Y CIN ± P A B z 3 P (PCOUT) b product sign extended to b Register ZERO SUB Z Wire Shift Right By 7b BCIN PCIN FPGA Architecture 3 5
16 DSP: Wide Add/Sub () Wide add/sub C [A:B] add/sub MS Word LS Word This is one option Use of C port can restrict use of adjacent DSP since the C port is shared C C+/[A:B] A B To Adjacent DSP Tile BCOUT Register 2 delay latency X CIN 72 Y ± ZERO SUB Z Wire Shift Right By 7b PCOUT P BCIN PCIN FPGA Architecture 3 DSP: Wide Add/Sub (2) PCIN Wide add/sub [A:B] add/sub MS Word LS Word This is a 2nd option for wide add/sub Use of PCIN removes coupling between DSPs that results from use of C port C A B PCIN+/[A:B] To Adjacent DSP Tile BCOUT 2 delay latency X 72 Y ZERO Z CIN ± SUB PCOUT P Register Wire Shift Right By 7b BCIN PCIN FPGA Architecture 32 6
17 Conventional FIR Filter Standard textbook FIR filter Direct implementation of this graph has potential sample rate limitations due to long combinatorial path FPGA Architecture 33 Pipelined FIR Filter Virtex4 DSP provides support for pipelined FIR filters Pipelining ensures high performance >5 MHz operation Pipelining registers implemented directly in DSP tile FPGA Architecture 34 7
18 35x MPY A[34:7] S2 P[52:7] S,A[6:] B[7:] Sign Extension >>7 z P[6:] sn = Slice n Register z Logic Fabric Delay FPGA Architecture 35 Pipelined 35x35 MPY A[34:7] z 3 S4 P[69:34] S3,A[6:] z B[34:7] z >>7 z P[33:7] A[34:7] S2 S,A[6:] sn = Slice n,b[6:] Register Sign Extension Logic Fabric Delay z >>7 z 3 P[6:] FPGA Architecture
19 Pipelined Complex x MPY Ai Bi S4 Pr Ar Br Ar Bi S3 S2 Pi S Ar Bi sn = Slice n Register Sign Extension FPGA Architecture 37 Pipelined Complex x MACC Ai Bi S5 S6 Pr Ar Br Ar Bi S4 S2 S3 Pi sn = Slice n S Ar Bi Register Sign Extension FPGA Architecture 38 9
20 Pipelined Complex 35x MPY Real component of complex product Ai[34:7] Bi[7:] z 3 z 3 S4 Pr[52:7] Ar[34:7] z S3,Ar[6:] Br[7:] S2 >>7 z 2 Pr[6:] S,Ai[6:] sn = Slice n Bi[7:] Register Sign Extension Logic Fabric Delay z FPGA Architecture 39 Pipelined Complex 35x MPY Imaginary component of complex product Ai[34:7] Br[7:] z 3 z 3 S4 Pi[52:7] Ar[34:7] z S3,Ar[6:] Bi[7:] S2 >>7 z 2 Pi[6:] S,Ai[6:] sn = Slice n Br[7:] Register Sign Extension Logic Fabric Delay z FPGA Architecture 4 2
21 Bit Barrel Shifter A[7:] S2 2 n A[7:] S A[,7:] 2 n Sign Extension >>7 sn = Slice n Register FPGA Architecture 4 Virtex6 FPGA FPGA Architecture 42 2
22 Virtex6 FPGA: Faster Logic Fabric LUT6 increases logic capability Reduces number of logic levels Reduces routing Lowers fanout LUT6 with Dual FF Pair LUT6 Second flipflop added Improves heavily pipelined designs Same CLB architecture for both Spartan6 and Virtex6 FPGA Architecture 43 Virtex6 CLB Each CLB connected to a switch CLB element contains a pair of slices Slices do not have direct connections to each other Each slice contains 4 6input function generators 8 flipflops (FFs) Some slices (slicem) contain memory others (slicel) do not support distributed memory. SLICEM only, SLICEL does not have distributed RAM or shift registers FPGA Architecture 44 22
23 Detailed View of Virtex6 SliceM Each LUT arbitrary function of 6 inputs output on O6 2 arbitrary functions of 5 inputs outputs are O5 and O6 Generating functions of 7 and 8 inputs F7AMUX can generate a function of 7 input variables by combining the outputs of LUTs A and B F7BMUX can generate a function of 7 input variables by combining the outputs of LUTs C and D F8MUX combines the outputs of F7AMUX and F7BMUX F7BMUX F8MUX F7AMUX FPGA Architecture 45 Virtex6 LUT function of 6 variables Figures illustrate computing a function of 6 input variables Combinatorial output Registered output combinatorial output f ( A (6) ) A (6) registered output f ( A (6) ) f ( A (6) ) config. mem cell defines mux sel A (6) f ( A (6) ) FPGA Architecture 46 23
24 Virtex6 LUT two independent functions of 5 variables one LUT can compute two independent functions of 5 variables Combinatorial output combinatorial output f ( A(5) ), g ( A(5) ) A (5) g ( A (5) ) f ( A (5) ) Registered output registered output A (5) ( ), ( ) (5) (5) f A g A config. mem cell defines mux sel g ( A (5) ) f ( A (6) ) FPGA Architecture 47 Virtex6 LUT can bypass LUT and register AX, DX inputs register AX, DX to insert clock cycle delay pipeline balancing shortening critical path in design FPGA Architecture 24
