METASTABILITY IN ALTERA DEVICES Search Results

altera jtag

Abstract: altera TQFP 32 PACKAGE MAX 7000 Timing
Contextual Info: MAX 7000 Contents March 2000 Application Notes AN 39 IEEE 1149.1 JTAG Boundary-Scan Testing in Altera Devices AN 41 PCI Bus Applications in Altera Devices AN 42 Metastability in Altera Devices AN 74 Evaluating Power for Altera Devices AN 80 Selecting Sockets for Altera Devices

Altera Programming Hardware

Abstract: power diodes catalogs ALTERA altera jtag BYTEBLASTER free download transistor data sheet
Contextual Info: MAX 9000 Contents March 2000 Application Notes AN 39 IEEE 1149.1 JTAG Boundary-Scan Testing in Altera Devices AN 41 PCI Bus Applications in Altera Devices AN 42 Metastability in Altera Devices AN 43 Designing with MAX 9000 Devices AN 74 Evaluating Power for Altera Devices

transistor comparison data sheet

Abstract: 106 20k AN-74 BYTEBLASTER AN-116 virtex 5 data sheet 106 20k 116 data sheet power diode serial vs parallel communication Soldering guidelines
Contextual Info: APEX 20K Contents March 2000 Application Notes AN 42 Metastability in Altera Devices AN 74 Evaluating Power for Altera Devices AN 80 Selecting Sockets for Altera Devices AN 81 Reflow Soldering Guidelines for Surface-Mount Devices AN 100 In-System Programmability Guidelines

ALTERA MAX 3000

Abstract: BITBLASTER ieee 1149 power selector guide testing of diode ALTERA altera jtag AN-74 BYTEBLASTER JTAG
Contextual Info: MAX 3000 Contents March 2000 Application Notes AN 39 IEEE 1149.1 JTAG Boundary-Scan Testing in Altera Devices AN 42 Metastability in Altera Devices AN 74 Evaluating Power for Altera Devices AN 80 Selecting Sockets for Altera Devices AN 81 Reflow Soldering Guidelines for Surface-Mount Devices

Japanese Transistor Data Book

Abstract: CAN BUS megafunction BGA and QFP Package CRC 8 Generator/Checker master -k80s software data sheet or gate EPF10K100 XC4000
Contextual Info: Japanese Documents Contents January 2000 Application Notes Note 1 AN 42 Metastability in Altera Devices AN 71 Guidelines for Handling J-Lead & QFP Devices AN 74 Evaluating Power for Altera Devices AN 75 High-Speed Board Designs AN 80 Selecting Sockets for Altera Devices

ALTERA MAX 5000

Abstract: ALTERA MAX 5000 programming EPLD altera free download transistor data sheet transistor data sheet ALTERA EP2AGX45CU17I3N Altera Programming Hardware
Contextual Info: Classic Contents January 2000 Application Notes AN 42 Metastability in Altera Devices AN 74 Evaluating Power for Altera Devices AN 78 Understanding MAX 5000 & Classic Timing AN 80 Selecting Sockets for Altera Devices AN 81 Reflow Soldering Guidelines for Surface-Mount Devices

MTBF calculation

Abstract: synchronizer mtbf Chapter 3 Synchronization QII51018-10
Contextual Info: 7. Managing Metastability with the Quartus II Software QII51018-10.0.0 This chapter describes the industry-leading analysis, reporting, and optimization features that can help you manage metastability in Altera devices. You can use the Quartus® II software to analyze the average mean time between failures MTBF due

BYTEBLASTER

Abstract: Altera Programming Hardware Soldering guidelines
Contextual Info: FLEX 6000 Contents March 2000 Application Notes AN 41 PCI Bus Applications in Altera Devices AN 42 Metastability in Altera Devices AN 51 Using Programmable Logic for Gate Array Designs AN 71 Guidelines for Handling J-Lead & QFP Devices AN 73 Implementing FIR Filters in FLEX Devices

Contextual Info: Metastability in Altera Devices May 1999, ver. 4 Introduction Application Note 42 In non-synchronous systems, if the asynchronous input signals violate a flipflop's timing requirements, the output of the flipflop can become metastable. Metastable outputs oscillate or hover between high and low

flipflop

Abstract: METASTABILITY EPF8452A
Contextual Info: Metastability May 1999, ver. 4 Introduction in Altera Devices Application Note 42 In non-synchronous systems, if the asynchronous input signals violate a flipflop’s timing requirements, the output of the flipflop can become metastable. Metastable outputs oscillate or hover between high and low

