Calendar 2005-2006 - The University of Akron

Calendar 2005-2006 - The University of Akron Calendar 2005-2006 - The University of Akron

24.11.2012 Views

118 The University of Akron 2005-2006 College of Engineering G. Haritos, Ph.D., Dean Subramaniya Hariharan, Ph.D, Associate Dean of Research Paul C. Lam, Ph.D., Associate Dean, Undergraduate Studies and Diversity Programs OBJECTIVES The College of Engineering provides educational opportunities for students at both the undergraduate and graduate levels who wish to pursue careers in engineering. The faculty in the College of Engineering performs research with the purpose of contributing new knowledge to the fields encompassed by engineering principles. Professional service is in concert with the objectives of the University. COLLEGE REQUIREMENTS Admission To be admitted to the College, the student must have a) completed 30 credits of course work; b) completed the second course of Analytical Geometry-Calculus; and c) received “C-”or better in all required math courses that were attempted less than three times, or at least a “B” for any such course attempted a third time. The student must have no more than three grades for any one course and no more than six “repeats for change of grade.” The student must have a 2.3 grade-point average in three of the following areas: overall, engineering, math, and science. Students accepted into the University Honors College as engineering majors are automatically admitted to the College of Engineering. Incoming freshmen with appropriate credentials may receive direct admission to the College upon application (See University Admissions in Section Three) Transfer Students Students transferring into the College of Engineering from universities other than The University of Akron must satisfy the same College of Engineering Admission requirements as those students from The University of Akron. Continuation in the Baccalaureate Programs Academic Probation A student is on academic probation when half or more of the credit hours or courses for any semester results in grades of D+, D, D-, F, I, and/or W; the overall or engineering grade point average is less than 1.50; the overall or engineering grade point average for two consecutive semesters is less than 2.00; and the cumulative grade point average for all engineering courses is less than 2.00. Students should consult the Associate Dean, Undergraduate Studies for removal from Academic Probation. Academic Suspension A student who has been on Academic Probation for at least one semester, and who is not removed from probation by recommendation from the department head, shall be suspended from the College for a period of two consecutive semesters or a consecutive semester and a summer session only if the student’s cumulative grade point average is greater than 2.00. If less than 2.00, the student shall be dismissed from the University unless accepted by another college within the University. Any student who attempts any course for a third time and obtains a grade below a C- shall be suspended from the College for two consecutive semesters or a consecutive semester and summer session. Degrees The College offers Bachelor of Science degrees in Biomedical Engineering, Chemical and Biomolecular Engineering, Civil Engineering, Electrical Engineering, Computer Engineering, Mechanical Engineering, Mechanical Polymer Engineering, and Engineering. Requirements for Graduation Compliance with University requirements, Section 3 of this Bulletin. Completion of the requirements in the appropriate list of courses and a minimum of 136-140 credits of course work. Recommendation of the student’s department. Achievement of 2.00 grade point average in all engineering course work attempted with 4XXX course prefix. Engineering Accreditation Engineering is that profession in which knowledge of mathematics and natural sciences, gained by study, experience, and practice, is applied, with judgement, to develop ways to utilize economically the materials and force of nature for the benefit of mankind. Admission to the engineering profession is normally through a university undergraduate program in one of the disciplines of engineering. Curricular criteria are established by academic and industrial representatives that sit on the Accrediting Board for Engineering and Technology (ABET). The curricular criteria under which Akron’s Engineering programs are currently accredited are: • One year of mathematics and basic science • One-half year of humanities and social sciences • One year of engineering science • One-half year of engineering design In addition, the ABET 2000 Criteria requires that (1) each program shall make a formal assessment of each student’s ABET Required Abilities and (2) that a process must exist by which the student assessments can be used to modify the educational delivery process. The ABET Required Student Abilities are: • An ability to apply knowledge of mathematics, science, and engineering. • An ability to design and conduct experiments, as well as to analyze and interpret data. • An ability to design a system, component, or process to meet desired needs. • An ability to identify, formulate, and solve engineering problems. • An ability to communicate effectively. • An ability to use the techniques, skills, and modern engineering tools necessary for engineering practice. • An ability to function on multidisciplinary teams. • An understanding of professional and ethical responsibility. • The broad education necessary to understand the impact of engineering solutions in global and societal context. • A recognition of the need for, and an ability to engage in life-long learning. • A knowledge of contemporary issues. The Biomedical Engineering, Computer Engineering, Mechanical Polymer Engineering, Chemical and Biomolecular Engineering, Civil Engineering, Electrical Engineering and Mechanical Engineering programs are ABET accredited programs. Cooperative Education The optional cooperative education program provides for a coordinated sequence of alternate periods of classroom instruction and employment during the five-year program. The cooperative program simultaneously provides for the development of fundamental principles in the classroom and for their application in practice. The student has the opportunity to find the type of work and organization in which the student can best apply individual ability. The student gains an appreciation of the problems of labor and management by first-hand experience. The student develops mature judgement by coping with the everyday problems. The employer of a co-op student has the ability to train and select a student whose abilities and aptitudes can be adapted to the needs of technical staff requirements. While a student is at work, all rules and regulations prescribed by the employer must be obeyed. In addition, the student is subject to all current labor laws and conditions. The student is considered a full-time student by the University while on industrial assignments. The University does not guarantee employment, but makes every effort to place a student in the best learning situation that is consistent with the acquisition of sound professional experience.

