Model No: SN74LVC158APWR

Texas Instruments SN74LVC158APWR

Manufacturer: Texas Instruments
SEMICON NO: SN74LVC158APWR
Package: 14-pin TSSOP
Stock: In stock
Description: 4-channel 2-wire to 1-wire data selector/multiplexer
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Manufacturer Texas Instruments
Part NumberSN74LVC158APWR
Typedata selector/multiplexer
Operating Voltage 1.65V to 3.6V
Input Voltage5.5V
Propagation DelayMaximum tpd of 4.2ns at 3.3V
Package14-pin TSSOP
 
TheSN74LVC158APWR is a quad 2-line to 1-line data selector or multiplexer, designed for applications requiring versatile and reliable digital signal routing. Manufactured by Texas Instruments (TI), this chip operates within a voltage range of 1.1V to 3.6V, with an overvoltage tolerance up to 5.5V (independent of VCC). It features a TSSOP-16 package, making it suitable for surface-mount technology (SMT) applications.   With dimensions of 5mm x 6.4mm, it offers a compact solution for space-constrained designs.
TI SN74LVC158APWR Features
The SN74LVC158APWR stands out with its balanced CMOS push-pull outputs, capable of sourcing and sinking similar currents. This ensures fast edge rates in light loads, though careful consideration of wiring and load conditions is recommended to prevent ringing. The device supports partial power-down and back-drive protection (Ioff), enabling efficient power management. It exhibits high drive strength, with output currents of ±24mA at 3.3V, ±8mA at 2.3V, and ±4mA at 1.65V. The maximum propagation delay is 6.4ns at 3V, ensuring swift signal transmission.  Additionally, it boasts latch-up performance exceeding 100mA, compliant with the JESD78 standard.
TI SN74LVC158APWRApplications
The SN74LVC158APWR finds applications in data selection and multiplexing tasks within a wide range of electronic systems. It is ideal for switching 4-bit data buses between two source devices, making it essential in communication interfaces, digital signal processing systems, and microcontroller-based circuits. Its ability to operate within a broad voltage range and tolerate overvoltage makes it particularly suitable for mixed-voltage environments, enhancing system flexibility and reliability.