2000  4bit even parity using mux 81
Abstract: full subtractor implementation using NOR gate 4096 bit RAM 74 full subtractor full subtractor using mux
Text: Programmable Logic Devices (CPLD), Delta39K, architecture is based on its predecessor, Ultra37000. It is built , SELIN Logic Block 0 CC VCC SELIN GCLK[3:0] Cluster PIM 39 16 Logic Block PIM Logic Block PIM 16 39 Logic Block 7 CC GCLK[3:0] Logic Block 1 CC 39 16 Logic Block PIM Logic Block PIM 16 39 Logic Block 6 CC Logic Block 2 39 16 Logic Block PIM Logic Block PIM 16 39 Logic Block 5 , bit RAM 4096 bit RAM DualPort FIFO Logic Block 3 39 16 Logic Block PIM Logic Block PIM

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Delta39K
Delta39K,
Ultra37000.
Ultra37128
4bit even parity using mux 81
full subtractor implementation using NOR gate
4096 bit RAM
74 full subtractor
full subtractor using mux

scfr pc cable
Abstract: 61c16 N2960I N2960N code de hamming 81495A dl411
Text: Signetics Logic Products Product Specification Error Detection and Correction (EDC) Unit 2960 Table 1 , table . The XOR function results in an even parity check bit; the XNOR is an odd parity check bit. Data , check bit generation are contained in Table 7. Check bits are generated as either an XOR or XNOR or 16 of the 32 data bits as indicated in the table . The XOR function results in an even parity check bit , bit generation are contained in Table 11. Check bits are generated as either an XOR or XNOR of 32 of

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60fold.
16Bit
32Bit
scfr pc cable
61c16
N2960I
N2960N
code de hamming
81495A
dl411

1994  CRC32 LFSR
Abstract: CY7C384 cyclic redundancy check CY7C291A CY7B933 CY7B923 CRC32 CRC16 vhdl code CRC XOR four inputs
Text: register. · Involution (A XOR A = 0) · Identity (A XOR 0 = A) Table 1. CRC16 Register after Zero , can see from Table 4 that the largest XOR to be calculated is that for R1, which contains nine terms. A quick calculation of logic levels required in an FPGA can be made if the widest singlelevel XOR is known. The Cypress pASIC380 FPGAs can calculate a threeinput XOR in a single logic cell. It can , with a 15ns access time, do exist. Table 5 contains the XOR information for the leastsignificant

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CY7B923
CY7B933
CRC32 LFSR
CY7C384
cyclic redundancy check
CY7C291A
CRC32
CRC16
vhdl code CRC
XOR four inputs

2010  tristate xnor gate
Abstract: tristate xor gate TriState Buffer CMOS SLG74LB1G99 tristate xor SLG74LB1G99V xnor cmos SN74LVC1G99 cmos tristate inverter SN74AUP1G99
Text: configured as one of several logic functions · TDFN8 Package · Low static power consumption IDD = 1A · 3.3V logic including, AND, OR, NAND, NOR, XOR , XNOR, inverter, buffer and MUX. No , input1 0 Figure 11. TriState NAND/OR Function TriState XOR /XNOR functions available Table 12 , 0000074LB1G9911 Page 9 of 17 SLG74LB1G99 Table 13. TriState XOR Function Function TriState XOR , voltage level; X = don't care Figure 13. TriState XOR Function Table 14. TriState XOR Function

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SLG74LB1G99
0000074LB1G9911
tristate xnor gate
tristate xor gate
TriState Buffer CMOS
SLG74LB1G99
tristate xor
SLG74LB1G99V
xnor cmos
SN74LVC1G99
cmos tristate inverter
SN74AUP1G99

1995  CRC32 LFSR
Abstract: CRC16 and CRC32 CRC32 CRC 32 cyclic redundancy check CRC16 crc32 CY7C384 CY7C291A CY7B933
Text: dependent on XOR combinations of the initial loworder byte of the CRC register Table 4 to calculate , are in order. After the Xi values are calcu Table 4 that the largest XOR 2. Shift the CRC , just calculated. calculate a threeinput XOR in a single logic cell. It Repeat these four steps for , four logic cells would be required to calculate a nineinput XOR . Because a register would be feed Table 5 contains the XOR information for the least ing this XOR tree, and a register would be at the

