PFU1
Abstract: TN1010 TN1012 signal path designer
Text: Constraining ORCA Designs March 2002 Technical Note TN1012 Introduction Design constraints are one of the most important aspects of an FPGA design. Along with a good functional design, design constraints are directly tied to the success of device validation on the system board. FPGA designs also
|
Original
|
TN1012
1-800-LATTICE
PFU1
TN1010
TN1012
signal path designer
|
PDF
|
AR-17
Abstract: AW12 Q110 Q117 RAM1024 scuba ar17
Text: ORCA Series 4 Quad-Port Embedded Block RAM August 2002 Technical Note TN1016 Introduction The ORCA Series 4 FPGA platform provides embedded block RAM EBR macrocells to compliment it’s distributed PFU RAM. By using ORCA Series 4 EBR, designers can realize the benefits of system-on-a- chip (SoC) and
|
Original
|
TN1016
512x18
AR-17
AW12
Q110
Q117
RAM1024
scuba
ar17
|
PDF
|
AC22
Abstract: AC25 Signal Path Designer
Text: ORCA Series 4 FPGA PLL Elements September 2004 Technical Note TN1014 Introduction The ORCA Series 4 FPGA platform has been designed for the delivery of networking IP, with improved performance and decreased time-to-market. To facilitate the feature-rich, high-speed architecture of the Series 4, and to support the fast-paced networking markets, fixed and programmable phase-locked loop PLL components have been embedded in each Series 4 array.
|
Original
|
TN1014
AC22
AC25
Signal Path Designer
|
PDF
|
pfu3
Abstract: vhdl code for 4 bit ripple COUNTER data flow vhdl code for ripple counter TN1010 vhdl code complex multiplier system design using pll vhdl code verilog code for 4 bit ripple COUNTER
Text: Lattice Semiconductor Design Floorplanning July 2004 Technical Note TN1010 Introduction Lattice Semiconductor’s ispLEVER software, together with Lattice Semiconductor’s catalog of programmable devices, provides options to help meet design timing and logic utilization requirements. Additionally, for those
|
Original
|
TN1010
TN1018,
1-800-LATTICE
pfu3
vhdl code for 4 bit ripple COUNTER
data flow vhdl code for ripple counter
TN1010
vhdl code complex multiplier
system design using pll vhdl code
verilog code for 4 bit ripple COUNTER
|
PDF
|
hdc 3076
Abstract: No abstract text available
Text: ORCA Series 4 FPGA Configuration April 2002 Technical Note TN1013 Introduction Configuration is the process of loading a design via a bitstream file into the FPGA internal configuration memory. Readback is the process of reading the configuration data in a programmed FPGA back out, into a file.
|
Original
|
TN1013
hdc 3076
|
PDF
|
AC22
Abstract: AC25 Signal Path Designer
Text: Technical Note TN1014 March 2002 ORCA Series 4 FPGA PLL Elements Introduction The ORCA Series 4 FPGA platform has been designed for the delivery of networking IP, with improved performance and decreased time-to-market. To facilitate the feature-rich, high-speed architecture of the Series 4, and to support the fast-paced networking
|
Original
|
TN1014
AC22
AC25
Signal Path Designer
|
PDF
|
AR-17
Abstract: AR17 AW16 br512 Q117 scuba AR17 datasheet AW12 Q014 transistor d115
Text: ORCA Series 4 Quad-Port Embedded Block RAM April 2002 Technical Note TN1016 Introduction The ORCA Series 4 FPGA platform provides embedded block RAM EBR macrocells to compliment it’s distributed PFU RAM. By using ORCA Series 4 EBR, designers can realize the benefits of system-on-a- chip (SoC) and intellectual property (IP) reuse to quickly deliver their end product to market. The ORCA EBR delivers several configurable blocks of memory based embedded IP. These blocks include quad-port RAM, dual-port RAM, FIFO memory,
|
Original
|
TN1016
512x18
AR-17
AR17
AW16
br512
Q117
scuba
AR17 datasheet
AW12
Q014
transistor d115
|
PDF
|
AC22
Abstract: AC25 TN1014 SIGNAL PATH DESIGNER
Text: ORCA Series 4 FPGA PLL Elements August 2003 Technical Note TN1014 Introduction The ORCA Series 4 FPGA platform has been designed for the delivery of networking IP, with improved performance and decreased time-to-market. To facilitate the feature-rich, high-speed architecture of the Series 4, and to support the fast-paced networking markets, fixed and programmable phase-locked loop PLL components have been embedded in each Series 4 array.
