InFURNER compact high-vacuum furnace

InFURNER Compact High-Vacuum Furnace — An Advanced High-Vacuum Heat-Treatment System for Additive Manufacturing Component deformation is one of the core challenges affecting both the performance and dimensional accuracy of additively manufactured parts. A well‑defined, precise heat‑treatment process is essential to ensure uniform microstructure, eliminate residual stresses, and enhance mechanical properties and service reliability. A high‑vacuum environment effectively prevents oxidation, contamination, and decarburization during heat treatment, providing stable, clean, and highly precise controlled thermal conditions throughout the entire additive manufacturing workflow. The materials used for the heaters and insulation shields vary depending on the maximum temperature option: - At a maximum operating temperature of 1200 °C, molybdenum heaters paired with molybdenum insulation shields are employed, suitable for stress relief and annealing of common AM materials such as titanium‑based alloys. This configuration efficiently reduces internal stresses generated during printing and minimizes deformation and cracking. - At a maximum operating temperature of 1600 °C, tantalum heaters combined with tungsten insulation shields deliver superior high‑temperature resistance, meeting the demanding sintering and solution‑treatment requirements of refractory metals and high‑temperature alloys, making it ideal for producing advanced AM components. Both temperature options offer two chamber sizes: - Diameter 120 mm × Height 100 mm: perfectly compatible with small‑scale 3D printers, catering to small specimens and batch processing of miniature parts. - Diameter 200 mm × Height 200 mm: designed for mainstream mid‑size 3D printers, balancing processing capacity with versatility to cover most industrial‑grade post‑processing needs. All models feature a pre‑vacuum capability reaching 10⁻² mbar; when equipped with a turbomolecular pump, vacuum levels can drop as low as 2×10⁻⁷ mbar, and with an optional ion pump, further improvement to 3×10⁻⁹ mbar is possible, delivering an ultra‑high‑vacuum heat‑treatment environment that is exceptionally clean and free from contamination. Key Advantages and Features: This furnace boasts a compact design and robust performance, integrating precision engineering with cutting‑edge functionality to comprehensively meet diverse research requirements. Its exceptional versatility and space‑efficient form factor make it an ideal choice for university laboratories and research institutes. Laboratory‑Grade Compact Design: With overall dimensions of 1200 × 800 mm and a cylindrical working chamber, it offers flexible chamber specifications—diameters ranging from 120 to 200 mm and heights from 100 to 200 mm—enabling versatile handling of samples and small components. Dual‑Zone Precision Temperature Control: Available in two maximum operating temperature configurations, allowing users to select based on material and process needs. The 1200 °C zone supports LPBF titanium alloy heat treatment and vacuum brazing, while the 1600 °C zone addresses demanding applications such as high‑temperature sintering of refractory metals. Multi‑Stage High‑Vacuum System: Compatible with diffusion pumps, turbomolecular pumps, ion pumps, and other high‑vacuum units, this system covers a broad range of vacuum levels, achieving pressures between 3×10⁻⁵ and 3×10⁻⁹ mbar, ensuring an oxide‑free, contamination‑free thermal environment. High‑Pressure Gas Quenching: Equipped with a high‑pressure gas quenching function, this feature significantly enhances part cleanliness, accelerates cooling rates within the furnace, and effectively reduces component distortion. Common quenching media include nitrogen, argon, and helium, tailored to meet the specific cooling requirements of various materials. Comprehensive Process Data Acquisition and Traceability: The system automatically collects and stores complete process data, satisfying quality‑assurance standards in fields such as medical devices and aerospace, while also providing reliable, traceable experimental data for scientific research. Versatile Research Applications: Widely applicable to LPBF titanium alloy heat treatment, vacuum brazing, high‑temperature sintering, and material development and process validation projects, this multi‑purpose machine addresses core post‑processing needs in additive manufacturing. Key Highlights: Compact structure, laboratory‑friendly dual‑zone temperature configuration, compatibility with ultra‑high vacuum levels, clean processing via high‑pressure gas quenching, minimal deformation, high efficiency, and full data traceability—meeting the stringent requirements of high‑end certifications.

