×

AM26LV31EIPWR Detailed explanation of pin function specifications and circuit principle instructions

chipspan chipspan Posted in2025-02-21 00:01:29 Views45 Comments0

Take the sofaComment

AM26LV31EIPWR Detailed explanation of pin function specifications and circuit principle instructions

The part number "AM26LV31EIPWR" refers to a component manufactured by Texas Instruments. It is a Quad LVDS (Low-Voltage Differential Signaling) Driver with 16 pins in the TSSOP-16 (Thin Shrink Small Outline Package) format. Below is a detailed explanation of the pin function specifications, circuit principles, pinout, and commonly asked FAQs regarding the AM26LV31EIPWR.

Pinout and Function List (TSSOP-16)

Pin Number Pin Name Function Description 1 Vcc Positive Supply Voltage (3.3V to 5V) 2 GND Ground (0V) 3 IN1+ Non-Inverting Input for Channel 1 4 IN1- Inverting Input for Channel 1 5 OUT1+ Non-Inverting Output for Channel 1 6 OUT1- Inverting Output for Channel 1 7 IN2+ Non-Inverting Input for Channel 2 8 IN2- Inverting Input for Channel 2 9 OUT2+ Non-Inverting Output for Channel 2 10 OUT2- Inverting Output for Channel 2 11 IN3+ Non-Inverting Input for Channel 3 12 IN3- Inverting Input for Channel 3 13 OUT3+ Non-Inverting Output for Channel 3 14 OUT3- Inverting Output for Channel 3 15 IN4+ Non-Inverting Input for Channel 4 16 IN4- Inverting Input for Channel 4

Pin Function and Use

Vcc (Pin 1): This is the positive power supply pin. Connect it to the power supply voltage, typically 3.3V to 5V. GND (Pin 2): This is the ground pin. It should be connected to the ground of the system. INx+ and INx- (Pins 3, 4, 7, 8, 11, 12, 15, 16): These are the differential input pins. They take the LVDS signal in a differential pair. The '+' pin is non-inverting, and the '-' pin is inverting. OUTx+ and OUTx- (Pins 5, 6, 9, 10, 13, 14): These are the differential output pins. The '+' pin is non-inverting, and the '-' pin is inverting. These outputs drive the LVDS signals to the load.

Circuit Principle

The AM26LV31EIPWR is used to drive differential signals, which are used in high-speed data communication systems. It converts a single-ended input to a differential output, which is less susceptible to noise and allows for high-speed transmission over long distances. The inputs are differential, and the outputs are also differential.

This component uses the LVDS standard, which allows for high-speed signaling with lower power consumption compared to other signaling methods. The AM26LV31EIPWR can be used in various applications, such as video transmission, data transmission, and communications where differential signaling is required.

20 Common FAQ about AM26LV31EIPWR

Q1: What is the supply voltage for the AM26LV31EIPWR? A1: The AM26LV31EIPWR requires a supply voltage between 3.3V and 5V.

Q2: What is the number of pins in the AM26LV31EIPWR package? A2: The AM26LV31EIPWR comes in a 16-pin TSSOP package.

Q3: Can the AM26LV31EIPWR be used for single-ended signals? A3: No, the AM26LV31EIPWR is designed to work with differential signals, not single-ended signals.

Q4: How many channels are available in the AM26LV31EIPWR? A4: The AM26LV31EIPWR supports 4 channels.

Q5: What type of output does the AM26LV31EIPWR provide? A5: The AM26LV31EIPWR provides differential LVDS (Low Voltage Differential Signaling) outputs.

Q6: What is the function of the IN+ and IN- pins? A6: The IN+ and IN- pins are differential input pins that receive the LVDS signal, where IN+ is the non-inverting input and IN- is the inverting input.

Q7: What is the function of the OUT+ and OUT- pins? A7: The OUT+ and OUT- pins are differential output pins that output the LVDS signal, where OUT+ is the non-inverting output and OUT- is the inverting output.

Q8: Is the AM26LV31EIPWR compatible with 5V logic? A8: Yes, the AM26LV31EIPWR is compatible with 5V logic as well as 3.3V logic.

Q9: What is the power consumption of the AM26LV31EIPWR? A9: The power consumption is relatively low compared to other drivers, as it uses LVDS signaling.

Q10: What are typical applications of the AM26LV31EIPWR? A10: It is commonly used in high-speed data transmission systems, such as video signal transmission, networking, and communication systems.

Q11: Does the AM26LV31EIPWR require external termination? A11: Yes, LVDS signals typically require external termination resistors for proper signal integrity.

Q12: What is the maximum data rate supported by the AM26LV31EIPWR? A12: The AM26LV31EIPWR supports high-speed data rates up to 400 Mbps.

Q13: What is the input impedance of the AM26LV31EIPWR? A13: The input impedance is typically 100Ω for each differential input pair.

Q14: Can the AM26LV31EIPWR drive long cables? A14: Yes, LVDS signals are well-suited for driving long cables with low power dissipation and high-speed performance.

Q15: Does the AM26LV31EIPWR have built-in ESD protection? A15: Yes, the device includes internal ESD protection to safeguard against electrostatic discharge.

Q16: Can the AM26LV31EIPWR be used in automotive applications? A16: Yes, the AM26LV31EIPWR can be used in automotive applications where LVDS signaling is needed.

Q17: What is the package type of the AM26LV31EIPWR? A17: The AM26LV31EIPWR comes in a TSSOP-16 package.

Q18: What is the temperature range for the AM26LV31EIPWR? A18: The AM26LV31EIPWR operates in the temperature range of -40°C to 85°C.

Q19: Is the AM26LV31EIPWR suitable for industrial control systems? A19: Yes, it is suitable for industrial control systems requiring differential signaling for data transmission.

Q20: Can the AM26LV31EIPWR be used for video signal transmission? A20: Yes, it is often used in video signal transmission, where high-speed differential signaling is needed.

This detailed description includes all the necessary information about the AM26LV31EIPWR, its functionality, pinout, and FAQs. Let me know if you need any further clarification!

Chipspan

Anonymous