Flex Y475 (1) Overview: (1) Micro‑ and nano‑scale photopolymerization technology: utilizes a 405 nm UV LED light source, delivers 1.9 µm exposure accuracy, and offers adjustable layer thicknesses from 5 to 20 µm, enabling precise fabrication of microfluidic channels, microstructured arrays, and other intricate features—suitable for diverse research and manufacturing applications. (2) Proprietary intelligent slicing system: with independent intellectual property rights, it supports customizable printing strategies, integrates real-time slice previewing, reduces trial-and-error costs in research and prototyping, and accommodates dual-material printing requirements. (3) Closed-loop quality control design: equipped with three-dimensional microscopic measurement capabilities, ensuring consistent and repeatable printed structures, thereby guaranteeing reliable research data and meeting stringent product‑level precision standards. (4) Compatible material systems: microfluidics‑specific resins—including transparent/semi‑transparent resins for visual observation, biocompatible resins, and highly elastic soft resins—cater to varied research and manufacturing needs; ceramic and composite materials such as zirconia and alumina ceramic slurries for high‑temperature/high‑pressure environments, metal pastes for expanded application scopes, and functionalized ceramic materials. (5) Core product advantages: Dual‑material compatibility: one device covers both microfluidic resin and ceramic printing, addressing diverse research and precision‑manufacturing demands without requiring additional equipment. Micro‑ and nano‑scale precision: 1.9 µm exposure accuracy supports cutting‑edge micro‑ and nanoscale research experiments and the development of precision prototypes. Full‑process controllability: closed-loop quality control ensures reproducible research data, consistent structural integrity, and compliance with precision specifications. Customizable adaptation: proprietary software combined with open interfaces allows tailored solutions to meet specific requirements. (6) Application industries and scenarios: 1) Research applications: studies related to micro‑ and nano‑scale fluid flow, interfacial flow, fluid–solid coupling, material properties, novel material development, and biophysical research. 2) Industrial and medical extensions: biomedical applications including microfluidic biochips and precision components for medical devices; precision manufacturing of MEMS, sensors, and fine ceramic parts; research and education settings such as university laboratory projects and experimental teaching. Flex Y745: UV LED light source (405 nm), 1.9 µm exposure accuracy (a core parameter for micro‑ and nano‑scale fabrication), adjustable layer thickness of 5–20 µm to accommodate diverse structural designs, maximum build dimensions of 73 mm × 41 mm × 50 mm suitable for research samples and small precision parts. The slicing software is developed in‑house, supporting custom functions, including real-time slice previewing and three‑dimensional microscopic measurement. Key highlights: micro‑ and nano‑scale fabrication, dual‑material compatibility, empowering both research and precision manufacturing; a professional‑grade, high‑precision photopolymerization 3D printer that simultaneously supports microfluidic resins and ceramic materials, delivering exceptional precision specifically designed for microfluidic chips and ceramic component fabrication—enabling innovations in biomedicine, scientific research, and high‑end manufacturing.

The DM60 is a DeepDye coloring system launched by DyeMansion, designed for industrial additive manufacturing. It is primarily used to achieve uniform, stable, and penetrating coloration of 3D‑printed polymer parts, making it one of the industry’s most widely adopted solutions for standardized coloring of powder‑bed‑based printed components such as those produced via SLS, MJF, and SAF technologies. Designed with batch processing, repeatability, and minimal manual intervention in mind, the DM60 supports a range of common 3D‑printing materials—including PA11, PA12, TPU, and PP—delivering consistent, reliable color results that meet the demands of industries like consumer goods, medical devices, automotive interiors, and tooling and jigs for uniformity and customization of surface appearance.

Powerfuse S is an industrial‑grade steam‑polishing system for 3D‑printed polymer parts, developed by DyeMansion based on its VaporFuse Surfacing technology. It offers a green, steam‑based surface‑smoothing solution, primarily designed to polish the surfaces of 3D‑printed polymer components, significantly reducing surface roughness and delivering smooth, dense finishes. Targeting the demands of large‑scale industrial production, the device supports polymer materials such as PA11, PA12, and TPU used in powder‑bed additive manufacturing, and is compatible with mainstream powder‑bed technologies including SLS, SAF, MJF, and HSS. It can also be applied to surface finishing of parts made from materials like ULTEM and ABS in industrial FDM/FFF processes.

The Powershot X is an integrated 3D printing post‑processing system from DyeMansion, combining PolyShot Cleaning and PolyShot Surfacing technologies. As a next‑generation post‑processing solution, it seamlessly integrates cleaning and surface‑finishing steps, significantly streamlining the 3D printing post‑processing workflow. Designed specifically for polymer parts produced via powder‑bed additive manufacturing, the device is compatible with mainstream powder‑bed technologies such as SLS, SAF, MJF, and HSS, and supports a wide range of polymer materials, including PA11, PA12, TPU, and PP.

The Powershot C is DyeMansion’s flagship 3D‑printing polymer‑part cleaning system, featuring PolyShot Cleaning technology. As a widely adopted cleaning solution in the industry, it is designed to perform professional powder‑removal and cleaning on parts produced via powder‑bed 3D printing, serving as a foundational piece of equipment for post‑processing. It is compatible with a broad range of industrial‑grade powder‑bed fusion polymers, efficiently removing unsintered powder remaining on part surfaces, within internal cavities, and in crevices. The Powershot C supports common 3D‑printing polymers such as PA11, PA12, and TPU, and is compatible with parts manufactured on SLS printers from leading brands including EOS, Farsoon, and 3D Systems.

Aconity MICRO Overview: AconityMICRO is Aconity3D’s first compact, pre-configured system, specifically designed for a single application: MICRO LPBF. As such, the system combines a small spot size—down to 40 microns—with the ability to disperse extremely fine powders at layer thicknesses below 10 microns, thanks to Aconity3D’s revolutionary vibratory powder deposition technology. Additional highlights include fully removable powder hoppers and build trays, enabling end users to perform very rapid material changes and quick process startups. Like all Aconity3D systems, AconityMICRO is equipped with the web-based control software AconitySTUDIO, which provides remote access to all relevant process parameters and machine components. The web-based user interface allows convenient remote desktop access to all functions from your office—when needed. Equipment Parameters: Build chamber diameter 100 mm × height 150 mm; laser configuration: single-mode, 200 W/400 W; optical configuration/spot size: F-theta, 40 μm; 3D scanning range: 50–350 μm; powder hopper capacity: build chamber capacity fully interchangeable for rapid material changes; powder deposition: bidirectional with vibration; layer thickness: 10–100 μm; maximum scan speed: 12 m/s; inert gas type/pressure: argon 4.6/6 bar, nitrogen 6 bar; inert gas consumption during printing: <5 L/min; cleaning: <30 L/min; residual oxygen content: <100 ppm; machine dimensions (W × D × H): 2000 mm × 1000 mm × 1700 mm; machine weight (without powder): 1850 kg. Key Advantages: Ultra-high forming accuracy, optimized for processing fine powders; highly efficient material changeovers with exceptional operational flexibility; intelligent remote control for convenient operation; superior build environment with low consumable waste; compact design with excellent space adaptability.