inventory:6,357
Infineon Technologies
TSOP-32
LTC6957-1 (23)
LTC6957-1 is available from Analog Devices at Xecor. Designed for low phase noise signal buffering, driving, and logic level conversion, the LTC6957-1 offers optimized conversion of sine wave signals to logic levels, low additive jitter (45fsRMS), and a frequency range up to 300MHz. Available in multiple package options, including 12-Lead MSOP and 3mm × 3mm DFN, it is ideal for high-speed data acquisition, broadband wireless transceivers, medical imaging, and test and measurement applications. Whether used in system reference frequency distribution or military and secure radio systems, this series ensures high performance, low skew (3ps typical), and efficient operation for demanding applications. Xecor is an authorized distributor for Analog Devices. Please view our extensive selection of the LTC6957-1 series below.
| Part Number | Description | Package | Inventory | Add To Bom |
|---|---|---|---|---|
| LTC6957IMS-2#PBF | Dual output buffer and driver with LVDS outputs | MSOP-12 | 7,460 | |
| LTC6957HMS-1#PBF | Low phase noise clock buffer/divider providing multiple clean outputs with excellent jitter performance. | MSOP-12 | 5,932 | |
| LTC6957HMS-3#PBF | Experience precision timing with the powerful LTC6957HMS-3#PBF chip by Analog Devices | MSOP-12 | 7,172 | |
| LTC6957IDD-2#PBF | High-performance, dual-output buffer and driver with low phase noise | SON-12 | 9,160 | |
| LTC6957IDD-3#PBF | Clock Fanout Buffer 2-OUT 1-IN 1:2 12-Pin DFN EP Tube | SON-12 | 7,981 | |
| LTC6957IMS-3#PBF | Clock Fanout Buffer 2-OUT 1-IN 1:2 12-Pin MSOP Tube | MSOP-12 | 5,343 | |
| LTC6957HMS-2#PBF | Logic level translator with 1 channel in MSOP-12 package | MSOP-12 | 5,272 | |
| LTC6957IDD-1#PBF | Clock Fanout Buffer 2-OUT 1-IN 1:2 12-Pin DFN EP Tube | 12-WFDFNExposedPad | 7,032 | |
| LTC6957IMS-1#TRPBF | Ideal for applications requiring high-frequency signal amplification. | MSOP-12 | 5,701 | |
| LTC6957IMS-1#PBF | Low phase noise clock buffer and divider with multiple clean outputs for synchronization systems. | MSOP-12 | 4,699 | |
| LTC6957IDD-3#TRPBF | Outputs, 1 Input, 1 to 2 Ratio, 12-Pin DFN with Exposed Pad, Tape and Reel | DFN-12 | 6,218 | |
| LTC6957HMS-4#TRPBF | Streamline circuit design with integrated dual output functionality | MSOP-12 | 8,391 | |
| LTC6957HMS-1#TRPBF | LTC6957HMS-1#TRPBF: Enhance clock signal integrity | MSOP-12 | 6,002 | |
| LTC6957HMS-2#TRPBF | Single-input, dual-output clock buffer with low sk | MSOP-12 | 2,260 | |
| LTC6957HMS-4#PBF | Clock Fanout Buffer 2-OUT 1-IN 1:2 12-Pin MSOP Tube | MSOP-12 | 7,771 | |
| LTC6957IDD-2#TRPBF | Clock Fanout Buffer 2-OUT 1-IN 1:2 12-Pin DFN EP T/R | DFN-12 | 6,264 | |
| LTC6957IDD-1#TRPBF | Clock Fanout Buffer 2-OUT 1-IN 1:2 12-Pin DFN EP T/R | DFN-12 | 7,151 | |
| LTC6957IDD-4#PBF | Clock Fanout Buffer 2-OUT 1-IN 1:2 12-Pin DFN EP Tube | DFN-12 | 6,003 | |
| LTC6957IDD-4#TRPBF | Clock Fanout Buffer 2-OUT 1-IN 1:2 12-Pin DFN EP T/R | DFN-12 | 9,725 | |
| LTC6957IMS-3#TRPBF | Clock Fanout Buffer 2-OUT 1-IN 1:2 12-Pin MSOP T/R | MSOP-12 | 7,806 | |
| LTC6957IMS-2#TRPBF | Clock Fanout Buffer 2-OUT 1-IN 1:2 12-Pin MSOP T/R | MSOP-12 | 5,200 | |
| LTC6957IMS-4#PBF | Clock Fanout Buffer 2-OUT 1-IN 1:2 12-Pin MSOP Tube | MSOP-12 | 5,208 | |
| LTC6957IMS-4#TRPBF | Suitable for use with clocks or frequency generation circuits | MSOP-12 | 4,650 |
Key Featrues
Low Phase Noise Buffer/Driver: The LTC6957 series offers exceptionally low phase noise, ensuring high signal integrity and stability. This feature is crucial for applications like high-speed data acquisition and broadband wireless transceivers, where precise timing and minimal signal distortion are essential for optimal performance.