PROGRAMS OF INSTRUCTION 4200: Chemical and Biomolecular Engineering Chemical and biomolecular engineering education develops the student's intellectual capacity and ability to apply the principles of transport phenomena, thermodynamics, and chemical reaction kinetics to the creative resolution of technological problems. All engineers are trained in the application of mechanics, materials, economics, systems, and controls. Chemical and biomolecular engineers, however, apply chemical principles to design, evaluate, build, and operate systems capable of converting inexpensive raw materials into marketable products via chemical reactions, biological processes, and physical separations. The chemical and biomolecular engineer finds career opportunities in the chemical process industries, usually involving polymer production, petroleum refining, environmental remediation, materials research and development, process design and development, and process operations and control. In addition, chemical engineers are increasingly in demand in such areas of current interest as process simulations, biotechnology, supercritical fluid processes, and solids processing. Critical thinking skills developed throughout the curriculum enable chemical engineers to succeed in other fields including medicine, patent law, and international business. The chemical and biomolecular engineering program maintains a balance between theory and practice to prepare students for careers in a highly technical global society. The curriculum stresses the integration of mathematics, science, and chemical engineering fundamentals throughout the program. At each level of the program, from freshman through seniors, students have the opportunity to gain experience in a wide range of emerging technologies through laboratory courses and design or research electives. Exciting work is performed in biocompatible polymeric materials, biological cellular and enzymatic processes, nanocomposite materials, chemical vapor deposition, computational molecular science, microscale separations, advanced process control, green chemistry, and novel catalytic reactions. Students are also encouraged to gain important practical experience through the optional cooperative education program. Mission: The goal of the Chemical and Biomolecular Engineering Department is to prepare baccalaureate graduates with the necessary skills so that they can contribute to a highly technical global society through their professional careers. The philosophy of the Chemical and Biomolecular Engineering faculty is to provide a strong theoretical foundation supported by practical applications of that knowledge, which is consistent with the mission of The University of Akron. The specific educational objectives of the Chemical and Biomolecular Engineering Program are to educate chemical engineers who can: A. Solve chemical engineering, materials engineering, or biotechnology problems through the application of engineering fundamentals and the use of engineering tools; B. Understand practical aspects of engineering, including the abilities to design and conduct experiments and to analyze and interpret data; C. Apply their theoretical and practical knowledge to the design of engineering systems, components and processes; D. Function as practicing engineers, including the ability to communicate well, work effectively on a team, learn independently, and act ethically in their professional duties; E. Understand the impact of engineering solutions on society; and F. Continue their professional development through continuing education, including graduate studies. The chemical engineering program is accredited by ABET and meets