25 Virtex6 CLB: Higher Performance for Pipelined Designs Virtex4 and Earlier Virtex5 Virtex6 LUT/FF Pair LUT/FF Pair LUT/Dual FF Pair 4LUT 6LUT 6LUT Great GeneralPurpose Logic Substantial increase in LUT logic capability: Drives performance NEW: Second flipflop added to increase utilization of heavily pipelined designs Virtex6 Overview 49 FPGA Architecture 49 Virtex6 Distributed RAM memory configurations singleport 32xbit RAM dualport 32xbit RAM quadport 32x2bit RAM simple dualport 32x6bit RAM singleport 64xbit RAM dualport 64xbit RAM quadport 64xbit RAM simple dualport 64x3bit RAM singleport 28xbit RAM dualport 28xbit RAM singleport 256xbit RAM Refer to for details FPGA Architecture 5 25
26 Distributed RAM Configurations distributed RAM: RAM32x2Q distributed RAM: RAM32x6SDP FPGA Architecture 5 Distributed RAM Configurations distributed RAM: RAM64xS distributed RAM: RAM64xD FPGA Architecture 52 26
27 LUT as Shift Register () Shift register logic (SRL) LUT configuration LUT can be configured to operation as 32bit shift register LUT configured as SRL functional representation of LUT configured as SRL FPGA Architecture 53 LUT as Shift Register (2) Shift register logic (SRL) LUT configuration LUT can be configured to operation as dual 6bit shift register 2 LUTs support 64bit SRL LUT configured as 6b dual SRL 64b shift register configuration FPGA Architecture 54 27
28 LUT as Shift Register (3) 96b SRL 28b SRL FPGA Architecture 55 Virtex6 Multiplexors () four 4: multiplexors two 8: multiplexors FPGA Architecture 56 28
29 FPGA Architecture Virtex6 Multiplexors (2) dedicated F7/F8 MUX in a slice enables efficient construction of large MUX 6: multiplexor dedicated F7/F8 also ensure high clock frequencies FPGA Architecture 57 High DSP Performance DSPE FPGA tile Cascadable MultiplierAccumulator Nearly a TeraMAC of DSP performance Powerful thirdgeneration DSP slice Up to 6 MHz operation in Virtex6 Up to 287 MHz operation in Spartan6 New optional preadder Familiar cascade capability for highest performance and utilization B A D +/ B A D +/ PreAdder 25 x MULT C = 25 x MULT C = P P Highest DSP slice capacity Up to 2, DSP Slices in Virtex6 Up to 2 DSP slices in Spartan6 B A D +/ 25 x MULT C = P Mont Blanc Overview 58 FPGA Architecture 58 29
30 Virtex6 DSPE Tile To first order the DSPE comprises a multiplier followed by an accumulator All 3 pipeline registers (input A/B, middle M and output P) should be enabled to achieve maximum clock rate input preadder is very useful for symmetric FIR filters add/sub out ( Z ( X Y CIN )) or ( Z ( X Y CIN )) = ± + + ± + + FPGA Architecture 59 Virtex6 DSPE Tile simplified view To first order the DSPE comprises a multiplier followed by an accumulator All 3 pipeline registers (input A/B, middle M and output P) should be enabled to achieve maximum clock rate FPGA Architecture 6 3
31 Taking Advantage of Filter Symmetry with the Virtex6/Spartan6 DSPE/A Preadder FPGA Architecture 6 Virtex6 Base Platform FPGA Architecture 62 3
32 Partial Reconfiguration Configuration 3 2 Reconfigurable Module A Reconfigurable Module B Partition RP Reconfigurable Module C Reconfigurable Module D Partition RP2 Partial Reconfiguration is unique to Xilinx Saves static and dynamic Power: Design Green FPGA Architecture 63 32
Basic FPGA Architecture Xilinx, Inc. All Rights Reserved
Basic FPGA Architecture 2005 Xilinx, Inc. All Rights Reserved Objectives After completing this module, you will be able to: Identify the basic architectural resources of the Virtex -II FPGA List the differences
More informationBasic FPGA Architectures. Actel FPGAs. PLD Technologies: Antifuse. 3 Digital Systems Implementation Programmable Logic Devices
3 Digital Systems Implementation Programmable Logic Devices Basic FPGA Architectures Why Programmable Logic Devices (PLDs)? Low cost, low risk way of implementing digital circuits as application specific
More informationFPGA architecture and design technology
