Powerfuse S
Steam fusion polishing results in a smooth, dense surface.
Maintains dimensional accuracy, suitable for precision parts.
Environmentally friendly medium, recyclable and reusable.
Fully encapsulated with a complex structure, leaving no unpolished死角.
Enhancing the waterproof, stain-resistant, and wear-resistant properties of parts
Fully automated operation with high process stability.
Compatible with a wide range of engineering plastics, offering strong versatility.
Product Introduction
General Introduction
Powerfuse S is an industrial-grade 3D printing polymer-part vapor polishing system developed by DyeMansion, leveraging VaporFuse Surfacing—a vapor-based fusion and smoothing surface-treatment technology. It represents a leading green vapor-smoothing solution in the industry, specifically designed for surface finishing of 3D-printed polymer parts to dramatically reduce surface roughness and achieve a smooth, dense finish. The system is tailored to meet the demands of large-scale industrial production, supporting powder-bed 3D-printed polymers such as PA11, PA12, and TPU, and compatible with mainstream powder-bed technologies including SLS, SAF, MJF, and HSS. It can also be used for surface polishing of parts printed via industrial FDM/FFF processes using materials like ULTEM and ABS. Powerfuse S employs an environmentally friendly vapor-polishing process that requires no harmful chemical reagents, fully complying with industrial environmental standards while maintaining low operating costs. As a result, it serves as a core piece of equipment for achieving high-precision surface finishing in large-scale 3D-printing production. Its overall design is optimized for continuous industrial operations, featuring a spacious processing chamber that enables simultaneous treatment of multiple parts, along with a high degree of automation. The system supports precise control and storage of process parameters, ensuring consistent polishing results. Powerfuse S can be seamlessly integrated with DyeMansion’s cleaning, surface-treatment, and coloring equipment to form a complete post-processing workflow for 3D printing. The polished parts exhibit a smooth, dense surface that not only enhances aesthetic quality but also improves water resistance, stain resistance, and wear resistance, thereby expanding the range of applications for 3D-printed components. This makes it widely applicable in 3D-printing sectors where superior surface smoothness is critical.
Working Principle
Powerfuse S employs VaporFuse Surfacing steam fusion technology to achieve surface polishing of 3D-printed parts. The core principle involves exposing the part’s surface to steam at a precisely controlled temperature and pressure, causing localized melting and recrystallization of the polymer molecules on the surface. This process fills microscopic pores and surface irregularities, resulting in a smooth, dense finish. The entire procedure is carried out within a sealed, high-pressure processing chamber, with process parameters meticulously controlled to ensure consistent polishing results. The polishing medium is a proprietary, environmentally friendly organic vapor that contains no harmful constituents and complies with industrial environmental standards. Prior to startup, the cleaned and pre-treated 3D-printed part is securely mounted on a specialized, high-temperature-resistant fixture and placed inside the sealed high-pressure chamber. The fixture features a perforated design to ensure thorough contact between the steam and all surfaces of the part. For parts with internal cavities or narrow gaps, the fixture allows adjustment of the part’s orientation to guarantee complete steam coverage. Once the system is activated, the chamber is first sealed and evacuated to remove ambient air, thereby preventing air from interfering with the interaction between the steam and the part’s surface. The proprietary organic medium is then heated until it reaches its vapor state; the resulting steam is delivered into the chamber, where the control system precisely regulates steam temperature, pressure, and dwell time. Steam temperature is set according to the specific polymer material of the part, ensuring that only the surface molecular layer undergoes localized melting without compromising the part’s bulk structure or dimensional accuracy. When the high-temperature, high-pressure steam contacts the part’s surface, the polymer molecules absorb the steam’s heat and melt locally, filling the microscopic pores and surface irregularities created during the 3D-printing process. Under pressure, the molten polymer layer subsequently recrystallizes, forming a smooth, dense surface layer. Upon completion of the polishing cycle, the system gradually reduces chamber temperature and pressure, allowing the steam to condense back into liquid form for recovery and recycling. The chamber is then opened, and the polished part is removed. The entire polishing process is precisely controlled by software, with key parameters such as temperature, pressure, and dwell time customizable based on the part’s material, geometry, and surface requirements. The equipment includes multiple standardized process-parameter libraries that predefine optimal settings for different materials and part types, ensuring stable and consistent polishing performance.