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CY7B923
CY7B933
CRC16
CRC32
CRC32)
CY7C384A1JC
CRC32
CY7C384
CRC32 LFSR
CRC16 and CRC32
CRC 32
cyclic redundancy check
crc32
CY7C291A

1999  CRC32
Abstract: CY27H512 PALCE22V10 "XOR Gates" hamming code hamming code FPGA crc32 lfsr
Text: (A XOR B XOR C = A XOR C XOR B). · Involution (A XOR A = 0). A study of Table 4 reveals two , XOR width of 17, it is not possible to implement this in a single level of logic within current Cypress CPLDs. However, XOR factoring makes it is possible to implement this in two levels of logic . With , R7 and R8, can be calculated in a small PLD like a PALCE22V10. Table 5 contains the XOR , logic , as one would do with a Field Programmable Gate Array (FPGA) or CPLD. From Table 4, the largest

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CY7B923/CY7B933
CRC32
CY27H512
PALCE22V10
"XOR Gates"
hamming code
hamming code FPGA
crc32 lfsr

N2960N
Abstract: N2960I
Text: Signetics Logic Products Product Specification Error Detection and Correction (EDC) Unit 2960 Table 1 , check bit is generated as either an XOR or XNOR of the eight data bits noted by an "X" in the table , for check bit generation are contained in Table 4. Each check bit is generated as either an XOR or XNOR of eight of the 16 data bits as indicated in the table . The XOR function results in an even parity , Signetics Logic Products Product Specification Error Detection and Correction (EDC) Unit 2960 Table 6

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60fold.
64Bit
LD03T8IS
N2960N
N2960I

Not Available
Abstract: No abstract text available
Text: generated as either an XOR or XNOR of the eight data bits noted by an "X" in the table . Control Mode , generated as either an XOR or XNOR of eight of the 16 data bits as indicated in the table . The XOR , modes. an XOR or XNOR or 16 of the 32 data bits as indicated in the table . The XOR function results , Logic Products 2960 Error Detection and Correction (EDC) Unit Table 7. 32Bit Modified Hamming , bit is generated as either an XOR or XNOR of the sixteen data bits noted by an â X" in the table

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60fold.
64Bit
L003750S

Z8000
Abstract: "hamming code"
Text: XOR or XNOR of eight of the 16 data bits as indicated in the table . The XOR function results in an , check bit generation are contained in Table VII. Check bits are generated as either an XOR or XNOR or 16 of the 32 data bits as indicated in the table . The XOR function results in an even parity check bit , errors are detected. in Table X. Check bits are generated as either an XOR or XNOR TABLE X. 64 , the table . The XOR function results in an even parity check bit, the XNOR in an odd parity check bit

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Am2960
16Bit
Am2960s
32bit
64bit
Z8000
"hamming code"

PAL 011a
Abstract: PAL VIHH programming pulse 16P2 EPL10P8
Text: : 15V, 20B : 13.5V) to Pin 11 (PGM/OE) Table 2 Feature S1 S2 Cell 0 0 OR 0 1 XOR 1 0 Polarity , ï»¿It TJl JL CMOS EPL Series 20 A/B RICOH EPL Series 20A/B are fieldprogrammable logic arrays , family. Group I consists of ANDFIXED OR, XOR arrays, (EPL 10P8,12P6,14P4, and 16P2) available in 55ns or 35ns versions. Group II consists of ANDFIXED OR, XOR array (EPL 16P8) and three Registered ANDFIXED OR, XOR arrays (EPL 16RP8,16RP6, and 16RP4). EPL Series 20A/B devices allow users to program by

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16RP8
16RP6,
16RP4)
16RP6
16RP4
20Pin
PAL 011a
PAL VIHH programming pulse
16P2
EPL10P8

