NO Analog Computational 52

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Part	Manufacturer	Other IC type	Temperature Grade	No. of Terminals	Package Code	Package Shape	Surface Mount	Package Body Material	Maximum Supply Current (Isup)	No. of Functions	Technology	Nominal Bandwidth	Terminal Form	Maximum Negative Supply Voltage (Vsup)	Nominal Negative Supply Voltage (Vsup)	Nominal Supply Voltage (Vsup)	Power Supplies (V)	Package Style (Meter)	Package Equivalence Code	Sub-Category	Terminal Pitch	Maximum Operating Temperature	Minimum Operating Temperature	Terminal Finish	Terminal Position	JESD-30 Code	Maximum Supply Voltage (Vsup)	Maximum Seated Height	Width (mm)	Qualification	Minimum Supply Voltage (Vsup)	Minimum Negative Supply Voltage (Vsup)	Maximum Negative Input Voltage	JESD-609 Code	Peak Reflow Temperature (C)	Maximum Positive Input Voltage	Length
AD641ANZ	Analog Devices	LOG OR ANTILOG AMPLIFIER	INDUSTRIAL	20	DIP	RECTANGULAR	NO	PLASTIC/EPOXY		1		250 kHz	THROUGH-HOLE	-7.5 V	-5 V	5 V		IN-LINE			2.54 mm	85 Cel	-40 Cel	MATTE TIN	DUAL	R-PDIP-T20	7.5 V	5.33 mm	7.62 mm	Not Qualified	4.5 V	-4.5 V	-.3 V	e3		4 V	25.2 mm
SA572NG	Onsemi	COMPANDER	INDUSTRIAL	16	DIP	RECTANGULAR	NO	PLASTIC/EPOXY	6.3 mA	2	BIPOLAR		THROUGH-HOLE			15 V	15	IN-LINE	DIP16,.3	Analog Computational Functions	2.54 mm	85 Cel	-40 Cel	Tin (Sn)	DUAL	R-PDIP-T16	22 V	4.44 mm	7.62 mm	Not Qualified	6 V			e3	260		19.175 mm
AD835ANZ	Analog Devices	ANALOG MULTIPLIER OR DIVIDER	INDUSTRIAL	8	DIP	RECTANGULAR	NO	PLASTIC/EPOXY	26 mA	1	BIPOLAR	250 kHz	THROUGH-HOLE	-5.5 V	-5 V	5 V	+-5	IN-LINE	DIP8,.3	Analog Computational Functions	2.54 mm	85 Cel	-40 Cel	MATTE TIN	DUAL	R-PDIP-T8	5.5 V	5.33 mm	7.62 mm	Not Qualified	4.5 V	-4.5 V	-1 V	e3		1 V	9.88 mm
AD8307ANZ	Analog Devices	LOG OR ANTILOG AMPLIFIER	INDUSTRIAL	8	DIP	RECTANGULAR	NO	PLASTIC/EPOXY	10 mA	1	BIPOLAR	490 kHz	THROUGH-HOLE			5 V	5	IN-LINE	DIP8,.3	Analog Computational Functions	2.54 mm	85 Cel	-40 Cel	MATTE TIN	DUAL	R-PDIP-T8	5.5 V	4.57 mm	7.62 mm	Not Qualified	2.7 V		-.3 V	e3		4 V	9.27 mm

Analog Computational

Analog computation refers to the use of electronic circuits to perform mathematical operations using continuous signals, such as voltage or current, rather than discrete digital signals. Analog computers were widely used before the advent of digital computers, and some specialized applications still use analog computation today.

Analog computers use circuits such as operational amplifiers, resistors, capacitors, and inductors to perform mathematical operations. They can perform complex functions such as integration, differentiation, and solving differential equations, which can be difficult or impossible to implement on a digital computer.

Analog computation has advantages in some applications, such as in control systems, where continuous signals are often used to control physical processes. Analog circuits can also be more efficient and less expensive than their digital counterparts in certain applications.

However, analog computation has limitations compared to digital computation, including limitations in accuracy, repeatability, and scalability. Additionally, analog circuits can be sensitive to environmental factors such as temperature and noise, which can affect their performance.