QII53004-10
Abstract: No abstract text available
Text: 10. Quartus II Classic Timing Analyzer QII53004-10.0.0 This chapter details the aspects of timing analysis using the Quartus II Classic Timing Analyzer. Static timing analysis is a method for analyzing, debugging, and validating the timing performance of a design. Static timing analysis, used in conjunction with functional
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mtbf stratix 8000
Abstract: set_net_delay QII53004-10 QII53005-10 QII53018-10 QII53019-10 QII53024-10 Figure 8. Slack Time Calculation Diagram
Text: Section II. Timing Analysis As designs become more complex, advanced timing analysis capability requirements grow. Static timing analysis is a method of analyzing, debugging, and validating the timing performance of a design. The Quartus II software provides the features
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Using timing Analysis in the Quartus software
Abstract: Figure 8. Slack Time Calculation Diagram SIGNAL PATH DESIGNER timing analysis example
Text: January 2001, ver. 2.0 Introduction Using Timing Analysis in the Quartus II Software Application Note 123 As designs become more complex, the need for advanced timing analysis capability grows. Static timing analysis is a method of analyzing, debugging and validating the timing performance of a design. Timing
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demand analysis
Abstract: 100MHZ 50MHZ QII53004-7 QII53005-7 QII53018-7 QII53019-7
Text: Section II. Timing Analysis As designs become more complex, the need for advanced timing analysis capability grows. Static timing analysis is a method of analyzing, debugging, and validating the timing performance of a design. The Quartus II software provides the features necessary to perform
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1N100
Abstract: 1N90 1N98 54SXA A54SX32A RT54SX-S 1I74 Signal Path Designer
Text: Application Note AC196 Static Timing Analysis Using Designer's Timer1 Introduction Static timing analysis is an important step in analyzing the performance of a design. Timer is Actel's static timing analysis tool incorporated in Designer software. Timer allows both pre-layout and post-layout
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AC196
1N100
1N90
1N98
54SXA
A54SX32A
RT54SX-S
1I74
Signal Path Designer
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APEX20K
Abstract: GR23
Text: White Paper Timing Analysis in HardCopy Devices Introduction When you implement a design in an FPGA, timing analysis is typically run to check that the performance of the device is going to meet the required timing goals. This analysis includes system clock frequency fMAX , setup and
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Figure 8. Slack Time Calculation Diagram
Abstract: led clock circuit diagram timing analysis basic table example
Text: Using Timing Analysis December 1999, ver. 1.0 Introduction in the Quartus Software Application Note 123 As designs become more complex, the need for advanced timing analysis capability grows. Timing analysis measures the delay of every design path and reports the maximum system clock speed for the design. Because
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100MHZ
Abstract: 50MHZ QII53018-7 DATAC 629
Text: 6. The Quartus II TimeQuest Timing Analyzer QII53018-7.1.0 Introduction The Quartus II TimeQuest Timing Analyzer is a powerful ASIC-style timing analysis tool that validates the timing performance of all logic in your design using an industry-standard constraint, analysis, and
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QII53018-7
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50MHZ
DATAC 629
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QII53018-10
Abstract: set_net_delay SIMPLE digital clock project report to download
Text: 7. The Quartus II TimeQuest Timing Analyzer QII53018-10.0.0 The Quartus II TimeQuest Timing Analyzer is a powerful ASIC-style timing analysis tool that validates the timing performance of all logic in your design using an industry-standard constraint, analysis, and reporting methodology. Use the
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set_net_delay
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cypress tcam
Abstract: tcam cypress TMS3206416 timing analysis example tcam AN5010 CYD18S72V-100BBC CYD18S72V-133BBC TMS320C6416-6E3 TI6416
Text: Accurate Timing Analysis Using IBIS Models - AN5010 Introduction Accurate timing analysis has become increasingly important due to the reduced timing margins of today’s high-speed systems. The timing margins of a system define the maximum frequencies that the system’s devices can run at for the system
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AN5010
cypress tcam
tcam cypress
TMS3206416
timing analysis example
tcam
AN5010
CYD18S72V-100BBC
CYD18S72V-133BBC
TMS320C6416-6E3
TI6416
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spectrum
Abstract: No abstract text available
Text: Post-Route Timing Analysis T We take you to the leaders. HDL VERIFICATION SPECIAL SECTION by Tom Hill, FPGA Relations Manager, Exemplar, tom.hill@ exemplar.com 38 he Xilinx Alliance Series place and route environment has built-in timing analysis that calculates actual delays for the chip and verifies timing.
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Abstract: No abstract text available
Text: Timing Analyzer Guide Introduction Getting Started Timing Analysis Using the Timing Analyzer Glossary Timing Analyzer Guide — 3.1i Printed in U.S.A. Timing Analyzer Guide Timing Analyzer Guide R The Xilinx logo shown above is a registered trademark of Xilinx, Inc.
