Logic - Counters, Dividers

Image Part Number Description / PDF Quantity Rfq
74HC4024PW,118

74HC4024PW,118

NXP Semiconductors

BINARY COUNTER

710

74HCT4059N,112

74HCT4059N,112

NXP Semiconductors

DIVIDE BY N COUNTER

130

74HCT393DB,112

74HCT393DB,112

NXP Semiconductors

BINARY COUNTER, HCT SERIES, ASYN

0

74HC4020DB,112

74HC4020DB,112

NXP Semiconductors

NOW NEXPERIA 74HC4020DB - BINARY

0

N74F161AD,623

N74F161AD,623

NXP Semiconductors

BINARY COUNTER

1254

74HC163N,652

74HC163N,652

NXP Semiconductors

BINARY COUNTER

6242

74HCT161DB,118

74HCT161DB,118

NXP Semiconductors

BINARY COUNTER

0

74HCT4060N,652

74HCT4060N,652

NXP Semiconductors

BINARY COUNTER

4261

74HCT4040N,652

74HCT4040N,652

NXP Semiconductors

BINARY COUNTER

1110

74HC163PW,112

74HC163PW,112

NXP Semiconductors

BINARY COUNTER, HC/UH SERIES, SY

9216

74HCT161N,652

74HCT161N,652

NXP Semiconductors

BINARY COUNTER

10699

74HC4017N,652

74HC4017N,652

NXP Semiconductors

RING COUNTER

340

74HC4040D/S400118

74HC4040D/S400118

NXP Semiconductors

BINARY COUNTER, HC/UH SERIES

2500

74HCT160N,652

74HCT160N,652

NXP Semiconductors

DECADE COUNTER

4173

74HC4059D,112

74HC4059D,112

NXP Semiconductors

74HC4059D - DIVIDE BY N COUNTER

910

74HCT163PW-Q100118

74HCT163PW-Q100118

NXP Semiconductors

BINARY COUNTER, HCT SERIES

1384

74AHC1G4212GW125

74AHC1G4212GW125

NXP Semiconductors

12-STAGE DIVIDER AND OSCILLATOR

0

74HC393N,652

74HC393N,652

NXP Semiconductors

BINARY COUNTER

9956

74LVC161D122

74LVC161D122

NXP Semiconductors

BINARY COUNTER

1735

74HCT4020N,652

74HCT4020N,652

NXP Semiconductors

BINARY COUNTER

2308

Logic - Counters, Dividers

1. Overview

Logic counters and dividers are digital integrated circuits designed to process clock signals by counting pulses or dividing frequencies. Counters increment or decrement stored values based on input clocks, while dividers reduce input signal frequencies by integer ratios. These ICs serve as fundamental components in timing control, frequency synthesis, and system synchronization. Their importance spans across modern electronics, including communication systems, automotive control units, and industrial automation, where precise signal manipulation is critical.

2. Main Types and Functional Classification

TypeFunctional CharacteristicsApplication Examples
Synchronous CountersClock signals control all flip-flops simultaneouslyDigital clocks, frequency dividers
Asynchronous CountersCascaded flip-flops with ripple carryLow-speed counters, event counting
Up/Down CountersSelectable counting direction via control signalsMotion control, bidirectional timers
Frequency DividersProgrammable division ratios (1/N)RF transceivers, phase-locked loops

3. Structure and Composition

Typical logic counters/dividers consist of:

  • CMOS/TTL logic gates for control logic
  • D-type flip-flops for data storage
  • Cascaded binary/decade counting stages
  • Input/output buffers for signal integrity
Common packages: 14/16-pin DIP, SOIC, TSSOP. Semiconductor materials use silicon with advanced node processes (e.g., 90nm CMOS).

4. Key Technical Specifications

ParameterDescription
Maximum Counting FrequencyDetermines operational speed limit (DC to 160MHz)
Counting Range4-bit to 12-bit resolution options
Supply VoltageOperating range (1.8V-5.5V for CMOS variants)
Propagation DelayCritical for timing accuracy (10-50ns typical)
Quiescent CurrentPower efficiency indicator (<1 A to 30mA)

5. Application Areas

  • Telecommunications: 5G base stations, optical transceivers
  • Consumer Electronics: Smartphones, smartwatches
  • Automotive: Engine control units, ADAS sensors
  • Industrial: PLCs, CNC machine controllers

6. Leading Manufacturers and Products

ManufacturerRepresentative Products
TI (Texas Instruments)SN74HC163 (4-bit binary counter)
STMicroelectronicsCD4040 (12-stage ripple counter)
Infineon TechnologiesCY2309 (clock divider IC)
NXP Semiconductors74VHC164 (high-speed divider)

7. Selection Guidelines

Key considerations:

  • Match counting range with system bit-width requirements
  • Verify maximum operating frequency against clock sources
  • Optimize power consumption via supply voltage selection
  • Choose package type based on PCB space constraints
  • Assess temperature ratings for industrial/automotive environments

8. Industry Trends Analysis

Current development trends include:

  • Transition to sub-1V supply voltages for mobile applications
  • Integration with phase-locked loop (PLL) circuits
  • Adoption of FinFET technology for >100MHz counters
  • Emerging use in IoT edge devices for signal preprocessing
Market demand grows at 4.2% CAGR driven by 5G infrastructure and automotive electrification.

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