Advantages and Key Features
The core advantages of Powerfuse S lie in its green, environmentally friendly steam polishing process, its high-precision surface finish, and its suitability for large-scale industrial production. It also features low operating costs, exceptional process stability, and enhanced part performance, making it the mainstream equipment for surface finishing in industrial 3D printing. In terms of polishing results, the system employs steam melting-and-condensation technology to achieve microscopic-level smoothing of part surfaces, dramatically reducing surface roughness to deliver a smooth, dense finish that far surpasses the outcomes of conventional sandblasting and manual polishing. Importantly, the polishing process does not alter the overall dimensional accuracy or geometric integrity of the parts, thereby preserving the original design precision of 3D-printed components. For precision parts with complex internal cavities and narrow crevices, the steam can fully penetrate all surfaces, enabling comprehensive, dead-zone-free polishing and resolving the issue of incomplete treatment inherent in traditional polishing methods for intricately structured parts. From an environmental standpoint, the system uses eco-friendly organic steam as the polishing medium, generating no harmful exhaust gases, wastewater, or solid waste during operation—fully compliant with industrial environmental standards. Moreover, the steam medium can be recovered and recycled via a condensation system, eliminating waste and aligning with the principles of green manufacturing. In terms of operating costs, the system boasts a low unit cost: on the one hand, the recyclable steam medium significantly reduces consumable expenses; on the other, its high degree of automation allows simultaneous processing of multiple parts, resulting in high throughput per unit time and lower polishing costs per part—making it one of the most cost-effective surface-finishing solutions for large-scale industrial production today. Regarding process stability and standardization, key parameters such as temperature, pressure, and dwell time are precisely digitally controlled with high regulatory accuracy, while the system incorporates an extensive library of standardized process settings preconfigured for different materials and part types, ensuring consistent polishing results across batches and over time and meeting the demands of standardized industrial production. In addition, the polished surface develops a dense molecular layer that not only enhances aesthetic quality but also improves water resistance, stain resistance, wear resistance, and chemical corrosion resistance, thereby expanding the range of applications for 3D-printed parts and enabling their use in environments with stringent surface-performance requirements. The overall design is tailored to the needs of continuous industrial operations, featuring a large processing chamber that supports simultaneous handling of multiple parts; critical components are manufactured from high-quality, high-temperature and high-pressure-resistant materials, ensuring long service life and low failure rates. Furthermore, the modular design facilitates easy maintenance and straightforward replacement of wear parts, minimizing equipment downtime.
Application Areas and Use Cases
As an industrial-grade 3D-printed steam polishing system, Powerfuse S serves a wide range of industries, including consumer goods and lifestyle products, healthcare, industrial manufacturing, transportation and logistics, and aerospace. It is particularly well suited to 3D-printing applications that demand exceptionally smooth, dense, and high-performance part surfaces—whether for high-end custom products or standardized mass-produced items—delivering simultaneous improvements in surface quality and functional performance. In the consumer-goods sector, the system is used to produce premium 3D-printed consumer products such as personalized jewelry, high-end eyeglass frames, and bespoke accessories. After polishing, the parts exhibit mirror-like smoothness, enhancing both aesthetic appeal and a premium tactile experience, thereby becoming a key differentiating feature of high-end consumer offerings. In 3D-printed footwear production, the system polishes midsoles and upper structural components, improving both visual appearance and hand feel while also boosting wear resistance. In healthcare, Powerfuse S serves as the core polishing solution for 3D-printed implantable medical devices and high-end orthotic components, including dental implant abutments and orthopedic prosthetic parts. Polished components feature exceptionally smooth, dense surfaces that minimize tissue rejection, thereby enhancing biocompatibility and clinical safety. Additionally, when used to polish housings for 3D-printed medical devices, the system produces ultra-smooth surfaces that are easy to clean and disinfect, fully meeting stringent hygiene standards for medical equipment. In industrial manufacturing, Stratasys Direct Manufacturing employs Powerfuse S to polish precision 3D-printed components, such as instrument and meter housings and high-precision mechanical parts. The resulting polished surfaces are smooth and densely compact, improving water- and dirt-repellent properties while enhancing wear resistance and extending service life—thus satisfying the demanding operational requirements of industrial equipment. In the transportation and logistics sector, automotive manufacturers like Daimler and BMW use Powerfuse S to polish precision 3D-printed automotive components and interior trim parts. The polished interiors boast a refined, silky-smooth finish that elevates the perceived luxury of vehicle cabins, while the denser surface of precision components enhances both performance and reliability. In aerospace, component suppliers leverage Powerfuse S to polish precision 3D-printed aerospace spare parts. The polished surfaces are exceptionally smooth, reducing aerodynamic drag, while the dense surface layer improves corrosion resistance, ensuring optimal performance in the complex operating environments typical of aerospace applications. Beyond these core applications, Powerfuse S is also widely adopted across the 3D-printing services industry, where specialized service providers deploy it as a high-end surface-finishing solution to offer steam polishing services to clients in automotive, aerospace, healthcare, and consumer-goods sectors. This elevates the service offering’s sophistication and strengthens market competitiveness.