CE 435 Embedded Systems Spring 2017 FPGA architecture and design technology Nikos Bellas Computer and Communications Engineering Department University of Thessaly 1 FPGA fabric A generic island-style FPGA
More informationField Programmable Gate Array (FPGA)
Field Programmable Gate Array (FPGA) Lecturer: Krébesz, Tamas 1 FPGA in general Reprogrammable Si chip Invented in 1985 by Ross Freeman (Xilinx inc.) Combines the advantages of ASIC and uc-based systems
More informationDSP Resources. Main features: 1 adder-subtractor, 1 multiplier, 1 add/sub/logic ALU, 1 comparator, several pipeline stages
DSP Resources Specialized FPGA columns for complex arithmetic functionality DSP48 Tile: two DSP48 slices, interconnect Each DSP48 is a self-contained arithmeticlogical unit with add/sub/multiply/logic
More informationVirtex-II Architecture. Virtex II technical, Design Solutions. Active Interconnect Technology (continued)
Virtex-II Architecture SONET / SDH Virtex II technical, Design Solutions PCI-X PCI DCM Distri RAM 18Kb BRAM Multiplier LVDS FIFO Shift Registers BLVDS SDRAM QDR SRAM Backplane Rev 4 March 4th. 2002 J-L
More informationTopics. Midterm Finish Chapter 7
Lecture 9 Topics Midterm Finish Chapter 7 ROM (review) Memory device in which permanent binary information is stored. Example: 32 x 8 ROM Five input lines (2 5 = 32) 32 outputs, each representing a memory
More informationTopics. Midterm Finish Chapter 7
Lecture 9 Topics Midterm Finish Chapter 7 Xilinx FPGAs Chapter 7 Spartan 3E Architecture Source: Spartan-3E FPGA Family Datasheet CLB Configurable Logic Blocks Each CLB contains four slices Each slice
More informationParallel FIR Filters. Chapter 5
Chapter 5 Parallel FIR Filters This chapter describes the implementation of high-performance, parallel, full-precision FIR filters using the DSP48 slice in a Virtex-4 device. ecause the Virtex-4 architecture
More informationEE178 Lecture Module 2. Eric Crabill SJSU / Xilinx Fall 2007
EE178 Lecture Module 2 Eric Crabill SJSU / Xilinx Fall 2007 Lecture #4 Agenda Survey of implementation technologies. Implementation Technologies Small scale and medium scale integration. Up to about 200
More information! Program logic functions, interconnect using SRAM. ! Advantages: ! Re-programmable; ! dynamically reconfigurable; ! uses standard processes.
Topics! SRAM-based FPGA fabrics:! Xilinx.! Altera. SRAM-based FPGAs! Program logic functions, using SRAM.! Advantages:! Re-programmable;! dynamically reconfigurable;! uses standard processes.! isadvantages:!
More informationINTRODUCTION TO FPGA ARCHITECTURE
3/3/25 INTRODUCTION TO FPGA ARCHITECTURE DIGITAL LOGIC DESIGN (BASIC TECHNIQUES) a b a y 2input Black Box y b Functional Schematic a b y a b y a b y 2 Truth Table (AND) Truth Table (OR) Truth Table (XOR)
More informationH100 Series FPGA Application Accelerators
2 H100 Series FPGA Application Accelerators Products in the H100 Series PCI-X Mainstream IBM EBlade H101-PCIXM» HPC solution for optimal price/performance» PCI-X form factor» Single Xilinx Virtex 4 FPGA
More informationThe Next Generation 65-nm FPGA. Steve Douglass, Kees Vissers, Peter Alfke Xilinx August 21, 2006
The Next Generation 65-nm FPGA Steve Douglass, Kees Vissers, Peter Alfke Xilinx August 21, 2006 Hot Chips, 2006 Structure of the talk 65nm technology going towards 32nm Virtex-5 family Improved I/O Benchmarking
More informationThe DSP Primer 8. FPGA Technology. DSPprimer Home. DSPprimer Notes. August 2005, University of Strathclyde, Scotland, UK
The DSP Primer 8 FPGA Technology Return DSPprimer Home Return DSPprimer Notes August 2005, University of Strathclyde, Scotland, UK For Academic Use Only THIS SLIDE IS BLANK August 2005, For Academic Use
More informationINTRODUCTION TO FIELD PROGRAMMABLE GATE ARRAYS (FPGAS)
INTRODUCTION TO FIELD PROGRAMMABLE GATE ARRAYS (FPGAS) Bill Jason P. Tomas Dept. of Electrical and Computer Engineering University of Nevada Las Vegas FIELD PROGRAMMABLE ARRAYS Dominant digital design
More informationEE219A Spring 2008 Special Topics in Circuits and Signal Processing. Lecture 9. FPGA Architecture. Ranier Yap, Mohamed Ali.
