Nexperia USA Inc. 74HC153PW-Q100J

Overview

74HC153PW-Q100 from Nexperia is an automotive-qualified dual 4-input multiplexer IC with independent enable inputs (1E, 2E), common select lines (S0, S1), non-inverting outputs (1Y, 2Y), and CMOS-level input compatibility. It operates from 2.0 V to 6.0 V across –40 °C to +125 °C and supports cascading for n-line-to-1-line signal routing in body control modules and powertrain interface logic.

For engineers reviewing the 74HC153PW-Q100 datasheet, 74HC153PW-Q100 pinout, 74HC153PW-Q100 application, or 74HC153PW-Q100 equivalent, key selection criteria include AEC-Q100 Grade 1 qualification, propagation delay ≤26 ns at 6.0 V, output drive capability of ±25 mA, and TSSOP16 package suitability for space-constrained automotive PCB layouts.

Technical Context

This device implements two independent 4:1 multiplexers sharing S0/S1 select lines but featuring separate active-low enables (1E, 2E), enabling selective channel activation without inter-channel interference. Each multiplexer routes one of four data inputs (1I0–1I3 or 2I0–2I3) to its respective output (1Y or 2Y) based on binary S0/S1 state.

Input clamping diodes allow safe interfacing with voltages exceeding VCC when used with current-limiting resistors. The design complies with JEDEC JESD7A (2.0–6.0 V) and JESD8C (2.7–3.6 V), supports HBM ESD >2000 V and CDM >1000 V, and meets latch-up immunity per JESD78 Class II Level B (>100 mA).

Key Specifications

Pinout & Package

TSSOP16 plastic thin shrink small outline package (SOT403-1); 16 leads; body width 4.4 mm; lead pitch 0.65 mm; RoHS-compliant; moisture sensitivity level MSL3.

Key Features

Applications

Equivalent & Alternatives

The following parts are listed as comparable options for similar dual 4-input multiplexer applications.

Compared with 74HC153PW-Q100, the 74HCT153PW-Q100 eases integration into mixed-signal 5 V systems but increases static current, while the SN74LV4052APWR trades logic-level control for analog fidelity-making each optimal for distinct signal-domain requirements.

Availability

74HC153PW-Q100 is available at Aetrix Electronics and suitable for automotive body electronics, engine control units, ADAS sensor hubs, and infotainment systems requiring stable component supply with AEC-Q100 compliance and long-term production continuity.

Supply support for 74HC153PW-Q100 includes scheduled delivery planning, volume procurement assistance, BOM continuity management, traceable sourcing, and lifecycle availability coordination for OEM customers, industrial embedded developers, connected-device designers, and electronics production programs.

Manufacturer

Nexperia is a global semiconductor expert delivering high-performance, reliable discrete, logic, and MOSFET devices optimized for automotive, industrial, and consumer applications.

The 74HC153-Q100 belongs to Nexperia's automotive logic portfolio, engineered specifically for robust signal routing in harsh-temperature vehicle subsystems where functional safety and long-term reliability are mandatory.

FAQ

Can 74HC153PW-Q100 operate at 3.3 V supply?

Yes - the 74HC153PW-Q100 is fully specified from 2.0 V to 6.0 V. At 3.3 V, VIH is 2.1 V min and VIL is 1.35 V max (per Table 6), providing adequate noise margin for 3.3 V CMOS systems. Propagation delay increases to ~36 ns (VCC = 3.3 V, CL = 50 pF), verified in dynamic characteristics tables.

What is the maximum clock frequency supported for S0/S1 toggling?

The device does not require a clock; S0/S1 are asynchronous select inputs. Maximum toggle rate is limited by propagation delay and transition time: tpd ≤44 ns and tt ≤19 ns at VCC = 6.0 V, supporting reliable operation up to ~12 MHz for repetitive channel selection in time-division applications.

Does 74HC153PW-Q100 support hot insertion or live swapping?

No - the datasheet specifies no hot-swap qualification. Absolute maximum ratings prohibit applying VCC before GND or exceeding VI limits during power-up. Input clamp diodes do not guarantee safe hot insertion; proper power sequencing and I/O isolation are required per system-level design.

How does the enable behavior interact with output state during transitions?

When 1E or 2E transitions HIGH, the corresponding output (1Y or 2Y) is forced LOW within tpd (≤30 ns at VCC = 4.5 V). During enable assertion, outputs remain in high-impedance-like state only if disabled - but per function table, nE = H forces nY = L, not Hi-Z. There is no three-state mode; outputs are always driven.