1

Internship Biw Fixture Design Engineer Jobs in Washington

Fabrication & Manufacturing Engineer

Hanover, MD · On-site

$72K - $93K/yr

... and Fixture Design: Design custom physical templates, clamps, and jigs to speed up downstream ... Work with Manufacture Engineering Team to write clear, highly visual work instructions for setting ...

Manufacturing Engineer

Chantilly, VA · On-site

$74K - $96K/yr

We are looking for individuals with experience using Manufacturing Execution Systems (MES) and familiarity with CAD tools for fixture design. Core Responsibilities The Manufacturing Engineer will be ...

Master of Science degree in an Electrical, Mechanical or Computer Engineering, or related field ... Tooling and fixture design experience * Experience working with Low Cost Country Contract ...

Master of Science degree in an Electrical, Mechanical or Computer Engineering, or related field ... Tooling and fixture design experience * Experience working with Low Cost Country Contract ...

The rest is design work alongside senior engineers, starting with cables, harnesses, and PCB layout ... New graduates are encouraged to apply - internships, co-ops, capstone projects, competition teams ...

Internship - Engineering

Columbia, MD · On-site

$16.50 - $21.50/hr

As a Project Engineer Intern, you will apply your knowledge and develop new skills while working on ... Engineering and design support * Business development Successful candidates will possess: * A ...

Internship - Engineering

Columbia, MD · On-site

$16.50 - $21.50/hr

As a Project Engineer Intern, you will apply your knowledge and develop new skills while working on ... Engineering and design support * Business development Successful candidates will possess: * A ...

Showing results 21-40

Internship Biw Fixture Design Engineer information

What does an internship BIW fixture design engineer do?

An Internship BIW (Body-in-White) Fixture Design Engineer assists in designing and developing fixtures used in the assembly and welding processes of automobile body structures. Their responsibilities typically include creating CAD models, supporting senior engineers, ensuring fixture designs meet quality and safety standards, and collaborating with manufacturing teams. Interns may also be involved in testing prototypes, documentation, and making design modifications based on feedback. This role provides valuable hands-on experience in automotive engineering and manufacturing environments.

What are the key skills and qualifications needed to thrive as an internship BIW fixture design engineer, and why are they important?

To succeed as an Internship BIW Fixture Design Engineer, you need a solid understanding of mechanical engineering principles, CAD modeling, and fundamental knowledge of Body-in-White (BIW) manufacturing processes, usually supported by progress toward a relevant engineering degree. Familiarity with technical tools such as CATIA, NX, or SolidWorks, and exposure to GD&T (Geometric Dimensioning and Tolerancing) are commonly required. Strong problem-solving abilities, attention to detail, and effective teamwork and communication skills help interns excel in dynamic project environments. These competencies ensure precise fixture designs that support efficient production, quality standards, and collaborative engineering workflows.

What are some common challenges faced by an internship BIW fixture design engineer, and how can they be overcome?

Internship Biw Fixture Design Engineers often encounter challenges such as adapting to complex CAD software, understanding the specific standards of Body-in-White (BIW) fixture design, and collaborating with cross-functional teams. To overcome these challenges, it's helpful to proactively seek mentorship from experienced engineers, participate in hands-on training sessions, and stay organized when managing multiple design iterations. Strong communication and a willingness to ask questions can also ease the transition into the fast-paced automotive engineering environment.

What is the difference between Internship Biw Fixture Design Engineer vs Internship Automotive Body Fixture Designer?

AspectInternship Biw Fixture Design EngineerInternship Automotive Body Fixture Designer
CredentialsRelevant engineering coursework, basic CAD skillsSimilar engineering background, CAD proficiency
Work EnvironmentDesign teams in automotive manufacturingDesign teams focused on vehicle body assembly
Industry UsageUsed in automotive manufacturing for BIW fixturesUsed in automotive assembly for body fixtures

Both roles involve CAD design and understanding of automotive manufacturing processes. The Internship Biw Fixture Design Engineer focuses on designing fixtures for the Body-in-White (BIW) stage, while the Internship Automotive Body Fixture Designer specializes in fixtures for vehicle body assembly. The roles are similar in skills and environment but differ in specific focus areas within automotive fixture design.

What are the most commonly searched types of Biw Fixture Design Engineer jobs in Washington?

The most popular types of Biw Fixture Design Engineer jobs in Washington are:

What cities in Washington are hiring for Internship Biw Fixture Design Engineer jobs?

