3D scanner capturing industrial part geometry with FEA color map on laptop in engineering laboratory

    Product Design · FEA · Mold Flow · Material Selection · Process Optimization

    From Concept to Production-Ready Plastic Parts

    Selecting the right material, designing for moldability, and optimizing for cost, before the molds are cut. Our deep polymer expertise eliminates the most common road blocks between a brilliant concept and a profitable product.

    In the LabPictured: 3D scanning and FEA analysis
    2,000+

    Client Matters

    580+

    Litigation-Related Projects

    70+

    Experts

    30+

    US States Served

    Why Specialized Plastic Consulting Matters

    Most design firms are generalists. Here's why the science of plastics demands specialists.

    Litigation-Informed Design

    Understanding why plastic parts fail is key to designing, developing, and manufacturing reliable products. Our failure analysis background gives us an advantage in preventing the exact failure modes we've seen in courtrooms.

    Polymer Science, Not Just Form

    Our plastic experts understand the chemistry and engineering of plastics at the molecular level. We don't just design shapes. We engineer materials, crystallinity, and additive packages for real-world performance.

    Decades of Manufacturing Experience

    Our team has decades of hands-on experience in the Plastics Industry. We've successfully helped many clients bring their ideas to market rapidly and cost-effectively.

    Early Retention Saves Millions

    Experienced plastic experts have seen it all and know the pitfalls. Early retention of a highly experienced plastic engineer speeds up the development process and reduces cost. We have redesigned extrusion dies to eliminate scrap and rework on a client's line. Engage us early and we become an extension of your in-house team, catching failure modes on the drawing board instead of in the field.

    Engineering & Design Services

    Five core capabilities, from simulation to production-floor optimization.

    Finite Element Analysis & Dynamic Simulation

    When designing parts, directional changes must be carefully radiused to spread stresses evenly. Our mold fill & pack analysis optimizes gate location and sizing. Our experienced experts can spot potential design flaws that computer models occasionally get wrong. Our dynamic FEA equipment, powered by high-speed supercomputers, predicts fatigue performance and service life.

    • Static and dynamic FEA stress analysis
    • Fatigue life prediction via supercomputer simulation
    • Mold fill & pack analysis with gate optimization
    • Identification of stress concentrations at radii and transitions
    • Cyclic fatigue testing correlation with simulation results
    Discuss Your Project
    Von Mises stress analysis FEA simulation of plastic filter canister showing stress distribution and yield strength

    Material Selection & Chemical Compatibility

    The most common cause of plastic product failure is Environmental Stress Cracking (ESC). Material datasheets list strength, thermal, and flow properties but often lack chemical resistance details. We routinely conduct ASTM D543 'Resistance of a Plastic to a Chemical' tests to confirm products won't fail from chemical exposure. There are literally thousands of materials available. Choosing the right one requires polymer science expertise.

    • ASTM D543 chemical resistance testing
    • ESC risk assessment for amorphous plastics
    • Carbon fiber & glass fiber reinforcement optimization
    • Cost-performance material trade-off analysis
    • Regulatory-compliant material selection (FDA, UL, ASTM)
    Discuss Your Project
    ASTM D543 chemical resistance test specimens under tension comparing control vs chemical exposure results

    Mold Flow Analysis & Mold Design

    An example: a plastic toilet flush valve molded from glass-fiber reinforced polypropylene failed in service. SEM images revealed glass fibers oriented parallel to the fracture, weakening rather than reinforcing the material. Our expert predicted improper gate location caused the fiber orientation issue. Mold flow analysis confirmed this: moving the gate would have allowed fibers to orient randomly, strengthening the part.

    • Gate location and sizing optimization
    • Glass fiber orientation prediction and correction
    • Weld line and knit line identification
    • Fill pattern and pack pressure optimization
    • Certified Autodesk Moldflow & Solidworks analysis
    Discuss Your Project
    Autodesk Moldflow fiber orientation analysis comparing gate locations on glass-fiber reinforced plastic valve

    Reverse Engineering & Deformulation

    Reverse engineering of a plastic product goes beyond 3D scanning. It includes deformulation (identifying the plastic and all additives in the material) and CT scanning to generate a 3D computer model of the part design. This molecular-level analysis reveals exactly what a competitor is using and how their part is constructed.

