Active filters amplify desired signals while rejecting unwanted frequencies, and can be tailored to meet application-specific requirements in electronics.
Amplifiers boost signal strength, match impedance levels, and are essential in many circuit systems, including audio, broadcasting, and telecommunications.
Batteries store and provide electrical energy, come in various types and sizes for multiple uses, rechargeable or single-use.
Capacitors store electrical charge with metallic plates and a dielectric; types vary and can be combined for specific circuit characteristics.
Chip carriers and sockets provide an interface between components and PCBs, enabling easy replacement or upgrading without soldering.
Circuit protection devices prevent damage from overcurrent flow, including fuses, breakers, surge protectors, and voltage regulators.
Connector accessories and support devices aid connector function and longevity, including backshells, grips, clamps, and ties; must be compatible with connector type.
Connectors join electronic circuits to transfer signals and power, come in various sizes and shapes, and include support accessories.
Converters transform DC input to another voltage level, essential in electronic systems, renewable energy, and automotive electronics.
Crystals and resonators generate and stabilize frequency signals via piezoelectricity. They are used in timing, frequency control, and filters. Crystals are quartz and resonators are ceramic with a built-in capacitor.
Semiconductor diodes control current flow in one direction (uni-directionality) via low resistance. Useful for rectification, voltage regulation, detection, and digital logic.
Discover essential electronic components for your devices, including CPU accelerators, system cache controllers, computer processors, motherboards, and graphics computing systems. Enhance device performance and connectivity with reliable components engineered for seamless integration and optimal functionality.
Fiber optics use light pulses to transmit data over long distances. They have superior bandwidth capacity, low signal attenuation, and secure physical properties. They are essential in telecommunications networks today.
Filters enhance signal processing by selectively passing desired frequencies while suppressing unwanted ones. Filters can be passive (using capacitors, resistors, and inductors) or active (using transistors or amplifiers).
Flash devices are non-volatile storage solutions that offer fast read and write speeds, making them ideal for applications requiring high-speed data transfer. These devices utilize flash memory technology, providing reliable storage for data-intensive tasks such as gaming, multimedia, and enterprise-level applications.
General purpose ICs consist of multiple individual circuits or components (e.g., logic gates, amplifiers, oscillators, etc.) that are combined onto a single integrated circuit chip for a smaller physical footprint.
I/O and storage controllers are crucial components in computer systems, managing input/output operations and storage devices. These controllers facilitate efficient data transfer between peripherals, storage drives, and the central processing unit (CPU), enhancing system performance and enabling seamless connectivity.
Inductors store energy in magnetic fields, oppose sudden changes in current flow and prevent electrical surges. Common inductor applications include power supplies, signal filters, and oscillators.
Interface ICs allow efficient device connectivity with high-speed data transfer and low power consumption.They can be ASIC or FPGA types, and may perform additional functions such as sensing, storage, and conversion.
Logic ICs can be used for storage, memory, amplification, and multiplexing. They perform fundamental logical operations on digital input signals (1, 0, H, L) to generate a corresponding digital output signal.
Memory modules are essential components in electronic devices, storing data temporarily or permanently for processing and retrieval. From volatile RAM (Random Access Memory) to non-volatile ROM (Read-Only Memory), memory technologies vary in speed, capacity, and functionality, catering to diverse application requirements.
Memory ICs store digital data and retain the information even when the power is turned off. They come in various types, like RAM (Random Access Memory) for fast data access, and ROM (Read-Only Memory) for permanent data storage.
Miscellaneous semiconductor components are a diverse category of electronic components that combines elements from a mix of component devices.
Optoelectronic devices interact with light. This family of devices can emit light, detect light, generate current, and transmit light signals for long-distance communication.
Oscillators generate repetitive waveforms, such as sine, square, or triangle waves. They are commonly used to produce stable and precise frequencies for applications like clocks, signal generation, and communication systems.
Other Function Semiconductor components are a diverse category of semiconductor components that perform a range of specialized functions.
Passive component networks operate without a power source and support data transmission within system by performing filtering, energy storage, and/or signal coupling functions.