PAL 011a
Abstract: Ricoh Electronics
Text: pulse and Vihh (20A : 15V, 20B : 13.5V) to Pin 11 (PGM/OE) Table 2 Feature S1 S2 Cell 0 0 OR 0 1 XOR , utmm CMOS EPL Series 20 A/B CMOS Electronically Programmable Logic RICOH EPL Series 20A/B are fieldprogrammable logic arrays made possible by CMOS EPROM process technology. Two product groups make up the EPL Series 20 A/B family. Group I consists of ANDFIXED OR, XOR arrays, (EPL 10P8,12P6,14P4, and 16P2) available in 55ns or 35ns versions. Group II consists of ANDFIXED OR, XOR array (EPL 16P8) and three

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16RP8,
16RP6,
16RP4)
16RP8
16RP6
16RP4
16RP4
20Pin
PAL 011a
Ricoh Electronics

2009  JTAG xdp CONNECTOR
Abstract: xdp CONNECTOR 321060001US ITP700FLEX INTEL embedded processors Core 2 duo
Text: a logic high and the output of the last XOR device in the chain is connected to a pin which is , CPU with all logic except chipset (in that table as "Other Devices") Designing Embedded Systems For , an output from the XOR chain at all times. I/O not in the chain will be active at a given logic , XOR chain input pins with pattern produced via the JTAG boundary scan logic of the attached devices , . 6 3.3 XOR Chains

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321060001US
IEEE1149
JTAG xdp CONNECTOR
xdp CONNECTOR
321060001US
ITP700FLEX
INTEL embedded processors Core 2 duo

Not Available
Abstract: No abstract text available
Text: COMâL E PAL32VX10/A 24Pin Versatile with XOR Programmable Array Logic Advanced Micro Devices DISTINCTIVE CHARACTERISTICS â Increased logic power  Up to 32 inputs and 10 outputs , the output of the OR logic array. The XOR gate output feeds the input of the D flipflop. The way In , Logic (PALÂ®) device which implements a sumofproducts transfer function via a userprogrammable AND logic array and a fixed OR logic array. Featured are ten highly flexible input/output macrocells which

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PAL32VX10/A
24Pin
300mil

PAL32VX10
Abstract: No abstract text available
Text: COM'L PAL32VX10/A 24Pin Versatile with XOR Programmable Array Logic DISTINCTIVE CHARACTERISTICS Increased logic power  Up to 32 inputs and 10 outputs Advanced Micro Devices Global , macrocell logic diagram , one input of the XOR gate is connected to a single product term, while the second input is connected to the output of the OR logic array. The XOR gate output feeds the input of the D , configuration, the XOR gate on the input of the flipflop can be used to program the logic polarity of the

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PAL32VX10/A
24Pin
300mil
PAL32VX10


PAL 011a
Abstract: 16P2 PAL VIHH programming pulse
Text: Output, 4Registered ANDOR, XOR array Part Numbering System EPL 16 RP  Electronically Programmable Logic  , (20A : 15V, 20B: 13.5V) to Pin 11 (PGM/OE) Table 2 Feature S1 S2 Cell 0 0 OR 0 1 XOR 1 0 Polarity 1 , KOM ili. 006743 o; CMOS EPL SÃ©riÃ©s 20 A/B RICOH EPL SÃ©riÃ©s 20A/B are fieldprogrammable logic , family. Group I consists of ANDFIXED OR, XOR arrays, (EPL 10P8,12P6, 14P4, and 16P2) available in 55ns or 35ns versions. Group II consists of ANDFIXED OR, XOR array (EPL 16P8) and three Registered

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16RP8
16RP6,
16RP4)
16RP6
16RP4
16RP4
20Pin
PAL 011a
16P2
PAL VIHH programming pulse