EE219A Spring 2008 Special Topics in Circuits and Signal Processing Lecture 9 FPGA Architecture Ranier Yap, Mohamed Ali Annoucements Homework 2 posted Due Wed, May 7 Now is the time to turn-in your Hw
More information7-Series Architecture Overview
7-Series Architecture Overview Zynq Vivado 2013.2 Version This material exempt per Department of Commerce license exception TSU Objectives After completing this module, you will be able to: Describe the
More informationCPE/EE 422/522. Introduction to Xilinx Virtex Field-Programmable Gate Arrays Devices. Dr. Rhonda Kay Gaede UAH. Outline
CPE/EE 422/522 Introduction to Xilinx Virtex Field-Programmable Gate Arrays Devices Dr. Rhonda Kay Gaede UAH Outline Introduction Field-Programmable Gate Arrays Virtex Virtex-E, Virtex-II, and Virtex-II
More informationVirtex-II Architecture
Virtex-II Architecture Block SelectRAM resource I/O Blocks (IOBs) edicated multipliers Programmable interconnect Configurable Logic Blocks (CLBs) Virtex -II architecture s core voltage operates at 1.5V
More informationECE 448 Lecture 5. FPGA Devices
ECE 448 Lecture 5 FPGA Devices George Mason University Required reading Spartan-6 FPGA Configurable Logic Block: User Guide CLB Overview Slice Description 2 Recommended reading Highly recommended for the
More informationXilinx ASMBL Architecture
FPGA Structure Xilinx ASMBL Architecture Design Flow Synthesis: HDL to FPGA primitives Translate: FPGA Primitives to FPGA Slice components Map: Packing of Slice components into Slices, placement of Slices
More informationECE 545 Lecture 12. FPGA Resources. George Mason University
ECE 545 Lecture 2 FPGA Resources George Mason University Recommended reading 7 Series FPGAs Configurable Logic Block: User Guide Overview Functional Details 2 What is an FPGA? Configurable Logic Blocks
More informationFIELD PROGRAMMABLE GATE ARRAYS (FPGAS)
FIELD PROGRAMMABLE GATE ARRAYS (FPGAS) 1 Roth Text: Chapter 3 (section 3.4) Chapter 6 Nelson Text: Chapter 11 Programmable logic taxonomy Lab Device 2 Field Programmable Gate Arrays Typical Complexity
More informationAchieving Breakthrough Performance with Virtex-4, the World s Fastest FPGA
Achieving Breakthrough Performance with Virtex-4, the World s Fastest FPGA Xilinx 90nm Design Seminar Series: Part I Xilinx - #1 in 90 nm We Asked our Customers: What are your challenges? Shorter design
More informationIntroduction to Modern FPGAs
Introduction to Modern FPGAs Arturo Díaz Pérez Centro de Investigación y de Estudios Avanzados del IPN Departamento de Ingeniería Eléctrica Sección de Computación adiaz@cs.cinvestav.mx Outline Technology
More informationInternational Training Workshop on FPGA Design for Scientific Instrumentation and Computing November 2013.
2499-1 International Training Workshop on FPGA Design for Scientific Instrumentation and Computing 11-22 November 2013 FPGA Introduction Cristian SISTERNA National University of San Juan San Juan Argentina
More informationL2: FPGA HARDWARE : ADVANCED DIGITAL DESIGN PROJECT FALL 2015 BRANDON LUCIA
L2: FPGA HARDWARE 18-545: ADVANCED DIGITAL DESIGN PROJECT FALL 2015 BRANDON LUCIA 18-545: FALL 2014 2 Admin stuff Project Proposals happen on Monday Be prepared to give an in-class presentation Lab 1 is
More informationTSEA44 - Design for FPGAs
2015-11-24 Now for something else... Adapting designs to FPGAs Why? Clock frequency Area Power Target FPGA architecture: Xilinx FPGAs with 4 input LUTs (such as Virtex-II) Determining the maximum frequency
More informationHDL Coding Style Xilinx, Inc. All Rights Reserved
HDL Coding Style Objective After completing this module, you will be able to: Select a proper coding style to create efficient FPGA designs Specify Xilinx resources that need to be instantiated for various
More informationAltera FLEX 8000 Block Diagram
Altera FLEX 8000 Block Diagram Figure from Altera technical literature FLEX 8000 chip contains 26 162 LABs Each LAB contains 8 Logic Elements (LEs), so a chip contains 208 1296 LEs, totaling 2,500 16,000
More informationReview from last time. CS152 Computer Architecture and Engineering Lecture 6. Verilog (finish) Multiply, Divide, Shift
Review from last time CS152 Computer Architecture and Engineering Lecture 6 Verilog (finish) Multiply, Divide, Shift February 11, 2004 John Kubiatowicz (www.cs.berkeley.edu/~kubitron) lecture slides: http://www-inst.eecs.berkeley.edu/~cs152/
More informationProgrammable Logic. Simple Programmable Logic Devices
Programmable Logic SM098 Computation Structures - Programmable Logic Simple Programmable Logic evices Programmable Array Logic (PAL) AN-OR arrays are common blocks in SPL and CPL architectures Implements
More informationToday. Comments about assignment Max 1/T (skew = 0) Max clock skew? Comments about assignment 3 ASICs and Programmable logic Others courses
Today Comments about assignment 3-43 Comments about assignment 3 ASICs and Programmable logic Others courses octor Per should show up in the end of the lecture Mealy machines can not be coded in a single
More informationVirtex-4 Family Overview
Virtex-4 User Guide 0 Virtex-4 Family Overview DS112 (v1.1) September 10, 2004 0 0 General Description The Virtex-4 Family is the newest generation FPGA from Xilinx. The innovative Advanced Silicon Modular
More informationECE 645: Lecture 1. Basic Adders and Counters. Implementation of Adders in FPGAs
ECE 645: Lecture Basic Adders and Counters Implementation of Adders in FPGAs Required Reading Behrooz Parhami, Computer Arithmetic: Algorithms and Hardware Design Chapter 5, Basic Addition and Counting,
More informationHigh-Performance Integer Factoring with Reconfigurable Devices
FPL 2010, Milan, August 31st September 2nd, 2010 High-Performance Integer Factoring with Reconfigurable Devices Ralf Zimmermann, Tim Güneysu, Christof Paar Horst Görtz Institute for IT-Security Ruhr-University
More informationEECS150 - Digital Design Lecture 16 - Memory
EECS150 - Digital Design Lecture 16 - Memory October 17, 2002 John Wawrzynek Fall 2002 EECS150 - Lec16-mem1 Page 1 Memory Basics Uses: data & program storage general purpose registers buffering table lookups
More informationCS Digital Systems Project Laboratory
CS 194- igital Systems Project Laboratory Lecture 1 Virtex-5 Microarchitecture Not a professor. John is OK. 2008-9- John Lazzaro (www.cs.berkeley.edu/~lazzaro) And also, an introduction to the project.
