Raycreate’s workflow is designed to reflect the realities of SLS manufacturing, while remaining accessible to product teams and SMEs.
Customers begin by uploading their 3D model through the online quotation interface. The system allows them to select the applicable production settings and instantly generates a baseline quotation using Raycreate’s current material and process parameters.
Instead of relying on vague or purely manual estimation, Raycreate uses a structured digital quoting workflow. Customers can review the generated quotation and submit their request directly through the system. This provides a clear starting point for project evaluation and production planning.
Submitted quote requests are reviewed on the Raycreate side before production proceeds. This allows project-specific checks where needed, particularly for build planning, batch suitability, and practical manufacturing considerations. Once confirmed, the client receives the final order communication and payment instructions.
Approved parts are scheduled into SLS production batches. Because Selective Laser Sintering is inherently a batch-based process, proper planning supports:
Parts are produced using industrial SLS technology and PA12 nylon, followed by controlled de-powdering, visual inspection, and handling appropriate to the part type and intended use.
Completed parts are packed and shipped with clear order reference and traceability. Where relevant, client feedback can inform future revisions, design adjustments, or next-stage development work.
Selective Laser Sintering enables design freedom that many other manufacturing methods cannot offer:
SLS is not just a fabrication method—it can be used as a development strategy.
By leveraging nesting, batch production, and repeatable material behavior, SLS enables teams to restructure development workflows. For example:
This structured approach helps teams manage pressure from tight schedules, budget limits, and external stakeholders—while maintaining technical clarity.
Connect with Raycreate and move from assumption to validation.
Max 150 x 390 x 150 mm
Min 7.5 x 7.5 x 7.5 mm
The bounding box is a 3D imaginary outline of a box that encloses the smallest area occupied by your model. Your model must fit within the minimum and maximum bounding box sizes. If the size of the model is close to the maximum bounding box, then the printing orientation will be restricted.
Supported wall thickness Min 0.5 mm
Unsupported wall thickness Min 0.5 mm
A supported wall is connected at least on two sides of the wall, while an unsupported wall is connected only one side of the wall. Walls that do not meet the minimum requirements may not survive printing and cleaning processes.
Supported wall thickness Min 0.5 mm
Unsupported wall thickness Min 0.5 mm
A wire is a rectangular, circular or even triangular feature that is thinner in its
unconnected directions than its length. A supported wire is connected at least on two sides of the model, while an unsupported wire is connected on one side of the model.
Wires that do not meet the minimum requirements may not survive printing and cleaning processes.
Embossed Details
0.2 mm high & wide for details
0.3 mm high & 0.5 mm wide for details
0.5 mm high & wide for text
Engraved Details
0.2 mm deep & wide for details
0.3 mm deep & 0.4 mm wide for details
0.5 mm deep & wide for text
A wire is a rectangular, circular or even triangular feature that is thinner in its
unconnected directions than its length. A supported wire is connected at least on two sides of the model, while an unsupported wire is connected on one side of the model.
Wires that do not meet the minimum requirements may not survive printing and cleaning processes.
Single Escape Hole Diameter
4.0 mm & 10.0 mm
Multiple Escape Hole Diameter
2.0 mm & 8.0 mm
Escape holes are necessary to empty the support material of a hollow model.
Two escape holes at the opposite ends of the model is optimal for the support removal process.
Please consider the size of your model and make the escape holes bigger or add more escape holes as needed as minimum guidelines will not always be adequate for large models.
A single escape hole at the end of a cavity will not allow material in the corners near the escape hole to fully escape. So we recommend multiple escape holes at both ends of the cavity.
Single Escape Hole Diameter
1.0 mm
Clearance is the space between two individual parts in a model.
If the space among the individual parts do not meet the minimum clearance, then parts can fuse together or can be difficult to clean.
This is important for movable pieces like hinges, gears, etc.
2.0 mm thick, attached in at least 2 places per part.
Sprues are wires that keep two or more parts together.
Parts should be connected with a minimum of two sprues each.
With our SLS service we can provide you with pathways away from this realm of fear and into a realm of enlightenment and resolve.