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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.

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.

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.

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2026.04.24

Congtical Technology ’s thermal‑cold stages are supporting Hefei University of Technology’s research on polylactic acid modification, unlocking new possibilities for biodegradable materials.

Congtical Technology ’s thermal‑cold stages are supporting Hefei University of Technology’s research on polylactic acid modification, unlocking new possibilities for biodegradable materials.

Recently, a team of faculty members from the School of Chemistry and Chemical Engineering at Hefei University of Technology published a groundbreaking research paper in the Chinese core journal “Elastomers,” successfully achieving dual modification of polylactic acid—both toughening and barrier enhancement. Wuhan Congtical Technology Co., Ltd.’s thermal‑cold stage provided a critical, precisely controlled temperature‑varying experimental environment for observing the crystalline morphology of the material, further demonstrating the reliable support that Chongguang’s thermal‑cold stages offer in polymer materials research.

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2026.04.24

Empowering advanced nuclear materials research! The Chongguang cryogenic cold trap optimizes the high-temperature irradiation environment of Peking University’s three-beam irradiation facility.

Empowering advanced nuclear materials research! The Chongguang cryogenic cold trap optimizes the high-temperature irradiation environment of Peking University’s three-beam irradiation facility.

In the development of advanced nuclear reactors, research on the irradiation performance of structural materials is a critical step in overcoming technical bottlenecks. The degradation of material properties caused by transmutation products such as hydrogen and helium, along with the interference of carbide formation under high‑temperature irradiation conditions on experimental accuracy, has long posed core challenges for researchers. To simulate the real‑world operating environment of nuclear reactors and conduct precise irradiation experiments on nuclear materials, Peking University has established a three‑beam irradiation facility dedicated to advanced nuclear materials research. Centered around a 1.7 MV tandem accelerator, this system integrates multiple key pieces of equipment to form a controllable irradiation research platform. As a core component supplier for this cutting‑edge research apparatus, Zhongguang leveraged its technological expertise in low‑temperature control and impurity suppression to custom‑integrate a cryogenic cold trap into the irradiation chamber. This solution effectively addressed the challenge of carbide formation under high‑temperature irradiation, providing essential support for stable system operation and reliable experimental data, thereby helping China take a solid step forward in the field of advanced nuclear materials research.

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2026.04.24

Nano‑Photocatalysis Research: A Temperature‑Control Scheme—An Analysis of Precision Temperature‑Regulation Techniques Based on Empirical Findings from Scientific Papers

Nano‑Photocatalysis Research: A Temperature‑Control Scheme—An Analysis of Precision Temperature‑Regulation Techniques Based on Empirical Findings from Scientific Papers

In their studies on the electron-transfer dynamics of nano‑TiO₂, published in Physical Chemistry Chemical Physics and Journal of Applied Physics, the research team from Wuhan University of Technology highlighted the temperature‑control system as a critical experimental tool, with its technical specifications and functional design fully documented in the resulting publications. As a supplier of such temperature‑control solutions, we draw on the empirical data presented in these papers to demonstrate the pivotal role of research‑grade temperature‑control systems in photocatalytic research.

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2026.04.24

Dual-engine power in the optoelectronics field: the synergistic innovation of GaN‑based mini‑LEDs and Chongguang’s hot‑and‑cold stages.

Dual-engine power in the optoelectronics field: the synergistic innovation of GaN‑based mini‑LEDs and Chongguang’s hot‑and‑cold stages.

At the forefront of research, precision temperature-control equipment is essential for unraveling the intrinsic physical mechanisms of optoelectronic devices. For example, a study published by Xiamen University in ACS Photonics (IF = 7) highlights the pivotal role of the Chongguang TS300T-PM cryo‑thermal stage in the temperature‑dependent spectroscopic analysis of GaN‑based green mini‑LEDs. By enabling wide‑range temperature control from −196 °C to 300 °C and integrating microscopic hyperspectral imaging, the research team successfully elucidated the local exciton radiative recombination mechanism. They revealed the synergistic regulation of electron–phonon coupling by polarization‑induced Coulomb screening and band‑filling effects, providing a theoretical foundation for optimizing device color purity and luminous efficiency through strain engineering.

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2026.04.24

Enabling Scientific Breakthroughs: The Chongguang Temperature‑Controlled Device Empowers Perovskite Solar Cell Research

Enabling Scientific Breakthroughs: The Chongguang Temperature‑Controlled Device Empowers Perovskite Solar Cell Research

In May 2023, a research finding published in the internationally renowned journal Chemical Engineering Journal garnered widespread attention in the energy sector. The study focused on optimizing the performance of methylammonium lead iodide (MAPbI₃) perovskite solar cells (PSCs) under low-temperature conditions. Notably, Chongguang Company’s temperature‑controlled apparatus (TSL300‑PM) played a pivotal role in this research, serving as an indispensable tool for the team to thoroughly investigate the material’s low‑temperature properties.

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2026.03.31

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