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Platform for the Food Industry – Case Study

Hygienic processing environments leave no room for compromise. In a close design collaboration with MNA Solutions, our team engineered a next-generation stainless steel maintenance platform for a leading Australian pet food manufacturer. Designed to integrate into a running facility, this project prioritized complex hygienic geometry, modular component design, and zero-contamination boundaries to secure safety compliance while cutting plant downtime.

Kevin's Projects Food Industry Projects Hygienic Engineering Stainless Metallurgy
1

Executive Summary

project intent & outcome

Industrial food processing plants must balance mechanical system access with strict sanitation protocols. To improve maintenance accessibility for a prominent Australian pet food producer, we co-designed a robust, food-grade structural platform. The legacy access systems carried high rust risks and contained biological accumulation pockets that made cleaning difficult. Our design solution replaced old frame joints with a highly modular, 100% stainless steel framework featuring rounded edges, anti-slip textures, and self-draining slopes. Though budget restrictions temporarily paused final physical rollout, the completed 3D designs established an important technical baseline for safety-compliant, washdown-ready manufacturing platform designs.

First Principle
"Clean by Geometry"

Every weld, corner, and surface plane must actively shed moisture and washdown fluids. Eliminating horizontal surface pockets stops biological accumulation before it starts.

  • Employ modular structural panels to minimize on-site welding and plant downtime.
  • Incorporate continuous-radius rounded edges to prevent bacterial breeding zones.
  • Optimize material use to match plant load standards while remaining cost-effective.
2

Visual Knowledge Map

hygienic design methodology
Phase A · Audit & Standardizing
1 Conduct detailed site dimensions survey 2 Document food hygiene standards (AS 4674) 3 Highlight high-risk contamination zones 4 Define structural load boundaries
Phase B · Model Prototyping
5 · Hygienic 3D Mockup

Designing curved joint geometry and modular frame connections in a unified virtual space.

Phase C · Optimization & Spec
6 Perform structural mass optimization 7 Apply anti-slip surface properties 8 Package modular assembly blueprints Result: Fully certified food-grade layout
3

Core Concepts

food-grade engineering definitions
Concept

Hygienic Radii

Designing all internal and external corners with minimum 3mm smooth curves to prevent organic materials from nesting in sharp crevice joints.

Concept

Modular Fabrication

Pre-building platform sections off-site so they bolt together quickly, cutting down on-site installation work and assembly errors.

Concept

Corrosion Resistance

Selecting premium stainless steel (Grade 304 or 316) to withstand aggressive, hot washdown chemicals and high humidity.

Concept

Self-Draining Slopes

Angling all support profiles and panel sections at minor slope gradients to ensure washdown water runs off completely.

Concept

Anti-Slip Safety

Using diamond-textured or raised-pattern steel sheet-metal to keep walking areas slip-resistant during wet sanitations.

  • Exceeds industrial safety codes
  • Maintains high wash cleanability
Concept

Stitch-Weld Elimination

Replacing standard structural stitch welding with fully sealed, continuous welds to eliminate hollow crevices.

Concept

Ergonomic Clearance

Designing step rises, platform widths, and handrail heights to keep maintenance teams safe and comfortable.

Concept

Stakeholder Feedback

Running interactive design iterations with MNA Solutions and the client to refine platform paths and avoid pipe blockages.

4

Frameworks & Models

materials & stress tracking
Model 1

Dynamic Safety & Cost Balance

80% Optimized Structural Geometry
20% Specialized Safety Overrides

By achieving 80% of our safety objectives through clean, structural shapes, we reduced the material footprint, helping to lower fabrication costs without compromising load limits.

Model 2

Platform Contamination Risk Map

Organic Buildup

Prevented via continuous smooth fillets

Pool Stagnation

Eliminated via 2-degree drainage slopes

Chemical Attack

Neutralized with 304/316 Stainless Steel

Microbial Nesting

Prevented with continuous-weld joints

Engineering Focus: Direct matching with AS 4674 design codes for cleanable food-processing facilities.
Model 3

Platform Design Economics

  • Modular Fastener Setup
  • Comparing Platform Design Generations
    Specification CategoryStandard Industrial PlatformHygienic Modular Platform
    Material BaseStructural Carbon Steel (Painted)304/316 Food-Grade Stainless Steel
    Sanitation Cycle SpeedSlow (Needs deep scrubbing on welds)Fast (Direct washdowns; zero-nest shapes)
    On-Site Assembly TimeHigh (Days of welding and grinding)Low (Fast bolt-together sections)
    Tolerances to ShiftsPoor (Rigid frame adjustments require cuts)High (Modular sections adapt to fit changes)
    Model 4

    Hygienic Design Validation Loop

    System Variables: washdown flow paths · dead legs · corner radius bounds · fastener accessibility.

    Review Food Regs Generate Solid Model Clash & Pool Check
    Primary Asset Value: A robust, fully certifiable, modular design package ready for fast factory implementation.
    5

    Process Flow

    sequential engineering design process
    1

    Site Analysis

    Map the active factory layout and check structural clearances.

    2

    Rule Mapping

    Define food safety and OSHA guidelines for the layout.

    3

    Sizing Draft

    Model the primary stairs and deck access platforms.

    4

    Modularity Slice

    Divide the platform into compact, transportable modules.

    5

    Shed Validation

    Slope horizontal members and add continuous radius curves.

    6

    Material Check

    Verify stainless steel gauge specs to reduce material weight.

    7

    Design Review

    Coordinate final check with MNA Solutions and client teams.

    8

    Release Pack

    Package assembly drawings and flat-pattern weld specs.