Peripheral ICs (Integrated Circuits) are designed to control and manage the peripheral devices connected to a computer or other electronic device.
Programmable Logic ICs are user-programmable devices that allow designers to create custom logic circuits. These cost saving ICs offer real-time data processing and maximum design flexibilty.
RF (Radio Frequency) and microwave devices are used in telecommunications, wireless communications, and electronic systems. These devices include amplifiers, attenuators, filters, mixers, oscillators, and antennas, and a host of other components.
Voltage regulators are used to ensure a constant output voltage despite power fluctuations and load changes. Linear and switching regulators are common types used to maintain voltage stability.
Relays are electromagnetic switches that are used to control the flow of electrical current in an electrical circuit. Relays are a safe means of providing isolation between a controlling circuit and a controlled circuit.
Resistors control the flow of electrical current in a circuit by introducing a set resistance. These passive components reduce current flow, adjust signal levels, and bias active elements in circuits.
Transducers convert energy from one form to another and are crucial in sensing, audio and control systems. They transform physical measures like temperature, pressure, or sound into electrical signals for circuits.
Storage drives are hardware devices used to store and retrieve digital data in computers and electronic devices. These drives come in various forms, including hard disk drives (HDDs), solid-state drives (SSDs), and hybrid drives, offering different levels of capacity, speed, and durability to suit specific storage needs.
Storage media encompass physical or digital mediums used for storing and preserving digital data. From optical discs and magnetic tapes to USB flash drives and memory cards, storage media come in diverse formats and capacities, offering flexibility and reliability for data storage and archival purposes.
Storage systems comprise hardware and software components designed to manage and store digital data efficiently. These systems range from simple standalone devices to complex network-attached storage (NAS) and storage area network (SAN) solutions, providing scalable storage capacity and data protection features for businesses and enterprises.
Switches control electrical current flow by making or breaking connections. These devices vary in design and application, from basic on/off switches to complex industrial automation systems.
Telecom integrated circuits (ICs) are specialized electronics for telecommunications, tailored to high data rates, low power use, and reliable long-distance transmission. These devices include amplifiers, filters, ADCs, DACs, and more-- and they are often integrated on one chip for specific telecom tasks.
Terminal blocks, or connection terminals, are modular blocks that bring together multiple electrical wires at one connection point. They offer a reliable, organized way to terminate cables.
Thermal management devices control heat in electronic systems, preventing overheating and ensuring optimal performance and reliability. Examples include heat sinks, fans, and thermal interface materials that dissipate or transfer heat away from components.
Transformers are devices that alter electrical voltage levels between circuits through electromagnetic induction. They are vital in power distribution, converting high-voltage electricity for transmission and lower voltage for safe usage.
Transistors are 3-layer semiconductor devices that regulate the flow of electrical current. They function as amplifiers, boosting weak signals, and as switches, controlling the flow of current between terminals.
Triggering devices initiate electronic processes or events in response to specific conditions. These devices support many automated tasks such as activating switches and signals, or turning on lights when motion is detected.
Video cards, also known as graphics cards or GPU (Graphics Processing Unit), are essential components in computers, responsible for rendering graphics and images on display devices. These cards feature dedicated processors and memory, delivering smooth and immersive visual experiences for gaming, multimedia, and professional applications.
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Clock drivers and buffers are two electronic components commonly used in digital systems to control the timing and distribution of clock signals.Clock drivers are electronic components that generate a clock signal and distribute it to multiple components or devices within a digital system. The clock signal is a periodic waveform that synchronizes the timing of different operations within the system. The clock driver typically amplifies and shapes the clock signal to ensure that it meets the timing requirements of the system.Buffers, on the other hand, are electronic components that amplify and isolate signals. In digital systems, buffers are often used to distribute clock signals to multiple components without degrading the quality of the signal. Buffers can help to reduce signal distortion, noise, and jitter, which can be particularly important in high-speed digital systems.Buffers can also be used to isolate signals and prevent interference between different components or devices. They can be particularly useful in situations where the output of one device or component could damage another device or component.Clock drivers and buffers can be used together to distribute clock signals throughout a digital system while maintaining signal integrity. The clock driver generates the clock signal and distributes it to the buffers, which then amplify and isolate the signal before distributing it to the various components or devices within the system.
