Crystals

Image Part Number Description / PDF Quantity Rfq
XRCGB26M000F3M02R0

XRCGB26M000F3M02R0

TOKO / Murata

CRYSTAL

0

XRCGB32M000F1H00R0

XRCGB32M000F1H00R0

TOKO / Murata

CRYSTAL 32.0000MHZ 6PF SMD

12242

XRCGB25M000F0Z00R0

XRCGB25M000F0Z00R0

TOKO / Murata

CRYSTAL 25.0000MHZ 6PF SMD

0

XRCGB32M000F3M02R0

XRCGB32M000F3M02R0

TOKO / Murata

CRYSTAL

0

XRCPB25M000F3M00R0

XRCPB25M000F3M00R0

TOKO / Murata

CRYSTAL 25.0000MHZ 6PF SMD

2837

XRCPB32M000FAN00R0

XRCPB32M000FAN00R0

TOKO / Murata

CRYSTAL

0

XRCGB40M000F0G00R0

XRCGB40M000F0G00R0

TOKO / Murata

CRYSTAL 40.0000MHZ 6PF SMD

0

XRCPB24M000F2P00R0

XRCPB24M000F2P00R0

TOKO / Murata

CRYSTAL 24.0000MHZ 6PF SMD

2219

XRCGB27M000F3G00R0

XRCGB27M000F3G00R0

TOKO / Murata

CRYSTAL 27.0000MHZ 6PF SMD

0

XRCPB26M000F2P08R0

XRCPB26M000F2P08R0

TOKO / Murata

CRYSTAL

0

XRCGB27M120F3M02R0

XRCGB27M120F3M02R0

TOKO / Murata

CRYSTAL

0

XRCGB27M000F0Z00R0

XRCGB27M000F0Z00R0

TOKO / Murata

CRYSTAL

0

WMRAG32K76CS2C00R0

WMRAG32K76CS2C00R0

TOKO / Murata

CRYSTAL 32.7680KHZ 8PF SMD

4646

XRCGB32M000FAN00R0

XRCGB32M000FAN00R0

TOKO / Murata

CRYSTAL 32.0000MHZ 6PF SMD

0

XRCGB26M000F1H02R0

XRCGB26M000F1H02R0

TOKO / Murata

CRYSTAL 26.0000MHZ 10PF SMD

1307

XRCTD37M400FXQ50R0

XRCTD37M400FXQ50R0

TOKO / Murata

CRYSTAL 37.4000MHZ 6PF SMD

2293

XRCGB16M000FXN00R0

XRCGB16M000FXN00R0

TOKO / Murata

CRYSTAL 16.0000MHZ 6PF SMD

2459

XRCGB32M000F1H02R0

XRCGB32M000F1H02R0

TOKO / Murata

CRYSTAL 32.0000MHZ 10PF SMD

1275

XRCPB31M250F0Z00R0

XRCPB31M250F0Z00R0

TOKO / Murata

CRYSTAL

0

XRCPB24M576F3M00R0

XRCPB24M576F3M00R0

TOKO / Murata

CRYSTAL

0

Crystals

1. Overview

Crystals, oscillators, and resonators are passive electronic components that generate stable frequency signals for timing and synchronization in electronic systems. Crystals (e.g., quartz) utilize piezoelectric properties to produce precise oscillations. Oscillators integrate active circuitry to generate periodic signals, while resonators provide frequency-selective feedback. These components are critical in communication systems, computing devices, industrial controls, and consumer electronics.

2. Main Types and Functional Classification

TypeFunctional CharacteristicsApplication Examples
Quartz CrystalsHigh frequency stability, low phase noiseMicroprocessors, GPS modules, RF transceivers
Ceramic ResonatorsLower cost, moderate stabilityRemote controls, toys, low-precision sensors
MEMS ResonatorsMiniaturized, shock-resistantIoT devices, wearables, automotive sensors
Crystal Oscillators (XO)Integrated driver circuitryNetwork switches, test equipment, precision clocks

3. Structure and Composition

A typical quartz crystal consists of a precision-cut piezoelectric wafer (AT-cut or SC-cut), metallized electrodes (silver or gold), and a hermetically sealed package (glass or ceramic). MEMS resonators use silicon-based microstructures with electrostatic or piezoelectric transducers. Ceramic resonators employ zirconium titanate (PZT) materials with printed electrodes.

4. Key Technical Specifications

ParameterDescriptionImportance
Frequency RangeOperating frequency band (kHz-MHz)Determines circuit timing resolution
Frequency ToleranceInitial accuracy at 25 C (ppm)Impacts system synchronization
Temperature StabilityFrequency drift over temperature (ppm/ C)Critical for harsh environments
Equivalent Series Resistance (ESR)Internal resistance affecting startup timeImpacts oscillator reliability
Aging RateLong-term frequency shift (ppm/year)System longevity consideration

5. Application Fields

Key industries include:

  • Telecommunications: 5G base stations, optical transceivers
  • Industrial Automation: PLCs, robotics controllers
  • Consumer Electronics: Smartphones, smartwatches
  • Automotive: ECUs, tire pressure sensors
  • Medical Devices: Pacemakers, diagnostic equipment

6. Leading Manufacturers and Products

ManufacturerRepresentative ProductKey Features
EpsonSG-800332.768 kHz TCXO for real-time clocks
MurataXRCGB32M000F32 MHz ceramic resonator
SiTimeSiT8924MEMS-based automotive-grade oscillator
TXC Corporation9B-26.000MHZ26 MHz quartz crystal for Bluetooth modules

7. Selection Guidelines

Key considerations:

  • Required frequency and stability (temperature/vibration)
  • Power consumption constraints
  • Environmental operating conditions
  • Package size and mounting type
  • Cost vs. precision trade-offs

Example: For IoT edge devices, prioritize MEMS resonators with low power (<10 A) and 50 ppm stability.

8. Industry Trends

Emerging trends include:

  • Miniaturization: 0.4x0.2 mm MEMS devices for wearable integration
  • Higher frequency adoption: 100+ MHz crystals for 5G infrastructure
  • Integrated solutions: Oscillators with built-in frequency modulation
  • Automotive-grade reliability: AEC-Q100 qualified components for EVs
  • AI-driven testing: Machine learning for crystal defect detection
RFQ BOM Call Skype Email
Top