Dalian, let’s meet—join Pengcheng Micro‑Nano at the 2026 Conference on Micro‑ and Nano‑Device and System Application Technologies.


Release time:

2026-05-16

In early summer, in May, a major event is just around the corner. From May 22 to 24, 2026, the 2026 Conference on Micro‑ and Nano‑Device and System Application Technologies, together with the 19th China Symposium on Micro‑ and Nano‑Electronics Technology, will be grandly held in Dalian, a coastal city. Pengcheng Micro‑Nano Technology (Shenyang) Co., Ltd. (hereinafter referred to as “Pengcheng Micro‑Nano”) will attend this conference, joining industry experts, scholars, and upstream and downstream partners to explore new opportunities in micro‑ and nano‑devices, advanced packaging, and the localization of semiconductor equipment.

In early summer, in May, a major event is just around the corner. From May 22 to 24, 2026, the 2026 Conference on Micro‑ and Nano‑Device and System Application Technologies, together with the 19th China Symposium on Micro‑ and Nanoelectronics, will be grandly held in the coastal city of Dalian. Pengcheng Micro-Nano Technology (Shenyang) Co., Ltd. (hereinafter referred to as “Pengcheng Micro-Nano”) We will be attending this conference to join industry experts, scholars, and upstream and downstream partners in exploring new opportunities in micro‑ and nano‑devices, advanced packaging, and the localization of semiconductor equipment. Throughout the event, the Pengcheng Micro‑Nano Technology team will be on site; you are warmly invited to stop by for discussions!

Pengcheng Micro‑Nano was co‑founded by Harbin Institute of Technology (Shenzhen) and a team of engineers with many years of practical experience. The company is committed to the deep integration of micro‑nano technologies with high‑end precision manufacturing, with applications spanning the research, design, production, and manufacturing of semiconductor and broader semiconductor materials, processes, and equipment, as well as process‑technology services and equipment upgrades and retrofits. It offers customers process R&D and prototyping services, provides production‑oriented equipment to manufacturing enterprises, and supplies research‑grade instruments for scientific studies, thereby establishing an industry‑academia‑research integrated value chain.

At this exhibition, Pengcheng Micro‑Nano will showcase its flagship core products in the micro‑nano field.

  • Ultra-High Vacuum High-Energy Pulsed Magnetron Sputtering Coating System (HITSemi-UHV-HIPIMS)

In an ultra-clean environment, using nanometer and Atomic-level Manufacturing technology for growing high-purity, high-quality thin films. One of the application scenarios is: GaN single-crystal thin film Growth process, GaN-based diluted magnetic semiconductors Process implementation for the preparation of molecular-structure materials.

  • Production‑type TGV/TSV/TMV high‑vacuum magnetron sputtering coating machine

This device is used for Glass substrate and Ceramic substrate of the High-Density Through-Hole and Blind hole of the Metal seed layer coating Depth-to-diameter ratio > 10:1 For example, it is used in the substrate coating process to deposit Cu/Ti microstructures and Au/TiW dual‑layer transmission‑line films, thereby supporting the enhancement of microsystem integration density.

  • Production‑grade high‑vacuum magnetron sputtering/ion‑assisted/multi‑arc hybrid coating system

This equipment is widely used on the surfaces of milling cutters, drill bits, bearings, gears, lenses, and more. Hard wear-resistant coating Preparation, integrating workpiece surface treatment, ion cleaning, and particulate control, Magnetron sputtering Ion-assisted coating and Reactive sputtering deposition A PVD system that integrates multiple processing methods.

  • Production‑grade high‑vacuum magnetron sputtering and ion‑assisted composite coating system

This device employs Magnetron sputtering Ion-assisted Reactive sputtering A process method for fabricating various thin-film materials on the surface of workpieces. This equipment is a PVD system that integrates multiple processes, including surface treatment, ion cleaning, particulate control, magnetron sputtering, ion-assisted deposition, and reactive sputter deposition.

  • Research-grade high-vacuum magnetron sputtering coating system

This equipment is a high‑vacuum magnetron sputtering coating system designed for research and pilot‑scale applications, primarily used with substrates ranging from 2 to 12 inches. Circular-planar magnetron sputtering target and small Rectangular target Sputter coating is performed. It can be used to prepare metal, alloy, compound, semiconductor, ceramic, dielectric composite films, and other chemically reactive films; it is suitable for depositing various single-layer films, multilayer films, doped films, and alloy films; both magnetic and non-magnetic materials can be coated. It can be applied to… Advanced Packaging for TGV/TSV/TMV the research and development of, High aspect ratio (≥10:1) of the Deep-hole metal seed-layer coating

