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    Global Product Design & Industrial Design Studio, Mumbai, India

    FOOD PROCESSOR
    All Prototypes
    Electronichome accessories
    16 Days•Reliance

    Food processor prototype

    Project Overview

    To engineer a robust and efficient food processor system with a focus on high-torque performance, safety, and durability—while delivering consistent results for demanding applications such as atta kneading and slicing, supported by a refined and user-friendly aesthetic.

    Project Details

    ClientReliance
    IndustryElectronic
    Typehome accessories
    MaterialsPlastic
    Timeline16 Days
    Engineering & Fabrication Notes

    Brief, Materials, Process & Validation

    Project Brief

    Design Scope & Functional Targets

    The FOOD PROCESSOR prototype project was commissioned to evaluate industrial design ergonomics, aesthetic proportions, and mechanical assembly feasibility before high-volume tooling. The brief specified an elevated brand aesthetic, intuitive operator touchpoints, and structural ribbing engineered for production manufacturability.

    Materials & CMF

    Engineering Materials & Surface Finishes

    Fabricated using production-intent engineering materials: Plastic. Key structural enclosures utilize vacuum-cast flame-retardant polyurethanes with custom CMF satin finishes, paired with precision CNC-machined metal fasteners and wear-resistant bushing inserts.

    Fabrication Process

    Model Making & Rapid Tooling Workflow

    The prototyping process utilized high-precision stereolithography (SLA) 3D master prints for dimensional fit checks, followed by room-temperature vulcanizing (RTV) silicone tooling. Parts were vacuum-cast to achieve uniform wall thickness and sharp character lines, followed by hand-sanding, priming, custom metallic CMF painting, and UV-cured topcoat.

    Test Notes & Validation

    Quality Benchmarking & Ergonomics

    Validation protocols included mechanical drop and vibration testing, continuous duty-cycle thermal airflow logging, parting line alignment checks under simulated operating loads, and tactile feedback evaluation across targeted user cohorts to confirm production readiness.

    The Challenge

    What We Set Out to Solve

    Designing a compact, high-torque gearbox capable of sustained atta kneading without overheating or wear.
 Developing efficient and safe blade profiles for both atta kneading and slicing applications.
 Optimizing material selection to balance strength, food safety, noise, wear resistance, and cost.

    The Solution

    How We Approached It

    Redesigned the gearbox with optimized gear ratios and load paths for improved torque and durability.
 Engineered application-specific blades for effective kneading and consistent slicing performance.
 Finalized food-grade materials suitable for performance, manufacturability, and long-term use.

    FOOD PROCESSOR hero
    FOOD PROCESSOR detail 2
    FOOD PROCESSOR detail 3
    Development Journey

    From Concept to Completion

    The complete prototype development journey for this project.

    Phase 1

    SLA-ABS RPT – 3D Printing

    Prototype parts are 3D printed using ABS-like material, Nylon base material  based on the final design.This stage creates accurate parts for size, fit, and overall evaluation.

    4 Days
    Phase 2

    Post Processing

    Printed parts are cleaned and support material is removed.  Surfaces are refined to achieve a smooth finish before painting.

    2 Days
    Phase 3

    Final Painting & Surface Treatment

    Parts are painted to match the required color and surface finish. Surface treatment enhances appearance and visual quality.

    1 Day
    Phase 4

    Assembly

    All finished parts are assembled into a complete prototype. Final checks are done to ensure proper fit and alignment.

    1 Day

    Ready to Build Your Prototype?

    Let's discuss your project and bring your vision to life with precision manufacturing.