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Precision Probe Holders for Semiconductor Testings

Explore high-precision probe holders designed to optimize your semiconductor testing setup. Discover SEMISHARE Prober's reliable probe holder solutions.

SEMISHARE: Revolutionizing Semiconductor Testing Precision - Exploring Cutting-Edge Probe Holder Technology

In the rapidly evolving semiconductor industry, advancements in testing technology are paramount. SEMISHARE, a pioneer in this technological revolution, is redefining the standards of precision and efficiency in semiconductor testing with its innovative probe holder solutions. This article delves into how SEMISHARE's probe holder technology is propelling semiconductor testing to new heights, exploring the intricacies of probe holders and their critical role in ensuring the quality and reliability of semiconductor devices.

Probe Holders: The Critical Pillar of Semiconductor Testing

Often underestimated, probe holders play an indispensable role in the semiconductor testing process. But what exactly is the function of a probe holder? At its core, a probe holder is the unsung hero of semiconductor testing, providing the foundation for accurate and reliable measurements.

The primary functions of a probe holder include:

1. Precise positioning of probes: In the world of semiconductor testing, precision is measured in microns. SEMISHARE's probe holders are engineered to provide positioning accuracy down to sub-micron levels, ensuring that probes make contact with exactly the right points on a device under test (DUT). This level of precision is critical for testing modern semiconductors with ever-shrinking feature sizes.

2. Providing stable support: Stability is crucial in semiconductor testing. Even the slightest vibration or movement can lead to inaccurate results. SEMISHARE's probe holders are designed with advanced vibration dampening technologies, ensuring that probes remain stable throughout the testing process. This stability is particularly important for long-duration tests or when testing sensitive devices.

3. Ensuring reliable contact between probes and devices under test: The quality of the electrical contact between the probe and the DUT can make or break a test. SEMISHARE's probe holders are designed to maintain consistent contact pressure, ensuring reliable electrical connections. This is achieved through innovative spring mechanisms and materials that can withstand thousands of test cycles without degradation.

4. Facilitating quick probe replacement and adjustment: In a production environment, time is money. SEMISHARE's probe holders are designed for quick and easy probe replacement and adjustment, minimizing downtime and maximizing throughput. The holders feature tool-less designs and quick-release mechanisms that allow for rapid probe changes without compromising precision.

SEMISHARE's probe holder design philosophy is to push these basic functions to the extreme while adding innovative features to meet the stringent requirements of modern semiconductor testing. This includes incorporating advanced materials like carbon fiber composites for improved thermal stability and ceramic components for superior electrical isolation.

Diverse Applications of Probes

Probes have a wide range of applications in semiconductor testing. The versatility of probes makes them indispensable in various testing scenarios:

1. Parametric testing: This fundamental type of testing involves measuring electrical characteristics such as resistance, capacitance, and inductance. SEMISHARE's probe holders are designed to accommodate a wide range of probe types suitable for different parametric tests. For instance, our high-precision DC probe holders are ideal for accurate resistance measurements, while our specialized RF probe holders excel in high-frequency capacitance measurements.

2. Functional testing: Verifying the logical functions of devices is crucial in semiconductor manufacturing. SEMISHARE's probe holders support multi-point probing, allowing for simultaneous testing of multiple pins on complex logic devices. This capability is essential for ensuring that integrated circuits function correctly under various input conditions.

3. Failure analysis: Locating and identifying defects is a critical aspect of semiconductor quality control. SEMISHARE's probe holders are compatible with various failure analysis techniques, including electron beam probing and laser voltage probing. The precision positioning capabilities of our holders allow for pinpoint accuracy in identifying fault locations on a chip.

4. High-frequency testing: Evaluating RF performance is becoming increasingly important with the growth of wireless technologies. SEMISHARE's specialized RF probe holders are designed to maintain signal integrity at frequencies up to 110 GHz and beyond. These holders feature carefully designed ground planes and shielding to minimize signal loss and interference.