ArcMELTER Multi-Functional Arc Melting Furnace

ArcMELTER Multi‑Functional Arc Melting Furnace Operating Principle: The ArcMELTER is a specialized device that uses an electric arc as its heat source to melt, refine, and cast metals and alloys. A stable arc is ignited between the electrode and the material to be melted, generating ultra‑high temperatures exceeding 3,000°C. This enables rapid melting and thorough refining, followed by casting into the desired shape. The equipment typically operates under an inert gas atmosphere, maintained by a vacuum pump and an inert gas control system, effectively preventing oxidation or contamination of the metal at elevated temperatures. Equipped with a water‑cooled furnace chamber and tungsten electrodes, the system ensures stable operation even under extreme thermal conditions, guaranteeing a safe and efficient melting process. The ArcMELTER boasts an exceptionally broad range of applications, capable of melting high‑melting‑point refractory metals such as tungsten, tantalum, and molybdenum, as well as various conventional metals and alloys. It is an ideal choice for materials research and development, the production of high‑temperature alloys, and the melting of ultra‑pure metals. Arc Remelting Process: Arc melting is a critical high‑temperature metallurgical technique used for melting and refining metals. By harnessing the intense heat generated by an electric arc, it achieves complete metal fusion at temperatures often exceeding 3,000°C—sufficient to readily melt rare, high‑melting‑point metals like titanium, niobium, and zirconium that are difficult to process using conventional methods. As such, arc melting serves as a cornerstone technology for producing high‑quality metals and alloys. Its operating principle is as follows: Arc Generation: A stable arc is struck between a consumable or non‑consumable electrode and the metal to be melted. The entire process takes place under vacuum or in a protective atmosphere, effectively isolating the metal from ambient air to prevent oxidation, nitridation, and other forms of contamination, thereby ensuring material purity. Melting and Refining: The high‑density thermal energy released by the arc rapidly melts the metal into a liquid state. During this phase, gases and low‑melting‑point impurities within the charge rise to the surface and can be removed, while refining agents may be added as needed to further eliminate undesirable elements and adjust alloy compositions, achieving deep purification. Solidification and Shaping: Once melted and refined, the metal is either directionally cast or allowed to cool directly in a crucible, solidifying into ingots, billets, or components molded to specific shapes. The resulting products exhibit uniform microstructures and stable chemical compositions. Applications of Arc Melting Machines: In additive manufacturing, the selection of metal powders is a pivotal step in developing commercial applications and evaluating core technologies and economic parameters. Powder quality directly influences the performance and overall cost of the final part, making it a key factor in project feasibility. Even powders with similar chemical compositions and particle size distributions can differ significantly in flowability, powder spreading characteristics, and forming stability within printing equipment, thereby impacting part quality and production efficiency. For example: Alloy Prototype Fabrication: Raw materials or recycled scrap can be used to produce castings or powdered prototypes of novel alloy systems. Raw Material Preparation: Arc melting machines can generate atomized alloy powders, custom master alloys with tailored compositions, and feedstocks for high‑entropy alloy research, enabling subsequent annealing performance testing in inFURNER systems. Recycling: Failed printed parts, unused powders, and other process waste can be reprocessed into high‑quality fine powders. Amazemet’s arcMeter series represents a laboratory‑grade furnace line launched following the inFURNER series of vacuum heat treatment furnaces. This equipment can be flexibly upgraded into a customizable rePOWDER ultrasonic atomizer, helping you build a comprehensive in‑house metal atomization experimental setup. Additionally, it supports plasma arc melting and induction melting capabilities, allowing you to handle a wider array of materials efficiently and conduct in‑depth research through an integrated solution. Core Advantages and Features: We focus on innovating arc melting technologies, offering customized vacuum furnaces and arc melting chambers that combine high‑precision control, exceptional operational stability, and high production efficiency. These systems comprehensively optimize both R&D experiments and large‑scale manufacturing processes. With support for upgrading to ultrasonic atomization systems, they facilitate new material development, process innovation, and quality enhancement. Leveraging advanced technologies and modular designs, we deliver long‑term, reliable, future‑oriented melting solutions that significantly boost your competitive edge and investment value. Arc Melting Case Studies: Through five representative applications—recycling titanium alloy chips, preparing irregular powders for alloy production, creating custom master alloys, developing metal matrix composites, and synthesizing pure elements for high‑entropy alloys—the arcMELTER demonstrates its core strengths and broad applicability in advanced material recycling, customized fabrication, and cutting‑edge research.