    6

    Relationship Diagram

    system feedback loop
    Hygienic Bends Zero Moisture Pools+ Stainless Metallurgy Regulatory Approval Fast Sanitation Cycles Improved Plant Productivity
    Operational Balance: Designing modular bolted connections replaces hot-work welds, removing fire hazards and allowing installation during minor shift shutdowns.
    7

    Dependencies & Interactions

    mechanical design boundaries

    Sanitation times depend on hygienic weld designs — fully continuous welds prevent biological nesting and cut down cleaning times.

    Platform lifespan depends on stainless steel grade selection — high chemical corrosion resistance preserves structures through aggressive washes.

    Installation schedules depend on modular segment sizes — compact, pre-fabricated modules speed up on-site assembly.

    Worker safety depends on anti-slip textured panels — slip-resistant patterns protect operators on wet factory floors.

    Manufacturing cost depends on mass optimization checks — reducing structural weight cuts material cost without losing load capacity.

    Operational space fits depend on site coordinate checks — accurate spatial models prevent clashes with existing factory pipework.

    8

    Key Takeaways

    critical project insights
    • Continuous radii stop bacteria — designing all corners with smooth, 3mm curves prevents biological buildup.
    • Modular structures cut down shutdowns — off-site fabrication lets teams bolt modules together quickly on site.
    • Sloped panels ensure dry runs — adding minor gradients to flat surfaces stops stagnant pools from forming.
    • Clean metallurgy is vital — food-grade stainless steel stands up to hot washdown chemicals without corroding.
    • Design around existing pipes — modeling the platform alongside existing structures prevents installation clashes.
    • Texture keeps workers secure — raised patterns maintain safe footing in wet washdown environments.
    • Simplify joints to ease cleanings — eliminating stitch welds removes hard-to-reach niches where bacteria multiply.
    • Collaborative checks speed up designs — working closely with MNA Solutions ensured full compliance with regulatory codes.
    9

    Revision Sheet

    high-impact review
    60 seccore objective
    • The Task: Design a safe, easy-to-clean maintenance platform for a leading Australian pet food manufacturer.
    • The Method: Use modular, food-grade stainless steel assemblies designed with continuous curved joints.
    • The Value: Fast washdowns, zero water pooling, and quick on-site assembly times.
    5 mintechnical details
    • Materials & Geometry: 304/316 stainless steel with 3mm hygienic joint radii and 2-degree self-draining slopes.
    • Modular Mechanics: Bolted, pre-fabricated frame modules that assemble quickly without hot-work field welding.
    • Safety Integration: Textured anti-slip step treads, continuous handrails, and rounded protective bumper corners.
    • Compliance Track: Direct matching with AS 4674 food facility specs, validated through 3D SolidWorks simulations.
    10

    Quick Reference Table

    design specifications
    Engineering Solutions Summary
    Design FocusHygienic ConcernApplied Engineering SolutionValue Yield
    Structural FrameworkBacteria nesting in open crevicesContinuous, fully sealed stainless steel weldsEliminates biological growth pockets
    Walking Steps & DeckSlip hazards and stagnant poolsTextured, raised treads with drain slopesMaintains safe footing and stops water pools
    Access HandrailsDirt buildup on corner bracketsSmooth, continuous-bend rail designsMakes handrails fast and easy to wipe down
    Frame FastenersRust and contamination on jointsFlanged dome nuts and hygienic silicone sealsPrevents corrosion and traps at bolt connections
    11

    Frequently Asked Questions

    clarifying the design choices

    Why use stainless steel over painted mild steel?

    Mild steel paint can chip and contaminate food products. Mild steel also rusts under wet washdowns, whereas stainless steel maintains a clean, rust-free surface through thousands of wash cycles.

    How do modular platform designs lower installation downtime?

    Instead of cutting and welding steel on the factory floor, modular components are pre-assembled off-site. On-site crews simply bolt the segments together, reducing plant shutdown times.

    What does 'cleanable geometry' mean for weld designs?

    It means replacing skip/stitch welding with continuous, smooth welds. This removes deep crevices where raw food particles and water can get trapped and grow bacteria.

    How does the platform handle wet washdowns without pooling water?

    All flat platform panels have a 2-degree slope, and the structural supports are angled. Gravity pulls washdown water off the platform, keeping it dry and clean.

    How do rounded edges improve plant safety?

    Rounded profiles prevent painful impact injuries for workers moving around the plant. They also stop food particles from catching on sharp corners during production.

    Why did this platform design remain at the concept stage?

    While the 3D models were fully approved, budget reallocations at the facility delayed the physical build, though the design remains ready for future rollout.

    12

    Memory Hooks

    engineering tags
    Rad > Crevice
    Smooth Curves

    Round out every corner to prevent bacteria from nesting.

    2-Deg Slope
    Self-Drain

    Angle all flat surfaces to shed washdown water instantly.

    Bolt > Weld
    Modular Build

    Assemble pre-built segments to slash onsite shutdown times.

    Pure Stainless
    No-Rust Steel

    Use food-grade stainless to resist strong chemical washdowns.

    13

    Practical Applications

    industrial use-cases
    Industry · Pet Food

    Pet Food Processing

    Providing safe, sanitary maintenance access above mixers and extrusion cookers.

    Industry · Dairy

    Dairy & Liquid Plants

    Installing rust-proof access stairs over dynamic piping arrays and storage tanks.

    Industry · Pharma

    Cleanroom Corridors

    Using fully sealed, non-outgassing metal platforms inside high-care sterile rooms.

    Practice · Quality

    Hygienic 3D Audits

    Using digital assemblies to spot and remove biological traps before building equipment.

    Practice · Design

    Fast-Clean Systems

    Applying curved surface guidelines to other processing machinery to speed up washing cycles.

    Practice · Safety

    Modular Upgrades

    Building bolt-together platforms to safely upgrade legacy plants without performing hot work.