More informationEECS150 - Digital Design Lecture 13 - Project Description, Part 2: Memory Blocks. Project Overview
EECS150 - igital esign Lecture 13 - Project escription, Part 2: Memory Blocks Mar 2, 2010 John Wawrzynek Spring 2010 EECS150 - Lec13-proj2 Page 1 Project Overview A. MIPS150 pipeline structure B. Serial
More informationCHAPTER 4. DIGITAL DOWNCONVERTER FOR WiMAX SYSTEM
CHAPTER 4 IMPLEMENTATION OF DIGITAL UPCONVERTER AND DIGITAL DOWNCONVERTER FOR WiMAX SYSTEM 4.1 Introduction FPGAs provide an ideal implementation platform for developing broadband wireless systems such
More informationAgenda. Introduction FPGA DSP platforms Design challenges New programming models for FPGAs
New Directions in Programming FPGAs for DSP Dr. Jim Hwang Xilinx, Inc. Agenda Introduction FPGA DSP platforms Design challenges New programming models for FPGAs System Generator Getting your math into
More informationECE 699: Lecture 9. Programmable Logic Memories
ECE 699: Lecture 9 Programmable Logic Memories Recommended reading XST User Guide for Virtex-6, Spartan-6, and 7 Series Devices Chapter 7, HDL Coding Techniques Sections: RAM HDL Coding Techniques ROM
More informationThe Virtex FPGA and Introduction to design techniques
The Virtex FPGA and Introduction to design techniques SM098 Computation Structures Lecture 6 Simple Programmable Logic evices Programmable Array Logic (PAL) AN-OR arrays are common blocks in SPL and CPL
More informationHigh Capacity and High Performance 20nm FPGAs. Steve Young, Dinesh Gaitonde August Copyright 2014 Xilinx
High Capacity and High Performance 20nm FPGAs Steve Young, Dinesh Gaitonde August 2014 Not a Complete Product Overview Page 2 Outline Page 3 Petabytes per month Increasing Bandwidth Global IP Traffic Growth
More informationFPGA for Complex System Implementation. National Chiao Tung University Chun-Jen Tsai 04/14/2011
FPGA for Complex System Implementation National Chiao Tung University Chun-Jen Tsai 04/14/2011 About FPGA FPGA was invented by Ross Freeman in 1989 SRAM-based FPGA properties Standard parts Allowing multi-level
More informationCourse Overview Revisited
Course Overview Revisited void blur_filter_3x3( Image &in, Image &blur) { // allocate blur array Image blur(in.width(), in.height()); // blur in the x dimension for (int y = ; y < in.height(); y++) for
More informationOutline of Presentation Field Programmable Gate Arrays (FPGAs(
FPGA Architectures and Operation for Tolerating SEUs Chuck Stroud Electrical and Computer Engineering Auburn University Outline of Presentation Field Programmable Gate Arrays (FPGAs( FPGAs) How Programmable
More informationDigital System Construction
Digital System Construction FYSIKUM Lecture 4: More VHDL, memory, PRNG Arithmetic Memories Pipelines and buffers Pseudorandom numbers IP core generation in Vivado Introduction to Lab 3 Digital Systemkonstruktion
More informationProgrammable Logic. Any other approaches?
Programmable Logic So far, have only talked about PALs (see 22V10 figure next page). What is the next step in the evolution of PLDs? More gates! How do we get more gates? We could put several PALs on one
More informationChapter 2. Cyclone II Architecture
Chapter 2. Cyclone II Architecture CII51002-1.0 Functional Description Cyclone II devices contain a two-dimensional row- and column-based architecture to implement custom logic. Column and row interconnects
More informationReconfigurable Computing
Reconfigurable Computing FPGA Architecture Architecture should speak of its time and place, but yearn for timelessness. Frank Gehry Philip Leong (philip.leong@sydney.edu.au) School of Electrical and Information
More informationHoplite-DSP Harnessing the Xilinx DSP48 Multiplexers to efficiently support NoCs on FPGAs. Chethan Kumar H B and Nachiket Kapre
-DSP Harnessing the Xilinx DSP Multiplexers to efficiently support NoCs on FPGAs Chethan Kumar H B and Nachiket Kapre nachiket@ieee.org FPL 201 paper Jan Gray co-author Specs 60 s+100 FFs 2.9ns clock Smallest
More informationChapter 8 FPGA Basics
Chapter 8 FPGA Basics NCHU EE Yin-Tsung Hwang YT Hwang VLSI SP 1 What are PLs? YT Hwang VLSI SP 2 Programmable Logic evices A pre-fabricated ASIC capable of performing any logic subject to user programming
More informationSummary. Introduction. Application Note: Virtex, Virtex-E, Spartan-IIE, Spartan-3, Virtex-II, Virtex-II Pro. XAPP152 (v2.1) September 17, 2003
Application Note: Virtex, Virtex-E, Spartan-IIE, Spartan-3, Virtex-II, Virtex-II Pro Xilinx Tools: The Estimator XAPP152 (v2.1) September 17, 2003 Summary This application note is offered as complementary
More informationEE260: Digital Design, Spring 2018
Topics Verilog Module 1 Introduction Yao Zheng (Based on the slides of Prof. Jim Duckworth) Background to Verilog Introduction to language Programmable Logic Devices CPLDs and FPGAs FPGA architecture Nexys
More informationFPGA. Logic Block. Plessey FPGA: basic building block here is 2-input NAND gate which is connected to each other to implement desired function.