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CDCVF310PWRG4
Texas Instruments
CDCVF310PWRG4 clock driver by Texas Instruments features a 4 ns propagation delay at 2.5V, with 24 terminals in a small outline package. Ideal for industrial applications requiring a max operating temperature of 85°C, it offers 3-state output characteristics and supports up to 200 MHz frequency.
310
STANDARD
R-PDSO-G24
e4
7.8 mm
LOW SKEW CLOCK DRIVER
12 Amp
1
2
0
24
5
85 Cel
-40 Cel
3-STATE
PLASTIC/EPOXY
TSSOP
TSSOP24,.25
RECTANGULAR
SMALL OUTLINE, THIN PROFILE, SHRINK PITCH
260
2.5/3.3
4 ns
Not Qualified
.23 ns
1.2 mm
Clock Driver
3.6 V
2.3 V
2.5
YES
CMOS
INDUSTRIAL
NICKEL PALLADIUM GOLD
GULL WING
.65 mm
DUAL
30
4.4 mm
200 MHz
CDCVF857DGGG4
PLL BASED CLOCK DRIVER; Temperature Grade: INDUSTRIAL; Terminal Form: GULL WING; No. of Terminals: 48; Package Code: TSSOP; Package Shape: RECTANGULAR;
857
DIFFERENTIAL
R-PDSO-G48
12.5 mm
14 pF
PLL BASED CLOCK DRIVER
48
10
TSSOP48,.3,20
TUBE
10 mA
3.5 ns
.04 ns
Clock Drivers
2.7 V
Nickel/Palladium/Gold (Ni/Pd/Au)
.5 mm
NOT SPECIFIED
6.1 mm
220 MHz
CDCVF857DGGRG4
CDCVF857DGGRG4 clock driver by Texas Instruments operates at 2.5V with 48 terminals and a load capacitance of 14pF. It features a propagation delay of 3.5ns, output in 3-STATE, and can handle up to 12A max I (ol). Ideal for industrial applications requiring differential input conditioning and a small outline package style.
TR
CDCVF857RHARG4
The Texas Instruments CDCVF857RHARG4 clock driver features 3.5ns propagation delay, 10 true outputs at 220MHz, and a max I (ol) of 12A. Ideal for industrial applications requiring differential input conditioning and a supply voltage range of 2.3V to 2.7V in a compact chip carrier package.
S-PQCC-N40
6 mm
3
40
HVQCCN
LCC40,.24SQ,20
SQUARE
CHIP CARRIER, HEAT SINK/SLUG, VERY THIN PROFILE
1 mm
NO LEAD
QUAD
CDCVF857RHAT
The Texas Instruments CDCVF857RHAT clock driver features 40 terminals, 3.5ns propagation delay, and 10 true outputs. With a supply voltage range of 2.3V to 2.7V, it is ideal for industrial applications requiring differential input conditioning and a load capacitance of 14pF. The chip carrier package with a very thin profile makes it suitable for space-constrained designs in various electronic systems.
CDCM7005RGZRG4
PLL BASED CLOCK DRIVER; Temperature Grade: INDUSTRIAL; Terminal Form: NO LEAD; No. of Terminals: 48; Package Code: HVQCCN; Package Shape: SQUARE;
USER DEFINABLE FIVE DIFFERENTIAL LVPECL OUTPUT; DIFFERENTIAL VCO IN CLOCK
7005
SCHMITT TRIGGER MUX
S-PQCC-N48
7 mm
10 pF
8 Amp
260 mA
3 ns
2.4 ns
3 V
3.3
1500 MHz
CDCM7005RGZTG4
CDCM7005RGZTG4 clock driver by Texas Instruments features 48 terminals, 3.3V nominal voltage, and 10pF load capacitance. It is ideal for industrial applications requiring a max operating temperature of 85°C, with a propagation delay of 3ns and output characteristics in a 3-STATE configuration.