|
Original
|
TN1014
TN1017)
AC22
AC25
TN1014
SIGNAL PATH DESIGNER
|
PDF
|
MPI SERIES
Abstract: MPC860 0x0003B 0x21002
Text: ORCA Series 4 MPI/System Bus March 2002 Technical Note TN1017 Introduction The Lattice Semiconductor ORCA Series 4 devices contain an embedded microprocessor interface MPI that can be used to interface any Series 4 field-programmable gate array (FPGA) or field-programmable system chip
|
Original
|
TN1017
MPC860/MPC8260
0x10000
0x08001
1-800-LATTICE
MPI SERIES
MPC860
0x0003B
0x21002
|
PDF
|
preferences of sample and hold
Abstract: TN1010 TN1012 PFU1 orca signal path designer
Text: Constraining ORCA Designs March 2002 Technical Note TN1012 Introduction Design constraints are one of the most important aspects of an FPGA design. Along with a good functional design, design constraints are directly tied to the success of device validation on the system board. FPGA designs also
|
Original
|
TN1012
1-800-LATTICE
preferences of sample and hold
TN1010
TN1012
PFU1
orca
signal path designer
|
PDF
|
TN1010
Abstract: TN1012 SIGNAL PATH DESIGNER
Text: ORCA Series 4 Successful Place and Route March 2002 Technical Note TN1018 Introduction ORCA Series 4 Field Programmable Gate Arrays FPGA are designed with high performance and flexible routing structures for large, high speed applications. However, the automatic ORCA Foundry software cannot predict all the specific requirements for a design. In order
|
Original
|
TN1018
1-800-LATTICE
TN1010
TN1012
SIGNAL PATH DESIGNER
|
PDF
|
Untitled
Abstract: No abstract text available
Text: ORCA Series 4 FPGA Configuration January 2003 Technical Note TN1013 Introduction Configuration is the process of loading a design via a bitstream file into the FPGA internal configuration memory. Readback is the process of reading the configuration data in a programmed FPGA back out, into a file.
|
Original
|
TN1013
|
PDF
|
X 25 UMI
Abstract: MPC860 011 UMI 6mpi
Text: ORCA Series 4 MPI/System Bus October 2002 Technical Note TN1017 Introduction The Lattice Semiconductor ORCA Series 4 devices contain an embedded microprocessor interface MPI that can be used to interface any Series 4 field-programmable gate array (FPGA) or field-programmable system chip
|
Original
|
TN1017
MPC860/MPC8260
0x10000
0x08001
1-800-LATTICE
X 25 UMI
MPC860
011 UMI
6mpi
|
PDF
|
SIGNAL PATH DESIGNER
Abstract: No abstract text available
Text: ORCA Series 4 I/O Tuning via PLL August 2002 Technical Note TN1011 Introduction This technical note describes how to use the Series 4 phase-locked loops PLLs to solve several classic timing issues that face FPGA designers. Series 4 FPGAs and FPSCs provide the designer with up to six general-purpose
|
Original
|
TN1011
TN1014,
TN1014)
1-800-LATTICE
SIGNAL PATH DESIGNER
|
PDF
|
|
|
SIGNAL PATH DESIGNER
Abstract: No abstract text available
Text: ORCA Series 4 I/O Tuning via PLL March 2002 Technical Note TN1011 Introduction This technical note describes how to use the Series 4 phase-locked loops PLLs to solve several classic timing issues that face FPGA designers. Series 4 FPGAs and FPSCs provide the designer with up to six general-purpose
|
Original
|
TN1011
TN1014,
TN1014)
SIGNAL PATH DESIGNER
|
PDF
|
TN1010
Abstract: TN1015
Text: ORCA Series 4 Clocking Overview July 2002 Technical Note TN1015 ORCA Series 4 Clocking Features • • • • • • • • • • Abundant clock routing resources Primary, secondary, and edge clock resources At least six edge clocks on each of the four device edges top, bottom, left, and right .
|
Original
|
TN1015
TN1010
TN1015
|
PDF
|
hdc 3076
Abstract: FPGA mpi interface cable length
Text: ORCA Series 4 FPGA Configuration August 2004 Technical Note TN1013 Introduction Configuration is the process of loading a design via a bitstream file into the FPGA internal configuration memory. Readback is the process of reading the configuration data in a programmed FPGA back out, into a file.
