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Moldflow Simulation Jobs (NOW HIRING)

Sr. Process Engineer- Molding

Yocumtown, PA ยท On-site

$99K - $129K/yr

MoldFlow analysis to determine optimum fill pattern and resultant part deformation * ProE product manipulation to simulate design variations in support of design for manufacturability (DFM) and High ...

Participate as a project stakeholder in the review of simulations such as with Moldflow software. * Performs/participates in initial risk assessment and establishes tooling and processing parameters ...

Experience in plastic molding simulation (e.g. Moldflow or Moldex3D) Work location: * Work location: This role follows an on-site working model, requiring the employee to work at least four days a ...

Molding specialist

Woodbury, MN ยท On-site

$145K - $178K/yr

Experience in plastic molding simulation (e.g. Moldflow or Moldex3D) Work location: * Work location: This role follows an on-site working model, requiring the employee to work at least four days a ...

Lead Mechanical Engineer

Monroe, NC ยท On-site

$102K - $123K/yr

Strong engineering design skills, including experience with design simulation (FEA/CFD/Moldflow), GD&T, and Statistical Analysis. * The candidate should have a demonstrated passion for new product ...

Lead Mechanical Engineer

Monroe, NC ยท Hybrid

$102K - $123K/yr

Strong engineering design skills, including experience with design simulation (FEA/CFD/Moldflow), GD&T, and Statistical Analysis. * The candidate should have a demonstrated passion for new product ...

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Moldflow Simulation information

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$39K

$123.4K

$190.5K

How much do moldflow simulation jobs pay per year?

As of Jun 7, 2026, the average yearly pay for moldflow simulation in the United States is $123,399.00, according to ZipRecruiter salary data. Most workers in this role earn between $92,000.00 and $146,500.00 per year, depending on experience, location, and employer.

What is Moldflow Simulation?

Moldflow Simulation refers to the use of specialized software to analyze, predict, and optimize the injection molding process for plastic parts. It enables engineers to simulate how melted plastic fills a mold, cools, and solidifies, helping to identify potential defects such as warpage, air traps, or sink marks before manufacturing begins. By using Moldflow Simulation, companies can save time and costs by reducing the need for physical prototypes and minimizing production issues. This technology is widely used in industries like automotive, consumer goods, and medical devices to ensure high-quality plastic parts.

What are the key skills and qualifications needed to thrive as a Moldflow Simulation Engineer, and why are they important?

To thrive as a Moldflow Simulation Engineer, you need a solid background in engineering (often mechanical or plastics engineering), deep understanding of injection molding processes, and proficiency in simulation analysis. Expertise in Autodesk Moldflow software, CAD tools, and sometimes certifications in simulation or plastics processing are commonly required. Strong analytical thinking, problem-solving, and effective communication skills help you interpret results and collaborate with cross-functional teams. These skills and qualifications are essential for optimizing part design and manufacturing processes, reducing defects, and ensuring product quality.

What is the difference between Moldflow Simulation vs Mold Design Engineer?

AspectMoldflow SimulationMold Design Engineer
Primary FocusAnalyzing and optimizing plastic part and mold designs using simulation softwareDesigning and developing physical molds for manufacturing
Required SkillsCAD, CAE software, material properties, troubleshootingCAD, mechanical design, manufacturing processes
Work EnvironmentEngineering offices, simulation labsManufacturing plants, design studios
CertificationsOften requires CAD/CAE certificationsMechanical engineering degrees, CAD certifications

While Moldflow Simulation specialists focus on virtual analysis to improve mold and part designs, Mold Design Engineers create the physical molds used in manufacturing. Both roles require CAD skills and industry knowledge, but their core tasks differ: one emphasizes simulation and analysis, the other physical mold creation.

What are some common challenges faced by professionals working in Moldflow Simulation, and how can they be addressed?

Professionals in Moldflow Simulation often encounter challenges such as accurately modeling complex part geometries, ensuring material data accuracy, and interpreting simulation results to make actionable recommendations. Staying updated with the latest software features and collaborating closely with design and manufacturing teams can help address these issues. Regular communication with tooling engineers and product designers ensures that simulation insights are effectively integrated into the design and production process, ultimately improving part quality and reducing costly manufacturing iterations.
Sr. Process Engineer- Molding

Sr. Process Engineer- Molding

Amphenol TCS

Yocumtown, PA โ€ข On-site

$99K - $129K/yr

Full-time

Posted 5 days ago


Job description

Position: Sr. Process Engineer (Molding)

Location: Etters, PA

RESPONSIBILITIES:

Function:
To conceive, plan, coordinate, develop, qualify and implement Standard & Molding process technology meeting our cost and capacity objectives against customer requirements. Responsibilities include allaspects related to the implementation (materials, tooling, equipment), operability and performance of new or existing Molding processes, their modifications and related documentation.
Engineering Tasks:

1. Coordinate project tasks and deadlines in maintaining project schedules and budgets. Solicit internal and external resource support to meet project timelines.