Cities in Washington with the most Internship Biw Fixture Design Engineer job openings:

Fabrication & Manufacturing Engineer

PwrQ Holdings LLC

Hanover, MD

$100K - $115K/yr

Full-time

Re-posted 5 days ago


Job description

Description

 Position Summary:

The Fabrication & Manufacturing Engineer serves as the critical, hands-on link between the design engineering department and the fabrication shop floor. This role is directly responsible for ensuring all engineering drawings and CAD models are audited for Design for Manufacturability (DFM) before production begins. This individual manages the creation, verification, and deployment of precise CNC machine files, directly supervises production floor workflows, and optimizes machine scheduling to ensure custom switchgear projects move seamlessly through the production plan on time and under budget.


Key Responsibilities: 

Technical File Management & DFM (The Desk Side)- This person acts as the final quality filter before any metal or copper is cut. 

o Design for Manufacturability (DFM) Audits: Review 3D models from SolidWorks and 2D layouts from AutoCAD to ensure parts can actually be fabricated. They look for impossible bend radiuses, holes placed too close to bend lines, or geometries that exceed machine physical limits. 

o CNC Programming & Nesting: Use CAM software to write precise G-code programs and optimize nesting layouts. Their goal is to maximize sheet and copper coil utilization to keep material scrap as close to 0% as possible. 

o Revision & Version Control: Lock down the digital transfer of files. They ensure that obsolete program files are deleted from the machine controllers and that operators only load the current, engineering-approved file revisions. 

o Tooling Specification: Calculate correct K-factors and bend deductions for the press brakes based on specific material thicknesses so parts fold to the exact dimensions on the first try. 

Supervision & Workflow Execution (The Floor Side)- This person does not just sit in an office; they actively manage the fabrication floor to keep projects moving according to the master schedule. 

o Daily Production Scheduling: Coordinate the flow of raw materials to the machines. They ensure that machine operators always have a backlog of optimized files and material ready to run, preventing costly machine idle time. 

o Automation Management: Oversee the scheduling and program accuracy for automated systems, ensuring complex panel bending runs seamlessly without mechanical jamming or software conflicts. 

o First-Piece Setup Inspections: Create processes for operators to physically measure and audit the very first part that comes off the laser, punch, or brake against the master blueprint. They give the official "green light" before the operator runs the rest of the batch. 

o Live Floor Troubleshooting: Serve as the immediate responder when an operator encounters a machine error, a tooling collision, or material fracturing during a bend, fixing the program right at the controller to minimize downtime. 

Process Improvement (Continuous Growth) 

o Jig and Fixture Design: Design custom physical templates, clamps, and jigs to speed up downstream manual workflows like welding and final switchgear assembly. 

o Standard Operating Procedures (SOPs): Work with Manufacture Engineering Team to write clear, highly visual work instructions for setting up machines so operators achieve consistent quality regardless of their shift.


Qualifications:

Education: Bachelor's degree in mechanical, Manufacturing, or Industrial Engineering (or equivalent technical field / equivalent extensive shop floor programming experience)

Experience: 3-5+ years of hands-on experience in a precision sheet metal or electrical switchgear fabrication facility. 

Technical Skills & Competencies:

o Software Mastery: Advanced proficiency in 3D CAD (SolidWorks), 2D CAD (AutoCAD), and industrial CAM nesting software. 

o Fabrication Expertise: Deep practical knowledge of laser cutting, copper punching (Boschert/AMADA), panel bending/folding, press brake operation, K-factors/bend deductions, and metallurgy. 

o Blueprint Literacy: Absolute mastery of reading complex geometric dimensioning and tolerancing (GD&T) drawings, multi-layered assembly schematics, and weld symbols.


Core Competencies & Behaviors:

  • Analytical Problem-Solving: Ability to analyze data      to optimize production processes and solve bottlenecks. 
  • Technical Proficiency: Experience with ERP/MRP      systems and understanding fabrication manufacturing (e.g., machining,      welding, sheet metal). 
  • Communication Skills: Strong interpersonal skills for      coordinating with various departments. 
  • Organizational Skills: Ability to manage multiple      projects and priorities simultaneously. 
  • Attention to Detail: High accuracy in scheduling and      inventory record maintenance. 
  • Adaptability: Capacity to respond quickly to changing      priorities, delays, or emergency orders.  

Working Conditions:

The typical work environment is a standard office setting. The employee is frequently required to perform work in a manufacturing environment. Frequently required to sit for extended periods of time at computer.  


Disclaimer:

The statements above are intended to describe the general nature and level of work being performed. They are not an exhaustive list of all responsibilities, duties, or skills required. Forgent Power reserves the right to modify, interpret, or apply this job description as needed. 


Equal Employment Opportunity Statement:

Forgent Power is an equal opportunity employer. We are committed to creating an inclusive environment for all employees. Employment decisions are made without regard to race, color, religion, sex, national origin, age, disability, veteran status, or any other protected class.