CDCM7005ZVAR
The Texas Instruments CDCM7005ZVAR clock driver features 64 terminals, 3.3V nominal voltage, and 10pF load capacitance. It is ideal for industrial applications requiring a max operating temperature of 85°C, with a propagation delay of 3ns and output characteristics in a 3-state configuration.
S-PBGA-B64
e1
8 mm
64
LFBGA
GRID ARRAY, LOW PROFILE, FINE PITCH
1.4 mm
TIN SILVER COPPER
BALL
.8 mm
BOTTOM
CDCM7005ZVAT
Texas Instruments CDCM7005ZVAT is a clock driver with 64 terminals, operating at 3.3V. It features Schmitt trigger mux input conditioning, 10pF load capacitance, and 3ns propagation delay. Ideal for industrial applications requiring a max frequency of 1500MHz and operating temperature range from -40 to 85°C.
CDCM7005ZVA
CDCM7005ZVA clock driver by Texas Instruments features 64 terminals, 3.3V nominal voltage, and 10pF load capacitance. It is ideal for industrial applications requiring a max operating temperature of 85°C, with a propagation delay of 3ns and output characteristics in the form of 3-STATE.
TRAY
CY2CC910OXIT
Cypress Semiconductor
CY2CC910OXIT by Cypress Semiconductor is a Clock Driver with 3.5ns Propagation Delay, Schmitt Trigger Input Conditioning, and 1.8V Nominal Voltage. Ideal for applications requiring precise clock signal distribution in industrial settings due to its small outline package and dual terminal position.
ALSO OPERATES WITH 2.5V AND 3.3V SUPPLY; CYPRS06929-1 REFFER THIS DATA SHEET FOR PACKAGE DIMENSIONS
2CC
SCHMITT TRIGGER
R-PDSO-G20
e3
7.2 mm
20
SSOP
SSOP20,.3
SMALL OUTLINE, SHRINK PITCH
1.8/3.3
.2 ns
2 mm
1.89 V
1.71 V
1.8
MATTE TIN
5.3 mm
CDC2351DBRG4
CDC2351DBRG4 clock driver by Texas Instruments has 4.8 ns propagation delay at 3.3V, suitable for applications requiring 100 MHz fmax and 50 pF load capacitance. With a small outline package style, it is ideal for commercial temperature grade surface mount designs needing 10 true outputs.
2351
8.2 mm
50 pF
70 Cel
0 Cel
3-STATE WITH SERIES RESISTOR
SSOP24,.3
15 mA
4.8 ns
.5 ns
BICMOS
COMMERCIAL
100 MHz
CDC2351DWRG4
CDC2351DWRG4 clock driver by Texas Instruments features a 4.8 ns propagation delay at 3.3V, suitable for applications requiring precise timing control. With 24 terminals and a small outline package style, it offers 10 true outputs with a max frequency of 100 MHz. Ideal for commercial-grade temperature environments, this BICMOS technology device is designed for surface mount assembly with standard input conditioning.
15.4 mm
SOP
SOP24,.4
SMALL OUTLINE
2.65 mm
1.27 mm
7.5 mm
CDC2516DGGRG4
CDC2516DGGRG4 clock driver by Texas Instruments operates at 3.3V with load capacitance of 30pF. It features 16 true outputs, a max operating temperature of 70°C, and is ideal for applications requiring standard input conditioning in clock drivers & buffers.
2516
30 pF
16
125 MHz
CDC2536DBRG4
Texas Instruments CDC2536DBRG4 is a Clock Driver & Buffer with 28 terminals, operating at 3.3V. It features 6 true outputs, 100MHz min fmax, and 15pF load capacitance. Ideal for applications requiring clock signal distribution in commercial temperature environments.
