Fall 2025: Additive Manufacturing

Main contact
University of California Merced
Merced, California, United States
PACE UC Merced
Administrator
Timeline
  • April 1, 2026
    Experience start
  • June 2, 2026
    Experience end
Experience
6 projects wanted
Dates set by experience
Agreements required
US$500.00
Portal pays 100%

Total pay is US$500.00 per learner.

Preferred companies
California, United States Required
Startup, Large enterprise, Non profit, Small to medium enterprise, Social Enterprise
Advanced manufacturing
Company verification required

Companies must complete verification in order to match with experience.

Experience scope

Categories
Mechanical engineering
Skills
cad programs topology optimization additive manufacturing (3d printing) fusion 360 (cad software) solidworks (cad) collaborative communications teamwork
Learner goals and capabilities


A 20-hour project-based internship experience for adult and community college learners interested in exploring careers in additive manufacturing. Approved projects will be matched with up to 5 participants, contributing a combined total of up to 100 hours of meaningful, real-world work. Projects will begin on the program start date and must be completed over a 4-week period.


This experience is designed for university and community college students with emerging or foundational knowledge of additive manufacturing technologies and systems. The goal is to provide learners with practical exposure to real-world manufacturing processes, systems thinking, CAD tools, and additive manufacturing technologies while strengthening both technical and project execution skills.


Learner Goals and Capabilities

Learners will have opportunities to:

  • Apply knowledge of additive manufacturing (AM) processes across the seven AM technology families (e.g., material extrusion, vat photopolymerization, powder bed fusion, binder jetting, direct energy deposition).
  • Use design-for-additive-manufacturing (DfAM) principles to redesign parts and optimize performance.
  • Practice CAD modeling and simulation using tools such as Fusion 360, SolidWorks, or nTopology.
  • Evaluate materials (metals, polymers, ceramics, composites) and compare benefits and trade-offs for specific applications.
  • Apply topology optimization and lattice structure design to minimize weight and reduce material use.
  • Demonstrate project management skills including scoping, deliverable tracking, and structured collaboration.
  • Strengthen teamwork, communication, and professional skills for industrial environments.


Learners

Learners
Workforce Development
Beginner levels
30 learners
Project
20 hours per learner
Learners apply to projects
Individual projects
Expected outcomes and deliverables

Learners will provide tangible outputs that connect academic knowledge with real-world manufacturing applications. Deliverables may include:

  • CAD models and design optimization proposals.
  • Research briefs or technical reports comparing processes, feedstocks, or performance outcomes.
  • Simulation results (e.g., stress analysis, topology optimization).
  • Manufacturing process selection guides or feasibility reports.
  • Final project documentation including project scope, methodology, and lessons learned.


Companies will gain fresh perspectives, early-stage research, and entry-level technical assets that support business goals or product development initiatives.




Project timeline
  • April 1, 2026
    Experience start
  • June 2, 2026
    Experience end

Project examples

Sample Project Ideas


DfAM Redesign Proposal

  • Select an existing mechanical part from your operations.
  • Redesign the part for optimization using additive manufacturing principles (e.g., weight reduction, fewer assemblies, improved performance).
  • Deliverables: CAD redesign files, comparison report (traditional vs. AM design), and recommendations for implementation.


Material and Process Comparison Report

  • Evaluate at least two AM materials (e.g., polymer vs. metal feedstocks) and AM processes (e.g., powder bed fusion vs. material extrusion).
  • Assess trade-offs in cost, durability, surface finish, and suitability for the application.
  • Deliverables: Research brief, cost-performance matrix, and a recommended AM process-material pairing.


Topology Optimization & Lattice Study

  • Use CAD and simulation tools to perform a topology optimization on an industrial component.
  • Explore how lattice structures or generative design can reduce weight while maintaining strength.
  • Deliverables: CAD files of optimized designs, simulation results, and technical documentation summarizing efficiency gains.



Additional company criteria

Companies must answer the following questions to submit a match request to this experience:

  • Q1 - Checkbox
    We confirm that we have read and understand the Terms and Conditions of this program.  *
  • Q2 - Checkbox
    We will evaluate the participants' final project submissions within 5 business days, offering feedback that can be utilized by the participants to strengthen their resumes and LinkedIn profiles.  *
  • Q3 - Checkbox
    We understand that we must provide ongoing mentorship and guidance to the team that are working on my project. I must be responsive to any questions, and check in on progress to help ensure a good result.  *
  • Q4 - Text long
    Please describe the final deliverable(s) that you expect from learners working on this project.  *