  • Participate in definition of overall project plan and schedules for development projects in meeting time to market (TTM) objectives.
  • Act as a consultant to management in assessing project aspects, feasibility and risks and in making technical recommendations for alternatives to achieve objectives against delivery schedules.
  • Interface with vendors, quality, product engineering and manufacturing to assure capability and/or compliance in meeting process, product, delivery, and safety/environmental objectives.
  • Coordinate equipment transfer and training of personnel for start-up facilities

2. Discovery & Definition focuses on early involvement with the product/process conceptualization to determine characteristics/requirements that meet product, manufacturing and customer objectives.

  • Define processes inclusive of process specifications, setup sheets, control charts, operating procedures, spare parts lists and preventative maintenance plans.
  • Provide input to define siting (facilities), area layout and infrastructure requirements.
  • Define the process steps and sequence of operations, material handling and process control needs and to the extent possible, the preliminary process layout.
  • Define process flexibility requirements based on proposed product configurations.
  • Define the supply chain from raw material to customer application.
  • Define the process step cycle times, efficiencies, yields and step relationships to include dynamic modeling as required for process and line balance assumptions. (Arrangement, Rates, Balance, Yield, Utility, Capacity)
  • Product cost estimates inputs for each level of approach.
  • Product/Process FMEA and risk assessment activities.
  • Define critical product/process parameters.
  • MoldFlow analysis to determine optimum fill pattern and resultant part deformation
  • ProE product manipulation to simulate design variations in support of design for manufacturability (DFM) and High Volume Manufacturing (HVM)

3. Development focuses on deriving, characterizing and controlling specific techniques.

  • Analysis of defined risk areas and experimentation, proof of principle tooling, feasibility studies, capability studies, detailed design and analysis, DOE, Passive data collection (PDC) and basic technology searches and development.
  • Develop prototypes of specific tools and equipment to execute (and validate) a defined technique that would ultimately support manufacturing requirements.
  • Develop and understand material processing behavior within specified processes or when subjected to a given technique. (both for FCI in-house and the end customer application)
  • Characterize process for the purpose of identifying and eliminating variability (natural and special) so that process limits can be clearly identified and achieved.
  • Characterize the behavior of materials within processes for the purpose of understanding variability and the establishment of controls through statistical practices.
  • Qualify process criticals to required levels through product/process correction actions driven by root cause analysis that incorporate statistical practices.
  • Identify process limits for product design to determine what is expected, day in and day out, under control and at defined levels of efficiency and profit.
  • Maintain a base knowledge of key technologies.
  • Share technologies and best practices throughout the company.

4. Deployment focuses on the transition and delivery to manufacturing.

  • Interface with site management, quality, engineering, accounting, purchasing, materials management and other departments throughout all project phases in the procurement and transfer of processes.
  • Deliver process specifications, setup sheets, control charts, inspection plans, operating procedures, spare parts lists and preventative maintenance plans.
  • Transfer established best practices to the receiving site.
  • Coordinate equipment transfer and training of basic personnel
  • Provide training, guidance and support to production and specialized personnel.

5. Sustaining Engineering to extend product life cycle and offer product line extensions.

  • Troubleshooting Hands-on processing and mechanical maintenance. Understanding of electrical circuits a plus.
  • Audits Process, procedural and new trainings.
  • Mold tool expansions.
  • Succession planning, Product Line End-Of-Life assessments.
  • Monitor production operations to Key Process Indicators (KPIs)
  • Review and optimize spare parts supply chain.
  • Maintain and update documents (JRA's, LOTO, process procedures, spare parts lists).

QUALIFICATIONS:

  • Bachelor's degree (B. S.) from four-year college or university (preferably a degree in Plastics Engineering Technology) and 2 to 5 years' experience; or equivalent combination of education and experience
  • Ability to develop prototype tools and processes to execute (and validate) a defined technique that would ultimately support manufacturing requirements and provide an understanding of material processing behavior within a specified processes or when subjected to a given technique.
  • Ability to provide hands-on process development and troubleshooting of production tools and equipment.
  • Proficiency with 3D/2D CAD tools such as CREO, NX, SolidWorks, AutoCAD, etc.
  • Ability to characterize process and the behavior of materials for the purpose of identifying and eliminating variability (natural & special) so that process limits can be clearly identified and controls established through statistical practices.
  • Ability to qualify process criticals to required levels through product/process correction actions driven by root cause analysis that incorporate statistical practices.
  • Ability to read, analyze, and interpret professional journals, technical procedures or governmental regulations. Ability to write reports, business correspondence, and procedure manuals. Ability to effectively present information and respond to questions from managers, vendors, team members, and manufacturing site representatives.
  • Demonstrated ability to operate with minimal supervision and provide updates on project status where issues or problems can be reviewed, discussed and resolved.
  • Ability to communicate and relate well with engineers in each region of the world.
  • Demonstrated skill and knowledge to train individuals and teams.

Should have knowledge and skills using:

  • Microsoft Suite (Project, Excel, Word, Powerpoint)
  • Geometric Dimensioning & Tolerancing
  • Statistical analysis software (example JMP)
  • Measurement System Analysis
  • MoldFlow software
  • Pro Engineer (preferable)

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About Amphenol TCS

Sourced by ZipRecruiter

Industry

Electrical equipment, appliance, and component manufacturing

Company size

1,001 - 5,000 Employees

Headquarters location

Nashua, NH, US

Year founded

1968