Equipment Parameters
| Print to Product Workflow | VaporFuse surface |
| Automation | Automated process vs. manual loading/automated loading (choose one) |
| Connectivity | OPC UA interface for one-way communication via DyeMansion Data Connect (optional), as well as remote support provided through a VPN. |
| Cycle | 45 to 180 minutes |
| Process chamber volume | 85 liters | 22.5 gallons |
| aspect | Powerfuse S: 1700 mm x 1700 mm x 2070 mm | 66.9 in x 66.9 in x 81.5 in; Manual loading belt: 705 mm x 1700 mm x 850 mm | 27.8 in x 66.9 in x 33.5 in |
| Compatible materials | Most suppliers of common printing technologies and materials offer rigid materials, such as PA11 or PA12, as well as semi-rigid materials such as TPU. |
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Powershot DUAL Performance (1) Overview: Dramatically Enhanced Production Efficiency—Maximum Performance in Minimal Footprint The Powershot Performance series fully meets the application needs of the additive manufacturing industry. By pioneering the adoption of an expanded multi-belt processing system—replacing “first” with “pioneering”—this series delivers highly efficient process handling, with a build volume of 55 liters and the capability to process parts weighing up to 10 kilograms. At the same time, it achieves the smallest footprint in the industry while still supporting full-size build operations. The system incorporates powder-spraying screening and separation modules, reducing consumable usage and lowering costs. Compared with other systems of its kind, the Powershot Performance series features shorter cycle times and full-size build capability, giving it a distinct efficiency advantage. We have developed dedicated powder-cleaning and surface-treatment processes specifically for this system, enabling it to meet large-scale production demands. Building the Factory of the Future Starts Now Our Powershot Performance series is seamlessly integrated with Siemens’ cutting-edge automation technologies to create the factory of the future. Your digital production workshop will achieve ERP/MES connectivity and support standard communication protocols such as OPC-UA. The factory can comprehensively monitor system conditions and status data, enabling continuous optimization of system performance and process parameters through standardized IIoT industrial IoT messaging protocols like MQTT. Certified secure VPN connections facilitate remote maintenance and troubleshooting, further increasing system uptime. These technological solutions will ensure outstanding operational performance for your production line, paving the way for automated additive manufacturing. All three versions of the Powershot Performance series feature intuitive, user-friendly interfaces. Pre-installed software supports precise control of process parameters, which can be individually configured and easily saved, allowing for rapid setup adjustments tailored to specific applications. Automated part-handling functions—such as automatic unloading—can be seamlessly integrated into the DyeMansion P2P workflow and the entire additive-manufacturing value chain. The system design includes built-in scalability, enabling upgrades to automated loading capabilities. Equipment parameters are printed directly into the product workflow. Cleaning and surface treatment are fully automated, with seamless integration between cleaning and surface-treatment machines. Connectivity is provided via DyeMansion Data Connect (optional), offering a one-way OPC UA interface and remote support through VPN. Cycle times range from 10 to 20 minutes per process, with operating capacities that can accommodate up to one EOS P396, 1.5 HP Jet Fusion 4200/5200 units, or three Stratasys H350 printers. Effective build volume: 55 liters / 14.5 gallons. Multi-belt part-processing dimensions: 1,535 mm × 2,205 mm × 2,065 mm / 60.4 in × 86.8 in × 81.3 in. Compatible 3D printing technologies: SLS, SAF, MJF, HSS. Media-recovery screening system with manual sandblasting. Integrated advantages and highlights: dramatically improved production efficiency; seamless integration with automated production lines; intuitive, user-friendly interfaces; key performance metrics significantly enhanced.