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XC3090,
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MT48LC2M32B2-5
Abstract: timing analysis example MSC8122 MT48LC2M32B2 AN3014 MSC8122MP8000 MSC8122TMP4800V MSC8122TMP6400 MSC8122TVT4800V MSC8122TVT6400
Text: Freescale Semiconductor Application Note AN3014 Rev. 1, 8/2007 AC Timing Analysis Between SDRAM and the StarCore -Based MSC8122 DSP By Boaz Kfir This application note and the associated Excel spreadsheet assist in the analysis of AC timing for the interface between an
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AN3014
MSC8122
MSC8122
AN3014SW)
MT48LC2M32B2-5
timing analysis example
MT48LC2M32B2
AN3014
MSC8122MP8000
MSC8122TMP4800V
MSC8122TMP6400
MSC8122TVT4800V
MSC8122TVT6400
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interfacing cpld xc9572 with keyboard
Abstract: nikko 390 0380r bel 187 transistor working XC2064 XC3000A XC3000L XC3090 XC3100A XC3100L
Text: Title Page Timing Analyzer Reference/User Guide Introduction Timing Analysis Getting Started How to Use the Timing Analyzer Menu Commands Keyboard Commands Glossary Timing Analyzer Reference/User Guide — October 1997 Printed in U.S.A. Terms and Conditions
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XC3090,
XC4005,
XC5210,
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interfacing cpld xc9572 with keyboard
nikko 390
0380r
bel 187 transistor working
XC2064
XC3000A
XC3000L
XC3090
XC3100A
XC3100L
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QII53004-7
Abstract: No abstract text available
Text: 8. Quartus II Classic Timing Analyzer QII53004-7.1.0 Introduction f Static timing analysis is a method for analyzing, debugging, and validating the timing performance of a design. The classic timing analyzer analyzes the delay of every design path and analyzes all timing
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1N34 equivalent
Abstract: virtex ucf file 6
Text: total_ta 1 Fri Oct 2 13:39:59 1998 Timing Analyzer Reference/User Guide Introduction Timing Analysis Getting Started How to Use the Timing Analyzer Menu Commands Keyboard Commands Glossary Timing Analyzer Reference/User Guide — M1.5 Printed in U.S.A. total_ta
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virtex ucf file 6
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Quartus II Handbook
Abstract: QII53019-7 Figure 8. Slack Time Calculation Diagram
Text: 7. Switching to the Quartus II TimeQuest Timing Analyzer QII53019-7.1.0 Introduction The Quartus II TimeQuest Timing Analyzer provides more powerful timing analysis features than the Quartus II Classic Timing Analyzer. This chapter describes the benefits of switching to the Quartus II
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Figure 8. Slack Time Calculation Diagram
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Untitled
Abstract: No abstract text available
Text: Arria V Timing Optimization Guidelines AN-652-1.0 Application Note This document presents timing optimization guidelines for a set of identified critical timing path scenarios in Arria V FPGA designs. Timing analysis is provided for each critical timing path scenario discussed to help you understand the critical timing path.
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XAPP259
Abstract: XC2V6000-ff1152 XAPP268 digital clock CLK180 LVCMOS25 XAPP225 XC2V1000 XC2V1000-5FF896 XAPP253
Text: Application Note: Virtex-II Series R System Interface Timing Parameters Author: Sean Koontz, Maria George, and Markus Adhiwiyogo XAPP259 v1.0 April 28, 2003 Summary This application note defines timing parameters required for the timing analysis of source
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CLK90,
CLK180,
CLK270,
CLKFX180
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XC2V6000-ff1152
XAPP268
digital clock
CLK180
LVCMOS25
XAPP225
XC2V1000
XC2V1000-5FF896
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tcl 14175
Abstract: 30374 0018 c9250 c9550 D 973-R Model C6600 an5541 C3802 C3735 C3741
Text: AN 554: How to Read HardCopy PrimeTime Timing Reports November 2008 AN-554-1.0 Introduction For the static timing analysis STA timing sign-off of a project, an Altera HardCopy® Design Center (HCDC) engineer typically delivers the following timing report files to
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pipeline in core i3
Abstract: DSP56300 bscc core i3 addressing modes
Text: Appendix B INSTRUCTION EXECUTION TIMING B-1 INTRODUCTION This section describes the various aspects of execution timing analysis for each instruction mnemonic and for various instruction sequences. The section consists of the following tables and information:
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Untitled
Abstract: No abstract text available
Text: Appl i cat i o n N ot e Verifying Setup and Hold Times in Timing Tools To verify that a design works properly, both the design's functionality and its timing must be checked. Static timing analysis checks timing, but not the design's functionality. Simulation checks the functionality of a design, but it may
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Abstract: No abstract text available
Text: Appl i cat i o n N ot e Verifying Setup and Hold Times in Timing Tools To verify that a design works properly, both the design's functionality and its timing must be checked. Static timing analysis checks timing, but not the design's functionality. Simulation checks the functionality of a design, but it may
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Abstract: No abstract text available
Text: White Paper Performing Equivalent Timing Analysis Between Altera Classic Timing Analyzer and Xilinx Trace Introduction Most hardware designers who are qualifying FPGA performance normally run “bake-off”-style software benchmark comparisons of FPGAs from different vendors to determine which vendor provides the largest margin for their timing
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