CDCLVC1104PW

CDCLVC1104PW is a quad-level shifter designed for translating signals between different voltage levels, typically between 3.3V and 5V systems. It features four independent channels, allowing for bidirectional communication, making it suitable for interfacing components operating at different voltage levels. This device operates with a wide input voltage range, including 1.2V to 5.5V on the low side and 2.3V to 5.5V on the high side.
The CDCLVC1104PW offers low power consumption and fast switching speeds, making it ideal for applications in digital logic level translation, such as interfacing microcontrollers, sensors, and other peripherals. It is available in a compact package, contributing to space efficiency in electronic designs. Overall, it enhances system compatibility, supporting seamless communication across different voltage domains.

The CDCLVC1104PW is a high-performance clock buffer designed for low-power applications. Key features include:
1. Input/Output Configuration: It has a single input and four output channels, allowing for signal distribution to multiple devices.

2. Low Power Consumption: Optimized for low power operation, making it suitable for battery-powered applications.
3. High Drive Capability: Supports a wide range of load capacitance, ensuring reliable performance across various circuits.
4. Low Jitter: Offers low skew and low jitter characteristics, enhancing signal integrity in high-speed applications.
5. Power Supply Voltage: Operates within a voltage range typically from 1.8V to 3.3V, providing flexibility in design.
6. Temperature Range: Qualified for industrial temperatures, making it robust for diverse operating environments.
7. Space-Saving Package: Available in a compact TSSOP package, facilitating easier integration into space-constrained designs.
These features make the CDCLVC1104PW ideal for use in consumer electronics, telecommunications, and other digital applications requiring reliable clock distribution.

The CDCLVC1104PW is packaged in a TSSOP (Thin Shrink Small Outline Package) with a 20-pin configuration.

The CDCLVC1104PW is a clock driver with a pin count of 16. It is designed to distribute clock signals with low jitter and high drive capability. The device features multiple outputs, allowing for the driving of several loads with minimal signal degradation.
Pin Functions:
1. Input Pins:
- CLK_IN: Main clock input.
- CLK_SEL: Selects between different clock inputs.
- GND: Ground reference.
2. Output Pins:
- CLK_OUT[0-3]: Four differential clock outputs for signal distribution.
3. Control Pins:
- VCC: Positive supply voltage.
- OE: Output enable control for activating or deactivating outputs.
4. Additional Pins:
- NC: No connect (not internally connected).
- FB: Feedback pin for certain configurations.
The CDCLVC1104PW is commonly used in applications requiring robust clock signal distribution, like telecommunications and data centers.

The CDCLVC1104PW is manufactured by Texas Instruments (TI), a multinational semiconductor company headquartered in Dallas, Texas. Texas Instruments designs and produces a wide range of semiconductor and integrated circuit solutions, including analog, digital signal processing (DSP), and microcontroller products. Established in 1930, TI primarily serves various industries such as automotive, industrial, communications, and consumer electronics. The company is known for its innovation in the field of electronics and its commitment to providing high-performance solutions for complex applications.

The CDCLVC1104PW is a low-skew, high-speed clock buffer and fanout driver. Its application areas include data communications, telecommunications, high-speed networking, and digital signal processing. It is commonly used in systems requiring signal distribution with minimal delay, such as FPGAs, ASICs, and server architectures, ensuring reliable clock signal integrity across multiple outputs.

The equivalent products to the CDCLVC1104PW include SN74LVC1G114, CDCLVC1104PWR, and SN74LV14. These chips serve similar functions in clock distribution and signal conditioning. Always verify specifications and pin configurations when substituting components to ensure compatibility.