Nexperia USA Inc. 74HC4060D,653

Overview

74HC4060D,653 from Nexperia is a 14-stage binary ripple counter/divider with integrated RC or crystal oscillator circuitry, operating from 2.0 V to 6.0 V supply. It features asynchronous master reset (MR), ten buffered outputs (Q3–Q9, Q11–Q13), and oscillator terminals (RS, RTC, CTC) enabling precision timing in low-power embedded control systems.

For engineers reviewing the 74HC4060D,653 datasheet, 74HC4060D,653 pinout, 74HC4060D,653 application, or 74HC4060D,653 equivalent, key selection criteria include its 14-bit division ratio (up to ÷16384), guaranteed operation from −40 °C to +125 °C, SO16 package compatibility, and CMOS-level input thresholds - critical for battery-powered timers and industrial logic sequencing.

Technical Context

The device implements a synchronous-free ripple-carry architecture where each stage advances on the HIGH-to-LOW transition of the RS input, producing cascaded Qn outputs with cumulative propagation delay. Its internal oscillator supports both RC networks (Rt = 10 kΩ–1 MΩ, Ct > 50 pF) and parallel-resonant crystals (e.g., 32.768 kHz), with RTC/CTC pins configurable as high-impedance inputs or active feedback nodes.

Inputs include clamp diodes enabling overvoltage-tolerant interfacing via current-limiting resistors; MR forces all outputs LOW independently of clock state. The SO16 package (SOT109-1) provides 16 leads, 3.9 mm body width, and thermal performance rated for continuous operation at 125 °C ambient.

Key Specifications

Pinout & Package

74HC4060D,653 is supplied in the SO16 plastic small outline package (SOT109-1), 16-pin, 3.9 mm body width, with standard JEDEC MS-012 footprint and gull-wing leads.

Key Features

Applications

Equivalent & Alternatives

The following parts are listed as comparable options for similar binary counter/oscillator applications.

Compared with 74HCT4060D,653, the TTL-input variant offers seamless integration into mixed-logic systems but trades off some low-voltage capability; CD4060BE provides wider voltage headroom at the cost of speed, package flexibility, and modern ESD robustness.

Availability

74HC4060D,653 is available at Aetrix Electronics and suitable for industrial control systems, battery-powered instrumentation, and automotive body electronics requiring stable component supply across extended temperature ranges.

Supply support for 74HC4060D,653 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 specializing in high-performance, energy-efficient logic, analog, and MOSFET solutions for automotive, industrial, and consumer markets.

The 74HC4060 belongs to Nexperia's high-speed CMOS logic family, designed specifically for reliable, low-power timing and counting functions in space-constrained, thermally demanding applications.

FAQ

Can the 74HC4060D,653 operate with a crystal oscillator?

Yes - the device supports parallel-resonant crystal oscillators via RTC and CTC pins. A typical configuration uses a 32.768 kHz crystal with two 22–37 pF load capacitors and a 2.2 kΩ bias resistor. The oscillator starts reliably without external amplification due to internal gain staging.

What happens to outputs during master reset (MR)?

When MR is driven HIGH, all internal flip-flops reset synchronously, forcing Q3–Q9 and Q11–Q13 LOW immediately - regardless of RS state or clock edge. Outputs remain LOW until MR returns LOW and the next RS falling edge occurs.

Is the SO16 package lead-free and RoHS compliant?

Yes - the 74HC4060D,653 in SOT109-1 package meets RoHS Directive 2011/65/EU and is manufactured with lead-free terminations and halogen-free molding compound, certified per Nexperia's Declaration of Conformity.

How does supply voltage affect maximum operating frequency?

Maximum clock frequency scales with VCC: 95 MHz at 6.0 V, 80 MHz at 4.5 V, and 26 MHz at 2.0 V. This voltage dependency arises from reduced gate drive strength and increased propagation delay at lower rails - design must verify fmax at minimum expected VCC.