2536
R-PDSO-G28
10.2 mm
15 pF
28
6
SSOP28,.3
2 mA
CDC319DBRG4
CDC319DBRG4 clock driver by Texas Instruments has a propagation delay of 150ns, operates at 3.3V, and offers 10 true outputs. It is used in applications requiring precise timing control and signal buffering, with a package style of small outline shrink pitch for compact designs.
319
400 pF
6 Amp
.5 mA
3.6 ns
.25 ns
3.465 V
3.135 V
CDC328ADBRG4
Texas Instruments CDC328ADBRG4 is Clock Driver & Buffer with 5ns Propagation Delay, 16 Terminals, and 100MHz Min fmax. Ideal for industrial applications requiring precise clock signal distribution in a compact Small Outline package with Surface Mount capability.
COMBINATIONS OF TRUE AND COMPLEMENTARY OUTPUTS POSSIBLE WITH POLARITY-CONTROL INPUTS
328
R-PDSO-G16
6.2 mm
48 Amp
SSOP16,.3
5 ns
1 ns
5.25 V
4.75 V
CDC340DWRG4
The Texas Instruments CDC340DWRG4 clock driver has a propagation delay of 4.8 ns, operates at a nominal voltage of 5V, and offers 8 true outputs. It is ideal for applications requiring precise timing synchronization in commercial-grade electronic systems.
340
12.825 mm
8
SOP20,.4
.6 ns
7.52 mm
40 MHz
CDC341DWG4
CDC341DWG4 by Texas Instruments is a Clock Driver & Buffer with 4.9ns Propagation Delay, 50pF Load Capacitance, and 80MHz Min fmax. It is used in applications requiring precise clock signal distribution in electronic circuits.
341
33 mA
4.9 ns
80 MHz
CDC341DWRG4
The Texas Instruments CDC341DWRG4 clock driver has a propagation delay of 4.9 ns, operates at 5V, and offers 8 true outputs. It is used in applications requiring precise timing control, such as data communication systems and digital signal processing equipment.
CDC351DWRG4
Texas Instruments CDC351DWRG4 is Clock Driver & Buffer with 4.2ns Propagation Delay, 3.3V Supply Voltage, and 50pF Load Capacitance. Ideal for applications requiring precise timing synchronization in commercial-grade electronic systems.
351
32 Amp
25 mA
4.2 ns
.8 ns
CDC536DBG4
Texas Instruments CDC536DBG4 is a Clock Driver & Buffer with 28 terminals, operating at 3.3V. It offers 6 true outputs, 100MHz fmax, and 30pF load capacitance. Ideal for applications requiring precise clock distribution in commercial temperature environments.
536
CDCLVP110VFG4
CDCLVP110VFG4 by Texas Instruments is a clock driver with 0.37 ns propagation delay, 2.5V nominal voltage, and 10 true outputs. It is used in applications requiring differential mux input conditioning, operates at industrial temperature grade, and has a max power supply current of 380 mA.
LVECL MODE: VCC = 0V WITH VEE = -2.375V TO -3.8V; ALSO OPERATES AT 3.3 V SUPPLY
110
DIFFERENTIAL MUX
S-PQFP-G32
5 Amp
32
LQFP
QFP32,.35SQ,32
FLATPACK, LOW PROFILE
-2.5/-3.3/2.5/3.3
380 mA
.37 ns
.03 ns
1.6 mm
3.8 V
2.375 V
3500 MHz
CDCV855IPWRG4
CDCV855IPWRG4 by Texas Instruments is a clock driver with 28 terminals, operating at 2.5V. It features a propagation delay of 4.5ns and supports differential input conditioning. With a package size of 9.7mm x 4.4mm, it is ideal for industrial applications requiring precise timing control in compact designs.
855
9.7 mm
4
TSSOP28,.25
4.5 ns
.05 ns
180 MHz
CDCVF2310PWRG4
CDCVF2310PWRG4 by Texas Instruments is a clock driver with 3.5 ns propagation delay, suitable for industrial applications. It operates at a nominal voltage of 2.5V and has 24 terminals in a small outline package style. With 10 true outputs and max fmax of 200 MHz, it offers reliable performance in various electronic systems.
