Our Interdisciplinary Approach

Butler’s engineering programs foster collaboration across disciplines, encouraging students to work in teams that combine technical expertise with creativity, ethical reasoning, and practical insight. Mechanical, chemical, and bioengineering students engage in hands-on projects, research, and internships that integrate these multiple domains, preparing them to be adaptable problem-solvers capable of addressing the pressing technological and societal challenges of today and tomorrow.

At Butler, engineering is not just about mastering equations or running experiments—it is about cultivating a versatile mindset that integrates knowledge from multiple fields, embraces innovation, and considers the broader impact of engineering solutions on individuals, communities, and the world.

Collaboration Mathematics and Sciences

At the core of engineering lies rigorous quantitative reasoning. Calculus, differential equations, linear algebra, and statistics enable students to model, analyze, and predict system behavior. Physics provides a framework for understanding forces, motion, thermodynamics, and energy transfer—critical for mechanical and bioengineering applications. Chemistry underpins chemical engineering and bioengineering processes, offering insight into reactions, material properties, and molecular interactions. In bioengineering, biology and biochemistry provide essential understanding of living systems, from cellular mechanisms to tissue engineering, forming the bridge between engineering principles and biomedical applications.

Computer Science and Data Analytics

Computational skills are integral to modern engineering. Butler students learn to use programming languages, simulation software, and data analysis tools to design, test, and optimize systems. Whether modeling fluid dynamics in chemical processes, simulating mechanical systems, or analyzing biomedical data, computer science amplifies the capacity for precision, efficiency, and innovation.

Liberal Arts and Fine Arts

Butler’s engineering curriculum emphasizes the importance of humanistic perspectives. Courses in ethics, communication, philosophy, and social sciences cultivate reflective and socially aware engineers who understand the societal, environmental, and ethical implications of technology. Fine arts and design courses enhance spatial reasoning, creativity, and aesthetic judgment—skills that are especially valuable in mechanical design, biomedical device development, and creating visually and functionally effective solutions.

Business and Entrepreneurship

Effective engineers must also understand the practical context in which their solutions will be applied. Exposure to business principles, entrepreneurship, and project management equips students to transform technical innovations into sustainable products and services. Whether optimizing chemical manufacturing processes, designing medical devices, or developing sustainable mechanical systems, students learn to balance technical feasibility with market and organizational considerations.

The below table outlines the progression of Butler Engineering students’ skill development throughout their time in the program.


Interdisciplinary Skill Development  

Skill Category ENGR 233 (Sophomore) ENGR 333 (Junior) ENGR 433 (Senior) 
Human-Centered Design Introduction to HCD principles; simple hands-on projects Advanced techniques; iterative design; integration with community projects (ICR) Leadership in HCD; innovation and global problem-solving; multidisciplinary application 
Ethics & Professional Practice Engineering ethics principles; applied case discussions Ethical decision-making in professional contexts; real-world case studies Ethics in leadership; strategic decision-making with global impact 
Teamwork & Collaboration Team-based projects; basic collaboration skills Interdisciplinary collaboration; complex team dynamics Leading multidisciplinary teams; managing global projects 
Communication Technical writing basics; presentations Professional reports and presentations; peer feedback Portfolio creation; persuasive public presentations; stakeholder engagement 
Career & Leadership Goal setting; exploring pathways; networking introduction Networking; career planning; professional development Strategic career planning; entrepreneurship; leadership in engineering projects 
Economics & Decision-Making Intro to engineering economics; cost/value analysis Intermediate economics; cost analysis; decision-making tools Financial modeling; investment strategies; project evaluation and metrics 
Global & Community Engagement Introduction to global engineering challenges Global case studies; Indianapolis Community Requirement (service learning project) Global challenges; multidisciplinary solutions with real-world impact