TRS100A00 in stock. German TRS100A00 electrical components. TRS100A00 inventory.

TRS100A00 electrical components are specifically designed to suppress high-frequency noise and spike interference on signal lines and power lines, and also have the ability to absorb electrostatic pulses. Ferrite beads are used to absorb ultra-high-frequency signals. For example, some RF circuits, PLL, oscillator circuits, and circuits containing ultra-high-frequency memory (DDR SDRAM, RAMBUS, etc.) all require ferrite beads at the power input section. Inductors are energy storage components used in LC oscillator circuits, medium and low-frequency filter circuits, etc., and their application frequency range rarely exceeds 50MHZ. Ferrite beads have very high resistivity and permeability, equivalent to a resistor and an inductor in series, but both the resistance and inductance values vary with frequency.

TRS100A00 electrical component principle

The basic working principle of fiber optic sensors is to guide light from a light source through an optical fiber into a modulator. The interaction between the parameter to be measured and the light entering the modulation zone causes changes in the optical properties of the light (such as intensity, wavelength, frequency, phase, polarization state, etc.), resulting in modulated signal light. The measurement is completed by utilizing the influence of the measured quantity on the transmission characteristics of the light. There are two types of measurement principles for fiber optic sensors: (1) Physical property-type fiber optic sensor principle. Physical property-type fiber optic sensors utilize the sensitivity of the optical fiber to environmental changes to convert the input physical quantity into a modulated optical signal. Its working principle is based on the optical modulation effect of the optical fiber, which is the phenomenon where its light transmission characteristics, such as phase and light intensity, change when external environmental factors such as temperature, pressure, electric field, and magnetic field change. Therefore, if the changes in the phase and intensity of the light passing through the optical fiber can be measured, the changes in the measured physical quantity can be determined. This type of sensor is also known as a sensitive element-type or functional fiber optic sensor. The point source beam of the laser is diffused into parallel waves and split into two paths by a beam splitter: one is the reference path, and the other is the measurement path. External parameters (temperature, pressure, vibration, etc.) cause changes in the length of the optical fiber and the optical phase, thereby generating different numbers of interference fringes. By counting the lateral movement of these fringes, temperature or pressure can be measured. (4) Structural-type fiber optic sensor principle. A structural-type fiber optic sensor is a measurement system composed of a photodetection element (sensitive element), an optical fiber transmission loop, and a measurement circuit. In this system, the optical fiber serves only as the medium for light propagation, so it is also called a light-transmitting or non-functional fiber optic sensor.

TRS100A00 electrical component parameters

1. Nominal varistor voltage: refers to the voltage value across the varistor when a pulse current of specified duration passes through it. 2. Voltage ratio: refers to the ratio of the voltage value generated by the current in the varistor to the voltage value generated by the current in the varistor. 3. Maximum clamping voltage: the peak voltage across the varistor under the maximum pulse peak current Ip that the varistor can withstand and under the specified waveform. 4. Residual voltage ratio: when the current passing through the varistor is at a certain value, the voltage generated across it is called the residual voltage for that current value. The residual voltage ratio is the ratio of the residual voltage to the nominal voltage. 5. Surge current capacity: Surge current capacity, also known as surge current, refers to the maximum pulse current value allowed to pass through the varistor under specified conditions. 6. Leakage current: Leakage current, also known as standby current, refers to the current flowing through the varistor when the varistor is at the specified temperature and maximum DC voltage. 7. Voltage temperature coefficient: refers to the rate of change of the nominal voltage of the varistor within the specified temperature range, i.e., the relative change in the voltage across the varistor when the temperature changes while the current passing through the varistor remains constant. 8. Current temperature coefficient: refers to the relative change in the current flowing through the varistor when the temperature changes while the voltage across the varistor remains constant. 9. Voltage nonlinearity coefficient: refers to the ratio of the static resistance value to the dynamic resistance value of the varistor under a given applied voltage. 10. Insulation resistance: refers to the resistance value between the lead wires of the varistor and the insulated surface of the resistive body. 11. Static capacitance: refers to the inherent capacitance of the varistor itself. 12. Rated power: the maximum power that causes a change in the varistor voltage when operating at a specific ambient temperature. 15. Maximum surge current: the maximum surge current that causes a change in the varistor voltage when the varistor is impacted by a specific pulse current once or twice.

TRS100A00 electrical component characteristics

Sensitivity refers to the ratio of the change in output to the change in input of a sensor under steady-state operating conditions. It is the slope of the output-input characteristic curve. If there is a linear relationship between the output and input of the sensor, then the sensitivity S is a constant. Otherwise, it will vary with the change in input. The dimension of sensitivity is the ratio of the dimensions of the output and input quantities. When the dimensions of the output and input quantities of the sensor are the same, sensitivity can be understood as the amplification factor. Increasing sensitivity can achieve higher measurement accuracy. However, the higher the sensitivity, the narrower the measurement range, and the stability is often poorer.

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