Metastability in Altera Devices

Contextual Info: Metastability June 1996, ver. 2 Introduction in Altera Devices Application Note 42 The output of an edge-triggered flipflop has two valid states: high and low. To ensure reliable operation, designs must meet the flipflop’s timing requirements. The input to the flipflop must be stable for a minimum time

EPF8452A

Contextual Info: Metastability June 1996, ver. 2 Introduction in Altera Devices Application Note 42 The output of an edge-triggered flipflop has two valid states: high and low. To ensure reliable operation, designs must meet the flipflop’s timing requirements. The input to the flipflop must be stable for a minimum time

altera MTBF

Abstract: EPF8452A
Contextual Info: Metastability January 1998, ver. 3 Introduction in Altera Devices Application Note 42 The output of an edge-triggered flipflop has two valid states: high and low. To ensure reliable operation, designs must meet the flipflop’s timing requirements. The input to the flipflop must be stable for a minimum time

altera MTBF

Abstract: half hour delay circuit d flipflop MET D 103 t flipflop EPF8452A max plus flex 7000
Contextual Info: Metastability May 1999, ver. 4 Introduction in Altera Devices Application Note 42 The output of an edge-triggered flipflop has two valid states: high and low. To ensure reliable operation, designs must meet the flipflop’s timing requirements. The input to the flipflop must be stable for a minimum time

Contextual Info: Metastability in Altera Devices The o u tp u t of an edge-triggered flipflop has tw o valid states: high and low. To ensure reliable operation, designs m u st m eet th e flipflop's tim ing requirem ents. The in p u t to the flipflop m u st be stable for a m inim um tim e

Contextual Info: Metastability in Altera Devices J a n u a r y 1998. v e r. 3 Introduction A p p lic a tio n N o te 42 The output of an edge-triggered flipflop has two valid states: high and low. To ensure reliable operation, designs must meet the flipflop's timing requirements. The input to the flipflop must be stable for a minimum time

altera MTBF

Abstract: Metastability in Altera Devices MET D 103 10KFLEX MTBF ZU 107 EPF8452A
Contextual Info: 1998年 1 月 ver.3 イントロダク ション AN 42: Metastability in Altera Devices アルテラ・デバイスの メタスタビリティ Application Note 42 エッジ・トリガ・タイプのフリップフロップはHighとLowの確定した出

Contextual Info: Device Operation Contents Operating Requirements for Altera Devices Data Sheet Power Evaluation. 833

conclusion

Abstract: ALTERA MAX 9000
Contextual Info: Device Operation Contents Operating Requirements for Altera Devices Data Sheet Operating Conditions. 485

conclusion

Abstract: ALTERA MAX 5000
Contextual Info: Device Operation Contents 11 Device Operation Operating Requirements for Altera Devices Data Sheet Introduction. 413 Operating Conditions. 413

ALTERA MAX 5000 programming

Abstract: Altera Classic EPLDs Altera Programming Hardware advantages of multipliers Reed-Solomon CODEC an7112 Reed-Solomon altera ALTERA MAX 5000 applications altera flex 8000
Contextual Info: Contents July 1997 Contents by Topic FLEX 10K Devices FLEX 10K Embedded Programmable Logic Family Data Sheet FLEX 10K Embedded Programmable Logic Family Data Sheet Supplement ClockLock & ClockBoost in FLEX 10K Devices Data Sheet Supplement EPF10K50V Embedded Programmable Logic Device Data Sheet Supplement

transistor MTBF

Abstract: METASTABILITY synchronizer megafunction altera MTBF SIGNAL PATH designer dcfifo
Contextual Info: White Paper Understanding Metastability in FPGAs This white paper describes metastability in FPGAs, why it happens, and how it can cause design failures. It explains how metastability MTBF is calculated, and highlights how various device and design parameters affect the result.

digital clock using logic gates

Abstract: combinational logic circuit project operation of sr latch using nor gates QII51006-10
Contextual Info: 5. Design Recommendations for Altera Devices and the Quartus II Design Assistant QII51006-10.0.0 This chapter provides design recommendations for Altera devices and describes the Quartus® II Design Assistant, which helps you check your design for violations of

AB-130

Abstract: altera jtag BYTEBLASTER flex 8000 and atm
Contextual Info: FLEX 8000 Contents March 2000 Application Briefs AB 124 Prescaled Counters in FLEX 8000 Devices AB 130 Parity Generators in FLEX 8000 Devices AB 131 State Machine Encoding AB 135 Ripple-Carry Gray Code Counters in FLEX 8000 Devices Application Notes AN 33