CDC
.17 ns
CDCVF2505DG4
CDCVF2505DG4 by Texas Instruments is a clock driver with 0.15 ns propagation delay at 3.3V, suitable for industrial applications. It features 4 true outputs, 25 pF load capacitance, and operates within -40 to 85 °C temperature range. Ideal for systems requiring precise timing control in compact designs.
2505
R-PDSO-G8
4.9 mm
25 pF
SOP8,.25
.15 ns
1.75 mm
3.9 mm
CDC7005RGZRG4
CDC7005RGZRG4 clock driver by Texas Instruments features 48 terminals, 3.3V nominal voltage, and 0.95ns propagation delay. Ideal for industrial applications requiring differential input conditioning and 800MHz min fmax with a temperature range of -40 to 85°C.
INTEGRATED LOW-NOISE OP AMP
.95 ns
.06 ns
800 MHz
CDC7005RGZR
CDC7005RGZR clock driver by Texas Instruments features a propagation delay of 0.95 ns, 3-STATE output characteristics, and operates in an industrial temperature range from -40 to 85°C. With a package style of CHIP CARRIER and very thin profile, it is suitable for applications requiring differential input conditioning and a supply voltage range of 3V to 3.6V.
CDCFR83ADBQG4
CDCFR83ADBQG4 clock driver by Texas Instruments operates at a frequency of up to 533 MHz, with a supply voltage range of 3.135V to 3.465V. It features a small outline package style and is suitable for industrial applications requiring precise timing synchronization in electronic systems. The device has a wide operating temperature range from -40°C to 85°C, making it ideal for various environmental conditions.
CDCF
8.65 mm
.635 mm
533 MHz
CDCFR83ADBQRG4
Texas Instruments CDCFR83ADBQRG4 clock driver features 533 MHz fmax, 3.3V supply voltage, and -40 to 85°C operating temperature range. Ideal for industrial applications requiring high-speed clock signal distribution in compact designs with surface mount capability.
CDCM1804RGETG4
CDCM1804RGETG4 clock driver by Texas Instruments features a propagation delay of 0.6ns, operates at a supply voltage of 3.3V, and offers differential input conditioning. Ideal for industrial applications requiring precise timing synchronization in compact spaces due to its small chip carrier package style with a width and length of 4mm each.
3 LVPECL DIFFERENTIAL CLOCK OUTPUTS AND SINGLE ENDED LVCMOS OUTPUT
1803
S-PQCC-N24
4 mm
LCC24,.16SQ,20
2.6 ns
CDCP1803RGETG4
Texas Instruments CDCP1803RGETG4 is a clock driver with 0.6 ns propagation delay, 3.3V supply voltage, and 24 terminals. It is used in industrial applications for differential input conditioning and 800 MHz min fmax, suitable for surface mount with a square package shape.
CDCR83ADBQG4
Texas Instruments CDCR83ADBQG4 clock driver features 24 terminals, operates b/w -40 to 85°C, with a supply voltage range of 3.135V to 3.465V. It is ideal for industrial applications requiring precise timing and signal buffering in compact designs.
CDCR83ADBQRG4
CDCR83ADBQRG4 clock driver by Texas Instruments operates at 3.3V, with a max frequency of 400MHz and output characteristics in 3-STATE. It is used in industrial applications, featuring a small outline package style and dual terminal position for efficient performance.
36 Amp
70 mA
400 MHz
CDCVF857RHATG4
The Texas Instruments CDCVF857RHATG4 clock driver features 40 terminals, 3.5ns propagation delay, and 10 true outputs. With a supply voltage of 2.5V, it is ideal for industrial applications requiring differential input conditioning and a load capacitance of 14pF. The chip carrier package with a very thin profile makes it suitable for space-constrained designs.
CDC2536DBG4
CDC2536DBG4 clock driver by Texas Instruments operates at 3.3V with 28 terminals and a load capacitance of 15pF. It features a max operating temperature of 70°C, BICMOS technology, and is suitable for applications requiring clock drivers & buffers in commercial-grade environments.
