Undergraduate Bulletin - Illinois Institute of Technology
Undergraduate Bulletin - Illinois Institute of Technology Undergraduate Bulletin - Illinois Institute of Technology
Chemical and Biological Engineering Chemical Engineering Chemical engineering is concerned with the design, development, and management of facilities that convert raw materials into useful products. The engineer must assume responsibility for the economical use of the raw materials, preservation of the environment, and profitability of the operation. The Chemical Engineering program has been designed to provide both the engineering competence and the professional skills necessary to succeed in this endeavor. In order to achieve this objective, the curriculum incorporates coursework in both of these areas throughout the four-year duration of the program. Coursework The Chemical Engineering curriculum emphasizes basic knowledge and applications of transport processes, thermodynamics and kinetics of processes, automatic control, and design, as well as fundamental sciences, mathematics, and engineering sciences. Design experience is spread across the curriculum, beginning with the Introduction to the Profession courses. Equipment design is emphasized in courses such as Fluid Mechanics, Heat and Mass-Transfer Operations, Thermodynamics, and Chemical Reaction Engineering. Control-system design is practiced in the Process Control course. Process modeling, simulations and optimization are discussed and practiced in Transport Phenomena, Process Modeling and System Theory, Numerical and Data Analysis, Statistical Tools for Engineering, and Process Control courses. The capstone design courses (Chemical Process Design I & II) integrate these design concepts and practice process design and optimization. In addition to engineering competence, the program also examines the economic, environmental, and societal implications of chemical engineering. Professional Training Professional training is stressed in the design of the Chemical Engineering curriculum. Because engineering is largely a team effort, the department develops the individual’s ability to work effectively as a team member. Group projects are assigned starting with the Introduction to the Profession course. Laboratory course and capstone design course projects are conducted by teams of students. The laboratory work is designed to reinforce the concepts developed in the lectures and to show the application of chemical engineering principles to the solution of real-world problems. Because individual attention is so important to the student’s growth, laboratory sections are small and a highlevel of personal contact between student and instructor is maintained. Students are encouraged to become involved with state-of-the-art research projects at the undergraduate level. The industry/university co-op program is available to students who would like to use one or more extra semesters any time after their sophomore year to work on an internship in industry. 72
Chemical and Biological Engineering Specialized Programs In addition to the core curriculum, special programs exist to accommodate students who want to develop more extensive background in related areas. With their exposure to a wide range of industrial applications and problems, students are better equipped to make a decision to explore an area of interest in depth. Professional specializations are available in: • Energy/Environment/Economics (E 3 ) • Environmental Engineering • Polymer Science and Engineering • Bioengineering • Process Design and Operation Students may also choose a minor program (see pages 162– 165). All students must include in their minor program, or as a technical elective, CHE 426 (Statistical Tools for Engineers) or at least one three-credit-hour engineering science course. Students who plan to go to graduate school are advised to take CHE 535 (Applications of Mathematics to Chemical Engineering) as a technical elective. Bachelor of Science in Chemical Engineering Required Courses Credit Hours Chemical Engineering Requirements 46 CHE 100, 101, 202, 301, 302, 311, 317, 351, 406, 418, 423, 433, 435, 439, 451, 494, 496 Mathematics Requirements 18 MATH 151, 152, 251, 252 Physics Requirements 8 PHYS 123, 221 Chemistry Requirements 18 CHEM 125, 237, 239, 343, 344 Computer Science Requirement 2 CS 104 or CS 105 Electrical and Computer Engineering Requirement 3 ECE 211 or 218 Humanities and Social Sciences Requirements 21 For general education requirements, see page 25. Technical Electives 9 Interprofessional Projects 6 Total Hours 131 73
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Chemical and Biological Engineering<br />
Chemical Engineering<br />
Chemical engineering is concerned with the design, development,<br />
and management <strong>of</strong> facilities that convert raw materials<br />
into useful products. The engineer must assume responsibility<br />
for the economical use <strong>of</strong> the raw materials,<br />
preservation <strong>of</strong> the environment, and pr<strong>of</strong>itability <strong>of</strong> the<br />
operation. The Chemical Engineering program has been<br />
designed to provide both the engineering competence and<br />
the pr<strong>of</strong>essional skills necessary to succeed in this endeavor.<br />
In order to achieve this objective, the curriculum incorporates<br />
coursework in both <strong>of</strong> these areas throughout the<br />
four-year duration <strong>of</strong> the program.<br />
Coursework<br />
The Chemical Engineering curriculum emphasizes basic<br />
knowledge and applications <strong>of</strong> transport processes, thermodynamics<br />
and kinetics <strong>of</strong> processes, automatic control,<br />
and design, as well as fundamental sciences, mathematics,<br />
and engineering sciences. Design experience is spread<br />
across the curriculum, beginning with the Introduction to<br />
the Pr<strong>of</strong>ession courses. Equipment design is emphasized in<br />
courses such as Fluid Mechanics, Heat and Mass-Transfer<br />
Operations, Thermodynamics, and Chemical Reaction Engineering.<br />
Control-system design is practiced in the Process<br />
Control course. Process modeling, simulations and optimization<br />
are discussed and practiced in Transport Phenomena,<br />
Process Modeling and System Theory, Numerical<br />
and Data Analysis, Statistical Tools for Engineering,<br />
and Process Control courses. The capstone design courses<br />
(Chemical Process Design I & II) integrate these design<br />
concepts and practice process design and optimization. In<br />
addition to engineering competence, the program also examines<br />
the economic, environmental, and societal implications<br />
<strong>of</strong> chemical engineering.<br />
Pr<strong>of</strong>essional Training<br />
Pr<strong>of</strong>essional training is stressed in the design <strong>of</strong> the Chemical<br />
Engineering curriculum. Because engineering is largely<br />
a team effort, the department develops the individual’s ability<br />
to work effectively as a team member. Group projects<br />
are assigned starting with the Introduction to the Pr<strong>of</strong>ession<br />
course. Laboratory course and capstone design course<br />
projects are conducted by teams <strong>of</strong> students. The laboratory<br />
work is designed to reinforce the concepts developed<br />
in the lectures and to show the application <strong>of</strong> chemical engineering<br />
principles to the solution <strong>of</strong> real-world problems.<br />
Because individual attention is so important to the student’s<br />
growth, laboratory sections are small and a highlevel<br />
<strong>of</strong> personal contact between student and instructor is<br />
maintained. Students are encouraged to become involved<br />
with state-<strong>of</strong>-the-art research projects at the undergraduate<br />
level. The industry/university co-op program is available<br />
to students who would like to use one or more extra<br />
semesters any time after their sophomore year to work on<br />
an internship in industry.<br />
72