the curriculum requirements specified by the American Institute of Chemical Engineers. Graduates must demonstrate: • a thorough grounding in chemistry including organic and physical and a working knowledge of advanced chemistry such as inorganic, analytical, materials chemistry, polymer science or biochemistry. • a working knowledge of material and energy balances, thermodynamics, heat, mass, and momentum transfer, chemical reaction engineering, separation processes, process dynamics and control, and process economics and design. College of Engineering 2005-2006 119 Graduates must be able to: • Relate chemical structure to material properties. • Apply first principles in order to analyze and solve chemical engineering problems including comprehensive, open-ended design problems. • Develop experiments from proposed hypotheses and interpret data. • Pose and develop practical solutions to chemical engineering problems which include the limitations of environmental, safety, and ethical constraints. • Design and select optimal processes for chemical production. • Select and use computational tools (spreadsheets, numerical methods, process simulators) to design, analyze, and solve chemical engineering problems. • Work effectively in teams. • Write and speak effectively in a technical setting. • Independently assimilate new concepts to facilitate life-long learning. The Chemical and Biomolecular Engineering program provides a unique opportunity to master teamwork and design project management skills. Teams of freshmen through senior Chemical and Biomolecular Engineering undergraduates work on a realistic chemical engineering design project. Besides experience with a range of current chemical engineering topics, the projects allow students to develop teamwork, communication, presentation, project management and information technology skills. Many teams are mentored by practicing chemical engineers from industry. The Chemical and Biomolecular Engineering curriculum consists of: • General Education — 29 credits. • Natural science: Credits 3150:151,2,3 Principles of Chemistry I/Lab, II 7 3150:154 Qualitative Analysis 2 3450:221,2,3 Analytic Geometry-Calculus I, II, III 12 3450:335 Introduction to Ordinary Differential Equations 3 3450:xxx Advanced Mathematics Elective 2 3650:291,2 Elementary Classical Physics I, II 8 • Advanced chemistry: 3150:263,4 Organic Chemistry I, II 6 3150:265 Organic Chemistry Laboratory 2 3150:313,4 Physical Chemistry I, II 6 • Engineering core: 4200:121 Chemical Engineering Computations 2 4200:305 Materials Science 2 4300:201 Statics 3 4400:320 Basic Electrical Engineering 4 • Chemical and Biomolecular Engineering: 4200:101 Tools for Chemical Engineering 2 4200:110 Project Management and Teamwork I 1 4200:200 Material and Energy Balances 4 4200:210 Project Management and Teamwork II 1 4200:225 Equilibrium Thermodynamics 4 4200:310 Project Management and Teamwork III 1 4200:321 Transport Phenomena 3 4200:330 Chemical Reaction Engineering 3 4200:341 Process Economics 2 4200:351 Fluid and Thermal Operations 3 4200:353 Mass Transfer Operations 3 4200:360 Chemical Engineering Laboratory 3 4200:410 Project Management and Teamwork IV 1 4200:435 Process Analysis and Control 3 4200:441 Process Design I 3 4200:442 • Electives: Process Design II 3 4700:407 or Advanced Chemistry Elective 3 Engineering Design Elective 3 Chemical Engineering Science Electives 3 Students are required to achieve a C- or better in course 4200:200 to continue taking 4200:300 level courses and above. Students enrolled prior to Spring 2003 semester in Chemical and Biomolecular Engineering should contact the department for the transition schedule.

