SN65MLVD082DGG vs SN65MLVD080DGG
| Part Number |
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| Category | Interface - Drivers, Receivers, Transceivers | Interface - Drivers, Receivers, Transceivers |
| Manufacturer | Texas Instruments | Texas Instruments |
| Description | IC TRANSCEIVER HALF 8/8 64TSSOP | IC TRANSCEIVER HALF 8/8 64TSSOP |
| Package | Bulk | Tube |
| Series | - | - |
| Type | Transceiver | Transceiver |
| Voltage - Supply | 3V ~ 3.6V | 3V ~ 3.6V |
| Operating Temperature | -40°C ~ 85°C | -40°C ~ 85°C |
| Mounting Type | Surface Mount | Surface Mount |
| Package / Case | 64-TFSOP (0.240\", 6.10mm Width) | 64-TFSOP (0.240\", 6.10mm Width) |
| Supplier Device Package | 64-TSSOP | 64-TSSOP |
| Protocol | LVDS, Multipoint | LVDS, Multipoint |
| Data Rate | 250Mbps | 250Mbps |
| Number of Drivers/Receivers | 8/8 | 8/8 |
| Receiver Hysteresis | 25 mV | 25 mV |
| Duplex | Half | Half |
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1. What is an IC driver?
An IC driver is an integrated circuit that is mainly used to control and drive various devices, such as LCDs, motors, etc. It integrates the circuits that drive and control these devices, making the entire circuit design more concise and reducing the risk of overcurrent and overheating.
The role of the IC driver is to convert the signal from the host or controller into the signal required by the peripheral or sensor so that it can work properly. Depending on the function, the driver chip can be divided into many types, such as motor driver IC, LCD driver IC, etc. -
2. What is an interface IC?
An interface IC is a chip with an internal interface circuit, which is mainly used for connection and data exchange between the CPU and external devices and memory. The interface IC coordinates the differences in speed, type, timing, etc. between the CPU and external devices through internally set registers, buffer logic, information format conversion and other functions to ensure accurate and efficient data transmission.
The main functions of the interface IC include:
Setting data storage and buffering logic: adapting to the speed difference between the CPU and external devices, and performing batch data transmission through registers or RAM chips.
Information format conversion: such as serial and parallel conversion, adapting to different data transmission requirements.
Coordinating timing differences: ensuring the synchronization of the CPU and external devices in timing.
Address decoding and selection: realizing the selection and control of peripherals.
Setting interrupt and DMA control logic: ensuring the correct processing and transmission of interrupt and DMA request signals.
Interface ICs are widely used in various electronic devices, such as smart homes, industrial automation, computer systems, etc. For example, Type-C interface chips are used to implement Type-C interface functions, supporting high-speed data transmission and power transmission; RS-485 interface chips are used in industrial automation and control systems, supporting multi-point differential signal transmission. -
3. What is a transceiver IC?
A transceiver IC is an integrated circuit that is mainly used to realize the sending and receiving functions of signals. It can be used in different communication systems. According to the specific application scenario, the transceiver IC can realize the conversion between electrical signals and optical signals and radio frequency signals.
The specific types of transceiver ICs include optical transceiver chips and radio frequency transceiver chips. Optical transceiver chips are mainly used in optical fiber communication systems to realize the conversion between optical signals and electrical signals. They are the basic chips of the physical layer of optical fiber broadband networks. Radio frequency transceiver chips are used in radio communications. As a "translator" between radio waves and digital signals, they realize the conversion between baseband signals and radio frequency signals. They are widely used in 5G base stations, industrial Internet, Internet of Vehicles and other fields. -
4. What are transceivers used for?
Transceivers are mainly used to convert digital signals into optical signals or electrical signals for data transmission in computer networks. The transceiver consists of two parts: a transmitter and a receiver. The transmitter converts the digital signal into an optical signal or an electrical signal and sends it to the network, while the receiver converts the received optical signal or electrical signal back into a digital signal for computer processing.
The working principle of the transceiver is based on photoelectric conversion and electro-optical conversion technology. At the transmitting end, the transceiver converts the digital signal into an optical signal or an electrical signal and transmits it to the remote device through modulation technology; at the receiving end, the transceiver converts the received optical signal or electrical signal back into a digital signal through demodulation technology for local device processing.
The application scenarios of transceivers are very wide, including local area networks, wide area networks, wireless networks, satellite communications, optical fiber communications, robots and IoT devices. They are widely used in computer networks, communication equipment, industrial automation and other fields to realize data transmission and communication between different devices.
