Provide Feedback

Ensuring Precise Timing and Synchronization in Electronic Systems

Enable Faster Innovation in Timing and Clock Design

LiveBench empowers semiconductor manufacturers to streamline component selection and validation for their system design engineer (SDE) customers in the critical Timing and Clock domain. Our platform provides instant access to a comprehensive suite of real hardware labs specifically designed to evaluate clock generators, oscillators, buffers, and other timing-centric components. This enables SDEs to rapidly assess performance and ensure flawless integration into their designs, saving weeks or even months of development time.

FAE Support Time
40 Hrs
Increase ROI
1 X
Increase SQLs

Digital Advantage for Timing and Clock Validation

By empowering SDEs with instant access to real hardware evaluation for Timing and Clock components, LiveBench shortens evaluation cycles and accelerates time for design wins. 

Reduced EVK Shipping Costs

Enable your customers to configure and test timing OCs directly in LiveBench, while you save on shipping and logistics costs.

Reduced reliance on FAE Support

Minimize back-and-forth communication and expedite the configuration process.

Usage Data Analytics

Monitor usage data and get insights for on customer behaviour and preferences.

Faster Sales Cycles

Streamlined configuration with LiveBench shortens sales cycles and increases revenue.

Ready to change the way you connect with system designers?

Contact us today to learn how LiveBench can transform your timing and clock component GTM strategy.

Key Categories Within LiveBench Timing and Clock Labs

MEMS Oscillators

Ensure high reliability and low jitter in various environmental conditions.

MEMS Oscillators offer access to a range of MEMS-based oscillators known for their robustness and precision. Engineers can assess their performance under different shock, vibration, and temperature scenarios to ensure they meet stringent requirements.

Clock Generators & Synthesizers

Evaluate jitter performance, frequency stability, and output options for various clock generation needs.

Clock Generators & Synthesizers provide access to devices like VCXOs, OCXOs, and DSP-based clock synthesizers. Engineers can assess jitter characteristics, frequency stability across temperature variations, and output signal integrity for precise timing requirements.


Test the stability and accuracy of various resonator technologies.

Resonators labs offer a comprehensive range of crystal and MEMS resonators. Engineers evaluate frequency accuracy, stability, and performance across different environmental conditions for precise timing applications.

Clock Buffers

Validate signal integrity, skew performance, and fanout capabilities for reliable clock distribution.

Clock Buffers include high-speed buffers designed to maintain signal fidelity and minimize skew. Engineers assess propagation delay and performance across multiple outputs to ensure synchronized clock distribution.

TCXOs (Temperature Compensated Crystal Oscillators)

Achieve high stability under varying temperature conditions.

Super-TCXOs provide access to temperature compensated oscillators known for exceptional stability. Engineers test performance across a wide temperature range for reliable operation in critical applications.

VCXOs (Voltage Controlled Crystal Oscillators)

Fine-tune frequencies with high precision.

VCXOs feature voltage controlled oscillators allowing precise frequency adjustments. Engineers evaluate tuning range, linearity, and stability to meet specific design requirements.

Phase-Locked Loops (PLLs)

Analyze lock time, jitter reduction, and frequency multiplication/division capabilities of PLL devices.

PLL labs provide access to various PLL integrated circuits (ICs) used for frequency synthesis and clock signal manipulation. Engineers assess lock time, jitter reduction, and frequency accuracy for precise timing applications.

Jitter Cleaners / Network Synchronizers

Minimize jitter and synchronize clocks across networks.

Jitter Cleaners and Network Synchronizers reduce jitter and maintain clock synchronization in networked systems. Engineers evaluate phase noise reduction and stability for stable clock signal distribution.

Precision Timing Solutions

Ensure high-accuracy timing for critical applications.

Precision Timing labs provide high-accuracy solutions including atomic clocks and stable oscillators. Engineers test long-term stability, accuracy, and performance under various conditions for critical timing needs.


Optimize timing in ultra-low-power applications.

µPower Oscillators offer low-power oscillators designed for battery-operated devices. Engineers evaluate power consumption, startup time, and performance to optimize operation in low-power environments.

Time Delay Lines

Characterize delay profiles and signal integrity for precise timing adjustments.

Time Delay Lines offer programmable and fixed delay elements for precise timing adjustments. Engineers assess delay accuracy and signal fidelity after introducing intentional time delays.

Real-Time Clocks (RTCs)

Ensure accurate timekeeping and power efficiency in low-power applications.

Real-Time Clocks provide accurate timekeeping for low-power applications. Engineers evaluate timekeeping accuracy, power consumption, and integration capabilities for reliable performance in embedded systems.

Frequency Multipliers/Dividers

Precisely control clock frequencies through multiplication and division.

Frequency Multipliers/Dividers modify clock frequencies with precise control. Engineers assess accuracy and stability to ensure precise frequency control in their designs.

Spread Spectrum Clock Generators (SSCGs)

Reduce electromagnetic interference (EMI) through frequency modulation.

Spread Spectrum Clock Generators reduce EMI by modulating clock frequencies. Engineers evaluate effectiveness in reducing interference and impact on signal integrity.

Clock Multiplexers

Seamlessly switch between multiple clock sources.

Clock Multiplexers enable selection and switching between multiple clock sources. Engineers assess switching performance, output stability, and signal integrity for reliable clock selection.


Dive Deeper

Explore our comprehensive library of materials to gain valuable insights, discover success stories, and learn how our solutions can benefit your specific needs.
Close-up of a complex blue circuit board with various components and connectors.
Power Up Your Vision Projects: Texas Instruments’ SK-AM62A-LP Now on LiveBench!
Read More
Close-up view of semiconductor wafers with intricate circuitry patterns. The image features a blue and pink lighting effect, highlighting the details on the chip.
Wide-Bandgap Semiconductors: The Future of Electronics Beyond Silicon
Read More
Technician using an oscilloscope and soldering equipment in an electronics lab.
Pulse Width Modulation (PWM): Bridging Digital and Analog Signals for Multiple Applications
Read More


Can semiconductor manufacturers restrict access to specific labs?

Absolutely! LiveBench understands the importance of protecting your intellectual property (IP). We offer granular user access controls, allowing you to decide which labs each SDE customer can access. This flexibility enables you to:

  • Tailor Access Based on Agreements: Grant access to labs relevant to specific product lines or customer agreements.
  • Protect Sensitive Technologies: Restrict access to labs containing highly sensitive or confidential hardware components.
  • Manage Customer Tiers: Offer different levels of access based on customer tier or partnership agreements.

LiveBench utilizes a multi-layered security approach to ensure authorized access:

  • User Authentication: Each SDE customer is assigned a unique login and password for secure access to the platform.
  • Role-Based Access Control (RBAC): Administrators can assign specific roles to SDE users, with each role granting access to predefined sets of labs.
  • Lab-Level Permissions: In addition to role-based controls, you can further restrict access to individual labs within each category.

LiveBench prioritizes data security. We employ robust measures to safeguard your IP, including:

  • Data Encryption: All data transmitted between the SDE user and LiveBench servers is encrypted using industry-standard protocols.
  • Secure Data Storage: Test data is stored on secure servers with access restricted to authorized personnel.
  • Regular Security Audits: LiveBench undergoes regular security audits to identify and address any potential vulnerabilities.

LiveBench offers Single Sign-On (SSO) capabilities, allowing you to integrate user authentication with your existing customer management systems. This simplifies user management and ensures consistent access controls across all platforms.

LiveBench provides comprehensive documentation and tutorials for each lab setup and equipment operation. Additionally, a support team is available to answer your questions and assist with troubleshooting.

Was the content on this page helpful?