118 <strong>The</strong> <strong>University</strong> <strong>of</strong> <strong>Akron</strong> <strong>2005</strong>-<strong>2006</strong><br />

College <strong>of</strong><br />

Engineering<br />

G. Haritos, Ph.D., Dean<br />

Subramaniya Hariharan, Ph.D, Associate Dean <strong>of</strong> Research<br />

Paul C. Lam, Ph.D., Associate Dean, Undergraduate Studies and<br />

Diversity Programs<br />

OBJECTIVES<br />

<strong>The</strong> College <strong>of</strong> Engineering provides educational opportunities for students at<br />

both the undergraduate and graduate levels who wish to pursue careers in engineering.<br />

<strong>The</strong> faculty in the College <strong>of</strong> Engineering performs research with the purpose<br />

<strong>of</strong> contributing new knowledge to the fields encompassed by engineering<br />

principles. Pr<strong>of</strong>essional service is in concert with the objectives <strong>of</strong> the <strong>University</strong>.<br />

COLLEGE REQUIREMENTS<br />

Admission<br />

To be admitted to the College, the student must have a) completed 30 credits <strong>of</strong><br />

course work; b) completed the second course <strong>of</strong> Analytical Geometry-Calculus;<br />

and c) received “C-”or better in all required math courses that were attempted<br />

less than three times, or at least a “B” for any such course attempted a third<br />

time. <strong>The</strong> student must have no more than three grades for any one course and<br />

no more than six “repeats for change <strong>of</strong> grade.” <strong>The</strong> student must have a 2.3<br />

grade-point average in three <strong>of</strong> the following areas: overall, engineering, math,<br />

and science.<br />

Students accepted into the <strong>University</strong> Honors College as engineering majors are<br />

automatically admitted to the College <strong>of</strong> Engineering. Incoming freshmen with<br />

appropriate credentials may receive direct admission to the College upon application<br />

(See <strong>University</strong> Admissions in Section Three)<br />

Transfer Students<br />

Students transferring into the College <strong>of</strong> Engineering from universities other than<br />

<strong>The</strong> <strong>University</strong> <strong>of</strong> <strong>Akron</strong> must satisfy the same College <strong>of</strong> Engineering Admission<br />

requirements as those students from <strong>The</strong> <strong>University</strong> <strong>of</strong> <strong>Akron</strong>.<br />

Continuation in the Baccalaureate<br />

Programs<br />

Academic Probation<br />

A student is on academic probation when half or more <strong>of</strong> the credit hours or courses<br />

for any semester results in grades <strong>of</strong> D+, D, D-, F, I, and/or W; the overall or engineering<br />

grade point average is less than 1.50; the overall or engineering grade point average<br />

for two consecutive semesters is less than 2.00; and the cumulative grade point<br />

average for all engineering courses is less than 2.00. Students should consult the<br />

Associate Dean, Undergraduate Studies for removal from Academic Probation.<br />

Academic Suspension<br />

A student who has been on Academic Probation for at least one semester, and who<br />

is not removed from probation by recommendation from the department head, shall<br />

be suspended from the College for a period <strong>of</strong> two consecutive semesters or a consecutive<br />

semester and a summer session only if the student’s cumulative grade point<br />

average is greater than 2.00. If less than 2.00, the student shall be dismissed from the<br />

<strong>University</strong> unless accepted by another college within the <strong>University</strong>. Any student who<br />

attempts any course for a third time and obtains a grade below a C- shall be suspended<br />

from the College for two consecutive semesters or a consecutive semester and<br />

summer session.<br />

Degrees<br />

<strong>The</strong> College <strong>of</strong>fers Bachelor <strong>of</strong> Science degrees in Biomedical Engineering,<br />

Chemical and Biomolecular Engineering, Civil Engineering, Electrical Engineering,<br />

Computer Engineering, Mechanical Engineering, Mechanical Polymer<br />

Engineering, and Engineering.<br />

Requirements for Graduation<br />

Compliance with <strong>University</strong> requirements, Section 3 <strong>of</strong> this Bulletin.<br />

Completion <strong>of</strong> the requirements in the appropriate list <strong>of</strong> courses and a minimum<br />

