Shenzhen Soongon Showcases Research-Grade 3D Printers at the 18th China Symposium on Diamond-Related Materials and Applications and TCT Shenzhen 2026, South China’s Leading 3D Printing and Additive Manufacturing Exhibition
2026-10-22On October 14, 2026, Shenzhen Soongon Technology Co., Ltd. showcased its two flagship product lines at two major industry events: the AutoBio series of multimaterial Direct Ink Writing (DIW) 3D printers and the ComproJet series of research-grade Binder Jetting (BJ) 3D printers. The events were the 18th China Symposium on Diamond-Related Materials and Applications in Guilin, Guangxi, and TCT Shenzhen 2026, the South China Exhibition for 3D Printing and Additive Manufacturing.
Through these exhibitions, Soongon demonstrated innovative research-grade 3D printing solutions for cutting-edge applications in superhard materials, biomedical research, functional ceramics, new energy, and other advanced fields.
Two Exhibitions, Bridging Academia and Industry
The two major events attended by Soongon represent key platforms for academic advancement in materials science and the industrial application of additive manufacturing, creating a complementary landscape that brings together academic exchange and industrial exhibition.
The 18th China Symposium on Diamond-Related Materials and Applications was held at Guilin Hongmou Hotel in Guilin, Guangxi. Co-organized by the Superhard Materials and Products Committee of the Chinese Materials Research Society and other institutions, it is one of China’s most prominent and influential academic conferences in the fields of diamond and superhard materials.
The symposium focused on key topics including high-temperature and high-pressure synthesis, functional applications of diamond, and innovations in superhard material products. It brought together experts and scholars from leading universities, research institutes, and industry organizations in China and abroad to showcase the latest theoretical advances and technological breakthroughs in the field.
Date: October 14–16, 2026
Venue: Guilin Hongmou Hotel, Guilin, Guangxi, China
Booth: A07
TCT Shenzhen 2026, the South China Exhibition for 3D Printing and Additive Manufacturing, was held at Hall 15 of the Shenzhen World Exhibition & Convention Center in Bao'an, Shenzhen.
As a professional additive manufacturing exhibition based in the Guangdong-Hong Kong-Macao Greater Bay Area and serving South China and Southeast Asia, this year's event brought together more than 250 exhibitors, showcased over 2,000 new products, and featured more than 80 concurrent forums. Covering a wide range of applications, including consumer electronics, mold manufacturing, new energy vehicles, healthcare, and jewelry design, the exhibition serves as an annual trendsetter for the 3D printing industry.
Date: October 14–16, 2026
Venue: Hall 15, Shenzhen World Exhibition & Convention Center, Bao'an, Shenzhen, China
Booth: D15
Two Advanced Technology Platforms for Research-Grade 3D Printing Across Diverse Materials
To address the distinct audiences and application scenarios of the two exhibitions, Soongon presented tailored technology demonstrations and application solutions, showcasing its extensive expertise and technological capabilities in research-grade 3D printing.
AutoBio Series Multimaterial Direct Ink Writing (DIW) 3D Printers
As one of Soongon’s flagship product lines, the AutoBio series of DIW 3D printers specializes in the extrusion-based fabrication of slurries, pastes, and high-viscosity materials. These systems have been widely used in materials research at leading universities and research institutes in China and abroad.
Versatile Material Compatibility: Supports precision printing of dozens of material types, including hydrogels, gelatin, hydroxyapatite, cell suspensions, silicone, ceramic slurries, and polymers. Researchers can validate material formulations using only small sample quantities, making the system well suited to exploratory materials research.
Micron-Level Precision: With a minimum nozzle diameter of 0.1 mm, pressure control resolution of ±1 kPa, and mechanical positioning accuracy of ±10 μm, the system enables high-fidelity fabrication of complex porous scaffolds, biomimetic structures, and other intricate geometries.
Expandable Multimodal Capabilities: Featuring a modular design with standardized expansion interfaces, the system can be equipped with optional modules such as high-temperature and low-temperature printheads, UV curing, coaxial printing, gradient mixing, and electrospinning to accommodate specialized materials and customized experimental requirements.
Research-Grade Data and Process Control: Key parameters, including extrusion pressure, printing speed, and layer thickness, are openly adjustable. Combined with support for custom toolpaths and code, this enables reproducible, quantifiable experiments and provides reliable data to support scientific publications.
AutoBio Multimodal Direct Writing 3D Printer
PCL lattice structure configuration bracket
3D printing of energetic materials
3D printing of alumina ceramic materials
3D printing of hydrogel materials
3D printing of electrode materials
ComproJet series research grade BJ binder Jetting 3D printer
Designed to address the R&D challenges associated with powder-based materials such as diamond, metals, and ceramics, Soongon’s independently developed ComproJet series of Binder Jetting (BJ) 3D printers will be a key technology showcased at the diamond symposium.
Unlike BJ systems designed for mass production, the ComproJet series is purpose-built for materials research. Featuring three interchangeable build chambers and a versatile experimental system, it provides comprehensive support for formulation development, process optimization, and prototype validation of high-value advanced materials.
Three Interchangeable Build Chambers to Significantly Reduce R&D Costs for High-Value Materials
The system features three quickly interchangeable build chambers—Micro, Experimental, and Standard—covering the entire materials R&D cycle, from initial formulation screening and process optimization to prototype validation.
Micro Build Chamber (30 × 30 × 30 mm): Specifically designed for early-stage formulation screening and preliminary process evaluation. For example, when printing diamond-copper composites, a single build requires only approximately 47 g of powder—just 2.5% of the amount required by the standard build chamber. This reduces material consumption costs by 97.5%. Even with only a small quantity of precious powder available, researchers can conduct the complete testing process, including powder spreading, binder jetting, and part fabrication, significantly lowering the barrier to experimentation with high-value materials.
Experimental Build Chamber (50 × 50 × 50 mm): Designed for process parameter optimization and stability testing, this chamber allows researchers to conduct multiple comparative experiments to evaluate how different binder ratios, binder deposition volumes, and layer thickness settings affect green part quality. It offers a practical balance between material consumption and specimen size, enabling efficient process development while minimizing material waste.