FPGA Logic block of an FPGA can be configured in such a way that it can provide functionality as simple as that of transistor or as complex as that of a microprocessor. It can used to implement different
More informationEECS150 - Digital Design Lecture 16 Memory 1
EECS150 - Digital Design Lecture 16 Memory 1 March 13, 2003 John Wawrzynek Spring 2003 EECS150 - Lec16-mem1 Page 1 Memory Basics Uses: Whenever a large collection of state elements is required. data &
More informationWhat is Xilinx Design Language?
Bill Jason P. Tomas University of Nevada Las Vegas Dept. of Electrical and Computer Engineering What is Xilinx Design Language? XDL is a human readable ASCII format compatible with the more widely used
More informationEECS Components and Design Techniques for Digital Systems. Lec 20 RTL Design Optimization 11/6/2007
EECS 5 - Components and Design Techniques for Digital Systems Lec 2 RTL Design Optimization /6/27 Shauki Elassaad Electrical Engineering and Computer Sciences University of California, Berkeley Slides
More informationSystem-on Solution from Altera and Xilinx
System-on on-a-programmable-chip Solution from Altera and Xilinx Xun Yang VLSI CAD Lab, Computer Science Department, UCLA FPGAs with Embedded Microprocessors Combination of embedded processors and programmable
More informationThe Xilinx XC6200 chip, the software tools and the board development tools
The Xilinx XC6200 chip, the software tools and the board development tools What is an FPGA? Field Programmable Gate Array Fully programmable alternative to a customized chip Used to implement functions
More informationECEU530. Project Presentations. ECE U530 Digital Hardware Synthesis. Rest of Semester. Memory Structures
ECEU53 ECE U53 igital Hardware Synthesis Prof. Miriam Leeser mel@coe.neu.edu November 5, 26 Lecture 8: Student project presentations Memories and FPGAs Tri-state buffers and busses Student project presentations:
More informationRUN-TIME RECONFIGURABLE IMPLEMENTATION OF DSP ALGORITHMS USING DISTRIBUTED ARITHMETIC. Zoltan Baruch
RUN-TIME RECONFIGURABLE IMPLEMENTATION OF DSP ALGORITHMS USING DISTRIBUTED ARITHMETIC Zoltan Baruch Computer Science Department, Technical University of Cluj-Napoca, 26-28, Bariţiu St., 3400 Cluj-Napoca,
More informationOutline. Field Programmable Gate Arrays. Programming Technologies Architectures. Programming Interfaces. Historical perspective
Outline Field Programmable Gate Arrays Historical perspective Programming Technologies Architectures PALs, PLDs,, and CPLDs FPGAs Programmable logic Interconnect network I/O buffers Specialized cores Programming
More informationFPGA Implementations
FPGA Implementations Smith Text: Chapters 4-8 Online version at: http://www10.edacafe.com/book/asic/asics.php Topic outline Chapter 4 Programmable ASIC technologies Chapter 5 Programmable logic cells Chapter
More informationEECS150 - Digital Design Lecture 6 - Field Programmable Gate Arrays (FPGAs)
EECS150 - Digital Design Lecture 6 - Field Programmable Gate Arrays (FPGAs) September 12, 2002 John Wawrzynek Fall 2002 EECS150 - Lec06-FPGA Page 1 Outline What are FPGAs? Why use FPGAs (a short history
More informationAutonomous Built-in Self-Test Methods for SRAM Based FPGAs
Autonomous Built-in Self-Test Methods for SRAM Based FPGAs Steven Kopman, Student Department of Electrical and Computer Engineering University of Central Florida Orlando, FL 32816-2450 skopman@knights.ucf.edu
More informationCore Facts. Documentation Design File Formats. Verification Instantiation Templates Reference Designs & Application Notes Additional Items
(FFT_PIPE) Product Specification Dillon Engineering, Inc. 4974 Lincoln Drive Edina, MN USA, 55436 Phone: 952.836.2413 Fax: 952.927.6514 E mail: info@dilloneng.com URL: www.dilloneng.com Core Facts Documentation
More informationOutline. EECS150 - Digital Design Lecture 6 - Field Programmable Gate Arrays (FPGAs) FPGA Overview. Why FPGAs?
