Flex Y632
Micro- and nano-scale molding
Dual-material compatibility
Empowering Scientific Research and Precision Manufacturing
Professional-grade, high-precision photopolymerization 3D printer
It simultaneously supports high-precision printing of both microfluidic resins and ceramic materials.
Specifically designed for microfluidic chips and precision forming of ceramic materials.
Empowering biomedicine, scientific research innovation, and high-end manufacturing.
Product Introduction
(1) Micro- and Nano-Scale Photocuring Additive Manufacturing Technology
- 405 nm UV LED light source
- 2.0 μm exposure accuracy
- Adjustable layer thickness: 5–20 μm
- Enables precision fabrication of microfluidic channels, microstructured arrays, and other intricate features, catering to a wide range of research and manufacturing applications.
(2) Proprietary Intelligent Slicing System
With proprietary intellectual property, it supports customizable printing strategies, integrates real-time slicing preview, reduces R&D trial-and-error and product prototyping costs, and accommodates dual-material printing requirements.
(3) Closed-loop quality control design
Equipped with 3D microscopic measurement capabilities, it ensures print‑out structural consistency and repeatability, thereby guaranteeing the reliability of research data and meeting product‑level precision requirements.
(4) Compatible Material System
- Microfluidic‑specific resins: transparent/semi‑transparent resins (for visual observation), biocompatible resins, and highly elastic soft resins (designed to meet diverse research and manufacturing needs).
- Ceramics and composite materials: zirconia, alumina ceramic slurries (for high‑temperature/high‑pressure applications), metal pastes (to expand application horizons), and functionalized ceramic materials.
(5) Core Product Advantages
- Dual-material compatibility: One single device supports both microfluidic resin and ceramic printing, meeting the diverse needs of research and precision manufacturing—no additional equipment required.
- Micro‑ and nano‑scale precision: 2.0 μm exposure accuracy, enabling cutting‑edge research experiments and the prototyping of high‑precision products at the micro‑ and nanoscale.
- End-to-end controllability: Closed-loop quality control ensures reproducibility of research data, consistency in product structure, and compliance with precision standards.
- Customized Adaptation: Proprietary software combined with open APIs, enabling tailored solutions to meet specific requirements.
(6) Application Industries and Scenarios
1) Applications in the field of scientific research
- Research on micro- and nanoscale flows and interfacial flows
- Research on fluid–structure interaction and material properties
- Development of novel materials and biophysics-related research
2) Industrial and Medical Extended Applications
- Biomedical: Microfluidic biochips, precision components for medical devices
- Precision Manufacturing: Prototyping of MEMS, Sensors, and Precision Ceramic Components
- Research and Education: University laboratory research projects and experimental teaching
Equipment Parameters
Model number
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Flex Y632
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Light source
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Ultraviolet LED (405 nm)
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Exposure accuracy
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2.0 micrometers (Core Parameters of Micro/Nano Molding)
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Print layer thickness
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5–20 micrometers (Adjustable, compatible with diverse structures)
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Maximum machining size
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60 mm×30 mm×20 mm (suitable for research samples and small precision components)
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Slicing software
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In-house development, with support for custom features.
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Accessibility
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Real-time slice preview and 3D microscopic measurement
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Download Materials
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.
Model: Flex C831 Light Source: UV LED (405 nm) Exposure Accuracy: 10 µm (key parameter for micro‑ and nano‑fabrication) Layer Thickness: 5–40 µm (adjustable, suitable for diverse structures) Maximum Build Volume: 80 mm × 30 mm × 10 mm (ideal for research samples and small precision parts) Slicing Software: Proprietary, with customizable features; includes real-time slicing preview and 3D microscopic measurement.
Model: Flex C762 Light Source: UV LED (405 nm) Exposure Resolution: 12 µm (key parameter for micro‑ and nano‑fabrication) Layer Thickness: 5–40 µm (adjustable, suitable for multi‑material structures) Maximum Build Volume: 70 mm × 60 mm × 20 mm (ideal for research samples and small precision parts) Slicing Software: Proprietary, with customizable features; includes real-time slicing preview and 3D microscopic measurement.
With the rapid advancement of technology, smart wearable devices are becoming increasingly ubiquitous. Our daily lives, sports activities, health monitoring, and even personal safety all rely on these “smart garments.” However, to achieve truly “intimate” smart functionality, one key challenge is solving the energy‑supply problem: conventional batteries are bulky, rigid, and difficult to integrate into soft textile materials, while their lifespan, charge‑discharge performance, and wash durability all pose significant hurdles. Consequently, developing lightweight, flexible, washable energy storage devices with superior performance has emerged as a crucial breakthrough for advancing the smart‑wearable industry. Supercapacitors, with their high power density, long cycle life, and rapid charge‑discharge capabilities, stand out as an ideal choice. Integrating supercapacitors directly into textiles has thus become the industry’s ultimate goal. Today, we introduce an exciting technological breakthrough: using aerosol jet printing (AJP) to directly “print” high‑performance MXene materials onto fabrics, creating miniature supercapacitors that are both soft and washable, while delivering exceptional performance—ushering in a new era for wearable electronics.
With the rapid advancement of microelectronic devices and wearable technologies, on-chip energy storage components must balance high energy density with compact form factors. Micro-supercapacitors (MSCs) have emerged as a leading candidate; however, conventional planar electrode architectures suffer from low active-material loading and long ion‑transport pathways. Two-dimensional Ti₃C₂Tₓ MXene materials, with their high specific surface area and excellent electrochemical performance, are an ideal choice for fabricating high‑performance MSCs. Nevertheless, their 3D assembly faces three major challenges: first, MXene nanosheets are held together only by weak van der Waals forces and hydrogen bonds, lacking strong interfacial interactions and thus failing to maintain a stable 3D architecture; second, existing methods rely on binders and other additives, which can occupy active sites and degrade device performance; third, traditional 3D‑printing techniques exhibit low resolution (typically >40 μm) and low aspect ratios (generally <0.3), making it difficult to fabricate high‑fidelity, complex 3D microstructures. To address these bottlenecks, a team at Carnegie Mellon University has developed an additive‑free aerosol jet printing (AJP) technique that enables the 3D self‑supporting assembly of MXene nanosheets. The resulting work was published in the journal Small.
When you’re exercising with a smartwatch, do you often worry about the battery suddenly running out? And as IoT sensors become ubiquitous in homes and cities, how can we provide these tiny devices with a long-lasting, reliable power supply? With the explosive growth of portable and wearable electronics and IoT technologies, the limitations of traditional energy-storage devices—such as miniaturization, high integration, and flexibility—are becoming increasingly apparent. Recently, research teams from institutions including the Guangdong–Israel Institute of Technology and the Southern University of Science and Technology published a groundbreaking achievement in ACS Applied Energy Materials. Using aerosol-jet 3D printing technology, they successfully fabricated an array of graphene‑based hollow‑pillar electrode (HPE) microsupercapacitors (MSCs). These devices not only deliver a high output voltage of 10 V but also boast an exceptionally high integration density of 102 cm⁻², while maintaining excellent bending stability, thus opening up new avenues for the development of miniature energy‑storage devices.
Researchers at Carnegie Mellon University pioneered the CMU Array.
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