Aconity MICRO Micro- and Nano-Metal 3D Printer
Ultra-high forming accuracy, optimized for fine powder processing.
Efficient material changeover and high operational flexibility
Intelligent remote control for convenient operation.
High-quality forming environment with low material waste.
Compact design with excellent space adaptability.
Product Introduction
AconityMICRO is Aconity3D’s first compact, pre-configured system, specifically designed for a single application: MICROLPBF. As such, the system combines a small spot size—down to 40 microns—with the ability to evenly distribute extremely fine powder at layer thicknesses below 10 microns, thanks to Aconity3D’s revolutionary vibratory powder deposition technology.
Other highlights include fully removable powder hoppers and build trays, enabling end users to perform extremely rapid material changes and quick process startups.
Like all Aconity3D systems, the AconityMICRO is equipped with the web-based control software AconitySTUDIO, which enables remote access to all relevant process parameters and machine components. The web-based user interface allows convenient remote access to all functions from a remote desktop in your office—when needed.
Equipment Parameters
Equipment Parameters
| Constructing Space | Ø100mm x H150mm |
| Laser configuration | Single-mode 200W/400W |
| Optical Configuration/ Spot size | F-Theta/40μm 3D scanning / 50–350 μm |
| Powder cylinder/ Construct the cylinder | Fully interchangeable for rapid material changes |
| Powder deposition | Bidirectional and vibration |
| Layer thickness | 10–100 μm |
| Maximum scanning speed | 12m/s |
| Inert gas type/pressure | Argon 4.6/6 bar Nitrogen/6 bar |
| Inert gas consumption | During the process: <5 L/min During the cleaning process: <30 L/min |
| Residual oxygen content | <100 ppm |
| Machine dimensions (width × depth × height) | 2000mmx1000mmx1700mm |
| Machine weight (excluding powder) | 1850 kg |
Download Materials
The Aerosol Jet 200 is a compact, benchtop aerosol jet printing system designed for professional-grade research prototyping, materials and process development, and small-batch custom production. It offers an excellent balance of high print resolution, multi-material compatibility, and ease of use, making it a cost-effective platform ideally suited for universities, research institutions, materials developers, and small-scale electronics manufacturers.
Throughput accuracy/repeatability, printing line dimensions, working area, materials: 3 point-to-point wires per second; on-chip wire stacking up to 48 wires per second; ±5 μm over 25 mm; ±2 μm over 25 mm; variable range 10–860 μm; minimum pitch 20 μm; thickness: 1–10+ μm; 300 × 300 mm (X–Y), 100 mm (Z); conductors: silver, copper, gold, aluminum, nickel, indium (under development); dielectrics: polyimide, UV-curable acrylate photoresist; metamaterials: graphene, perovskite, MXene; motion system and process-control software; vision system and atomizer; XY: linear motors; Z: recirculating ball screws; digital incremental encoders with 0.1 μm resolution; digital recipe control with automatic alarms for process monitoring; CAD/CAM offline programming; easy programming, automation of fabrication, motion, and vision systems; Cognex Vision tools: Blob, Edge, PatMAX; 12 MP USB 3.0; RGB LED illumination; ultrasonic atomization (1–15 kHz) or pneumatic atomization (1–1000 kHz); power supply: 200–250 VAC single-phase, 50/60 Hz; nitrogen: 50 psi at 28 SLPM (max); dimensions: 1168 × 1525 × 2185 mm (46 × 60 × 86 inches); weight: 1250 lbs (567 kg); floor load capacity: 4 in (102 mm) continuous padding thickness.
The Aerosol Jet 5X system is a modular, conformal printing solution for electronic products that meets evolving R&D and manufacturing needs. Driven by both R&D and production requirements, the system addresses increasing demands for advanced product functionality while enabling smaller form factors and reduced weight. With capabilities ranging from planar to multi-axis deposition, it supports rapid prototyping and facilitates small-batch production.
With the rapid advancement of microelectronic devices and wearable technologies, on-chip energy-storage components must simultaneously achieve high energy density and compact form factors, making micro-supercapacitors (MSCs) a prime 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 outstanding electrochemical performance, are an ideal choice for fabricating high-performance MSCs; yet their 3D assembly faces three major challenges: first, the interlayer interactions among MXene nanosheets are limited to weak van der Waals forces and hydrogen bonds, lacking strong interfacial cohesion and thus making it difficult to maintain a stable 3D architecture; second, existing fabrication methods rely on binders and other additives, which can occupy active sites and degrade device performance; and third, conventional 3D-printing techniques suffer from low resolution (typically >40 μm) and a low aspect ratio (generally <0.3), rendering them incapable of producing high-fidelity, complex 3D microstructures. To address these bottlenecks, a team at Carnegie Mellon University in the United States has developed an additive-free aerosol-jetting 3D-printing (AJP) technique that successfully enables the 3D self-supporting assembly of MXene nanosheets. The relevant findings have been published in the journal Small.
With the rapid advancement of technology, smart wearable devices are becoming increasingly ubiquitous, integral to our daily lives, sports activities, health monitoring, and even personal safety. However, achieving truly “body-integrated” intelligence hinges on solving the challenge of power supply: conventional batteries are bulky and rigid, making it difficult to incorporate them into soft textile materials; moreover, their lifespan, charge–discharge performance, and wash durability all pose significant challenges. Consequently, developing lightweight, flexible, washable energy-storage devices with superior performance has emerged as a critical breakthrough for advancing the smart-wear industry. Supercapacitors, with their high power density, long cycle life, and rapid charge–discharge capabilities, stand out as an ideal choice. The ultimate goal of the industry is to directly integrate supercapacitors into textiles. Today, we will 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 outstanding performance—ushering in a new era of wearable electronics.
When you wear a smartwatch during exercise, 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 conventional energy-storage devices—such as their difficulty in achieving miniaturization, high integration, and flexibility—are becoming increasingly apparent. Recently, research teams from the Guangdong–Israel Institute of Technology, Southern University of Science and Technology, and other institutions published a groundbreaking achievement in ACS Applied Energy Materials: using aerosol-jet 3D printing, they successfully fabricated an array of graphene hollow-pillar electrode (HPE)–based micro-supercapacitors (MSCs). These devices not only deliver a high output voltage of 10 V but also boast an ultra-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.
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