EECS150 - Digital Design Lecture 6 - Field Programmable Gate Arrays (FPGAs) September 12, 2002 John Wawrzynek Outline What are FPGAs? Why use FPGAs (a short history lesson). FPGA variations Internal logic
More informationEvolution of Implementation Technologies. ECE 4211/5211 Rapid Prototyping with FPGAs. Gate Array Technology (IBM s) Programmable Logic
ECE 42/52 Rapid Prototyping with FPGAs Dr. Charlie Wang Department of Electrical and Computer Engineering University of Colorado at Colorado Springs Evolution of Implementation Technologies Discrete devices:
More informationDigital System Design Lecture 7: Altera FPGAs. Amir Masoud Gharehbaghi
Digital System Design Lecture 7: Altera FPGAs Amir Masoud Gharehbaghi amgh@mehr.sharif.edu Table of Contents Altera FPGAs FLEX 8000 FLEX 10k APEX 20k Sharif University of Technology 2 FLEX 8000 Block Diagram
More informationEITF35: Introduction to Structured VLSI Design
EITF35: Introduction to Structured VLSI Design Introduction to FPGA design Rakesh Gangarajaiah Rakesh.gangarajaiah@eit.lth.se Slides from Chenxin Zhang and Steffan Malkowsky WWW.FPGA What is FPGA? Field
More informationECE 545: Lecture 11. Programmable Logic Memories
ECE 545: Lecture 11 Programmable Logic Memories Recommended reading Vivado Design Suite User Guide: Synthesis Chapter 4 RAM HDL Coding Techniques Initializing RAM Contents 7 Series FPGAs Memory Resources:
More informationECE 545: Lecture 11. Programmable Logic Memories. Recommended reading. Memory Types. Memory Types. Memory Types specific to Xilinx FPGAs
ECE 545: Lecture 11 Programmable Logic Memories Recommended reading Vivado Design Suite User Guide: Synthesis Chapter 4 RAM HDL Coding Techniques Initializing RAM Contents 7 Series FPGAs Resources: User
More informationSection I. Cyclone II Device Family Data Sheet
Section I. Cyclone II Device Family Data Sheet This section provides provides information for board layout designers to successfully layout their boards for Cyclone II devices. It contains the required
More informationΔΙΑΛΕΞΗ 2: FPGA Architectures
ΗΜΥ 664 ΨΗΦΙΑΚΟΣ ΣΧΕΔΙΑΣΜΟΣ ΜΕ FPGAs Χειμερινό Εξάμηνο 2010 ΔΙΑΛΕΞΗ 2: FPGA Architectures ΧΑΡΗΣ ΘΕΟΧΑΡΙΔΗΣ Λέκτορας ΗΜΜΥ (ttheocharides@ucy.ac.cy) Some slides adopted from Digital Integrated Circuits,
More informationSynthesis of VHDL Code for FPGA Design Flow Using Xilinx PlanAhead Tool
Synthesis of VHDL Code for FPGA Design Flow Using Xilinx PlanAhead Tool Md. Abdul Latif Sarker, Moon Ho Lee Division of Electronics & Information Engineering Chonbuk National University 664-14 1GA Dekjin-Dong
More informationVLSI Programming 2016: Lecture 3
VLSI Programming 2016: Lecture 3 Course: 2IMN35 Teachers: Kees van Berkel c.h.v.berkel@tue.nl Rudolf Mak r.h.mak@tue.nl Lab: Kees van Berkel, Rudolf Mak, Alok Lele www: http://www.win.tue.nl/~wsinmak/education/2imn35/
More informationIntroduction to Partial Reconfiguration Methodology
Methodology This material exempt per Department of Commerce license exception TSU Objectives After completing this module, you will be able to: Define Partial Reconfiguration technology List common applications
More informationProgrammable Logic Devices FPGA Architectures II CMPE 415. Overview This set of notes introduces many of the features available in the FPGAs of today.
Overview This set of notes introduces many of the features available in the FPGAs of today. The majority use SRAM based configuration cells, which allows fast reconfiguation. Allows new design ideas to
More informationXA Spartan-6 Automotive FPGA Family Overview
10 XA Spartan-6 Automotive FPGA Family Overview Product Specification General Description The Xilinx Automotive (XA) Spartan -6 family of FPGAs provides leading system integration capabilities with the
More informationECE 448 Lecture 5. FPGA Devices
E 448 Lecture 5 FPGA evices E 448 FPGA and ASIC esign with VHL George Mason University Required reading 7 Series FPGAs Configurable Logic Block: User Guide Overview Functional etails 2 What is an FPGA?
