Do you need a part that does not exist in a catalog?
You need a support, adapter, or enclosure made to fit.
A custom part can resolve the actual geometry, mounting, and use conditions instead of forcing a catalog component to fit.
A commercial part does not fit the application.
We redesign the interface around the components that must work together.
A discontinued component needs a replacement.
A measured or reconstructed part can restore an operation when the original is no longer available.
A part must be positioned repeatably during production.
Fixtures, guides, and stops can make the correct position easier to achieve on every cycle.
A guide or tool could simplify a manual operation.
The physical aid can reduce effort, improve ergonomics, and make the result more consistent.
An existing prototype needs improvement.
An iterative CAD and manufacturing process makes dimensions, materials, and use observations visible.
An existing part needs a new function.
We adapt the geometry while keeping the interfaces and constraints that still matter.
Custom components take too long to obtain.
A local design and manufacturing path can shorten the route from need to usable part.
An improvised model should become a properly designed part.
A defined model supports repeatable fabrication, assembly, maintenance, and future changes.
You are unsure which manufacturing process to use.
We compare geometry, material, quantity, precision, and use conditions before selecting a process.
We design around the function
Supports
Fix sensors, equipment, mechanisms, and components in a defined position.
Enclosures
Design cabinets and covers around electronics, connectors, ventilation, and the way the device is used.
Adapters
Connect components that were not originally designed to work together.
Fixtures
Keep a part in the correct position during assembly, measurement, welding, or inspection.
Tooling
Make a production operation easier and more repeatable.
Guides and stops
Orient, limit, and position a product within a process.
Special replacement parts
Reproduce or redesign components that are no longer available on the market.
Assemblies
Combine several parts when one geometry cannot solve the application alone.
Conceptual example
How it works in practice
An assembly operation where each worker holds a part by hand while installing several components. The position changes slightly in every cycle and the posture is uncomfortable. A fixture turns that manual support into a repeatable physical interface for the task.
Analyze the part and operation
We identify the geometry, interfaces, movement, ergonomics, and result the physical aid must support.
Design the reference points
The part receives clear locating surfaces, guides, stops, or interfaces that make the correct position repeatable.
Manufacture and test the tool
We select the appropriate process, build the design, and test it in the real operation instead of only on the screen.
Refine for repeatable use
The final adjustments improve handling, maintenance, fabrication, and consistency across future cycles.
The fixture is cut for that one operation and no other.
Not everything should be 3D printed
3D printing
Suitable for prototypes, complex geometries, custom parts, and low-volume applications.
Laser cutting
Useful for flat parts, panels, templates, and components made from sheet material.
CNC machining
Convenient when material, precision, rigidity, or finish exceed what other processes can provide.
Waterjet cutting
Useful for flat components in compatible materials and thicknesses without thermal impact.
Sheet metal and assembly
Use folding, joining, and metal fabrication for structures, cabinets, and supports.
Combined processes
Resolve one assembly with several methods, each where it has the greatest advantage.
Working methodology
- 01
What the part has to do
We review what the part must do, which components it interacts with, and its constraints.
- 02
Design the solution
We develop the geometry around use, manufacturing, mounting, and materials.
- 03
One prototype
When useful, we produce a first version to validate dimensions and function.
- 04
Test the fit
We verify mounting, access, strength, ergonomics, and behavior inside the application.
- 05
Fixing what did not fit
We incorporate the necessary changes before producing the final version or series.
- 06
Drawings and files
We deliver the parts and files corresponding to the agreed scope.
You can start with one part
Initial scope
- One support
- One enclosure
- One adapter
- One guide
- One template
- One fixture
- One replacement part
Future expansion
- Complete assemblies
- New tooling
- Design variants
- Production series
- Design for manufacturing
- Electronic integration
- Workstations and automation
The part as part of a larger solution
Part + electronics
Design enclosures and supports around PCBs, sensors, connectors, and the device.
Part + automation
Develop fixtures, grippers, guides, and adapters as part of an automated station.
Part + machinery
Integrate sensors, actuators, and new mechanisms into existing equipment.
Part + product
Develop the enclosure, structure, or assembly as part of a complete device.
Part + production
Create tools and aids that make repetitive tasks easier and more consistent.
Part + documentation
Leave drawings, models, and files as part of the product's technical knowledge.
Capabilities used
Frequently asked questions
Do I need to have a CAD file?
No. We develop the model from the function, dimensions, references, or existing components.
Can you manufacture a single part?
Yes. Many projects begin with one prototype or component.
Can you manufacture several units?
Yes. The manufacturing strategy depends on geometry, material, and required volume.
Which material should I use?
It depends on the function. We evaluate load, temperature, wear, environment, rigidity, and manufacturing process before recommending a material, and explain the reason for the choice.
Can everything be 3D printed?
No. 3D printing is one tool among others. Many applications are better machined, laser-cut, made from sheet metal, or solved with combined processes.
Can you copy an existing part?
We evaluate reconstruction when technically feasible and when the client has the right to reproduce or modify the component.
Can you design parts for machinery?
Yes. We develop supports, adapters, fixtures, and integration components according to the equipment and project scope.
Can you manufacture an enclosure for our electronics?
Yes. We design it around the PCB, connectors, mounting, ventilation, and use conditions.
How precise can the parts be?
It depends on the process, material, geometry, and required tolerances. We define tolerances according to the actual function: demanding more precision than necessary increases cost without improving the result.
Can you make changes after the first prototype?
Yes. Iteration is a natural part of development and is included in the project scope when appropriate.
Puebla-based support and projects in other locations
- Geographic coverage
- Puebla and other regions
- Remote attention
- Design can be performed remotely when the required information is available.
- In-person attention
- When the part integrates with machinery, facilities, or components requiring physical survey, we evaluate on-site work.
Projects are evaluated according to the part, reference information, location, process, and manufacturing requirements.
Tell us what you need to manufacture
You do not need to know which material or process to use. Tell us what function the part must perform, where it will be installed, which components it must connect, which conditions it must withstand, how many units you need, whether there is a reference part, and which problem you want to solve. With that information, we define a design and manufacturing strategy.
Technical components
Designing a part is more than drawing its shape. We consider the loads it will support, mounting, critical dimensions, meaningful tolerances, material, operating temperature, exposure to humidity, chemicals or wear, required quantity, manufacturing method, and inspection method.
Prototype and production are not the same. For repeated production we review production time, number of operations, tolerances, material, manufacturing orientation, supports, joints and fasteners, component availability, repeatability between units, and cost per part.
When the original file does not exist, we can work from physical measurements, related components, available drawings, photographs and references, 3D scanning, or CAD reconstruction. The strategy depends on the component and the required precision.
Design: parametric CAD · 3D modeling · assemblies · reverse engineering · 3D scanning · design for manufacturing (DFM) · tolerances and fits · technical drawings · bills of materials · manufacturing-file preparation.
Processes: FDM 3D printing · laser cutting · CNC machining · waterjet cutting · sheet-metal fabrication and bending. Materials: PLA · ABS · TPU · reinforced filaments · metals · acrylics · MDF.
Integration: threads and inserts · fasteners · adhesives · fixture design · gripper design. The specific solution is defined according to geometry, dimensions, loads, environment, required precision, quantity, and the most appropriate manufacturing process.
Related projects: we publish only developments that can be documented and shown. When a related case is available, it will present the problem the part solved, its constraints, manufacturing process, iterations, integration into the product or process, and documented results. Concepts and prototypes will be identified explicitly.