DIE Digital Arithmetic Circuits 8

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Part	Manufacturer	Logic IC Type	Temperature Grade	Terminal Form	No. of Terminals	Package Code	Package Shape	Total Dose (V)	Package Body Material	Surface Mount	No. of Functions	Technology	Screening Level	No. of Bits	Nominal Supply Voltage / Vsup (V)	Load Capacitance (CL)	Package Style (Meter)	Propagation Delay (tpd)	Maximum Operating Temperature	Output Characteristics	Minimum Operating Temperature	Terminal Position	JESD-30 Code	Maximum Supply Voltage (Vsup)	Qualification	Output Polarity	Minimum Supply Voltage (Vsup)	Additional Features	Family
CD54HC688	Texas Instruments	IDENTITY COMPARATOR	MILITARY	NO LEAD	20	DIE	UNSPECIFIED		UNSPECIFIED	YES	1	CMOS		8			UNCASED CHIP	255 ns	125 Cel		-55 Cel	UPPER	X-XUUC-N20	6 V	Not Qualified	INVERTED	2 V	CASCADABLE	HC/UH
CD4585BH	Texas Instruments	MAGNITUDE COMPARATOR	MILITARY	NO LEAD	16	DIE	RECTANGULAR		UNSPECIFIED	YES	1	CMOS		4	5		UNCASED CHIP	600 ns	125 Cel		-55 Cel	UPPER	R-XUUC-N16	18 V	Not Qualified	TRUE	3 V	CASCADABLE	4000/14000/40000
CD4532BH	Texas Instruments	ENCODER	MILITARY	NO LEAD	16	DIE	RECTANGULAR		UNSPECIFIED	YES	1	CMOS		8	5		UNCASED CHIP	440 ns	125 Cel		-55 Cel	UPPER	R-XUUC-N16	18 V	Not Qualified	INVERTED	3 V	8 TO 3 LINE PRIORITY ENCODER	4000/14000/40000
CD40147BH	Texas Instruments	ENCODER	MILITARY	NO LEAD	16	DIE	RECTANGULAR		UNSPECIFIED	YES	1	CMOS		10	5		UNCASED CHIP	900 ns	125 Cel		-55 Cel	UPPER	R-XUUC-N16	18 V	Not Qualified	INVERTED	3 V	10 TO 4 LINE PRIORITY ENCODER	4000/14000/40000
CD4063BH	Texas Instruments	MAGNITUDE COMPARATOR	MILITARY	NO LEAD	16	DIE	RECTANGULAR		UNSPECIFIED	YES	1	CMOS		4	5		UNCASED CHIP	1250 ns	125 Cel		-55 Cel	UPPER	R-XUUC-N16	18 V	Not Qualified	TRUE	3 V	CASCADABLE	4000/14000/40000
ACS630HMSR	Renesas Electronics	ERROR DETECTION AND CORRECTION CIRCUIT		NO LEAD	28	DIE	RECTANGULAR	300k Rad(Si)	UNSPECIFIED	YES	1	CMOS	MIL-PRF-38535 Class V	16	5		UNCASED CHIP	37 ns		3-STATE		UPPER	R-XUUC-N28	5.5 V	Not Qualified		4.5 V		AC
ACTS630HMSR	Renesas Electronics	ERROR DETECTION AND CORRECTION CIRCUIT	MILITARY	NO LEAD	28	DIE	UNSPECIFIED		UNSPECIFIED	YES	1	CMOS		16	5		UNCASED CHIP		125 Cel	3-STATE	-55 Cel	UPPER	X-XUUC-N28	5.5 V	Not Qualified		4.5 V		ACT
HCTS85HMSR	Renesas Electronics	MAGNITUDE COMPARATOR	MILITARY	NO LEAD	16	DIE	UNSPECIFIED		UNSPECIFIED	YES	1	CMOS		4	5	50 pF	UNCASED CHIP	66 ns	125 Cel		-55 Cel	UPPER	X-XUUC-N16	5.5 V	Not Qualified	TRUE	4.5 V	CASCADABLE	HCT

Digital Arithmetic Circuits

Digital arithmetic circuits are electronic circuits designed to perform arithmetic operations on digital signals. These circuits are essential components of digital systems, such as microprocessors, digital signal processors, and programmable logic devices.

Digital arithmetic circuits can perform various arithmetic operations, including addition, subtraction, multiplication, division, and modulo arithmetic. These operations are performed using binary arithmetic, where numbers are represented using the binary number system (0s and 1s).

Adders are one of the most commonly used digital arithmetic circuits. They are used to perform binary addition, where two binary numbers are added to produce a sum. Adders can be designed using various techniques, including ripple carry adders, carry look-ahead adders, and carry select adders.

Subtractors are also commonly used digital arithmetic circuits. They are used to perform binary subtraction, where one binary number is subtracted from another to produce a difference. Subtractors can be designed using techniques, including ripple borrow subtractors, borrow look-ahead subtractors, and borrow select subtractors.

Multiplexers and demultiplexers are digital circuits that can be used for various arithmetic operations, such as multiplication and division. Multiplexers can be used to select one of several input signals based on a control signal, while demultiplexers can be used to distribute a single input signal to several outputs based on a control signal.

Digital arithmetic circuits can also be designed using programmable logic devices, such as field-programmable gate arrays (FPGAs) and complex programmable logic devices (CPLDs). These devices can be programmed to implement various arithmetic operations and can be reprogrammed to adapt to changing system requirements.