SAW Resonators

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B39162B4348P810
RF360
50Ω 1.58247GHz QCS-5P SMD mount,glue mount 1.4mm(length)*1.1mm(width)
Quantity: 5409
Ship Date: 6-13 working days
1+ $1.7135
10+ $1.403
25+ $1.166
100+ $1.0735
250+ $0.9904
500+ $0.9266
1000+ $0.8716
2500+ $0.8064
5000+ $0.7539
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x $1.7135
Ext. Price: $1.71
MOQ: 1
Mult: 1
SPQ: 1

SAW Resonators

Surface Acoustic Wave Resonators (SAW) are devices that utilize surface acoustic waves to perform various functions in electronic systems. Here's a concise introduction in English:

Definition:
Surface Acoustic Wave Resonators are specialized electronic components that generate and detect acoustic waves traveling along the surface of a piezoelectric material. These waves are mechanical vibrations that propagate with the particle motion confined to a plane parallel to the surface.

Function:
SAW resonators function by converting electrical signals into mechanical vibrations and vice versa. They are capable of filtering, delaying, and resonating signals at specific frequencies. The piezoelectric substrate, typically made from materials like quartz or lithium niobate, generates surface acoustic waves when an alternating voltage is applied.

Applications:
1. Communications: SAW filters are widely used in mobile phones, communications, and radio broadcasting for signal filtering and frequency selection.
2. Automotive: They are employed in engine control units, anti-lock braking systems, and airbag deployment systems for precise timing and control.
3. Consumer Electronics: Found in devices like TVs and radios for signal processing and filtering.
4. Sensors: SAW sensors can detect changes in temperature, pressure, and chemical composition, making them useful for environmental and industrial process control.

Selection Criteria:
When selecting a SAW resonator, consider the following:
1. Frequency Range: Ensure it matches the operating frequency of your application.
2. Insertion Loss: Lower loss is preferable for efficient signal transmission.
3. Temperature Stability: Choose a resonator with stable performance across the expected temperature range.
4. Power Handling: The resonator should be able to handle the power levels of the application without degradation.
5. Size and Packaging: Consider the physical dimensions and the form factor required for integration into the system.
6. Cost: Balancing performance with budget constraints is crucial, especially for high-volume applications.

SAW resonators are chosen for their ability to provide high selectivity, low insertion loss, and excellent temperature stability, making them ideal for a variety of high-performance electronic applications.
Please refer to the product rule book for details.