Builds on ENGR 111, enhancing engineering competencies, project management, communication, and modern tools (LabVIEW, MATLAB, Python). Covers deeper engineering disciplines, structured problem-solving, technical communication, complex algorithmic solutions, teamwork ethics, and professional work ethic.

Focuses on solving elementary problems with mass and energy balances, and equilibrium relationships. Introduces engineering calculations, process variables, material balances, equilibria principles, energy balances for reactive/nonreactive processes, and transient process balances.

Teaches fluid mechanics fundamentals and their application to process equipment design/analysis. Covers conservation laws, thermodynamics, fluid flow behaviors, process equipment design (conduits, pumps, compressors), and fluid-solid operations (filtration, centrifugation, etc.).

Introduces materials science principles for chemical engineers. Explores properties and applications of metals, ceramics, and polymers, including emerging fields like biomedical applications and nanotechnology.

Continuation of fluid mechanics with a focus on heat transfer operations. Topics include conduction, convection, radiation, heat exchangers, boiling, condensation, and multi-mode heat transfer.

This course allows UG students' Participation in an approved high-impact learning practice; reflection on professional outcomes from engineering body of knowledge; documentation and self-assessment of learning experience at mid-curriculum point.

This course introduces the state-of-the-art process engineering principles on microelectronics, especially for the fabrication of very large scale integrated circuits (VLSICs); fundamental unit processes, such as thin film deposition, thermal growth, lithography, etching and doping, material structures and properties, and basic device operation principles.

Provides a meaningful experience with diverse chemical engineering problems through directed studies, allowing qualified undergraduates to explore specialized topics in depth.

Covers synthesis and assembly of bulk semiconductors and inorganic nanomaterials. Discusses solar cell fabrication, thermoelectrics, and the principles and state-of-the-art of nanomaterials-based energy conversion technologies.

Enables research under faculty direction in chemical engineering. Can be repeated for credit, requiring junior/senior status and instructor approval.

Examines material properties, semiconductor physics, bulk crystal synthesis, nanomaterials synthesis, and nanomaterial assembly. Focuses on thermoelectric devices, materials, and performance characterization.

This course details the state-of-the-art process engineering principles on microelectronics, especially for the fabrication of very large scale integrated circuits (VLSICs); fundamental unit processes, such as thin film deposition, thermal growth, lithography, etching and doping, material structures and properties, and basic device operation principles.

This seminar course provides exposure to graduate students with various researchers from the universities across the country presenting their work as a seminar.

Addresses bulk semiconductor and inorganic nanomaterial synthesis, assembly, and applications in solar cell fabrication and thermoelectrics. Discusses advanced principles and current state-of-the-art technologies in energy conversion using nanomaterials.

Graduate students register for this course to perform research as a formal education under Dr. Vaddiraju.