Optimized Sine Wave to Logic Level Conversion: The device is designed to efficiently convert sine wave signals to various logic levels (LVPECL, LVDS, CMOS). This capability enhances flexibility in system design, allowing seamless integration with different logic families and improving overall system efficiency.
Additive Jitter as Low as 45fsRMS: With additive jitter as low as 45fsRMS (for LTC6957-1), the LTC6957 series ensures minimal timing errors. This is particularly beneficial for high-speed ADC/DAC clocking and military secure radios, where ultra-low jitter is critical for maintaining signal accuracy and reliability.
Wide Frequency Range Up to 300MHz: The device supports a frequency range up to 300MHz, making it suitable for a broad spectrum of applications, including medical imaging and test and measurement systems. This wide range ensures compatibility with high-frequency signals, enhancing the device's versatility.
Low Skew of 3ps Typical: The LTC6957 series features low skew (3ps typical), which is essential for synchronous systems requiring precise signal alignment. This characteristic is particularly valuable in high-speed data acquisition and clock distribution networks, where minimizing timing discrepancies is critical for system performance.
Optimized Sine Wave to Logic Level Conversion: The device is designed to efficiently convert sine wave signals to various logic levels (LVPECL, LVDS, CMOS). This capability enhances flexibility in system design, allowing seamless integration with different logic families and improving overall system efficiency.
Additive Jitter as Low as 45fsRMS: With additive jitter as low as 45fsRMS (for LTC6957-1), the LTC6957 series ensures minimal timing errors. This is particularly beneficial for high-speed ADC/DAC clocking and military secure radios, where ultra-low jitter is critical for maintaining signal accuracy and reliability.
Wide Frequency Range Up to 300MHz: The device supports a frequency range up to 300MHz, making it suitable for a broad spectrum of applications, including medical imaging and test and measurement systems. This wide range ensures compatibility with high-frequency signals, enhancing the device's versatility.
Low Skew of 3ps Typical: The LTC6957 series features low skew (3ps typical), which is essential for synchronous systems requiring precise signal alignment. This characteristic is particularly valuable in high-speed data acquisition and clock distribution networks, where minimizing timing discrepancies is critical for system performance.
Applications
High-Speed ADC Clock Driver: The LTC6957 is ideal for driving high-speed ADC clock inputs, ensuring low phase noise and precise timing. Its dual-output configuration and CMOS logic compatibility make it suitable for high-speed data acquisition systems in medical imaging and test and measurement applications.
Broadband Wireless Transceiver Clock Distribution: The LTC6957 excels in distributing low-phase-noise clock signals in broadband wireless transceivers. Its ability to handle frequencies up to 300 MHz and its low additive jitter ensure reliable performance in wireless communication systems, including 5G and IoT applications.
Military and Secure Radio Timing Trigger: The LTC6957 is well-suited for military and secure radio systems, providing low-phase-noise clock signals for timing triggers. Its robust design and wide operating temperature range (-40°C to 125°C) ensure reliable operation in harsh environments.
Precision DAC Clock Synchronization: The LTC6957 is perfect for synchronizing clock signals in precision DAC applications. Its low skew and high-frequency capabilities ensure accurate signal conversion, making it ideal for high-performance audio and video processing systems.
Broadband Wireless Transceiver Clock Distribution: The LTC6957 excels in distributing low-phase-noise clock signals in broadband wireless transceivers. Its ability to handle frequencies up to 300 MHz and its low additive jitter ensure reliable performance in wireless communication systems, including 5G and IoT applications.
Military and Secure Radio Timing Trigger: The LTC6957 is well-suited for military and secure radio systems, providing low-phase-noise clock signals for timing triggers. Its robust design and wide operating temperature range (-40°C to 125°C) ensure reliable operation in harsh environments.
Precision DAC Clock Synchronization: The LTC6957 is perfect for synchronizing clock signals in precision DAC applications. Its low skew and high-frequency capabilities ensure accurate signal conversion, making it ideal for high-performance audio and video processing systems.