Powershot DUAL Performance

Dual-chamber design significantly boosts production capacity compared to a single-unit system.
Mass-production‑grade configuration, optimized for large-scale manufacturing.
Integrated surface cleaning with highly consistent process continuity.
Multi-nozzle zone control for enhanced processing accuracy.
Supports MES integration, meeting Industry 4.0 requirements.
Automatic pellet grading for extended service life.
Compatible with large components, offering a broader range of application scenarios.

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Product Introduction

Powershot DUAL Performance (PolyShot Cleaning & Surfacing Combined)

(1) General Introduction

Powershot DUAL Performance is a high-end, all-in-one sandblasting system under the DyeMansion brand, designed for future‑ready, industrial‑scale 3D printing production. It integrates PolyShot Cleaning and PolyShot Surfacing technologies, building on the Powershot X platform while delivering comprehensive performance upgrades and structural optimizations tailored to the demands of high‑volume additive manufacturing. This post‑processing sandblasting system is engineered specifically for large‑scale industrial 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 polymer materials such as PA11, PA12, TPU, and PP. It can seamlessly interface with high‑end, large‑scale printers from brands like EOS, Stratasys, HP, and Farsoon, meeting the stringent requirements of high‑throughput, standardized post‑processing in expansive 3D printing facilities. Featuring either a dual‑chamber configuration or a single, high‑capacity chamber, the system dramatically increases batch throughput. It also incorporates an advanced automated sandblasting system and a versatile tooling platform, delivering superior cleaning and surface‑finishing efficiency. Its core design aligns with Industry 4.0 principles of scalable manufacturing, enabling deep integration with fully automated 3D printing lines. Equipped with automated loading/unloading, remote process control, and real‑time production data acquisition, it facilitates unmanned operation of post‑processing workflows. Users can flexibly adjust cleaning and surface‑treatment parameters to suit specific production needs, achieving a variety of standardized surface finishes while ensuring process repeatability and consistency. As a result, Powershot DUAL Performance stands as a cornerstone post‑processing solution for the industrial-scale mass production of 3D‑printed parts. When paired with DyeMansion’s premium steam polishing and deep‑dyeing systems, the equipment forms a fully automated 3D printing post‑processing workflow, enabling end‑to‑end automation from raw printed parts to finished products and helping manufacturers realize the industrialized, large‑scale production of 3D‑printed components.

(II) Working Principle

Powershot DUAL Performance centers on the integration of PolyShot’s dual‑process technology. Building on the operating principles of the Powershot X, it achieves high‑volume, highly automated integrated cleaning and surface‑treatment operations by upgrading the sandblasting system, tooling platform, control system, and adding a scalable production module. At its core, the equipment continues to perform both cleaning and surface treatment in a single work chamber with one clamping operation, using high‑velocity polymer‑based abrasive particles to achieve physical powder removal and surface modification while simultaneously recycling the abrasive and recovered material. In terms of the sandblasting system, the machine employs an array‑type design with multiple high‑pressure spray nozzles—significantly more than on the Powershot X—enabling full‑coverage, synchronous blasting of parts. Spray pressure and velocity can be adjusted independently and precisely across zones, allowing for differentiated settings tailored to large components or simultaneous processing of multiple parts, thereby ensuring both effective cleaning and surface treatment while boosting per‑batch throughput. The tooling platform has been upgraded to a high‑precision, multi‑degree‑of‑freedom system with enhanced load capacity, capable of securing multiple parts or large, heavy components at once. It offers 360° rotation with no dead angles and precise linear positioning, delivering superior motion accuracy to ensure uniform blasting. Additionally, the platform supports rapid die changes, enabling quick adaptation to different part sizes and shapes and improving changeover efficiency. For process switching, the system features an advanced intelligent module that automates transitions between cleaning and surface‑treatment steps without manual intervention. Based on pre‑set parameters, the system automatically adjusts key variables such as spray pressure, abrasive particle size, number of active nozzles, and tooling rotation speed. A high‑capacity abrasive storage unit paired with a dual‑path delivery system allows simultaneous storage of multiple abrasive particle sizes, enabling rapid, automated switching to meet diverse surface‑finishing requirements. On the automation and intelligence front, the equipment integrates seamlessly with robotic arms, AGVs, and other automated systems, enabling fully automated loading, clamping, processing, and unloading—eliminating the need for manual intervention throughout the entire cycle. Meanwhile, its control system can be deeply interfaced with the enterprise’s MES, supporting remote configuration of process parameters, real‑time collection of production data, remote monitoring of equipment status, and intelligent fault diagnosis, thus providing robust data support for managing and optimizing large‑scale production. Furthermore, the equipment’s airflow circulation and separation system has undergone a comprehensive upgrade, incorporating high‑power negative‑pressure blowers and multi‑stage separation structures to enhance powder‑abrasive separation efficiency and recovery rates, meeting the demands of high‑volume production for efficient powder recovery and abrasive recirculation.