2005  "XOR Gate"
Abstract: EPM3064A EPM3128A EPM3256A EPM3512A EPM7128AE EPM7256AE EPM7512AE Applications of "XOR Gate"
Text: depends on whether the output pin macrocell uses its XOR gate as an inverter. Table 4 shows the fast , devices, addresses known device issues, and includes workarounds for those issues. Refer to Table 1. Table 1. MAX 7000AE, MAX 7000B, & MAX 3000A Device Family Issues Issue Affected Devices Specific , Table 1: (1) (2) MAX 7000B I/O Current During Power Sequencing Altera Corporation , I/O pins may source or sink current greater than 300 A. Table 2 describes the two power sequence

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7000AE,
7000B,
7000B
7000AE
7000B
"XOR Gate"
EPM3064A
EPM3128A
EPM3256A
EPM3512A
EPM7128AE
EPM7256AE
EPM7512AE
Applications of "XOR Gate"

2000  IT8761E
Abstract: 8042 keyboard mouse controller 16c550 to isa slot scheme 16c550 isa slot 8042 kbc IT8761 SERIRQ PC99 intel LPC interface spec 1.0 DMAC8237
Text: . 54 Table 53. XOR Chain Order , . 54 IT8761E Table 53. XOR Chain Order Pin # Signal Name 1 VCC 2 CLK48 3 , . 52 Figure 52. Logic Diagrams of GPIO1X and GPIO2X , . 65 ii IT8761E TABLES Table 41. LPC Bus Interface Signals . 41 Table 42. KBC/Misc. Interface Signals

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IT8761E
IT8761E
02BSC
50BSC
039REF
00REF
8042 keyboard mouse controller
16c550 to isa slot scheme
16c550 isa slot
8042 kbc
IT8761
SERIRQ
PC99
intel LPC interface spec 1.0
DMAC8237

SL4 diode
Abstract: SR330 8 bit half adder 74 TUL5014 DM10900 CD62 CD61 CD60 ZD3,9 Z03 Series
Text: enabled, OPA and OPB select ALU functions Sum, XOR , X + Y, or X â¢ Y (see Figure 11). See Table 4. Table 4 Function ZP CD61 OPA OPB Not Enabled See Table 3 H X X Sum Sum PAR L L L XOR XOR PAR L L H X , . When Comp is at a logic L, Y data is passed. When Comp is at a logic H, Y is complemented. Table 5 , 8bit adder accessed by two latched Input ports. In addition, various logic operations can also be , Manufactured from high performance, oxideIsolated ECL macrocell array. â Performs all necessary logic and

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DM10900
TUL5014
24Bit
SL4 diode
SR330
8 bit half adder 74
TUL5014
CD62
CD61
CD60
ZD3,9
Z03 Series

1999  "XOR Gate"
Abstract: Applications of "XOR Gate" XAPP313 XOR GATE CoolRunner data sheet for 3 input xor gate MC19 XCR960 SIGNAL PATH designer
Text: macrocells in the logic block. Note that there is also a twoinput hardware XOR gate with an input from the , Architecture Each Fast Module consists of four logic blocks with 20 macrocells interconnected by a local ZIA as shown in Figure 2. Each logic block has a fanin of 36 from the local ZIA. The 32 I/O pins for the Fast Module are equally distributed eight per logic block. Therefore, eight macrocells from each logic block are bondedout to pins, the other remaining 12 macrocells are buried. XAPP313 (v1

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XCR3960
XAPP313
XCR3960
NX5406.
nx5406)
nx5406
"XOR Gate"
Applications of "XOR Gate"
XAPP313
XOR GATE
CoolRunner
data sheet for 3 input xor gate
MC19
XCR960
SIGNAL PATH designer

1996  4 bit pn sequence generator
Abstract: pn sequence generator direct sequence spread spectrum LFSR 3 bit pn sequence generator code 4 bit LFSR direct sequence spread spectrum transmitter generate pn code gold sequence generator pn sequence generator 32 bit
Text: ) megafunction is based on linear XOR or XNOR feedback logic in which the initial value of the shift register , XOR or XNOR logic and then fed back into the shift register input. The LFSR megafunction is designed , reduces logic usage and optimizes area and performance. Table 2 describes these parameters. Table 2 , ) Specified by user. Feedback logic configuration 2 2 to 32 bits XOR Can be customized for , acquisition process. XOR logic is configured on the received data stream with the various PN sequence phases