Powder2Powder

Powder2Powder: A Powder‑to‑Powder Processing System Foreword: Are you still struggling with unusable metal powders? The handling of substandard metal powders presents a host of practical challenges: process‑generated, non‑recoverable powder leads to unnecessary cost; continuous procurement of fresh powder is required; idle powder occupies valuable storage space and demands strict safety protocols for storage and handling; in additive manufacturing, the use of mixed powders can compromise the quality of final parts; moreover, non‑compliant powders are subject to regulatory and environmental compliance restrictions, making their disposal both complex and costly. In addition, testing and managing residual powder consumes significant time, and if results fail to meet specifications, re‑procurement and retesting further delay production. Today, the metal powder industry faces substantial hurdles in recycling and reuse, underscoring an urgent need for innovative solutions. Currently, no commercially available system offers an ideal solution tailored to small‑ and medium‑batch operations; existing technologies all have limitations: plasma spheroidization can remelt powder particles into spherical shapes using a plasma jet, improving flowability, optimizing particle size distribution, and eliminating internal defects—but it cannot alter particle size or homogenize mixed powders; sieving and classification can separate usable from non‑conforming powder by size, refining particle size distribution, yet it fails to enhance flowability or repair powder defects; re‑atomization can remelt degraded powder into fine droplets, yielding uniform, qualified powder—a viable approach for correcting irregularly shaped particles—but it is expensive, energy‑intensive, and requires sophisticated equipment, rendering it uneconomical for small‑scale recycling. Repeated remelting risks alloy composition fluctuations and oxidation, compromising powder performance and extending processing cycles. A Revolutionary Solution: AMAZEMET Introducing AMAZEMET, a groundbreaking patented solution that disrupts the market by addressing critical pain points in the industry—namely, the lack of a single technology capable of efficiently recovering metal powders and transforming mixed powders into homogeneous alloy powders. This innovative technology targets core bottlenecks in metal powder atomization, building on AMAZEMET’s prior breakthroughs in ultrasonic atomization while leveraging its globally filed portfolio of 12 patents to further solidify its technological leadership. This advancement enables leap‑forward progress in the efficient recovery and regeneration of metal powders, powerfully supporting additive manufacturing, cutting‑edge R&D, and high‑precision fabrication sectors, and reshaping the landscape of powder circularity. How It Works: The Powder2Powder (P2P) technology seamlessly integrates two core processes—plasma treatment and ultrasonic atomization—to transform irregularly shaped, oversized, or performance‑degraded feedstock powders into high‑quality, highly spherical powders with excellent flowability and no satellite particles, thereby significantly enhancing forming stability and part quality in additive manufacturing (AM). During operation, raw powder is precisely fed into a molten pool via a plasma torch, achieving complete remelting and compositional homogenization, fundamentally eliminating preexisting particle defects and compositional inconsistencies. Subsequently, ultrasonic atomization utilizes stable standing waves within the molten pool to precisely spray the molten metal into next‑generation, high‑performance powder. Compared with conventional plasma spheroidization, P2P technology is not constrained by initial particle size, making it one of the few proprietary systems worldwide capable of directly atomizing titanium powder. Furthermore, the system can handle mixtures of multiple elemental powders, enabling on‑site preparation of precisely composed, uniformly structured pre‑alloyed powders—offering unprecedented material‑creation and recycling solutions for advanced AM applications. Advantages and Features: With this state‑of‑the‑art integrated solution, end‑to‑end management of metal powders becomes efficient, convenient, and fully controllable. The equipment supports continuous closed‑loop production unaffected by fluctuations in feedstock quality, consistently delivering high‑sphericity, high‑performance metal powders batch after batch, thus ensuring stability for additive manufacturing and materials research from the outset. From a cost and operational standpoint, the solution dramatically reduces powder procurement expenses and streamlines purchasing procedures: a single purchase of raw powder allows for repeated recycling until complete consumption, significantly cutting down on redundant purchases and capital tied up in inventory, while boosting overall production efficiency. Environmentally and sustainably, the system greatly minimizes powder waste and disposal burdens: by replacing direct discarding with recycling and reuse, it minimizes resource waste and environmental impact, establishing a green, sustainable closed‑loop production chain that deeply embeds powder recovery, regeneration, and reuse throughout the entire manufacturing process—delivering both economic and ecological benefits. The solution also boasts exceptional flexibility: it can directly utilize existing scrap and idle powders to customize new materials, blending batches of varying compositions to produce uniformly sized, precisely formulated alloy powders tailored to specific needs. As a versatile research platform for metallic materials, a single unit can accommodate diverse feedstocks to produce high‑quality metal powders while providing robust support for materials development through its efficient atomization capabilities. With this system, research teams can leverage recycled materials to explore entirely new avenues of inquiry, uncovering additional innovative application scenarios and elevating materials research and process innovation to unprecedented heights. Key Highlights: • Closed‑loop, stable production with consistent powder quality • Single purchase, repeated reuse, drastically reducing costs • Minimized powder waste, environmentally friendly and sustainable • Customizable new alloy powders from recycled materials • Multi‑purpose functionality, adaptable to various feedstocks and atomization requirements