CDC318ADLG4
CDC318ADLG4 clock driver by Texas Instruments features a propagation delay of 4.5 ns, 48 terminals, and operates at a supply voltage of 3.3V. It is ideal for applications requiring precise timing synchronization in electronic systems.
318
15.875 mm
24 Amp
18
SSOP48,.4
2.79 mm
7.49 mm
CDC318ADLRG4
CDC318ADLRG4 clock driver by Texas Instruments features a propagation delay of 4.5 ns, operates at a nominal voltage of 3.3V, and offers 18 true outputs. This device is ideal for applications requiring precise timing synchronization in commercial temperature environments.
CDC329ADG4
CDC329ADG4 clock driver by Texas Instruments features 16 terminals, 5V nominal voltage, and 5.9ns propagation delay. Ideal for industrial applications requiring a small outline package style and standard input conditioning. Operating temperature range from -40 to 85°C makes it suitable for various electronic systems.
329
9.9 mm
SOP16,.25
40 mA
5.9 ns
1.5 ns
CDC337DWG4
LOW SKEW CLOCK DRIVER; Temperature Grade: INDUSTRIAL; Terminal Form: GULL WING; No. of Terminals: 20; Package Code: SOP; Package Shape: RECTANGULAR;
337
9 ns
.9 ns
SN74SSQE32882ZCJR
SN74SSQE32882ZCJR by Texas Instruments is a clock driver & buffer with 176 terminals in a grid array package. Operating at 1.5V, it features CMOS technology and 0.65mm terminal pitch. Ideal for applications requiring standard input conditioning and surface mount compatibility.
S
S-PBGA-B176
15 mm
176
TFBGA
BGA176,8X22,25
GRID ARRAY
1.5
Other Logic ICs
CDCLVP110MVFRG4
CDCLVP110MVFRG4 by Texas Instruments is a Clock Driver & Buffer with 0.37 ns Propagation Delay, 2.5V Nominal Voltage, and 10 True Outputs. It is used in applications requiring high-speed signal conditioning and differential multiplexing in industrial temperature environments.
LVECL MODE: VCC = 0V WITH VEE = -2.375V TO -3.8V
CDC339DBG4
The Texas Instruments CDC339DBG4 clock driver has a propagation delay of 9ns, operates at 5V, and offers 8 true outputs. It is used in industrial applications requiring precise timing control and features a small outline package with surface mount capability.
85 mA
CDC536DBRG4
The Texas Instruments CDC536DBRG4 is a Clock Driver & Buffer with 28 terminals, operating at 3.3V. It features a load capacitance of 30pF and supports a max frequency of 100MHz. Ideal for applications requiring precise clock distribution in commercial temperature environments.
ADCLK946BCPZ
Analog Devices
ADCLK946BCPZ by Analog Devices is a Clock Driver with 0.22 ns Propagation Delay, 3.3V Supply Voltage, and Differential Input Conditioning. It is used in applications requiring precise timing synchronization such as high-speed data communication systems or networking equipment.
946
S-XQCC-N24
UNSPECIFIED
.22 ns
.28 ns
3.63 V
2.97 V
BIPOLAR
CDCF5801ADBQG4
Texas Instruments CDCF5801ADBQG4 clock driver features 24 terminals, operates at a supply voltage of 3.3V, with a max frequency of 280MHz. Ideal for industrial applications requiring precise timing and signal synchronization in compact designs.
DIFFERENTIAL/SINGLE-ENDED OUTPUT AVAILABLE
5801
40 Amp
SSOP24,.24
280 MHz
CDCF5801ADBQRG4
CDCF5801ADBQRG4 clock driver by Texas Instruments operates at 3.3V, with a max frequency of 280MHz and 24 terminals in a small outline package. Ideal for industrial applications requiring precise timing control and signal buffering.
CDCF5801ADBQR
CDCF5801ADBQR clock driver by Texas Instruments operates at 3.3V, with a max frequency of 280MHz and 24 terminals in a small outline package. It is designed for industrial applications requiring precise timing control and features a temperature range of -40 to 85°C.
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