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AM26LV32CNSR
+StücklisteIC RECEIVER 0/4 16SO
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HerstellerTexas Instruments
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Herstellerteil #AM26LV32CNSR
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Paket 16-SO
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Auf Lager3655
365 Tage Qualitätsgarantie
7*24 Stunden-Servicegarantie
90-Tage Kundendienstgarantie
Originalproduktgarantie
Spezifikationen
| Attribut | Wert |
| Package | Tape & Reel (TR),Cut Tape (CT) |
| ProductStatus | Active |
| Type | Receiver |
| Protocol | RS422, RS485 |
| NumberofDrivers/Receivers | 0/4 |
| ReceiverHysteresis | 50 mV |
| Voltage-Supply | 3V ~ 3.6V |
| OperatingTemperature | 0°C ~ 70°C |
| MountingType | Surface Mount |
| Package/Case | 16-SOIC (0.209, 5.30mm Width) |
Übersicht
Description
Key features of the AM26LV32CNSR include:
1. Low Power Operation: Operates typically at a supply voltage of 3.3V, making it energy-efficient for portable and battery-powered applications.
2. High Speed: Capable of data rates up to 32 Mbps, supporting high-speed data communication.
3. Differential Inputs: Provides immunity to noise and voltage differences between the transmitter and receiver, ensuring reliable data transmission.
4. Quad Differential Receiver: Consists of four independent differential line receivers facilitating multiple data channels.
5. Fail-Safe Operation: Outputs a known state when inputs are open, shorted, or terminated but not driven, enhancing robustness.
The AM26LV32CNSR is commonly used in industrial, telecommunications, and computing environments for reliable and efficient data communication.
Equivalent
1. SN65LBC176 by Texas Instruments: Offers similar differential receiver capabilities.
2. DS34C86T by Maxim Integrated: Another low-voltage, quad differential line receiver.
3. ADM3491 by Analog Devices: Serves similar applications with comparable features.
4. LTC490 by Linear Technology (Analog Devices): Offers similar functionality and characteristics.
Always ensure compatibility by checking the specific electrical and mechanical specifications.
Features
1. Low-Voltage Operation: It supports a wide supply voltage range, typically from 3V to 3.6V, making it suitable for low-power applications.
2. High-Speed Operation: With a fast switching time, this component is optimized for high-speed data transmission.
3. Differential Inputs: It has four independent differential line receivers, designed to receive data over balanced lines, which enhances noise immunity and signal integrity.
4. High Input Impedance: Features high input impedance to minimize loading on the transmission lines.
5. Fail-Safe Operation: Includes a fail-safe design for open-circuit, short-circuit, or idle-bus conditions, ensuring stable output in the absence of input.
6. Tri-State Outputs: Offers three-state outputs, allowing for easy bus interfacing and minimizing power consumption when idle.
7. Temperature Range: Operates effectively within an extended temperature range, suitable for commercial and industrial environments.
8. Package Type: Available in a variety of surface-mount and through-hole packages, providing flexibility in design and manufacturing.
These features make the AM26LV32CNSR an ideal choice for reliable, high-speed data communication applications requiring low power consumption.
Pinout
Here is a brief overview of its pin functions:
1. Vcc: Positive supply voltage.
2. GND: Ground connection.
3. A, B, C, D (Input Pins): Differential input pairs for each of the four receivers.
4. Y, Z, W, X (Output Pins): Output pins corresponding to each differential input pair.
5. Enable/Disable Controls: These control the enabling or disabling of the outputs, often provided as a pair of pins for active-high and active-low control.
The AM26LV32CNSR is commonly used in applications requiring data transmission over long distances in industrial, automotive, or communication systems, due to its ability to handle noise and maintain signal integrity.
Manufacturer
Application
1. Digital Communication Systems: Used in systems requiring high data rates and reliable data transfer, such as computer networks and telecommunications.
2. Data Transmission Over Long Distances: Ideal for transmitting data over longer distances due to its differential signaling, which reduces noise and interference.
3. Industrial Automation: Employed in factory automation systems for robust and high-speed communication between equipment and controllers.
4. Motor Control and Robotics: Utilized in controlling motors and robotic systems requiring precise and rapid signal processing.
5. Consumer Electronics: Implemented in various consumer devices that need efficient data communication.
These applications leverage the device's low power consumption and high noise immunity.