repowder

Introduction: Our ultrasonic atomization powder-production equipment can efficiently process raw materials of any alloy and in any form—even small sample quantities—directly yielding metal powders with uniform properties. Whether for new-material R&D or small-batch pilot production, it swiftly meets powder-production needs. The system also supports the use of virgin feedstock or recycled scrap to fabricate prototype castings and powder-based prototypes for novel alloy systems. Leveraging rePOWDER’s patented technology, it enables the resource recovery and regeneration of failed print parts, excess powder, process waste, and discarded powder, reprocessing them into high-quality fine powders. This significantly reduces material costs, boosts material utilization, and provides an efficient, environmentally friendly, integrated powder-production solution for alloy development and additive manufacturing. Ultrasonic Atomization Principle: Ultrasonic atomization is a liquid–solid separation process that uses ultrasonic vibrations to break down material into fine powder. The core principle hinges on vibration amplitude and the wettability of the material surface: when the vibration amplitude of the liquid film wetting the ultrasonic transducer exceeds a critical threshold, standing capillary waves are generated (Lierke et al., 1967); further increasing the amplitude disrupts the internal cohesive forces within the melt, causing it to be ejected as tiny droplets and ultimately forming metal powder. The particle-size distribution (PSD) can be tuned by selecting different ultrasonic frequencies: (the resulting particle size is primarily determined by the ultrasonic frequency, but is also influenced by the physical properties of the liquid material, such as density.) A frequency of 20 kHz is suitable for electron-beam melting (EBM) and direct-energy deposition (DED), producing d50 values between 80 and 100 μm depending on the atomized material. A frequency of 40 kHz is ideal for laser powder-bed fusion (LPBF) and sintering, yielding d50 sizes of 45–60 μm. A frequency of 60 kHz is best for LPBF, binder-jetting (BJ), thermal spraying, and sintering, achieving d50 values of 35–45 μm. The resulting narrow particle-size distribution allows up to 80% of the produced powder to be used in specialized processes. The rePOWDER ultrasonic atomization powder-production system can flexibly handle various forms of raw material—including wire, irregular-shaped feedstock, and long rods—and supports diverse processing routes, from wire-to-powder and powder-to-powder to manual feeding via arc melting and automated rod feeding. Ultimately, it efficiently produces high-quality metal powders with uniform particle size, providing reliable support for advanced manufacturing and material recycling. By employing state-of-the-art ultrasonic atomization technology, we can use a wide range of materials to produce high-performance, custom-made metal powders tailored to your specific requirements, ensuring optimal performance in real-world applications. The figure below shows validated material systems; additional new materials are continuously under development. Two Types of Heat Sources: ① Induction Melting: Induction melting is typically used for alloys with melting points up to 1300°C, such as: · Volatile materials with relatively low melting points that readily evaporate in plasma, including Sn, Zn, Mg, Pb, and Al alloys. · Materials with high heat capacity and high thermal conductivity, such as Cu and other precious metals like Ag and Au alloys. Any shape or form of material can be placed in the crucible, including final alloys, master alloys, or pure elements. Under the influence of magnetic stirring, all materials readily alloy together. ② Arc/Plasma Melting: Heating can be carried out in an inert or reactive atmosphere using an electric arc (TIG generator) or focused plasma. Top feeding and melting of the consumable electrode require the use of suitably designed ultrasonic electrodes to enhance their interaction with the workpiece, thereby minimizing external contamination. This method is well suited for use with all medium- and high-melting-point materials, including: · Iron-based alloys · Ti-, Ni-, Pt-, Ir-based alloys · Refractory materials such as W, Ta, V, Mo, Nb, and Re, as well as high-entropy alloys · Metal composites Core Advantages and Features: Processing of Any Element or Alloy: Ultrasonic atomization can be applied to a wide range of pure elements—from Zn and Mg to Pt, Mo, and Ta—as well as to any alloy composition, such as Mg-Li, CuSn6, TiTaZrRuCu, and