DIE Sample & Hold ICs 10

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Part	Manufacturer	Amplifier Type	Temperature Grade	Terminal Form	No. of Terminals	Package Code	Package Shape	Maximum Negative Supply Voltage Limit	Surface Mount	Maximum Analog Input Voltage	No. of Functions	Technology	Maximum Supply Current	Maximum Droop Rate	Nominal Negative Supply Voltage (Vsup)	Nominal Supply Voltage / Vsup (V)	Power Supplies (V)	Package Style (Meter)	Package Equivalence Code	Sub-Category	Maximum Supply Voltage Limit	Maximum Operating Temperature	Minimum Analog Input Voltage	Nominal Acquisition Time	Minimum Operating Temperature	Terminal Finish	Sample-and-Hold/Track-and-Hold	Terminal Position	JESD-30 Code	Qualification	Maximum Acquisition Time	JESD-609 Code
SMP04GBC	Analog Devices	Sample And Hold Circuit	Industrial	No Lead	15	DIE	Rectangular	0 V	Yes	7.5 V	4	CMOS		0.025 V/s	0 V	12 V		Uncased Chip		Sample and Hold Circuits	17 V	85 °C (185 °F)	-7.5 V	3.6 µs	-40 °C (-40 °F)		Sample and Hold (S&H)	Upper	R-XUUC-N15	No	11 µs
SMP10G	Analog Devices	Sample And Hold Circuit		No Lead	7	DIE	Rectangular	-18 V	Yes	10.5 V	1	BIPOLAR		0.5 V/s	-15 V	15 V		Uncased Chip			18 V		-10.5 V	3.5 µs		Tin Lead	Sample and Hold (S&H)	Upper	R-XUUC-N7	No		e0
SMP11G	Analog Devices	Sample And Hold Circuit		No Lead	7	DIE	Rectangular	-18 V	Yes	10.5 V	1	BIPOLAR		0.5 V/s	-15 V	15 V		Uncased Chip			18 V		-10.5 V	3.5 µs		Tin Lead	Sample and Hold (S&H)	Upper	R-XUUC-N7	No		e0
SMP10N	Analog Devices	Sample And Hold Circuit		No Lead	7	DIE	Rectangular	-18 V	Yes	11 V	1	BIPOLAR		0.2 V/s	-15 V	15 V		Uncased Chip			18 V		-11 V	3.5 µs		Tin Lead	Sample and Hold (S&H)	Upper	R-XUUC-N7	No		e0
AD585SCHIPS	Analog Devices	Sample And Hold Circuit	Military	No Lead	14	DIE	Rectangular	-18 V	Yes		1		10 mA	1 V/s	-12 V	12 V	±12/±15 V	Uncased Chip	DIE OR CHIP	Sample and Hold Circuits	18 V	125 °C (257 °F)			-55 °C (-67 °F)		Sample and Hold (S&H)	Upper	R-XUUC-N14	No	5 µs
AD585ACHIPS	Analog Devices	Sample And Hold Circuit	Other	No Lead	14	DIE	Rectangular	-18 V	Yes		1		10 mA	1 V/s	-12 V	12 V	±12/±15 V	Uncased Chip	DIE OR CHIP	Sample and Hold Circuits	18 V	85 °C (185 °F)			-25 °C (-13 °F)		Sample and Hold (S&H)	Upper	R-XUUC-N14	No	5 µs
SMP11N	Analog Devices	Sample And Hold Circuit		No Lead	7	DIE	Rectangular	-18 V	Yes	11 V	1	BIPOLAR		0.2 V/s	-15 V	15 V		Uncased Chip			18 V		-11 V	3.5 µs		Tin Lead	Sample and Hold (S&H)	Upper	R-XUUC-N7	No		e0
SMP-18GBC	Analog Devices	Sample And Hold Circuit		No Lead	16	DIE	Rectangular	-17 V	Yes	17 V	8	CMOS	8 mA	0.04 V/s		12 V		Uncased Chip		Sample and Hold Circuits	17 V		-17 V				Sample and Hold (S&H)	Upper	R-XUUC-N16	No
SMP08GBC	Analog Devices	Sample And Hold Circuit		No Lead	16	DIE		-17 V	Yes	17 V	8	CMOS	8 mA	0.02 V/s	-5 V	5 V		Uncased Chip		Sample and Hold Circuits	17 V		-17 V	9 µs			Sample and Hold (S&H)	Upper	X-XUUC-N16	No
SMP04G	Analog Devices	Sample And Hold Circuit		No Lead	16	DIE		-17 V	Yes	17 V	4	CMOS	7 mA	0.025 V/s		12 V		Uncased Chip			17 V		-17 V			Tin Lead	Sample and Hold (S&H)	Upper	X-XUUC-N16	No		e0

Sample & Hold ICs

Sample and hold (S/H) ICs, also known as track-and-hold amplifiers, are electronic circuits that capture and store an analog voltage signal at a specific moment in time. The S/H IC holds the input voltage for a short period and outputs a constant voltage that represents the input voltage at the time of sampling.

S/H ICs are commonly used in applications that require the measurement or processing of analog signals, such as in analog-to-digital converters (ADCs), digital signal processors (DSPs), and communication systems.

In an ADC system, the S/H IC is used to capture the analog input voltage signal and hold it steady while the ADC converts it to a digital signal. This allows the ADC to accurately sample the analog signal at a specific time and convert it to a digital value.

S/H ICs typically have a fast acquisition time and low droop rate, which means that they can quickly capture and hold the input signal with minimal voltage drop over time. Some S/H ICs can also provide a high input impedance and low output impedance, which helps to minimize loading effects and improve signal integrity.