100mm Silicon Wafers All Grades, Orientation, Resistivity

Fabricating Organic Electronic Devices

The most common material used in the fabrication of organic electronic devices is a 100mm silicon wafer. This material is extremely cost-effective and can be fabricated in a number of ways. The most common method is the deposition of a thin film on a wafer. The process is similar to the fabrication of a conventional device, except that the process is completely automated. The process requires the use of a specialized machine that specializes in making organic electronics.

Scientists have purchased the 100mm Silicon Wafers with Thermal oxide for researching the fabrication of organic electronic devices.

100mm P/B (100) 0.001-0.005 ohm-cm 500um Prime Grade with 100nm of Thermal Oxide

100mm P/B (100) 0.001-0.005 ohm-cm 500um Prime Grade with 300nm of Thermal Oxide

Silicon Wafers for Prototype and Process Development

Researchers have used the following wafers to test new manufacturing techniques inhouse and to create novel devices.

Si Item #783 - 100mm P/B <100> 1-10 ohm-cm 500um SSP Prime

Silicon Wafers for LIDAR Components & Systems

The high-precision 100mm silicon wafers are a valuable source of LIDAR component production. They are also highly sensitive to light. Currently, the 100mm silicon wafers are used for both optical and electromagnetic measurements. The technology is used for both indoor and outdoor LIDAR applications. These technologies are crucial for the autonomous driving of commercial vehicles. The use of 300mm CMOS is expected to greatly increase the accuracy of the sensors.

The accuracy of this technology will be important to the automotive industry. With a 0.1-degree angular resolution, it will be a key component in autonomous vehicles. It will also make it easier to detect objects moving at a distance. The automotive industry is still at the early stage of development and has not standardized its requirements for LiDAR, although the market is growing steadily.

Reseach into space based LIDAR include in orbit surface metrology systems deployable reflectors to measure the shape of antennas during operation with high accuracy and important for extreme performace throughput satellite missions.

Scientists have used the following wafers for their LIDAR research.

Si Item #3384
100mm P/B <100> 0.01-0.02 ohm-cm DSP 550um +/- 15um, TTV:<15um Prime Grade

100mm Silicon Wafers for Biosensor Medical Applications

100mm silicon wafers are an inexpensive option for biosensor research. 100mm wafers allow for the development of biosensors with high sensitivity. For biomedical applications, the CMOS circuitry on the 100mm silicon wafers will be a crucial part of the medical diagnostic system. The high-quality wafers will allow the detection of the smallest amounts of blood in the body.

University scientists have used the following wafer specs to microfabricate an electrochemical biosensor for their medical research.

Si Item #1116 - 100mm P/B (100) 10-20 ohm-cm 500um SSP Prime with 500nm of Wet Thermal Oxide

The research client also used the following borofloat.

Silicon Wafers for Photolithography

Using 100mm silicon wafers for Photolithography is a popular way to improve the quality of the images created on the surface of the wafers. It is a cost-effective method for producing the thin films required for a variety of high-quality photolithography. Its advantages far outweigh its disadvantages. In addition to being cheaper, the RCA clean method ensures a high quality silicon surface.

Scientists haved used the following test grade wafers for phtotolithography research.

Si Item #452
100mm P(100) 0-100 ohm-cm SSP 500um Test Grade

100mm Silicon Wafers for Fabricating Nanostructures

100mm silicon wafers is an essential component for making complex nanostructures. In this process, the nanostructures are made by transferring a layer of thin films onto the silicon surface. This enables the fabrication of multiple layers with high aspect ratios. The technology is also advantageous for the manufacture of biosensors. With these materials, we can build a device that is compatible with different types of materials.

Researchers have used 3 inch and 4 inch silicon wafers extensively for fabricating nanostructures. The substrates were used for polymer spin coating, followed by metal deposition and processing techniques like lithography and plasma etching.

Researcher Quote:

I have only worked with 3 inch and 4 inch silicon wafers and carried out the aforementioned processes to design and characterize nanostructures and high resolution patterning.

Carrier Wafers for RIE Etching Process 

For the RIE etching process, a silicon carrier wafer of 100mm must be used. The thickness of the sample must be less than 2 mm. The resistivity of a wafer has no bearing on the transfer time. The process can last as long as the top silicon layer is present. A suitable etching time should be kept. The RIE etching machine should be equipped with a high-speed pump, a tunable laser, and a vacuum pump.

When specs are not imporant, scientists have used the following test grade and mechanical grade wafers for their research.

• 100 mm diameter, round
• Flat: none
• Doping type: B or P but not As
• Resistivity: 0-10 ohm-cm
• Thickness 400 or 500 um
• Orientation doesn’t matter
• Grade: virgin test, test, mechanical (but without particles)
• Single side polishedand DSP

Silicon Wafers for Microelectronics Research & Development

100mm silicon wafers for Microelectronics Research & Development aims to make a better product. A large volume of silicon wafers will increase the efficiency of your research by a factor of two. By investing in 100mm silicon wares for microelectronics research and development, you'll be able to make smarter devices faster and more efficiently.