DM60 Overview: A Vast Array of Color Options—From Standard Databases to Custom Formulations Our proprietary Deep Dyeing (DDC) technology offers you limitless color choices. As a DM60 user, you’ll benefit from an extensive color database that includes more than 170 RAL and standard colors, all readily available with no additional development costs or lead times. In addition, our color-matching capabilities enable personalized shades—ranging from corporate brand colors to seasonal trend palettes and customized skin tones. The DM60’s fully automated cleaning cycle ensures flexible color utilization and rapid color changes. Globally Reproducible and Traceable Precision Color Formulations For years, dyeing of 3D-printed plastic parts has been a manual process with uncontrollable outcomes. We have revolutionized this workflow with our own technology, delivering precision color solutions down to the microgram level worldwide. By replacing “.” with “,” we help users overcome previously intractable industrial challenges while ensuring that the process can be reliably reproduced at any time. The key lies in our custom-designed ink cartridges, tailored to the base material, post-processing requirements, and desired color. Depending on your part volume, we offer four different cartridge sizes, each equipped with an RFID chip that transmits all process parameters to the ISO-certified DM60 color system in accordance with quality-management standards. These certified colors are suitable for end-use applications across a wide range of industries, where demand for 3D-printed products is steadily growing. Our ISO-certified colors make us a trusted technology partner for biocompatible eyewear and medical orthotics, as well as for light- and heat-resistant automotive interiors. With the expansion of the Colors* Thousand Shades series, we continuously address industry-specific needs and welcome new insights to drive the advancement of Deep Dyeing (DDC) technology. Equipment Parameters Printing-to-Product Workflow DeepDye Dyeing Color Options Unlimited Color Cartridge Options S, M, L, XL, DM Black LR (reusable), and DM Black L–RR (refill) Cycle Time 150 minutes Operating Temperature Up to 115°C | Up to 240°F Capacity per Run For example, it can handle up to three-quarters of an EOS P396 build, one HP JetFusion 4200/5200 build, or nearly 1.5 full-size Stratasys H350 builds. Processing Chamber 80 liters | 21.1 gallons Maximum Part Dimensions (Diameter × Height) 390 mm × 360 mm | 15.3 inches × 14.2 inches Overall Dimensions 950 mm × 600 mm × 945 mm | 37.4 inches × 23.7 inches × 37.0 inches Compatible Technologies SLS, SAF, MJF, and HSS On-Demand Options Available: SLA, DLP, and CDLP/CLIP Dye Penetration Depends on Material (approximately 0.2 mm in EOS PA2200) Connectivity OPC UA interface; one-way communication via DyeMansion Data Connect (optional); remote support via VPN (optional) Key Advantages: Unlimited Color Choices Precise, Traceable Color Matching ISO-Certified Color Quality Ongoing Technological Support
Powershot X (1) Overview: An Efficient Surface-Treatment Technology for End-Use Parts Our proprietary PolyShot Surfacing (PSS) is non-abrasive and perfectly suited for treating hard plastics with a wide range of geometries, such as PA12 or PA11. Microbeads accelerated by compressed air flatten uneven surfaces, resulting in more uniform part quality. With a cycle time of just 10 minutes, the Powershot X can handle medium-sized molding jobs in a single run, delivering excellent cost efficiency. Unlike time-consuming finishing methods like tumbling, PolyShot Surfacing significantly boosts your productivity and part quality. Eliminating the “ideal” semi-gloss finish: the foundation for superior dyeing performance We firmly believe that PolyShot Surfacing is the key to achieving optimal dyeing results. For virtually all 3D-printed end-use parts, the Powershot X delivers a distinctive matte appearance and a comfortable tactile feel. Since 2016, it has been widely adopted across various industries, setting new quality standards thanks to its enhanced scratch resistance and homogeneous surface finish—features that are especially critical for subsequent processing steps, such as our deep-dyeing process. Advanced operator convenience, enhanced ergonomics, and precise process control Experience a whole new level of process control via the touchscreen and integrated control panel. The Powershot X operates through a user-friendly interface and comes preloaded with standard programs. Individual programs can be easily configured and saved, allowing rapid adaptation to your specific applications. Its user-centered design ensures easy access to and safe operation of all system components. Continuous monitoring enables highly efficient and repeatable processes. Equipment parameters Print-to-product workflow Cleaning | Surface Treatment Automation Automated processes and manual loading/unloading Connectivity Machine-free cycle times Depending on the process sequence: Cleaning: 5–15 minutes; Surface Treatment: 15–20 minutes; Cleaning + Surface Treatment: 20–40 minutes Capacity per run For example, it can complete up to three-quarters of an EOS P396 build, one HP Jet Fusion 4200/5200 build, or nearly 1.5 full-size Stratasys H350 builds. Effective volume: 26 liters | 6.8 gallons Part handling Rotating basket dimensions: 1700 mm × 1310 mm × 2030 mm | 66.9 in × 51.6 in × 79.9 in Compatible technologies SLS, SAF, MJF, HSS Media recovery Cyclone system Manual blasting Fusion advantages at a glance: 10-minute rapid surface revitalization Superior surface quality and enhanced dyeing Wear and scratch resistance, upgraded quality One-touch intelligent control for stable, consistent processes
