SN65LVEL11DGKR

Overview

Category

SN65LVEL11DGKR belongs to the category of integrated circuits (ICs).

Use

It is commonly used in electronic devices for signal transmission and processing.

Characteristics

• High-speed differential line driver/receiver
• Low voltage emitter-coupled logic (LVPECL) compatible
• Wide operating voltage range: 2.375V to 3.8V
• Low propagation delay: 0.9 ns typical
• Small package size: 8-pin VSSOP

Package

SN65LVEL11DGKR is available in a VSSOP-8 package.

Essence

The essence of SN65LVEL11DGKR lies in its ability to provide high-speed differential line driving and receiving capabilities, making it suitable for various applications requiring fast signal transmission.

Packaging/Quantity

SN65LVEL11DGKR is typically packaged in reels with a quantity of 2500 units per reel.

Specifications and Parameters

• Operating Voltage Range: 2.375V to 3.8V
• Input Voltage Range: -2V to 4V
• Output Voltage Range: -2V to 4V
• Operating Temperature Range: -40°C to 85°C
• Propagation Delay: 0.9 ns typical
• Rise/Fall Time: 100 ps typical
• Package Type: VSSOP-8

Pin Configuration

The pin configuration of SN65LVEL11DGKR is as follows:

```

---

| | --| VCC GND |-- Pin 1: Power Supply --| IN+ IN- |-- Pin 2: Differential Input --| OUT+ OUT- |-- Pin 3: Differential Output --| /EN /ENB |-- Pin 4: Enable/Disable Input --| GND VCC |-- Pin 5: Ground --| OUT- OUT+ |-- Pin 6: Differential Output --| IN- IN+ |-- Pin 7: Differential Input --| GND VCC |-- Pin 8: Ground |___________| ```

Functional Characteristics

SN65LVEL11DGKR offers the following functional characteristics:

• High-speed differential line driving and receiving
• LVPECL compatible interface
• Enable/disable control for power management
• Low propagation delay for fast signal transmission
• Wide operating voltage range for flexibility

Advantages and Disadvantages

Advantages

• High-speed performance
• Compatibility with LVPECL interface
• Wide operating voltage range
• Small package size

Disadvantages

• Limited input/output voltage range
• Requires external enable/disable control

Applicable Range of Products

SN65LVEL11DGKR is suitable for applications that require high-speed differential signal transmission and reception. It can be used in various electronic devices, including but not limited to: - Communication systems - Data transmission equipment - Networking devices - Test and measurement instruments

Working Principles

SN65LVEL11DGKR operates based on the principles of low voltage emitter-coupled logic (LVPECL). It receives differential input signals and amplifies them for transmission through its differential output. The enable/disable control allows for power management and signal routing.

Detailed Application Field Plans

SN65LVEL11DGKR can be applied in the following fields:

1. Communication Systems: Used for high-speed data transmission between network nodes.
2. Data Transmission Equipment: Enables fast and reliable signal transmission in data communication devices.
3. Networking Devices: Facilitates efficient data transfer in routers, switches, and other networking equipment.
4. Test and Measurement Instruments: Provides accurate signal processing capabilities in test equipment for precise measurements.
5. Industrial Automation: Supports high-speed communication between industrial control systems and devices.

Detailed Alternative Models

Some alternative models to SN65LVEL11DGKR include:

1. SN65LVDS179DGK: Low-voltage differential signaling (LVDS) driver/receiver with similar characteristics.
2. SN65HVD1787D: High-speed CAN transceiver suitable for automotive applications.
3. SN65HVD230DR: RS-485/RS-422 transceiver for industrial communication systems.
4. SN65LVDT122D: LVDS driver/receiver with extended temperature range.
5. SN65HVD3088EDR: 8-channel RS-485 transceiver for multi-node communication networks.

Common Technical Questions and Answers

1. Q: What is the maximum operating voltage of SN65LVEL11DGKR? A: The maximum operating voltage is 3.8V.

2. Q: Can SN65LVEL11DGKR be used with a single-ended input signal? A: No, it requires a differential input