(III) Advantages and Key Features

The core strengths of the Powershot DUAL Performance lie in its high throughput, advanced automation, and rigorous standardization—designed for industrial-scale production—while also offering full process compatibility, controllable surface finishes, and low operating costs. It is DyeMansion’s flagship sandblasting system, perfectly tailored to support the industrial‑scale mass production of 3D‑printed parts. In terms of productivity, its array‑type jet nozzles and large‑capacity, dual‑chamber design deliver a qualitative leap over conventional integrated systems, significantly boosting both batch capacity and per‑unit‑time throughput. This enables it to meet the high‑volume demands of large 3D‑printing manufacturing facilities. Meanwhile, its rapid tool‑change system dramatically reduces changeover times, making it ideal for small‑batch, multi‑product, scalable production environments. Regarding automation and line integration, the equipment fully complies with Industry 4.0 standards and can be seamlessly integrated into fully automated 3D‑printing lines, enabling end‑to‑end automation of loading/unloading, process operations, and data management—eliminating the need for manual intervention and substantially cutting labor costs. Additionally, its MES‑compatible interface facilitates real‑time collection and analysis of production data, providing robust data‑driven insights for production management and process optimization, thereby elevating the level of precision and sophistication in manufacturing operations. In terms of process compatibility, the system supports all mainstream powder‑bed 3D‑printing technologies and is compatible with the entire range of industrial‑grade polymer materials, ensuring comprehensive coverage across diverse applications. It can handle everything from small, precision components to large structural parts, including ultra‑high‑precision components featuring highly complex internal cavities and minute gaps. Its jetting system and fixture platform enable complete, uniform treatment of every surface area on each part. For surface finish and process standardization, the equipment allows seamless switching among multiple polymer‑based abrasive particle sizes, delivering a variety of standardized finishes—including matte, frosted, and finely polished surfaces. With highly precise control over process parameters and the ability to store and recall numerous settings, it ensures consistent surface quality across different batches and production runs, meeting the stringent standardization requirements of industrial‑scale manufacturing. From an operational‑cost perspective, the system boasts industry‑leading recycled‑media utilization and powder‑recovery rates, significantly reducing consumable and raw‑material expenses. Its automated operation further lowers labor costs, while its modular design simplifies maintenance: key components can be quickly replaced, minimizing downtime and maximizing overall equipment utilization. Moreover, its integrated process design minimizes footprint, reducing facility‑investment costs for manufacturers. In addition, the system features intelligent fault diagnosis and early‑warning capabilities, continuously monitoring operating conditions and proactively identifying potential issues, thereby lowering failure rates and maintenance expenses.

(4) Application Areas and Case Studies

As a high-end, large-scale integrated solution for 3D printing cleaning and surface finishing, the Powershot DUAL Performance is primarily deployed in industries and enterprises with substantial industrial‑scale 3D printing capabilities. It serves sectors including automotive manufacturing, aerospace, industrial equipment fabrication, and mass production of consumer goods, making it an essential post‑processing tool for major 3D printing production hubs, full‑vehicle manufacturers, and aerospace component suppliers. In the automotive sector, it handles post‑processing of 3D‑printed interior, exterior, and structural parts, enabling automated cleaning and surface treatment of high‑volume batches. This ensures superior surface quality and enhanced production efficiency, helping automakers achieve industrial‑scale mass production of 3D‑printed components while shortening development and manufacturing cycles. In industrial equipment manufacturing, Siemens Digital Industries has incorporated this system into its industrial 3D‑printing production lines for post‑processing core components. Seamlessly integrated with Siemens’ fully automated workflows, the equipment enables unmanned operations from printing through to post‑processing, ensuring standardized, consistent part quality—making it a key enabler in Siemens’ drive toward industrializing 3D printing. In the 3D‑printing services domain, Stratasys Direct Manufacturing, a global leader in additive manufacturing services, produces thousands of powder‑bed‑based 3D‑printed parts each month. With the adoption of the Powershot DUAL Performance, it has achieved scalable, automated cleaning and surface finishing, significantly boosting processing efficiency and surface quality while reducing operational costs. This allows the company to better serve large customers in automotive, aerospace, and industrial equipment sectors, meeting their demands for high‑volume, customized 3D‑printed components. In the aerospace field, component suppliers use this equipment to post‑process 3D‑printed spare parts and prototypes. Addressing the stringent requirements for precision and surface finish in aerospace applications, the system delivers highly accurate control over cleaning and surface treatment, safeguarding part performance and reliability. Its capacity for large‑scale processing also supports the aerospace industry’s need for small‑batch, multi‑variant spare‑part production. In the realm of mass‑produced consumer goods, internationally renowned footwear and accessory brands have adopted this equipment in their 3D‑printed product lines—for example, in the large‑scale manufacturing of 3D‑printed shoe midsoles and personalized accessories. The system enables automated cleaning and surface finishing of high‑volume outputs, ensuring both aesthetic quality and production efficiency, thereby supporting consumer‑goods brands in achieving industrial‑scale mass production of 3D‑printed items. Additionally, this equipment finds application in the large‑scale production of medical devices. Major medical‑device manufacturers employ it to post‑process standardized 3D‑printed medical components, meeting the industry’s needs for scalable, standardized manufacturing while ensuring the quality and safety of medical products.

Equipment Parameters

Print to Product Workflow Cleaning | Surface Treatment
Automation Automated processes and automatic unloading—no need to switch between cleaning and surface‑treatment machines.
Connectivity An OPC UA interface enabling unidirectional communication via DyeMansion Data Connect (optional), with remote support provided through a VPN.
Cycle time 10 to 20 minutes per process step.
Operating capacity per unit For example: Supports up to 1 EOS P396, 1.5 HP Jet Fusion 4200/5200, or 3 Stratasys H350 print jobs.
Effective volume 55|14.5 gallons
Parts Handling Multiple conveyor belts
Size 1535 mm × 2205 mm × 2065 mm | 60.4 in × 86.8 in × 81.3 in
Compatible 3D printing technologies SLS. SAF. MJF. HSS
Media Recovery Screening system
Manual sandblasting Integrated

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