5. Reliability testing: Simulating performance under long-term use conditions is essential for predicting the lifespan of semiconductor devices. SEMISHARE's probe holders are built to withstand harsh testing conditions, including extreme temperatures and high voltages. Our thermal probe holders, for example, can operate reliably in temperatures ranging from -65°C to +300°C, allowing for comprehensive reliability testing.

Specialized Uses of Probe Tools

Probe tools play a specialized role in semiconductor testing. Their main uses include:

1. Establishing precise electrical contacts: SEMISHARE's probe tools are designed with ultra-fine tips, some as small as 1 micron in diameter. These tips can make contact with the smallest bond pads and test structures on modern semiconductor devices. Our proprietary tip materials and coatings ensure low contact resistance and minimal pad damage, even after thousands of touchdowns.

2. Applying and measuring electrical signals: From low-current measurements in the femtoamp range to high-power tests handling hundreds of watts, SEMISHARE's probe tools cover the full spectrum of electrical testing needs. Our specialized probes include Kelvin probes for accurate low-resistance measurements, high-voltage probes for power device testing, and triaxial probes for ultra-low current measurements.

3. Performing micron-level positioning and movement: SEMISHARE's probe positioners offer multi-axis control with resolution down to 0.1 microns. This level of precision is crucial for probing advanced semiconductor devices with extremely small feature sizes. Our positioners use high-precision stepper motors and advanced feedback systems to achieve this level of control.

4. Maintaining stability under various environmental conditions: Semiconductor testing often involves extreme conditions. SEMISHARE's probe tools are designed to operate reliably in vacuum chambers, at cryogenic temperatures, and under high-temperature conditions. Special materials and designs are used to minimize thermal expansion and ensure consistent performance across a wide range of environmental conditions.

SEMISHARE Probe Holder Product Line

SEMISHARE offers a comprehensive range of probe holders to meet diverse testing needs:

High Voltage Probe Holder HV-T-3KV

Designed for high voltage testing, featuring:

- Maximum test voltage: 3KV

- Ultra-low leakage current: 5pA/3000KV (20μm tip diameter)

- Wide operating temperature range: -55°C to 300°C

- Large adjustable height range for high adaptability

This probe holder is ideal for testing power semiconductors, high-voltage ICs, and other devices that operate at elevated voltages. Its unique design incorporates advanced insulation materials and optimized field control structures to prevent arcing and ensure accurate high-voltage measurements.

Triaxial Probe Holder T2H/T2L

Designed for ultra-low leakage measurements:

- Extremely low leakage: 100fA/10V (20μm tip diameter)

- Wide operating temperature range

- Easy installation and probe replacement

- Available in two sizes

The triaxial design of these probe holders provides superior shielding, making them ideal for measuring extremely low currents in devices such as photodiodes, high-impedance sensors, and advanced CMOS circuits. The dual-size option allows for flexibility in different testing setups.

Coaxial Probe Holder C2H/C2L

Balancing performance and versatility:

- Low leakage: 10pA/10V (20μm tip diameter)

- Wide operating temperature range

- Easy installation and use

- Two size options available

These coaxial probe holders offer a good balance of performance and cost, making them suitable for a wide range of testing applications. They excel in RF testing up to several GHz and provide good shielding for sensitive measurements.

RF Adjusting Holder RF2

Designed for precision RF testing:

- Multi-point probe leveling knob, adjustable ±8°

- High accuracy: 0.1°

- Large travel adjustment range

- Compatible with X series semi-automatic and C series high/low temperature probe stations

This holder is optimized for high-frequency testing, with careful attention paid to maintaining signal integrity. Its precise adjustment capabilities allow for optimal probe landing, critical for accurate RF measurements.