others. Handling of All Forms of Raw Material: The system can atomize chips, failed additive-manufacturing prints, damaged samples, rods, wires, powders, and more. Automated Operation: Various automatic feeders—for powders, rods, and wires—and automated plasma cutters make operation as simple as possible. Modularity and Open Architecture: The rePowder platform features a modular design, allowing new modules to be added at any time. All connections within the equipment comply with current standards (e.g., ISO-KF), enabling each customer to design and connect their own modules as needed. One Device, Many Possibilities: The rePowder platform can perform multiple different types of processes using a single unit, including preparing new compositions, homogenizing alloys, ultrasonic atomization, suction casting, and other options currently under development. Multiple Alloys Produced in a Single Day: The equipment is laboratory-scale, easy to clean, and allows rapid material changes. Within a single day, different alloys can be repeatedly atomized on different ultrasonic systems. Wide Range of Applications: The resulting powder can be used in a variety of technologies, including additive manufacturing, sintering, thermal spraying, catalysis, and more. Recycling: The equipment can reprocess printed components or scrap into powder for further use in desired applications. Low Maintenance Costs: The system requires only a very small amount of inert gas—about 10 liters per minute—and the cost of a single atomization run is negligible. Depending on specific needs, multiple capacity options are available, ranging from a few grams per day (for small batches of alloys or rare, expensive elements) to several kilograms per day (when processing wire or using the induction module). Equipment Parameters: Heat Source: Induction Heat Source, Arc/Plasma Heat Source, Dual-Heat-Source System Footprint: Approximately 360 × 220 × 220 cm Power Requirements: 380 VAC, 50 Hz, three-phase, 36 A per phase 340 A at 40% load (250 A at 100% load) 380 VAC, 50 Hz, three-phase, 36 A per phase Sphericity: 0.98, no satellite particles 0.98, no satellite particles 0.98, no satellite particles Minimum Atomization Start-Up Quantity: ≤100 g ≤100 g ≤100 g Supported Materials: Includes, but is not limited to, stainless steel, high-temperature alloys, titanium alloys, platinum–iridium and platinum–rhodium alloys, and high-entropy alloys. Alloy Materials: Includes, but is not limited to, stainless steel, high-temperature alloys, titanium alloys, platinum–iridium and platinum–rhodium alloys, and high-entropy alloys. Induction Atomization Unit: Consists of an electrical cabinet, an induction furnace, an induction atomization chamber, and a collection device—an independent unit. Plasma Atomization Unit: Comprises an atomization chamber, vacuum and gas management systems, feeders, a plasma torch, transducers, vacuum manipulators, and a powder-collection container with an airlock. Induction Heat Source: Melting temperature ≥1300°C / ≥1300°C Plasma Heat Source: Temperature ≥3500°C / ≥3500°C (3) Key Advantages: · Compact footprint and simple operation · Cost savings and low inert-gas consumption · No powder adhesion to the inner walls of the atomization chamber · Rapid cleaning of the atomization chamber

Powershot DUAL Performance

Powershot DUAL Performance is DyeMansion’s high-end, all-in-one sandblasting system designed for the future of industrial-scale 3D printing production. It integrates PolyShot Cleaning and PolyShot Surfacing surface‑treatment technologies, and—building on the Powershot X—delivers comprehensive performance upgrades and structural optimizations tailored to the demands of high‑volume additive manufacturing. This post‑processing sandblasting system is engineered specifically for industrial‑scale production. The equipment offers full compatibility with all major powder‑bed 3D printing technologies, including SLS, SAF, MJF, and HSS, and supports the entire range of industrial‑grade 3D printing polymers, such as PA11, PA12, TPU, and PP.

Flex A732

Model: Flex A732 Light Source: UV LED (405 nm) Exposure Resolution: 30 µm (key parameter for micro‑ and nano‑fabrication) Layer Thickness: 5–60 µm (adjustable, suitable for diverse structures) Maximum Build Volume: 70 mm × 30 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.

Flex A532

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 diverse 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.

Flex C762

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.

Flex C831

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.