    • CT scanning for 3D part geometry capture
    • Plastic deformulation (base resin + additives identification)
    • FTIR & GC-MS chemical fingerprinting
    • Competitor material and design benchmarking
    • Intellectual property investigation support
    Discuss Your Project
    Industrial 3D scanner capturing part geometry on turntable with CAD model on monitor for reverse engineering analysis

    Manufacturing Process Consulting & Scientific Molding

    Molding a part involves optimization of the molding process through 'Scientific Molding.' We are experts in implementing this process to improve part quality. Production processes are often not optimized and can easily be adjusted to increase production rate without affecting part performance, reducing cost through both higher throughput and appropriate material selection.

    • Scientific Molding implementation and training
    • Process parameter optimization for quality and speed
    • Residual stress measurement and reduction
    • Cost reduction through material and cycle time optimization
    • Quality control system development for shop floor testing
    Discuss Your Project
    FEA stress simulation 3D model with engineering blueprint on laptop for plastic part design optimization

    Failure Modes That Require Better Design

    Learning from how plastics fail to design products that don't.

    ESC involves two factors: an incompatible chemical and stress. Stressors include internal pressure, residual stresses from manufacturing, bent components, tight clamps, and stress concentrators from poor part design. ESC is the most common cause of plastic product failure, and the most preventable when the right material is selected for the chemical environment.

    Once ESC failure due to chemical exposure is determined, the next step is identifying the chemical and its source. FTIR and GC-MS are the methods commonly used. Amorphous plastics (polycarbonate, ABS, polystyrene) are especially vulnerable to hydrocarbon chemicals, while crystalline plastics like polypropylene resist chemicals and heat.

    There is a tendency to always use plastic and to mold parts in China or third-world countries to lower cost. Sometimes a material other than plastic and manufacture parts in the US, is a safer choice. Making products that are higher quality and very reliable is the best way for a company to establish a great reputation.

    When a product fails: Is this a one-off failure or systemic? Do you mold the part yourself or subcontract? If subcontracted, have other molders produced parts that didn't fail? Do you have a 'good' part in service that we can analyze alongside the failed part for comparison? These questions determine whether it's a material, design, or processing issue.

    Advanced Capabilities

    State-of-the-art tools and proprietary methods set us apart from general design firms.

    Quality Control System Development

    Residual stress in plastic parts is often a key factor causing failure. The fabrication process should be carefully optimized to minimize residual stresses. We develop simple, effective tests for accepting or rejecting parts (like oven-based dimensional change measurements) to detect residual stress before parts leave the factory.

    Cost Reduction Consulting

    Cost is directly related to resin cost and production rate. Some products are over-engineered with expensive plastics when a lower-cost alternative works equally well.

    Dynamic FEA & Supercomputing

    Our dynamic computer simulation expert uses high-speed supercomputers to predict the fatigue performance and service life of plastic parts. Very few design firms have this capability.

    Our 5-Step Consulting Process

    A proven methodology that keeps development projects on track toward reliable, cost-effective production.

    01

    Understand the Problem

    Deep-dive into the client's challenge, whether it's a new product concept, a failing existing product, or a cost reduction initiative.

    02

    Examine & Analyze

    Deploy FEA, mold flow analysis, material testing, and forensic techniques to build a complete picture, and run a Failure Mode and Effects Analysis (FMEA) to rank the risks that matter most.

    03

    Develop Solutions

    Engineer the optimal combination of material, design, and process, applying Design for Manufacturing and Assembly (DFMA) so parts are easier to make and less likely to fail.

    04

    Implement

    Advise on how best to implement solutions, from prototype testing to production ramp-up.

    05

    Monitor & Maintain

    Develop ways to monitor and maintain the solutions. Establish quality control systems and residual stress testing protocols.

    Technical Deep Dives

    Key polymer science concepts every product developer and engineer should understand.

    When non-crystalline parts are placed under constant stress, the plastic has a tendency to slowly deform or creep. The long polymer chain molecules are entangled with each other. The higher the level of entanglements, the greater the creep resistance, because it is more difficult to pull highly entangled polymer chains apart.