RF Adjusting Holder RF3

For specialized testing needs:

- Multi-point probe leveling

- High accuracy

- Suitable for probe stations with octagonal box structure

- Optional high current and shunt probe options

The RF3 holder builds on the capabilities of the RF2, adding features for specialized testing scenarios. Its compatibility with octagonal box structures makes it ideal for certain types of shielded testing environments.

Innovative Features of SEMISHARE Probe Holders

1. Micron-level precise positioning: Advanced mechanical design for sub-micron positioning accuracy.

2. Thermal stability: Special materials and structural design maintain stable performance over a wide temperature range.

3. Optimized electrical performance: Careful shielding and grounding design minimize interference and noise.

4. Modular design: Easy upgrades and maintenance, extending service life.

5. Ergonomics: Easy operation, reducing operator fatigue.

6. Compatibility: Compatible with various probes and test systems, enhancing testing flexibility.

7. Intelligence: Integrated sensors and control systems for automated adjustment and data collection.

8. Environmental adaptability: Suitable for various testing environments, including vacuum, low temperature, and high temperature conditions.

Probe Holder Selection Guide

Choosing the right probe holder is crucial for ensuring testing accuracy. SEMISHARE offers the following selection advice:

1. Consider test electrode size: Match the probe holder to the size of the test pads on your device. SEMISHARE offers holders suitable for pad sizes ranging from a few microns to several millimeters.

2. Evaluate cable type requirements: Determine whether you need ordinary, coaxial, or triaxial cables based on your signal integrity and shielding requirements. Our holders are designed to accommodate various cable types seamlessly.

3. Determine required mechanical precision: Assess the level of positioning accuracy needed for your tests. SEMISHARE's holders offer precision ranging from standard micrometer-level to advanced nanometer-level control.

4. Analyze specific testing application needs: Consider factors such as frequency range, power levels, and environmental conditions. Our application engineers can help you select the optimal holder for your specific testing scenario.

5. Consider environmental factors: Take into account temperature, humidity, and vacuum requirements. SEMISHARE offers specialized holders for extreme environments, ensuring reliable performance under challenging conditions.

6. Assess automation and integration requirements: Determine if you need holders compatible with automated test systems. Our holders can be integrated with various automation platforms for enhanced productivity.

7. Consider future scalability: Choose a holder that can adapt to your future testing needs. SEMISHARE's modular designs allow for easy upgrades and modifications as your requirements evolve.

SEMISHARE's Commitment to Innovation in Probe Holder Technology

SEMISHARE is dedicated to continuously advancing probe holder technology. Our R&D focuses include:

1. New material applications: We are researching nanomaterials and composites to improve performance and durability. This includes exploring graphene-based materials for enhanced thermal and electrical properties.

2. Precision mechanics: Our engineers are developing new adjustment mechanisms for nanometer-level positioning. This involves innovative use of piezoelectric actuators and advanced feedback systems.

3. Intelligent control: We are integrating AI and machine learning algorithms for adaptive testing. This includes developing smart probe holders that can automatically optimize their settings based on the device being tested.

4. Multi-functional integration: Our goal is to integrate multiple testing functions into a single platform. We are working on probe holders that can simultaneously perform electrical, optical, and thermal measurements.

5. Environmental adaptability: We are developing solutions for extreme environments, including cryogenic temperatures and high-radiation conditions. This research is crucial for testing devices destined for space or high-energy physics applications.

The Role of Probe Holders in Future Semiconductor Testing

As semiconductor technology continues to advance, probe holders will play an increasingly critical role in:

1. 3D integrated circuit testing: We are developing new probe holder designs to adapt to complex 3D structures. This includes multi-level probing systems that can access different layers of stacked dies simultaneously.

2. Ultra-low power device testing: Our research is focused on providing ultra-high sensitivity testing solutions for the next generation of low-power IoT devices. This involves developing probe holders with femtoamp-level current sensing capabilities.

3. Terahertz testing: We are at the forefront of developing specialized probe holders for extremely high-frequency testing. This research is crucial for future 6G and beyond communication technologies.