|
Original
|
TN1013
hdc 3076
FPGA
mpi interface cable length
|
PDF
|
TN1018
Abstract: TN1010 SIGNAL PATH DESIGNER
Text: Lattice Semiconductor FPGA Successful Place and Route July 2004 Technical Note TN1018 Introduction Lattice Semiconductor’s ispLEVER software, together with Lattice Semiconductor’s catalog of programmable devices, provides options to help meet design timing and logic utilization requirements. Additionally, for those
|
Original
|
TN1018
1-800-LATTICE
TN1018
TN1010
SIGNAL PATH DESIGNER
|
PDF
|
TN1015
Abstract: No abstract text available
Text: Technical Note TN1015 March 2002 ORCA Series 4 Clocking Overview ORCA Series 4 Clocking Features • Abundant clock routing resources ■ Primary, secondary, and edge clock resources ■ At least six edge clocks on each of the four device edges top, bottom, left, and right .
|
Original
|
TN1015
AP01-025NCIP
AP00-073FPGA)
TN1015
|
PDF
|
TN1019
Abstract: 4000B ispMACH 4A3 4000B logic family 74LVC07A jtag 4000C
Text: Using ispMACH 4000 Devices in Multiple JTAG Voltage Environments April 2002 Technical Note TN1019 Introduction When using the ispMACH 4000 families from Lattice Semiconductor, consideration must be made for the I/O standard associated with the In-System Programmable ISP™ JTAG pins. A 1.8V ispMACH 4000C device has 1.8V
|
Original
|
TN1019
4000C
4000B
4000B/C
4000TDO
5000VG
4000B
4000C
TN1019
ispMACH 4A3
4000B logic family
74LVC07A
jtag
|
PDF
|
0x00024
Abstract: MPC860 0x00001 ppc jtag
Text: ORCA Series 4 MPI/System Bus October 2002 Technical Note TN1017 Introduction The Lattice Semiconductor ORCA Series 4 devices contain an embedded microprocessor interface MPI that can be used to interface any Series 4 field-programmable gate array (FPGA) or field-programmable system chip
|
Original
|
TN1017
MPC860/MPC8260
0x10000
0x08001
1-800-LATTICE
0x00024
MPC860
0x00001
ppc jtag
|
PDF
|
TSMC 180nm dual port sram
Abstract: TSMC 90nm sram tsmc 180nm sram voltage regulator I2C 10GBASE-T TSMC 90nm flash energy consumption in DVS TN1010 120C ARM926EJ-S
Text: PowerWise Adaptive Voltage Scaling AVS Technology Webinar Rick Zarr, PowerWise® Technologist Joy Taylor, Marketing Manager Feb 25, 2009 Webinar Objectives • Review power consumption of digital subsystems in various applications • Discuss PowerWise® Adaptive Voltage Scaling (AVS)
|
Original
|
|
PDF
|
LC4064ZE
Abstract: BSDL Files infineon LFXP6C-3FN256I "x-ray machine" K4H560838E LC4064 LC4256ZE LFXP10C-3F256I LFxP3C-3TN144C PCI x1 express PCB dimensions artwork
Text: LatticeXP Family Handbook HB1001 Version 03.4, September 2010 LatticeXP Family Handbook Table of Contents September 2010 Section I. LatticeXP Family Data Sheet Introduction Features . 1-1
|
Original
|
HB1001
TN1050
TN1049
TN1082
TN1074
LC4064ZE
BSDL Files infineon
LFXP6C-3FN256I
"x-ray machine"
K4H560838E
LC4064
LC4256ZE
LFXP10C-3F256I
LFxP3C-3TN144C
PCI x1 express PCB dimensions artwork
|
PDF
|
30021
Abstract: L48C L41C IC L44C DATASHEET L30C l31c L43C ORSO42G5 ORSO82G5 ORT42G5
Text: ORCA ORSO42G5 and ORSO82G5 0.6 - 2.7 Gbps SONET Backplane Interface FPSCs August 2005 Data Sheet Introduction Lattice has extended its family of high-speed serial backplane devices with the ORSO42G5 and ORSO82G5 devices. Built on the Series 4 reconfigurable embedded System-on-a-Chip SoC architecture, the ORSO42G5 and
|
Original
|
ORSO42G5
ORSO82G5
ORSO82G5
ORSO42G5-1BMN484I
ORSO82G5-2FN680I
30021
L48C
L41C
IC L44C DATASHEET
L30C
l31c
L43C
ORT42G5
|
PDF
|