  • HFCVD hot-filament chemical vapor deposition equipment

The equipment is primarily used for Micron crystal and Nanocrystalline diamond film Research and development, as well as production. It can be used for the R&D and manufacturing of diamond products across mechanical, thermal, optical, and acoustic performance levels. It is capable of producing… Large-size polycrystalline diamond wafers , used for high-power devices, high-frequency devices, and high-power lasers Heat sink . Can be used in the production of corrosion-resistant and wear-resistant materials. Hard coating ; Diamond products for wastewater treatment in the environmental protection field. They can be used to prepare diamond thin films on planar workpieces, as well as to deposit diamond hard coatings on tool surfaces or other irregular surfaces. They can be used for… Thin-film solar cells Research and development, as well as production.

  • High-vacuum electron-beam evaporation coating equipment

The equipment operates under high-vacuum conditions, utilizing Electron beam bombardment Materials Heating and evaporation The method involves depositing various metals, oxides, conductive films, optical films, semiconductor films, ferroelectric films, and ultra-hard films onto a substrate; it can produce single-layer, multi-layer, or doped films of composite materials; and it is capable of depositing a wide range of… High-melting-point materials

  • PECVD plasma-enhanced chemical vapor deposition equipment

The equipment is primarily used for operations conducted in a clean vacuum environment. Silicon nitride and Silicon dioxide of the Thin-film growth ; adopt Single-frequency or dual-frequency plasma-enhanced chemical vapor deposition technology It is an ideal process equipment for depositing high-quality silicon nitride, silicon oxide, and other thin films. The dual-frequency technology employs a 13.56 MHz radio-frequency power supply and a 400 kHz intermediate-frequency power supply. The RF power supply is used to regulate the plasma flux, while the IF power supply controls the plasma energy.

From May 22 to 24, meet in Dalian and join Pengcheng Micro‑Nano at the 2026 Conference on Micro‑Nano Devices and System Application Technologies!

Meeting Map

Dalian Xiangzhou Garden Hotel (No. 171 Changchun Road, Xigang District, Dalian)

News Center

Dalian, let’s meet—join Pengcheng Micro‑Nano at the 2026 Conference on Micro‑ and Nano‑Device and System Application Technologies.

In early summer, in May, a major event is just around the corner. From May 22 to 24, 2026, the 2026 Conference on Micro‑ and Nano‑Device and System Application Technologies, together with the 19th China Symposium on Micro‑ and Nano‑Electronics Technology, will be grandly held in Dalian, a coastal city. Pengcheng Micro‑Nano Technology (Shenyang) Co., Ltd. (hereinafter referred to as “Pengcheng Micro‑Nano”) will attend this conference, joining industry experts, scholars, and upstream and downstream partners to explore new opportunities in micro‑ and nano‑devices, advanced packaging, and the localization of semiconductor equipment.

High-Energy Pulsed Magnetron Sputtering Coating: The Indigenous Key to the Nanoscale World of Semiconductors

The core chips in the smartphones, computers, and 5G devices we use every day harbor a “nanoscale world” that is less than one ten-thousandth the diameter of a human hair—the realm of advanced-node semiconductors. The insulating layers, barrier layers, and conductive films within these chips must all be “grown” with nanometer-level precision—this is precisely where high-power impulse magnetron sputtering (HiPIMS) coating technology comes into play.

The Curtain Falls, Yet the Momentum Persists—Pioneering a Bright Future | Pengcheng Micro-Nano Successfully Concludes the 2026 Second Glass Substrate and Optoelectronic Integration Technology Summit

The two-day “2026 Second Glass Substrate and Optoelectronic Integration Technology Summit—From TGV Process to CPO Integration” has successfully concluded in Dongguan. Pengcheng Micro-Nano Technology (Shenyang) Co., Ltd. (hereinafter referred to as “Pengcheng Micro-Nano”), a company specializing in semiconductor and broader semiconductor processes and equipment, showcased its core process equipment at Booth A6.

Pengcheng Micro-Nano will be exhibiting at the “2026 Second Glass Substrate and Optoelectronics Integration Technology Summit—From TGV Process to CPO Integration.”

The “2026 Second Glass Substrate and Optoelectronics Integration Technology Summit—From TGV Process to CPO Integration” will be held from April 27 to April 28 at the Emperor Hotel in Songshan Lake, Dongguan.

“The Coating Black Technology” Hidden in Medical Imaging

When it comes to medical imaging, most people are familiar with procedures such as CT and PET-CT scans. During operation, the performance of these devices—particularly the clarity and sensitivity of the resulting images—is largely determined by a nanoscale precision thin film coating on their core components. This critical coating is made possible by an unsung “coating black technology”: magnetron sputtering.