Buffers, Drivers, Receivers, Transceivers
Results:
16,067
Manufacturer
Series
Supplier Device Package
Package / Case
Current - Output High, Low
Voltage - Supply
Max Propagation Delay @ V, Max CL
Logic Type
Number of Bits per Element
Delay Time - Propagation
Operating Temperature
Current - Quiescent (Iq)
Output Type
Clock Frequency
Type
Current - Supply
Features
Input Capacitance
Number of Elements
Circuit
Current - Quiescent (Max)
Function
-3db Bandwidth
Number of Circuits
Interface
Applications
Slew Rate
Input Logic Level - High
Input Logic Level - Low
Current - Output / Channel
Data Rate
Number of Inputs
Output
Number of Drivers/Receivers
Current - Input Bias
Current - Output (Max)
Input
Voltage - Load
Channels per Circuit
Channel Type
Independent Circuits
Qualification
Protocol
Differential - Input
Voltage - Input Offset
Frequency
Voltage - Supply Span (Max)
Voltage - VCCA
Voltage - VCCB
Amplifier Type
Mounting Type
RF Type
Input Type
Ratio - Input
Rds On (Typ)
Fault Protection
Gain Bandwidth Product
Number of Bits
Translator Type
Voltage - Supply, Single/Dual (±)
Frequency - Max
Input Signal
Trigger Type
Duplex
Switch Type
Temperature Coefficient (Typ)
Grade
Output Signal
Voltage - Supply Span (Min)
PLL
Secondary Attributes
Supply Voltage
Standards
Number of Outputs
Divider/Multiplier
On-State Resistance (Max)
Multiplexer/Demultiplexer Circuit
Number of Taps
Receiver Hysteresis
Modulation or Protocol
Voltage - Supply (Vcc/Vdd)
Voltage - Supply, Single (V+)
Memory Type
Number of Channels
Gain
Output Configuration
Voltage Supply Source
Noise Figure
Number of Mixers
Tolerance
Configuration
Count Rate
Number of Filters
Data Interface
Current - Output Source/Sink
Tuning Voltage (VDC)
Voltage - Supply, Dual (V±)
Icc Max
2nd Harmonic, Typ (dBc)
Control Interface
Time Format
Programmable Features
Power (dBm)
Hysteresis
Logic Voltage - VIL, VIH
Propagation Delay (Max)
Size / Dimension
Current - Bias
Current - Peak Output (Source, Sink)
Bus Directional
Current - Timekeeping (Max)
Filter Type
Timing
Current - Input Bias (Max)
CMRR, PSRR (Typ)
Non-Volatile Memory
Filter Order
Rise / Fall Time (Typ)
FWFT Support
Current - Output (Typ)
Direction
Power - Output
Frequency - Center
Date Format
Access Time
Programmable Flags Support
Interrupt Output
Data Rate (Max)
Motor Type - AC, DC
Voltage - Supply, Battery
On-Chip RAM
Pushing (MHz/V)
Number of I/O
Switch Circuit
Voltage - Core
Voltage - I/O
Resistance - Wiper (Ohms) (Typ)
Frequency - Cutoff or Center
Retransmit Capability
Gate Type
Expansion Type
Technology
Step Resolution
High Side Voltage - Max (Bootstrap)
Reset
Driven Configuration
Motor Type - Stepper
Antenna Connector
Voltage - Input Offset (Max)
Clock Rate
Power (Watts)
Memory Size
Output Function
Taper
Phase Noise Typ (dBc/Hz)
Frequency Range
Current - Output
Current - Supply (Max)
Internal Switch(s)
Resistance (Ohms)
Height
Current - Transmitting
Number of Drivers
Current - Modulation
Results remaining：16,067
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Buffers, Drivers, Receivers, Transceivers
Logic buffers, drivers, receivers, and transceivers are essential components in digital circuitry that enable isolated access to logic signals from one circuit for use in another circuit. These components play crucial roles in signal transmission, signal conditioning, and data communication. Buffers, as the name suggests, act as signal amplifiers or isolators. They take an input signal and pass it to the output, either unchanged or inverted. Buffers are often used to clean up weak signals or drive loads that require higher current or voltage levels. They help ensure proper signal integrity and prevent signal degradation during transmission. In boolean logic simulators, buffers are commonly employed to increase the propagation delay of signals, allowing for accurate timing analysis. Logic receivers and transceivers, on the other hand, facilitate isolated communication between data buses. Receivers are designed to receive signals from a transmitting source and provide proper signal conditioning, such as level shifting and noise filtering, before delivering the signal to the receiving circuit. Transceivers, which combine the functionalities of both receivers and drivers, allow bidirectional communication, enabling data transmission in both directions on a shared bus. These components are particularly useful in scenarios where different circuits operate at different voltage levels or have varying signal requirements. By providing isolation and appropriate signal conditioning, logic buffers, drivers, receivers, and transceivers enable seamless and reliable communication between different circuit modules. In summary, logic buffers, drivers, receivers, and transceivers serve important roles in digital circuit design. They allow for isolated access to logic signals, clean up weak signals, drive loads, increase propagation delay, and facilitate communication between data buses. These components are vital in ensuring proper signal transmission and reliable data communication in digital electronic systems.
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