The Additive Manufacturing (AM) track covers fundamentals, design and analysis, and applications of additive manufacturing technology.
It currently comprises the following five courses; students may choose four.
WELDENG 5027 Introduction to Additive Manufacturing (3 cr hrs)
This course introduces the modern Additive Manufacturing (AM) technology applied to a wide variety of materials while focusing on metal AM. The course covers the history, fundamentals, applications, processes, and materials science associated with AM technology.
Course Learning Objectives:
3. The processes steps
4. Design for AM
5. A description of the most common AM processes for polymers, ceramics, and metals
6. The most relevant parameters for metal AM and other aspects such as feedstock, defect formation, modeling and microstructure evolution, and microstructure engineering
7. Applications, advantages, and disadvantages of AM; 6. Recent advances in AM and the future of this technology
Survey of Additive Manufacturing (AM) patient data acquisition and medical device Computer Aided Design (CAD), medical research and clinical grade AM materials and AM fabrication methods, quality assurance/management systems and regulatory (FDA) approval process. Click here to learn more about MATSCEN 5655.
ME 6194 Design for Additive Manufacturing (3 cr hrs)
This is a Graduate-level course that will focus on the field of design for additive manufacturing also known as 3D printing. The course will use design-based problems, and project-based learning (hands-on) to aid students in developing the design and research skills required to function within the area of design for additive manufacturing. As a student in this course, you will be expected to gain understanding and skillsets in computer-aided design (CAD) with 3D printing, manufacturing, and research knowledge.
The course will focus both on novel design tools that are integrated into the AM process and also on restrictive manufacturability constraints that impact the design methods. We will explore a variety of AM systems starting from small desktop FDM scale to high-end industry-level AM. In this course, we will also explore the important pertinent research questions related to the design of AM.
By the end of this course, students should successfully be able to:
WELDENG 7115 Computational Modeling of Additive Manufacturing (3 cr hrs)
Topics include theory of temperature, stress, deformation, phase transformation during additive manufacturing and welding, as well as application of industry-standard simulation codes.
ME 6194 Science and Engineering Foundations of Additive Manufacturing (3 cr hrs)
This graduate-level course focuses on the scientific and engineering principles that govern material addition and consolidation in additive manufacturing processes. The class has a particular focus on heat transfer and fluid mechanics physics, as these physical principles govern important thermal processes such as powder bed fusion, directed energy deposition, and material extrusion. The overarching objective of the course is to assist graduate students in researching additive manufacturing processes to better understand the physical principles of their research.
Objective 1: Apply the basic physics and engineering principles of additive manufacturing: heat transfer, engineering mechanics, materials consolidation, systems integration and control, and experiment design.
Objective 2: Apply ordinary and partial differential equations to problems in AM.
Objective 3: Apply and then analyze first-principles AM simulation and modeling tools.
Objective 4: Apply the physics of the key failure modes in AM processes and then analyze failure case studies.
Objective 5: Design an experiment to understand basic process-structure-performance relationships in AM.