DimenShift delivers precision-driven mechanical product design and 3D CAD engineering that transforms ideas into accurate, functional, production-ready solutions.
Each service can stand alone or connect into a complete development program. Open a service to see what it involves and what you receive.
Turn a requirement into a mechanism: part layout, motion, load paths and assembly strategy are defined before detailed CAD, so the design is built on decisions rather than guesses.
You have a validated need or a rough sketch and need an engineered product architecture.
Part and assembly models built with controlled relationships, so a change to a key dimension updates the design cleanly instead of breaking it.
You have drawings, sketches or a prototype and need a clean, editable 3D model.
Part and assembly drawings that define dimensions, tolerances, materials and notes, so manufacturing partners can quote accurately and produce consistently.
Your design exists in CAD but cannot go to suppliers without complete documentation.
Review and refine geometry for the intended manufacturing route — wall thickness, draft, radii, tool access and part count — before tooling or machining costs are committed.
Your prototype works, but quotes are high or suppliers keep flagging problems.
A staged development process with defined reviews and deliverables at each gate, carrying a product from first concept through to a manufacturing-ready design package.
You are a startup or product team that needs one engineering partner for the whole journey.
Rebuild paper drawings, 2D files, legacy formats or supplied measurement data as accurate, editable 3D models with updated documentation.
A part is still in use but has no usable CAD — only a drawing, an old file or the part itself.
Refine an existing design to reduce mass, part count, assembly effort or production cost while protecting the functions and interfaces that matter.
Your product is in use, and the next revision needs to be lighter, simpler or cheaper to build.
01
Concept → production
One workflow from first idea to release package.
02
Built to be made
Manufacturing constraints designed in, not patched in.
03
Documented intent
Models and drawings that explain themselves.
04
Clear deliverables
Defined outputs at every stage of the work.
01 · Assembled
One manufacturing-ready product.
Eight stages take a product from requirement to release package. Scroll through them and follow one gear reducer from its first design envelope to a released product.
01Understand
Requirements, operating conditions, constraints, target cost and production volume are captured first. What the product must do sets the design envelope.
Stage image: A monitor showing the gear reducer’s design envelope in CAD, a translucent box of 320 by 210 by 180 millimetres around the concept, above a printed requirement sheet listing input torque, power and ratio.
02Concept
Quick forms and layouts test how the product could work, where the major parts sit and how it will go together — fast, before detail slows iteration down.
Stage image: Three hand-sketched concept options for the gearbox laid out on a workbench, inline, parallel and coaxial, with the parallel layout marked as preferred and two of the layouts modelled on the monitors behind.
03Engineer
The chosen concept becomes parametric CAD. Construction geometry, key dimensions and relationships are defined so the design responds predictably to change.
Stage image: The chosen gear reducer as a parametric CAD model on screen, its gears and shafts shown in wireframe inside the housing with driving dimensions and the feature tree beside it.
04Develop
Housing, shafts, gears, bearings, seals and fasteners are each modeled to be made, then structured into an assembly that reflects how the product is built.
Stage image: Two monitors showing the gear reducer’s assembly and its exploded view with every part, while the machined housing, gears, shafts and bearings lie on the desk in front.
05Validate
Section views, clearance checks and interference detection in the CAD assembly catch fit problems while they cost minutes to fix — not tooling.
Stage image: A section view through the gear reducer in CAD with red markers on the gear mesh and bearing seats where clearances and interferences are being checked.
06Document
Drawings define dimensions, tolerances, materials and notes, so manufacturing partners can quote accurately and make parts consistently.
Stage image: The gear reducer’s drawing sheet on screen, with dimensioned views, section A–A and a title block, and the printed drawing set and a caliper on the desk.
07Manufacture
Models and drawings are prepared for the intended manufacturing route, with manufacturability feedback resolved before anything is released.
Stage image: CAM toolpaths for the gearbox housing on a monitor while a CNC machining centre cuts it in the shop behind, with the machined aluminium housing and its drawing on the bench.
08Deliver
You receive a manufacturing-ready design package: editable CAD, neutral formats, drawings, bill of materials and a clear revision record.
Stage image: The finished gear reducer on a workbench beside a laptop showing the stage 8 design release package with its CAD, drawing and documentation files.
Every component of this worm-gear reducer is modeled individually. Switch views, turn the model, and select parts in the bill of materials to see where each one sits.
The reducer as it leaves the bench: cast housing closed, both shafts turning under power.
Problem
The prototype works, but it cannot be manufactured economically.
Engineering response
Design for manufacturing runs through development, so cost and process constraints shape the part before quotes come back.
Problem
Parts arrive and do not fit together.
Engineering response
Clearances, tolerances and interferences are checked in the CAD assembly before a single part is ordered.
Problem
Suppliers cannot quote from the files you have.
Engineering response
Complete drawings, bills of materials and neutral CAD formats give suppliers what they need to quote and build.
Problem
Every design change breaks the model.
Engineering response
Parametric models with documented design intent make revisions predictable instead of a rebuild.
We work with founders, startups, manufacturers and product teams who need engineering that holds up in production — not just a convincing render.
Form follows function. Every surface has a reason to exist and a way to be made.
Process, tooling and assembly are considered while the design is still cheap to change.
Key dimensions and relationships are controlled, so the model survives the next revision.
Technical trade-offs are explained clearly, so founders and product owners can decide with confidence.
What the work covers, what you receive, and the file formats we exchange with your team and suppliers.
Illustrative studies show how typical engineering problems are approached. Client projects are added here as they can be shared.
3D CAD · Drawings
The assembly featured on this site: a single-stage reducer modeled part-by-part, with an exploded view, section review and drawing set.
DFM · 3D CAD
An enclosure concept reviewed for bend relief, hole-to-edge distance and flat-pattern layout before release.
Reverse engineering · Drawings
A bracket that existed only as a scanned paper drawing, rebuilt as a parametric model with an updated drawing.
3D CAD
A motor-driven linear module: extruded body, preloaded guide carriage and ball screw, modeled as a complete, configurable assembly.
DFM · 3D CAD
A two-part plastic housing reviewed for molding: draft on every wall, uniform wall thickness, ribbed screw bosses and a straight-pull tool.
Drawings
A square-tube machine base documented as a weldment: balloons tied to a cut list with profiles, lengths and quantities for the fabricator.
Reverse engineering · 3D CAD
A worn pump impeller scanned and rebuilt as parametric CAD, then checked against the scan with a colour deviation map.
Send whatever you have today. We review it, ask the questions that matter, and outline the engineering needed to take it to manufacturing.
Nothing drawn yet? A sketch or a photo is enough to start.
Review
Your description and files are read against the engineering work involved.
Clarify
Questions come back to confirm requirements, constraints and priorities.
Propose
You receive a recommended scope with deliverables and a quote.
Rough information is fine — the first step is understanding the problem.