    When plastic is injection molded, the melt is pumped under high pressure through a small hole in the mold. This forces long polymer chains to align in parallel. If the mold is cold, the plastic rapidly solidifies before chains can relax back to their preferred entangled state, creating 'residual stress.' When later heated, the chains relax and entangle back together, causing dimensional changes. This is stress relaxation.

    Remediation involves fixing what is causing a part to fail to stop future failures. The goal is to solve the problem as quickly and efficiently as possible. Rather than a total redesign, it may be possible to remediate with simply a slight modification to the design or the molding conditions.

    If a product will be used for food contact, extraction studies must prove no toxic chemicals are extracted from the plastic. If containing electrical components, the plastic needs to be flame retardant and pass UL94 tests. It is best to consider regulatory requirements early in the development phase, not as a checkbox at the end.

    Most additives act as plasticizers and lower the temperature resistance of a plastic. Therefore, it is generally best to minimize additive concentration: use only the amount necessary to achieve service requirements. A UV stabilizer, a fire retardant, or colorant can inadvertently weaken the mechanical properties of a high-performance polymer.

    Representative Engagements

    Real-world consulting engagements that demonstrate our impact.

    Packaging

    Plastic Storage Bag Die Design

    Used dynamic die modeling technology powered by high-speed supercomputers to design extrusion dies for different size bags. The dies performed to specification.

    Plumbing / Consumer

    Toilet Flush Valve Failure Analysis

    Glass-fiber reinforced PP flush valve failed in service. SEM revealed fiber orientation parallel to fracture. Mold flow analysis confirmed improper gate location caused the fiber alignment issue, proving a design/mold defect.

    Manufacturing

    Residual Stress Reduction Program

    Developed quality control protocols for detecting residual stress using oven-based dimensional change measurements. Optimized fabrication processes to minimize stress, reducing field failure rates.

    FAQ for Product Developers

    Common questions from manufacturers and R&D teams considering plastic consulting.

    Internal investigators look at solving problems based on their limited past experiences. Our experts have extensive and diverse problem-solving experiences allowing them to look at problems and possible solutions from a different perspective. Specialization in polymer science, not general mechanical engineering, is what separates effective plastic consulting from guesswork.

    Environmental Stress Cracking (ESC) is the most common and most preventable cause. It occurs when an amorphous plastic is exposed to an incompatible chemical under stress. Material datasheets often lack chemical resistance details, which is why specialized testing (ASTM D543) is critical during material selection.

    As early as material selection and design, before the molds are cut. The Design for Manufacturing and Assembly (DFMA) and Failure Modes and Effects Analysis (FMEA) stages are often a good place to bring in a plastics expert. Material and geometry decisions drive most plastic failures and are far cheaper to correct on paper than after tooling.

    We match the part's real service environment (chemical exposure, temperature, load, and expected life) to polymer chemistry, and we verify it with testing such as ASTM D543 chemical-resistance rather than relying on datasheets alone. These kinds of questions are answered in a DFMA and FMEA review process, which is often a cyclical process.

    Yes. We review wall thickness, draft, gating, tolerances, and shrinkage so the part molds cleanly and economically, reducing molding defects before the tool is built. DFMA and mold flow analysis are steps that can be the difference between a clean startup and significant issues.

    The opposite. Front-loading material and design review prevents the late-stage failures and retooling that actually cost time; catching issues on paper is faster and cheaper than catching them after production.

    Yes. We are independent polymer scientists, not tied to any resin vendor, so our material recommendations follow the science and your requirements, not a supplier's catalog.

    Accreditations & Affiliations

    Independent accredited labs across North America, Europe, Asia-Pacific, Australia, and the Middle East

    ASTM International Organizational Member
    ISO 17025 / A2LA-Accredited Affiliate Labs
    ASTM International Member
    SPE
    ACS
    NAFE
    NFPA
    View recognition & affiliations

    Start Your Project

    Whether you're developing a new product, optimizing an existing design, or investigating a field failure, our team of polymer scientists and engineers is ready to help.

    ConfidentialOne-business-day replyCall +1 (989) 281-4465

    Include country code if outside the USA.

    No-cost initial assessment. No upfront commitment.

    For consulting, testing, legal, or expert-witness requests only. We do not sell materials or products.