Powershot X (PolyShot Cleaning & Surfacing Combined)

General Introduction

The Powershot X is an integrated 3D printing post‑processing system from DyeMansion, combining PolyShot Cleaning and PolyShot Surfacing technologies. As a next‑generation post‑processing solution, it seamlessly integrates cleaning and surface finishing into a single workflow, significantly streamlining the post‑processing chain for additive manufacturing. Designed specifically for polymer parts produced via powder‑bed fusion, the Powershot X is compatible with mainstream powder‑bed technologies such as SLS, SAF, MJF, and HSS, and supports a wide range of polymers including PA11, PA12, TPU, and PP. It can interface with printers from leading brands like EOS, Stratasys, HP, and 3D Systems, meeting the demand for integrated cleaning and surface treatment in industrial 3D printing production. With a single setup and one clamping operation, the system completes both debubbling and sandblasting surface finishing, dramatically reducing the number of part re‑clamps and minimizing transfer times between processes. Its core design aligns with the continuous workflow requirements of additive manufacturing: the processing chamber accommodates parts of various sizes and geometries, handling everything from small precision components to medium‑sized structural parts. Moreover, the system allows flexible adjustment of cleaning and surface‑treatment parameters based on part application needs, enabling diverse surface finishes. The Powershot X can be deployed standalone or integrated with DyeMansion’s dyeing equipment to form a complete post‑processing workflow—cleaning, surface treatment, and coloring—making it well suited to both low‑volume, multi‑variant and medium‑volume, large‑scale 3D printing production. It stands as a key tool for additive manufacturers seeking to optimize their post‑processing workflows and boost production efficiency.

Working principle

The core operating principle of the Powershot X is a dual‑process integration based on PolyShot technology. Using a single system, it performs both PolyShot Cleaning and PolyShot Surfacing in one part‑clamping operation, within the same processing chamber. At its heart remains the high‑velocity jetting of polymer pellets; by adjusting the jetting parameters, the process seamlessly switches between cleaning and surface treatment. Once the equipment is started, the 3D‑printed part to be processed is securely mounted on a dedicated fixture and placed inside a sealed working chamber. The fixture features a multi‑degree‑of‑freedom design, enabling 360° rotation and precise positioning of the part. The system first executes the cleaning step, invoking pre‑set cleaning parameters. Compressed air propels polymer pellets at an appropriate pressure and velocity toward the part’s surface, impacting and removing unsintered powder while simultaneously using a negative‑pressure airflow system to separate and recover the pellets from the powder. In this stage, pellet size and jetting pressure are optimized for effective powder removal without over‑processing the part’s surface. Upon completion of cleaning, the system automatically transitions—without any manual intervention—to the surface‑treatment phase. The control system adjusts key parameters such as jetting pressure, pellet size, and fixture rotational speed. To achieve different surface finishes, such as matte or frosted effects, operators can swap out polymer pellets of the corresponding particle size. The spray nozzle follows a pre‑programmed surface‑treatment path, delivering uniform abrasive blasting across the part’s surface. Through the physical impact of the pellets, the surface roughness is modified to attain the desired finish. During surface treatment, the airflow system continuously collects the fine powder generated by the blasting, while the pellets are recycled and reused. The entire integrated cleaning–surface‑treatment process is precisely governed by software; the parameters for each step can be independently configured and stored. For various part types and application requirements, preset process settings can be quickly recalled, and the system also supports customized parameter adjustments to meet bespoke surface‑treatment needs. Furthermore, the pellet delivery and separation system employs a dual‑path design, accommodating different pellet sizes for cleaning and surface treatment, enabling rapid switching and efficient recycling of the pellets.

Advantages and Key Features

The core advantage of the Powershot X lies in its integrated design for cleaning and surface treatment, which streamlines the process flow and boosts production efficiency. It also offers high process flexibility, controllable surface finishes, and excellent equipment utilization—making it an innovative solution that seamlessly aligns with the continuous nature of post‑processing in 3D printing. In terms of process optimization, the integrated design enables two operations to be completed in a single clamping, completely eliminating the need for part re‑clamping and transfer that is inherent in traditional multi‑equipment setups. This significantly reduces auxiliary time between steps and enhances overall post‑processing throughput. Moreover, single‑clamping minimizes positioning errors associated with multiple setups, ensuring uniformity and consistency in surface finishing. Regarding process flexibility, the system allows seamless switching between cleaning and surface‑treatment parameters, supports interchangeable polymer bead sizes, and delivers a range of surface finishes—including matte, frosted, and fine sandblasting—meeting the diverse surface‑quality requirements of different industries and applications. For example, consumer‑grade components demand a delicate frosted finish, while industrial structural parts require moderate surface roughness; both can be achieved through parameter adjustments. In terms of adaptability, the equipment is compatible with multiple powder‑bed 3D printing technologies such as SLS, SAF, and MJF, and works with a wide array of materials including PA11, PA12, TPU, and PP. Its broad process coverage accommodates parts of varying sizes and geometries, even intricate components with complex internal cavities and narrow gaps. The build chamber and tooling fixtures can be customized to suit specific part requirements, providing exceptional machining flexibility. From a cost‑efficiency standpoint, the integrated design reduces the equipment’s footprint, sparing companies from having to purchase separate cleaning and surface‑treatment systems and thereby lowering initial capital outlay. Additionally, the recycling of abrasive media and the powder recovery system help contain consumable and raw‑material costs, while the consolidation of two processes into one cuts down on manual handling steps, reducing labor expenses. Furthermore, the machine features an intelligent control system that supports the storage, recall, and personalized adjustment of process parameters, and enables real-time data collection during production, facilitating process management and optimization. Its modular architecture ensures easy maintenance of core components and straightforward replacement of wear parts, minimizing downtime and maximizing overall equipment utilization.

Application Areas and Use Cases

As an integrated 3D printing post‑processing system that combines cleaning and surface finishing, the Powershot X serves a wide range of industries, including consumer goods and lifestyle products, industrial manufacturing, healthcare, and transportation and logistics. It is particularly well suited to 3D printing production scenarios that demand both high productivity and superior surface quality—whether for small‑batch customizations or medium‑volume mass production of standardized parts—leveraging the advantages of process integration. Moreover, the system has been deployed in the aerospace sector for the production of low‑volume 3D‑printed spare parts. In response to the stringent precision and surface‑quality requirements of aerospace components, the equipment delivers precise control over both cleaning and surface‑treatment processes, ensuring optimal surface performance and reliable service life.