<strong>of</strong> 136-140 credits <strong>of</strong> course work.<br />

Recommendation <strong>of</strong> the student’s department.<br />

Achievement <strong>of</strong> 2.00 grade point average in all engineering course work attempted<br />

with 4XXX course prefix.<br />

Engineering Accreditation<br />

Engineering is that pr<strong>of</strong>ession in which knowledge <strong>of</strong> mathematics and natural<br />

sciences, gained by study, experience, and practice, is applied, with judgement,<br />

to develop ways to utilize economically the materials and force <strong>of</strong> nature for the<br />

benefit <strong>of</strong> mankind.<br />

Admission to the engineering pr<strong>of</strong>ession is normally through a university undergraduate<br />

program in one <strong>of</strong> the disciplines <strong>of</strong> engineering. Curricular criteria are<br />

established by academic and industrial representatives that sit on the Accrediting<br />

Board for Engineering and Technology (ABET). <strong>The</strong> curricular criteria under which<br />

<strong>Akron</strong>’s Engineering programs are currently accredited are:<br />

• One year <strong>of</strong> mathematics and basic science<br />

• One-half year <strong>of</strong> humanities and social sciences<br />

• One year <strong>of</strong> engineering science<br />

• One-half year <strong>of</strong> engineering design<br />

In addition, the ABET 2000 Criteria requires that (1) each program shall make a<br />

formal assessment <strong>of</strong> each student’s ABET Required Abilities and (2) that a<br />

process must exist by which the student assessments can be used to modify the<br />

educational delivery process. <strong>The</strong> ABET Required Student Abilities are:<br />

• An ability to apply knowledge <strong>of</strong> mathematics, science, and engineering.<br />

• An ability to design and conduct experiments, as well as to analyze and interpret<br />

data.<br />

• An ability to design a system, component, or process to meet desired needs.<br />

• An ability to identify, formulate, and solve engineering problems.<br />

• An ability to communicate effectively.<br />

• An ability to use the techniques, skills, and modern engineering tools necessary<br />

for engineering practice.<br />

• An ability to function on multidisciplinary teams.<br />

• An understanding <strong>of</strong> pr<strong>of</strong>essional and ethical responsibility.<br />

• <strong>The</strong> broad education necessary to understand the impact <strong>of</strong> engineering solutions<br />

in global and societal context.<br />

• A recognition <strong>of</strong> the need for, and an ability to engage in life-long learning.<br />

• A knowledge <strong>of</strong> contemporary issues.<br />

<strong>The</strong> Biomedical Engineering, Computer Engineering, Mechanical Polymer<br />

Engineering, Chemical and Biomolecular Engineering, Civil Engineering, Electrical<br />

Engineering and Mechanical Engineering programs are ABET accredited programs.<br />

Cooperative Education<br />

<strong>The</strong> optional cooperative education program provides for a coordinated sequence<br />

<strong>of</strong> alternate periods <strong>of</strong> classroom instruction and employment during the five-year<br />

program.<br />

<strong>The</strong> cooperative program simultaneously provides for the development <strong>of</strong> fundamental<br />

principles in the classroom and for their application in practice. <strong>The</strong> student<br />

has the opportunity to find the type <strong>of</strong> work and organization in which the<br />

student can best apply individual ability. <strong>The</strong> student gains an appreciation <strong>of</strong> the<br />

problems <strong>of</strong> labor and management by first-hand experience. <strong>The</strong> student develops<br />

mature judgement by coping with the everyday problems. <strong>The</strong> employer <strong>of</strong> a<br />

co-op student has the ability to train and select a student whose abilities and aptitudes<br />

can be adapted to the needs <strong>of</strong> technical staff requirements.<br />

While a student is at work, all rules and regulations prescribed by the employer<br />

must be obeyed. In addition, the student is subject to all current labor laws and<br />

conditions. <strong>The</strong> student is considered a full-time student by the <strong>University</strong> while<br />

on industrial assignments.<br />

<strong>The</strong> <strong>University</strong> does not guarantee employment, but makes every effort to place<br />

a student in the best learning situation that is consistent with the acquisition <strong>of</strong><br />

sound pr<strong>of</strong>essional experience.

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