A high‑impact SCI paper has been published by the client! Our company’s carrier‑measurement equipment has supported cutting‑edge research on GZO thin films.


Release date:

2026-04-24

Recently, research findings from Wuhan University of Technology were successfully published in the internationally renowned SCI journal *Optical Materials*, a JCR Q1‑ranked top‑tier journal in the field of optics. The study focuses on gallium‑doped zinc oxide (GZO) transparent conductive films, systematically elucidating their optical and electrical properties across the ultraviolet to mid‑infrared spectral range, thereby providing crucial theoretical and experimental support for applications such as radiative cooling, infrared stealth, and next‑generation transparent electronic devices.

Recently, research findings from Wuhan University of Technology have been successfully published in a leading international journal. SCI Journals, optics field JCR Q1 Zone 1 journal “ Optical Materials ». This achievement focuses on Go Doping ZnO ( GZO ) Transparent conductive thin films—this work systematically elucidates their optical and electrical properties across the ultraviolet to mid-infrared spectral range, providing crucial theoretical and experimental foundations for applications in radiative cooling, infrared stealth, and novel transparent conductive devices.

 

In this study, all key electrical parameters—including carrier concentration, mobility, and resistivity—were accurately measured using our company’s Hall‑effect measurement system.

 

With its wide measurement range, high accuracy, and ease of operation, the device is perfectly suited to… ZnO Base film, transparent conductive oxide ( Total Cost of Ownership ), including research and industrial testing applications such as wide-bandgap semiconductors and functional thin films, has become a standard test platform for numerous universities and research institutes.

 

Journal Title: “ Optical Materials

Article Title: « Optical property analysis of the Ga doped ZnO films prepared by pulsed direct current magnetron sputtering from ultraviolet to middle infrared wavelength region

Journal Category: Optics JCR Zone 1

Impact Factor: IF=~4.5

Client Organization: Wuhan University of Technology

Application Products: High- and Low-Temperature Hall Effect Measurement System HMS-200

Abstract of the paper

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Product model

 

Product Introduction

 

Product Applications

Semiconductor Materials Research: By investigating electron mobility and carrier concentration, this research elucidates the temperature-dependent behavior of semiconductor materials and the mechanisms underlying scattering. The focus is primarily on semiconductor wafer fabrication processes and applications such as solar cells.

Research on magnetic materials: Studies of the Hall effect and the magnetoresistance effect have provided crucial support for advancements in areas such as magnetic storage and magnetic sensors.

Furthermore, for research on spintronic materials, high-temperature superconductors, and two-dimensional materials, variable‑temperature Hall effect measurements help to explore their potential applications.

 

Product Features

  Fast temperature change rate : Rapid switching of current and magnetic field, with Van der Pauw analysis, leading the industry;

🌡 High-precision measurement : Highest ±0.1℃ Temperature control, full temperature range ±0.3℃

🎯   High uniformity : Error ≤1%

🤖   Automated control : Touchscreen Host‑side operation with a clean, easy‑to‑use interface.

 

Product Specifications

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Test Results

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Test Results for Journal Articles (Relationships Between Hall Electron Concentration, Hall Mobility, and Resistivity and Oxygen Flow Rate)

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ITO Standard Sample Test Result Curve

 

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Bismuth Sample Test Result Curve

 

Why choose us?

  Research-grade accuracy: Data can be used directly for high‑impact publications and project acceptance.

  Wide-range compatibility: Covers high Low-carrier, bulk thin film Flexible sample

  Stable and Durable: Long-term testing demonstrates excellent repeatability, reducing experimental error.

  Full‑scene coverage: Suitable for university research, corporate R&D, and quality inspection.

 

The successful publication of this client’s research findings serves as compelling evidence of the deep integration between cutting-edge scientific needs and state-of-the-art testing equipment.

 

Looking ahead, we will continue to deepen our expertise in the field of carrier‑transport testing, delivering solutions that are more stable, more precise, and more intelligent—empowering research teams and enterprises to overcome technical bottlenecks and generate groundbreaking, world‑class innovations.

 

For more product information, please contact us:

Manager Peng 13100616637 (Huazhong Region)

Manager Peng 13100616836 (East China region)

Manager Wang 18171289006 (Southwest and South China)  

Manager Li 18502799852  (Other regions)

Products suitable for this type of application

High-Low Temperature Hall Effect Measurement System

Semiconductor Materials Research: By investigating electron mobility and carrier concentration, this research elucidates the temperature-dependent behavior of semiconductor materials and the mechanisms underlying scattering. The focus is primarily on semiconductor wafer fabrication processes and applications such as solar cells. Magnetic Materials Research: Studies of the Hall effect and magnetoresistance provide critical support for advancements in magnetic storage, magnetic sensors, and related fields. Furthermore, for certain spintronic materials, variable-temperature Hall-effect measurements help explore the potential applications of novel spintronic devices.
It features a rapid temperature‑change rate, supports swift switching between current and magnetic field directions, and employs the Van der Pauw method for data analysis, outpacing comparable products on the market.
High-precision measurement: Temperature control accuracy as high as ±0.1°C, with ±0.3°C across the entire temperature range.
High uniformity: deviation no more than 1%
Automation control functionality: Testing can be performed via the touchscreen and the host computer. The software interface is clean, clear, intuitive, and easy to use.
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