Researchers have used the following item in the Microelectronics R&D

Si Item #3528 - 100mm N/P <111> 36-44 ohm-cm 220um DSP

Wafers Used to Fabricate Sensors and Telecom Devices

Besides being used to manufacture sensor and telecom devices, 100mm silicon wafers are an excellent choice for all high-tech applications. 100mm wafers are used in the fabrication of ultra-high-performance optical components, such as infrared lasers. Moreover, they are suitable for a variety of industries, including aerospace and defense. For this reason, they are a good choice for many high-performance semiconductors.

Scientists have used the following silicon items for their process development work and researching prototypes for sensors and telecom devices.

Degenerately doped Si Wafer Item #785

100mm P/B <100> 0.001-0.005 ohm-cm 500um SSP Prime Grade

Which Wafer Spec Should I use for Dielectric Test Coatings?

The 100mm silicon wafers for Dielectric Test Coatings (DTC) are available for testing and calibration purposes. For DTC, they are used for both research and commercial purposes. Both semiconductor materials and optical devices have different strengths and weaknesses. If the surface is highly accurate, it will not cause distortion and will last a long time. In addition, these products should be fabricated in order to ensure that they meet quality standards.

Scientists have used the following silicon wafer specification to perform dielectric test coatings and thin film thickness measurements.

Si Item #452 - 100mm P(100) 0-100 ohm-cm SSP 500um Test Grade

What Substrates Should I Use to Fabricate Microfluidics Molds

One of the biggest questions that microfluidics researchers have is what 100mm silicon wafer specs are used in fabricating their molds. Typically, a microfluidics device requires 100mm or higher channel features and a thickness ranging from 2.4 to 5.2 m. To achieve these requirements, researchers made laminated microfluidic devices from PMMA sheets. The wafers were then structured using a CO 2 laser and bonded with ethanol. In order to align the layers, custom holders were used to hold the chips while they were fabricated. To make the process faster and easier, a manual press was used at 1.6 MPa pressure and 70 degC.

Scientists have used the following 100mm wafer spec for their microfluidics research.

Si Wafer Item #783
4” P/B (100) 500um SSP 1-10 ohm-cm Prime Grade

 

Mechanical Grade Silicon Wafers to Fabricate Channel Mold

A postdoc has successfully used our least expensive mechanical grade silicon wafers to fabricate channel mold and do research experiments in their lab.

Si item #1196

What Silicon Wafers Should I Use to Fabricate Electrodes Used in Lithium Ion Batteries

One of the most important questions when fabricating a lithium-ion battery is, "What Silicon Wafers to use?" This answer will help you understand the different types of electrodes. Previously, battery researchers used whole bulk silicon to make an anode, while today, researchers are using carbon-based electrodes. The main differences are in the material used, the resistivity, and the chemistry.

Please contact us for wafers that are currently used in lithium-ion battery research.

Silicon Wafers for Anomalous Interfacial Structuring of a Non-Halogenated Ionic Liquid (IL): Effect of Substrate and Temperature Research

Control of ionic liquid interfacial structures is critical for many IL applications. These applications include energy storage, sensors, and advanced lubrication technologies. Using an ionic liquid as a fuel, we studied the ionic fluid behavior at three different surface charges. Fluorinated anions produce halides that are toxic to humans and environmentally harmful to the environment.

 

The Authors of the research used the folllowing wafers:

 

Buy Online Item #452 - 100mm P(100) 0-100 ohm-cm SSP 500um Test Grade

Research Paper

 

Thermal Management of Micro-Gas Chromatograph

A micro gas chromatograph (mGC) is a system designed to detect air pollutants at parts-per-billion concentrations. The system includes a preconcentrator microfabricated from MEMS, a MEMS separation column, a flow control unit, and thermal management circuitry. It is designed to detect benzene, toluene, and tetrachloroethylene.

 

Buy Online Item #452 - 100mm P(100) 0-100 ohm-cm SSP 500um Test Grade

Research Paper

What Wafers Are Used for Chemical Sensing Systems that Utilize Soft Electronics on Thin Elastomeric Substrates with Open Cellular Design Research?

Stretchable electronics are electronic devices which use elastomeric substrates for the fabrication of flexible electronics. The elastomeric substrate plays an important role in achieving stretchability without compromising its conductivity. The elastomeric substrate should possess superior mechanical and electrical properties and must be flexible enough to withstand various loading modes. This study aimed at developing an elastomeric adhesive that meets the necessary mechanical and electrical properties.

 

UniversityWafer, Inc. Provided the 100mm Silicon Wafers used in the above research.

 

Video Explaining Elastomeric Substrates

Silicon Wafers for Hybrid Piezo/Magnetic Electromechanical Transformer

Scientists have been researching electromechanical devices using either piezoelectric or electrodynamic transductionhave been proposed as an alternative to conventional magnetic transformers. Research paper found here.

 

For this project researchers purchased the following 100mm silicon wafers.

• electromechanical transformer
• electrodynamic transduction
• piezoelectric transduction

Si Item #3190
100mm P/B <100> 1-10 300um DSP

Reference #ONLQ22956 for pricing.