2023-2024 Course Catalog
Welcome to Virginia Tech! We are excited that you are here planning your time as a Hokie.
Welcome to Virginia Tech! We are excited that you are here planning your time as a Hokie.
Introduction to opportunities and resources available to College of Engineering students during their undergraduate career at VT. Practice in information gathering skills critical for engineering students. Practice in oral, written, and visual communication. Preparation of an academic plan.
A first-year sequence to introduce general engineering students to the profession. 1215 (2 credit) data collection and analysis, engineering problem-solving, mathematical modeling, contemporary software tools, professional practices and expectations (e.g. effective communication, working in teams, ethics), and the diversity of fields and majors within engineering. 1216 (2 credits): data collection and analysis, engineering problem-solving, mathematical modeling, design, contemporary software tools, professional practices and expectations (e.g. communication, teamwork, ethics). 1215: Design Lab/Studio (3L, 2C), 1216: Design Lab/Studio (3L, 2C).
A first-year sequence to introduce general engineering students to the profession. 1215 (2 credit) data collection and analysis, engineering problem-solving, mathematical modeling, contemporary software tools, professional practices and expectations (e.g. effective communication, working in teams, ethics), and the diversity of fields and majors within engineering. 1216 (2 credits): data collection and analysis, engineering problem-solving, mathematical modeling, design, contemporary software tools, professional practices and expectations (e.g. communication, teamwork, ethics). 1215: Design Lab/Studio (3L, 2C), 1216: Design Lab/Studio (3L, 2C).
Introduction to spatial visualization. Training to improve three-dimensional visualization skills, pictorial sketching, orthographic projection, mental rotation, mental cutting and folding, combining solids.
Introduction to engineering profession for transfer General Engineering students including engineering problem solving and design, contemporary software tools, and professional practices and expectations (e.g., communication, teamwork, ethics). Duplicates 1215-1216. Design Lab/Studio.
Develop global competencies in science, technology, engineering, and math (STEM) contexts and understand how problems and viable solutions vary across contexts and how intercultural communication and global leadership are important in an interconnected global workforce. Integrates semester-long on-campus module with international module following semester exams (Rising Sophomore Abroad Program). International module engages students in local culture during visits with STEM businesses and universities. Participation in both modules required. Enrollment by application.
Apply problem solving framing strategies as part of problem solving design processes. Consider cultural, economic, social, and other perspectives in customer discovery and design processes in order to ensure problem/solution fit. Ideate possible solutions or approaches to address open- ended problems using a variety of methods. Engage in iterative critiques of strategies, solutions and prototypes using methods drawn from industrial design, engineering and the arts. Collaborate in interdisciplinary and diverse project teams. Communicate deliverables in multiple formats and for different audiences. Identify and address impacts of designed services and products through global perspectives, such as patterns of inclusion and exclusion and effects on localized ecosystems.
Explore volunteerism, traditional service learning, critical service learning, and social change. Develop intercultural competence by examining social identities, power, and privilege with a focus on preK-12 education systems in the United States. Develop Science, Technology, Engineering, Arts, and Math (STEAM) and STEM educational outreach experiences that meet needs identified by community members in teams. Demonstrate career readiness through experiential learning. Pre: Sophomore standing.
Introduction to multi-disciplinary, team-based undergraduate engineering research. Emphasis on Department of Defense (DoD) and Intelligence Community missions and projects. Exposure to current restricted research performed around campus. Guest speakers from national labs. Engineering research methods (tools, research integrity/safety/ethics, and communication of results). Deep dive into International Traffic in Arms Regulations-restricted multi-disciplinary DoD engineering problems, potential careers, and security protocols surrounding restricted research and careers.
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Workplace and industry culture and practice, including folkways, mores, and ethics, centered on engineering design. Interaction with industry professionals. Workplace competencies including effective teamwork, project management, presenting technical information. Training with software, tools and skills used in design practice in industry.
Application of academic knowledge and skills to in a work-based experience aligned with post-graduation goals using research-based learning processes. Satisfactory completion of work-based experience often in the form of internship, undergraduate research, co-op, or study abroad; self-evaluation; reflection; and showcase of learning. Pre: Departmental approval of 3900 plan.
Work in interdisciplinary teams in an experiential environment replicating modern innovation environments. Engage in real world innovation commercialization opportunities. Individual experiences and projects involving actual inventions, innovations, technologies, intellectual property (e.g. patents) and market opportunities. Integrate design thinking, scientists, entrepreneurs, advisors and other potential collaborators. Create a representation of a plan for a minimum viable product for an innovative product or service based on customer and market feedback.
Work in interdisciplinary teams to scope and plan an open-ended design project focused on technology commercialization that addresses a need or problem. Model systems and products computationally and quantitatively to address issues of technical and market feasibility and to predict performance under uncertain conditions. Engage in iterative design process that combines computational and quantitative processes with user-centered design and market analysis. Produce viable design that includes technical specifications, market evaluation, and customer discovery results. Communicate with wide range of audiences. Analyze ethical and intercultural and global impacts of innovation. Pre: 3 credits of foundational quantitative and computational thinking.
Team-oriented, open-ended, interdisciplinary design projects focused on industrially relevant problems. A specific, complex engineering design problem taken from problem definition to product implementation and validation. 4735: Focus on problem identification, development of customer needs, project management, solution validation and selection, solution design, engineering teamwork, documentation and communication. 4736: Focus on design implementation, design validation, ethical and societal impacts of engineering design, communication and teamwork. Students majoring in Material Science and Engineering, Mechanical Engineering, Electrical and Computer Engineering, Industrial and Systems Engineering, and Biomedical Engineering must meet prerequisite and corequisite requirements for their respective in-major capstone courses.
Team-oriented, open-ended, interdisciplinary design projects focused on industrially relevant problems. A specific, complex engineering design problem taken from problem definition to product implementation and validation. 4735: Focus on problem identification, development of customer needs, project management, solution validation and selection, solution design, engineering teamwork, documentation and communication. 4736: Focus on design implementation, design validation, ethical and societal impacts of engineering design, communication and teamwork. Students majoring in Material Science and Engineering, Mechanical Engineering, Electrical and Computer Engineering, Industrial and Systems Engineering, and Biomedical Engineering must meet prerequisite and corequisite requirements for their respective in-major capstone courses.
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