Powershot C (1) Overview: Automated powder removal boosts your production capacity. With our proprietary PolyShot Cleaning (PSC), medium-sized part-building jobs can be cleaned in 10 minutes or less, significantly reducing both the time required for part cleaning and the number of production personnel needed. This enhances your efficiency and profitability. An investment in the Powershot C automated part-cleaning system can easily replace up to four manual powder-blowing systems. PolyShot Cleaning is compatible with all common powder-bed technologies, delivering parts that are free of residual powder and exhibit vibrant colors. Thanks to intelligent hardware features, part handling is gentler: the Powershot C is equipped with a stainless-steel rotary basket, while multiple blast nozzles and ionization units ensure consistent, reproducible results. Combined with a rotary basket featuring soft, replaceable liners, this design protects parts from damage during processing. Two parallel blast nozzles are positioned perpendicular to the basket and the target parts, while a cyclonic separator continuously recycles and cleans the blasting media, guaranteeing efficient powder removal. Advanced operator convenience, enhanced ergonomics, and superior process control are delivered through a touch-screen interface and an integrated control panel, enabling a new level of process oversight. The Powershot C operates via a user-friendly interface and supports pre-installed programs; individual programs can be easily configured and saved, allowing rapid adaptation to your specific applications. Its user-centric design ensures easy access to and safe operation of all system components. Continuous monitoring enables highly efficient, repeatable processes. Equipment parameters are printed directly into the production workflow, supporting automation of cleaning, automated workflows, and manual loading/unloading. Connectivity: No machine-to-machine connection required; cycle times range from 3 to 10 minutes, with per-run capacities equivalent to, for example, up to three-quarters of an EOS P396 build, one HP Jet Fusion 4200/5200, or nearly 1.5 full-size Stratasys H350 builds. Effective volume: 26 liters (6.8 gallons). Available configurations include a rotary basket or a multi-belt rotary basket, with overall dimensions of 1,700 mm × 1,310 mm × 2,030 mm (66.9 in × 51.6 in × 79.9 in). Compatible technologies: SLS, SAF, MJF, HSS. Key advantages: Ultra-fast 10-minute cleaning, improving efficiency by 80% compared with manual methods; full powder technology compatibility, resulting in zero residue and more vivid colors; intelligent hardware safeguards for gentle, damage-free handling; one-touch smart operation for stable, repeatable processes.
In the aerospace sector, the reliability and safety of rocket engines are of paramount importance. Conventional monitoring methods rely on manual inspection, making it difficult to capture structural deformations in high-temperature environments in real time. Recently, a technology known as aerosol jet printing (AJP) was featured in the International Journal of Advanced Manufacturing Technology. Using this technique, scientists have directly printed platinum-nanoparticle-based microsensors onto the surface of rocket engines; these sensors can withstand temperatures as high as 1,290°C, enabling real-time monitoring of structural strain and creep. This article will systematically examine the underlying principles, applications, and future prospects of AJP.
The pace of technological obsolescence in electronic devices is staggering, giving rise to an increasingly severe e-waste problem. Conventional environmental-monitoring sensors, particularly temperature–humidity sensors, typically rely on non-degradable plastic substrates—such as PET and PE—and toxic metal materials. Not only are these components difficult to recycle, but their degradation can also release harmful microplastic particles, contaminating the environment. Is it possible to develop sensors that are both high-performing and environmentally friendly—perhaps even virtually “invisible”? A recent study published in Small Methods offers an exciting answer: by leveraging aerosol jet printing (AJP), researchers have successfully fabricated a highly transparent, ultra-compact, and ultra-low-material-consumption integrated temperature–humidity sensor on a biodegradable cellulose substrate. This breakthrough may herald the dawn of the next generation of green electronics.
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