More informationSpiral 2-8. Cell Layout
2-8.1 Spiral 2-8 Cell Layout 2-8.2 Learning Outcomes I understand how a digital circuit is composed of layers of materials forming transistors and wires I understand how each layer is expressed as geometric
More informationEECS150 - Digital Design Lecture 3 - Field Programmable Gate Arrays (FPGAs) Project platform: Xilinx ML
EECS150 - igital esign Lecture 3 - Field Programmable Gate Arrays (FPGAs) January 25, 2010 John Wawrzynek Spring 2011 EECS150 - Lec03-FPGA Page 1 Project platform: Xilinx ML505-110 Spring 2011 EECS150
More informationField Programmable Gate Array (FPGA) Devices
Field Programmable Gate Array (FPGA) Devices 1 Contents Altera FPGAs and CPLDs CPLDs FPGAs with embedded processors ACEX FPGAs Cyclone I,II FPGAs APEX FPGAs Stratix FPGAs Stratix II,III FPGAs Xilinx FPGAs
More informationESE532: System-on-a-Chip Architecture. Today. Message. Graph Cycles. Preclass 1. Reminder
ESE532: System-on-a-Chip Architecture Day 8: September 26, 2018 Spatial Computations Today Graph Cycles (from Day 7) Accelerator Pipelines FPGAs Zynq Computational Capacity 1 2 Message Custom accelerators
More informationBuilt-In Self-Test for Regular Structure Embedded Cores in System-on-Chip
Built-In Self-Test for Regular Structure Embedded Cores in System-on-Chip Srinivas Murthy Garimella Master s Thesis Defense Thesis Advisor: Dr. Charles E. Stroud Committee Members: Dr. Victor P. Nelson
More informationPresentation Outline Overview of FPGA Architectures Virtex-4 & Virtex-5 Overview of BIST for FPGAs BIST Configuration Generation Output Response Analy
PRODUCTION SYSTEM-LEVELEVEL USE OF BUILT-IN SELF-TESTEST FOR IRTEX-4 4 & VIRTEX VIRTEX 5 FPGAS IRTEX-5 FPGA Chuck Stroud, Brad Dutton, Mary Pulukuri, Brooks Garrison, and Yao Jia (the BIST Dudes & Dudettes)
More informationEECS 151/251A Spring 2019 Digital Design and Integrated Circuits. Instructor: John Wawrzynek. Lecture 18 EE141
EECS 151/251A Spring 2019 Digital Design and Integrated Circuits Instructor: John Wawrzynek Lecture 18 Memory Blocks Multi-ported RAM Combining Memory blocks FIFOs FPGA memory blocks Memory block synthesis
More informationCore Facts. Documentation Design File Formats. Verification Instantiation Templates Reference Designs & Application Notes Additional Items
(FFT_MIXED) November 26, 2008 Product Specification Dillon Engineering, Inc. 4974 Lincoln Drive Edina, MN USA, 55436 Phone: 952.836.2413 Fax: 952.927.6514 E mail: info@dilloneng.com URL: www.dilloneng.com
More informationIntroduction to Field Programmable Gate Arrays
Introduction to Field Programmable Gate Arrays Lecture 1/3 CERN Accelerator School on Digital Signal Processing Sigtuna, Sweden, 31 May 9 June 2007 Javier Serrano, CERN AB-CO-HT Outline Historical introduction.
More informationEmbedded Systems: Hardware Components (part I) Todor Stefanov
Embedded Systems: Hardware Components (part I) Todor Stefanov Leiden Embedded Research Center Leiden Institute of Advanced Computer Science Leiden University, The Netherlands Outline Generic Embedded System
More informationOutline of Presentation History of DSP Architectures in FPGAs Overview of Virtex-4 4 DSP
Built-In Self-Test of DSPs in Virtex-4 FPGAs (Funded by NSA) Charles Stroud Dept. of Electrical & Computer Engineering Auburn University Outline of Presentation History of DSP Architectures in FPGAs Overview
More informationPower Solutions for Leading-Edge FPGAs. Vaughn Betz & Paul Ekas
Power Solutions for Leading-Edge FPGAs Vaughn Betz & Paul Ekas Agenda 90 nm Power Overview Stratix II : Power Optimization Without Sacrificing Performance Technical Features & Competitive Results Dynamic
More informationEE 8217 *Reconfigurable Computing Systems Engineering* Sample of Final Examination
1 Student name: Date: June 26, 2008 General requirements for the exam: 1. This is CLOSED BOOK examination; 2. No questions allowed within the examination period; 3. If something is not clear in question
More informationUser Manual for FC100
Sundance Multiprocessor Technology Limited User Manual Form : QCF42 Date : 6 July 2006 Unit / Module Description: IEEE-754 Floating-point FPGA IP Core Unit / Module Number: FC100 Document Issue Number:
More informationPipelining & Verilog. Sequential Divider. Verilog divider.v. Math Functions in Coregen. Lab #3 due tonight, LPSet 8 Thurs 10/11
Lab #3 due tonight, LPSet 8 Thurs 0/ Pipelining & Verilog Latency & Throughput Pipelining to increase throughput Retiming Verilog Math Functions Debugging Hints Sequential Divider Assume the Divid (A)
More informationECE 636. Reconfigurable Computing. Lecture 2. Field Programmable Gate Arrays I
ECE 636 Reconfigurable Computing Lecture 2 Field Programmable Gate Arrays I Overview Anti-fuse and EEPROM-based devices Contemporary SRAM devices - Wiring - Embedded New trends - Single-driver wiring -
More informationFPGA: What? Why? Marco D. Santambrogio
FPGA: What? Why? Marco D. Santambrogio marco.santambrogio@polimi.it 2 Reconfigurable Hardware Reconfigurable computing is intended to fill the gap between hardware and software, achieving potentially much
More information