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2011  5 inputs OR gate truth table
Abstract: 6 inputs OR gate truth table truth table for 7 inputs OR gate 4 inputs OR gate truth table Logic Gates truth table for 4 inputs OR gate psoc inverter of the basic logic gates Digital logic gates Components NOT GATE
Text: of the inputs. There are seven basic logic gates: AND, OR, Inverter (NOT), NAND, NOR, XOR , and XNOR , : 00150454 Rev. *C Page 3 of 7 Digital Logic Gates PSoC® CreatorTM Component Datasheet Table 1 , inputs. Otherwise, the output is false. Table 6. XOR Truth Table Input 1 0 0 0 0 1 1 1 1 0 0 1 1 0 0 1 1 , operates as an XOR gate followed by a NOT gate. It has two or more inputs and one output. As shown in Table , PSoC CreatorTM Component Datasheet ® Digital Logic Gates 1.0 Features Industrystandard

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ELLS 110
Abstract: MC10905 DL10 truth table xor gate 74 TD408 hdl4 76DATA
Text: subset of the 64bit configuration). Table 1 shows logic levels that must be applied to the slice , 6 outputs for the bottom three devices are rotated (see Table 8) to the XOR gates and rotated back into the , to CBO, pos. 64A) + XOR = 10.7 ns + XOR Data In to Error Detect (Use Table 15) 32 (Dl to SYO, pos , , pos. 64A) = 13.2 ns + XOR + 11 ns = 24.2 ns + XOR Data In to Single Error (SE) Out (Use Table 15) 32 , generate the syndrome bits used in error detection (See Table 4), The GENERATE pin when a HIGH selects the

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MC10905
16BIT
MC10905
50ohm
ELLS 110
DL10
truth table xor gate 74
TD408
hdl4
76DATA

ve32
Abstract: LSL4 SL4 diode
Text: at a logic L or CD61 Is held at a logic H, no shift operation Is performed: Table 2 Illustrates the 1 , See Table 4. ` ' " Table 4 ZP See Table 3 Sum PAR XOR PAR AND PAR OR PAR CD61 H L L L L OPA X L L H H , L, Y data Is passed. When Comp Is at a logic H, Y is complemented. Table 5 Operation Pass Y , specifications shown in the test table , after thermal equilibrium has been established. The circuit is in a test , Power Supply Drain Current Input Current CD61, X L, Y L , ZL, Cjpg, OPA All Othejs Logic High Output

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DM10900
68VDCto5
72VDC
50Sto2
ve32
LSL4
SL4 diode

Not Available
Abstract: No abstract text available
Text: XOR gate on the input of the flipflop can be used to program the logic polarity of the transfer , indicated in the macrocell logic diagram, one input of the XOR gate is connected to a single product term, while the second input is connected to the output of the OR logic array. The XOR gats output feeds the , ADV MICRO P L A / P L E / A R R A Y S Military Programmable Array Logic 13E D , Programmable Array Logic Conforms to MILSTD883, Class B* Â£ ro < DISTINCTIVE CHARACTERISTICS x

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MILSTD883,

1997  atmel 844
Abstract: F1500AT ATF1500A FIT1500 0609C ATF1500 programming
Text: configuration. Logic functions are implemented with the OR/ XOR /CASCADE logic structure. Up to 5 product terms , fitter can also use the XOR gate for logic minimization or for polarity control. 843 Foldback , specified manually by declaring a foldback logic term node (see node numbers table ) or by using a macro or , Flashbased complex PLD. It has flexible macrocells which allow implementation of complex logic functions , % connectivity between macrocells. This eliminates routing bottlenecks, increases logic utilization and enables

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ATF1500/A
atmel 844
F1500AT
ATF1500A
FIT1500
0609C
ATF1500 programming
