40 Analog Data Transmission Interfaces 8

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Part	Manufacturer	Telecom IC Type	Temperature Grade	Terminal Form	No. of Terminals	Package Code	Package Shape	Package Body Material	Surface Mount	No. of Functions	Technology	Maximum Supply Current	Nominal Supply Voltage	Power Supplies (V)	Package Style (Meter)	Package Equivalence Code	Sub-Category	Terminal Pitch	Maximum Operating Temperature	Maximum Noise	Battery Supply (V)	Minimum Operating Temperature	Terminal Finish	Terminal Position	JESD-30 Code	Moisture Sensitivity Level (MSL)	Maximum Seated Height	Width	Qualification	Minimum Power Supply Rejection Ratio (PSRR)	Battery Feed	JESD-609 Code	Maximum Time At Peak Reflow Temperature (s)	Peak Reflow Temperature (C)	Length
SI32185-A-FMR	Silicon Labs	SLIC	COMMERCIAL	NO LEAD	40	QCCN	SQUARE	UNSPECIFIED	YES	1			3.3 V		CHIP CARRIER				70 Cel			0 Cel		QUAD	S-XQCC-N40								NOT SPECIFIED	NOT SPECIFIED
GS12190-INE3	Semtech	LINE EQUALIZER		NO LEAD	40	HVQCCN	RECTANGULAR	UNSPECIFIED	YES	1		164 mA	1.8 V		CHIP CARRIER, HEAT SINK/SLUG, VERY THIN PROFILE	LCC40,.16X.24,16		.4 mm	85 Cel			-40 Cel	NICKEL PALLADIUM GOLD SILVER	QUAD	R-XQCC-N40	3	1 mm	4 mm				e4	40	260	6 mm
SI32185-A-FM	Silicon Labs	SLIC	COMMERCIAL	NO LEAD	40	QCCN	SQUARE	UNSPECIFIED	YES	1			3.3 V		CHIP CARRIER				70 Cel			0 Cel		QUAD	S-XQCC-N40								NOT SPECIFIED	NOT SPECIFIED
LE9540DUQCT	Microchip Technology	SLIC	INDUSTRIAL	NO LEAD	40	HVQCCN	SQUARE	UNSPECIFIED	YES	1		5.6 mA	3.3 V		CHIP CARRIER, HEAT SINK/SLUG, VERY THIN PROFILE	LCC40,.24SQ,20		.5 mm	85 Cel	13 dBrnC	-12 TO -145	-40 Cel		QUAD	S-XQCC-N40		1 mm	6 mm		25 dB	CONSTANT CURRENT				6 mm
MAX14950ACTL+	Maxim Integrated	LINE EQUALIZER	COMMERCIAL	NO LEAD	40	HVQCCN	SQUARE	UNSPECIFIED	YES	1	BICMOS	.21 mA	3.3 V	3.3	CHIP CARRIER	LCC40,.2SQ,16	Other Telecom ICs	.4 mm	70 Cel			0 Cel	MATTE TIN	QUAD	S-XQCC-N40	1	.8 mm	5 mm	Not Qualified			e3	30	260	5 mm
MAX14955ETL+	Maxim Integrated	LINE EQUALIZER	INDUSTRIAL	NO LEAD	40	HVQCCN	SQUARE	UNSPECIFIED	YES	1	BICMOS	.21 mA	3.3 V	3.3	CHIP CARRIER, HEAT SINK/SLUG, VERY THIN PROFILE	LCC40,.2SQ,16	Other Telecom ICs	.4 mm	85 Cel			-40 Cel	MATTE TIN	QUAD	S-XQCC-N40	1	.8 mm	5 mm	Not Qualified			e3	30	260	5 mm
MAX14955ETL+T	Maxim Integrated	LINE EQUALIZER	INDUSTRIAL	NO LEAD	40	HVQCCN	SQUARE	UNSPECIFIED	YES	1	BICMOS		3.3 V		CHIP CARRIER, HEAT SINK/SLUG, VERY THIN PROFILE			.4 mm	85 Cel			-40 Cel		QUAD	S-XQCC-N40		.8 mm	5 mm					NOT SPECIFIED	NOT SPECIFIED	5 mm
MAX14950ACTL+T	Maxim Integrated	LINE EQUALIZER	COMMERCIAL	NO LEAD	40	HVQCCN	SQUARE	UNSPECIFIED	YES	1	BICMOS		3.3 V		CHIP CARRIER, HEAT SINK/SLUG, VERY THIN PROFILE			.4 mm	70 Cel			0 Cel	MATTE TIN	QUAD	S-XQCC-N40	1	.8 mm	5 mm				e3	30	260	5 mm

Analog Data Transmission Interfaces

Analog data transmission interfaces are used to transmit analog signals between electronic devices. They are commonly used in a variety of applications, such as audio and video equipment, medical devices, and industrial control systems.

Analog data transmission interfaces typically consist of a transmitter and a receiver. The transmitter converts the analog signal into a form that can be transmitted over a communication channel, such as a wire or radio frequency signal. The receiver then converts the transmitted signal back into its original analog form.

Some common types of analog data transmission interfaces include:

1. Analog audio interfaces: These are used to transmit audio signals between electronic devices, such as microphones, amplifiers, and speakers. Examples include XLR, RCA, and TRS connectors.

2. Composite video interfaces: These are used to transmit analog video signals, such as those used in standard definition television. Examples include RCA and BNC connectors.

3. VGA interfaces: These are used to transmit analog video signals from computers and other devices to displays, such as computer monitors and projectors.

4. Analog sensor interfaces: These are used to transmit analog signals from sensors, such as temperature sensors or pressure sensors, to electronic devices that can process and analyze the data.

Analog data transmission interfaces offer several advantages over digital interfaces. They are often simpler and less expensive to implement, and they can provide high-quality audio and video signals without the need for compression or conversion. However, they can also be susceptible to interference and noise, and their performance may be limited by the quality of the transmission channel.