FROM PRODUCT INENT TO DESIGN
Industrial Design
Industrial design at AJE is not treated as a styling exercise. It is the point where brand intent, user experience, engineering constraints, and manufacturing reality first converge. Every design decision made here directly affects tooling cost, assembly efficiency, product reliability, and market acceptance.
Service Stages
Defining HOW your product looks
Appearance Design
Appearance design establishes the visual language of the product and translates abstract brand intent into a physical form that users can immediately understand and trust. This stage determines proportions, surface treatment, CMF direction, and overall product character, while setting non-negotiable boundaries for later structural and manufacturing decisions. At AJE, appearance design is always developed with production feasibility in mind, not as an isolated concept exercise.
What We Support
Brand-aligned product form language
Visual differentiation within category norms
Proportion, balance, and silhouette control
Styling aligned with tooling constraints
Surface transition and edge detailing
Durability-driven aesthetic decisions
CMF definition for production materials
Design consistency across product families
Parting line and seam visibility planning
Production-ready appearance freeze support
What We Consider
Beyond visible surfaces, we actively manage constraints that are often overlooked at this stage:
- Injection molding feasibility (draft, wall thickness, texture limitations)
- Assembly logic and part separation driven by appearance breaks
- Cost impact of surface finishes, coatings, and color consistency
- Visual aging risks such as wear marks, gloss variation, and color shift
- Alignment with regulatory and market expectations across regions
This ensures the final appearance can be produced consistently at scale, not just rendered attractively.
What We Need
To move efficiently, we collaborate closely with clients during key decision points:
Concept & Brand Alignment
- Brand-aligned product form language
- Visual differentiation within category norms
- Design consistency across product families
Form & Surface Development
- Proportion, balance, and silhouette control
- Surface transition and edge detailing
- Visual harmony with internal structure and layout
CMF & Detail Control
- CMF definition for production materials
- Durability-driven aesthetic decisions
Manufacturability Awareness
- Parting line and seam visibility planning
- Styling aligned with tooling constraints
- Production-ready appearance freeze support
Typical Timeline & Criteria
Typical duration:
2â4 weeks, depending on concept breadth and revision depth.
Considered complete when:
- One design direction is fully defined and approved
- CMF intent is clear and production-viable
- Appearance decisions are locked for structural detailing
Unresolved brand or market positioning will extend this stage by design, not by execution inefficiency.
DEFINING HOW YOUR PRODUCT WORKS
Structural Design
Structural design translates approved appearance into a mechanically sound, manufacturable product. This stage defines how internal components are supported, protected, assembled, and serviced, while ensuring durability, safety, and long-term stability. At AJE, structural design is not treated as isolated CAD workâit is developed alongside real assembly logic, tooling behavior, and production constraints to avoid downstream rework.
What We Support
Internal architecture and component layout planning
Tolerance allocation for multi-part assemblies
Load-bearing structure and reinforcement strategy
Structural consistency across variants and SKUs
Snap-fit, screw, clip, and hybrid fastening solutions
Serviceability and disassembly considerations
Drop, vibration, and thermal stress readiness
Structural freeze aligned with tooling readiness
PCB, battery, and connector mounting definition
Ingress protection and sealing strategy
What We Consider
Beyond basic fitment, we actively manage risks that typically surface too late in development:
- Structural integrity under real-world use and misuse
- Plastic creep, fatigue, and long-term deformation risks
- Interaction between structure and cosmetic surfaces
- Assembly force paths and stress concentration points
- Material behavior under heat, humidity, and aging
- Component replacement, repair, and rework feasibility
This ensures the structure supports both product reliability and scalable production, not just nominal CAD fit.
What We Need
To move efficiently through structural definition, we align with clients on the following:
System & Component Inputs
- Finalized or near-final component specifications
- PCB outlines, connector locations, and keep-out zones
- Battery type, capacity, and safety constraints
Assembly & Usage Context
- Target assembly method (manual, semi-auto, automated)
- Expected user handling, installation, and servicing scenarios
Manufacturing Direction
- Preferred fastening philosophy (screws vs snaps, etc.)
- Initial cost targets and durability expectations
Typical Timeline & Criteria
Typical duration:
3â5 weeks, depending on internal complexity and revision cycles.
Considered complete when:
- All internal components are fully constrained and supported
- Assembly sequence is validated and repeatable
- Structural design is stable for DFM and tooling detailing
Unclear component selection or late electrical changes will extend this phase by dependency, not execution.
PRODUCT BUILT AT SCALE
DFM / DFA
DFM (Design for Manufacturing) and DFA (Design for Assembly) ensure that a structurally complete product can be produced efficiently, consistently, and at target cost. This stage converts engineering intent into production reality by optimizing part design, assembly flow, and tolerance strategy. At AJE, DFM/DFA is driven by factory-level experienceânot theoretical checklists.
What We Support
Injection-molding feasibility optimization
Tooling-friendly geometry adjustments
Wall thickness, draft, and rib structure refinement
Yield, scrap, and rework risk reduction
Part count reduction and consolidation strategies
Production documentation readiness
Assembly sequence simplification
Pre-tooling design freeze validation
Tolerance stack-up and risk mitigation
Gate, runner, and ejection strategy alignment
What We Consider
At this stage, we actively balance design intent against production economics:
- Tooling complexity vs long-term unit cost
- Assembly time and labor sensitivity
- Cosmetic risk caused by gates, ejectors, and parting lines
- Material shrinkage, warpage, and flow behavior
- Fixture, jig, and automation compatibility
- Scalability from pilot builds to mass production
This prevents late-stage tooling changes, line inefficiencies, and quality instability.
What We Need
To execute DFM/DFA effectively, we align on:
Production Assumptions
- Target annual volume and ramp-up plan
- Expected production location and capability level
Cost & Quality Priorities
- Cost vs quality vs speed trade-off expectations
- Acceptable cosmetic standards and defect thresholds
Manufacturing Strategy
- Preferred suppliers or open sourcing
- Manual vs automated assembly direction
Typical Timeline & Criteria
Typical duration:
2â4 weeks, depending on tooling complexity and risk tolerance.
Considered complete when:
- Design is tooling-ready with no open manufacturability risks
- Assembly flow is defined and repeatable
- Cost, yield, and quality risks are controlled
Rushed timelines without production clarity will increase long-term cost, not shorten launch.