4. Quantum computing: SEMISHARE is investing in special probe holder solutions for qubit testing. This includes developing holders that can operate at near-absolute zero temperatures while maintaining precise positioning.

5. Bioelectronics: We are exploring probe holders suitable for testing biosensors and implantable devices. This involves developing holders that can operate in physiological conditions while maintaining biocompatibility.

SEMISHARE Probe Holders - Key Tools Driving Semiconductor Innovation

In today's rapidly evolving semiconductor technology landscape, precise and reliable testing is more important than ever. SEMISHARE's advanced probe holder technology provides a solid foundation for this critical process, leading the industry with unparalleled accuracy, efficiency, and reliability.

Our relentless innovation in probe holder technology enables semiconductor manufacturers and researchers to push the boundaries of device performance and complexity. Whether you're developing next-generation processors, high-performance memory, or cutting-edge sensors, SEMISHARE's probe holders provide the testing capabilities you need to ensure product quality, improve yield, and accelerate time-to-market.

Choosing SEMISHARE's probe holder solutions is not just investing in a testing tool, but establishing a partnership with a leader in semiconductor testing technology. Our probe holders are designed to meet the challenges of today's semiconductor industry while anticipating and adapting to future innovative needs.

To learn how SEMISHARE's advanced probe holder technology can enhance your semiconductor testing capabilities, visit our website at https://www.semishareprober.com/. Explore what sets SEMISHARE apart and take your semiconductor development and production to new heights with our state-of-the-art probe holder solutions. With SEMISHARE, you're not just testing semiconductors – you're shaping the future of technology.

Product OverviewDownloadVideo
Probe Holder

Standard/Sizes

High voltage probe holder HV-T-3KV

High voltage probe holder HV-T-3KV

Specification:Maximum test voltage: 3KV
Leakage flow (tip diameter 20um): 5pA/3000KV
Working temperature: -55℃~300℃
Interface: HV male (female)

Size:152*99*42mm

Features:1. Ultra-low leakage. 2. Easy to use and simple probe replacement. 3. Large height adjustable range.

Triaxial Probe Holder T2H/T2L

Triaxial Probe Holder T2H/T2L

Specification:Leakage (tip diameter 20um): 100fA/10V
Working temperature: -55℃~300℃
Interface: three-axis male (female)

Size:T2H:135*80*38mm
T2L:115*100*41mm

Features:1. Ultra-low leakage. 2. Easy to install.

Coaxial Probe Holder C2H/C2L

Coaxial Probe Holder C2H/C2L

Specification:Leakage (tip diameter 20um): 10pA/10V
Working temperature: -55℃~300℃
Interface: three-axis male (female)

Size:C2H:135*80*38mm
C2L:115*100*41mm

Features:1. Ultra-low leakage. 2. Easy to install.

Radio Frequency Adjusting Holder RF2

Radio Frequency Adjusting Holder RF2

Specification:Multi-point probe leveling knob, adjustable ±8°
Accuracy 0.1°
Wide travel range adjustment, the front and rear travel range is 40mm, and the up and down travel range is 22mm.

Size:Regular

Features:Mostly used for X series semi-automatic and C series high-low temperature probe stations

Radio Frequency Adjusting Holder RF3

Radio Frequency Adjusting Holder RF3

Specification:Multi-point probe leveling knob, adjustable ±8°
Accuracy 0.1°

Size:Regular

Features:Suitable for probe stations with octagonal box structure Mostly used for X series semi-automatic and C series high-low temperature probe stations High current, shunt probes available

Annex

Selection steps

First, select the model of the pin seat according to the size of the test electrode, and then determine the use of ordinary cable, coaxial cable or three-axis cable at the back end of the probe fixture according to the telecom test accuracy. Finally, pay attention to the mechanical precision of the pin seat when choosing whether to use spiral, spring or tubular for the mechanical fixed parts of the fixture.


For more information about this product, you can download the product manual.

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