Source: NORTH CAROLINA A&T STATE UNIV submitted to
MULTIDISCIPLINARY, MULTI-CAMPUS, VIDEOCONFERENCING COURSE DEVELOPMENT: BIOPROCESS ENGINEERING
Sponsoring Institution
National Institute of Food and Agriculture
Project Status
TERMINATED
Funding Source
Reporting Frequency
Annual
Accession No.
0204814
Grant No.
2005-38820-16356
Project No.
NCE-2005-03537
Proposal No.
2005-03537
Multistate No.
(N/A)
Program Code
EP
Project Start Date
Sep 15, 2005
Project End Date
Sep 14, 2009
Grant Year
2005
Project Director
Shahbazi, A.
Recipient Organization
NORTH CAROLINA A&T STATE UNIV
1601 EAST MARKET STREET
GREENSBORO,NC 27411
Performing Department
NATURAL RESOURCES & ENV DESIGN
Non Technical Summary
Biological, food, and agricultural engineers need up-to-date knowledge about bioprocess engineering to better serve the agricultural, food, and biological industry. This course will use internet-based instructional delivery methodology to share knowledge among faculty and train students on multiple institutions including NCA&T, FA&MU,and Fort Valley state University.
Animal Health Component
(N/A)
Research Effort Categories
Basic
(N/A)
Applied
100%
Developmental
(N/A)
Classification

Knowledge Area (KA)Subject of Investigation (SOI)Field of Science (FOS)Percent
90360993020100%
Goals / Objectives
The project objectives are as follows: (1) Development of laboratory experiments and course materials. This will include refinement and expansion of the current bioprocess subjects taught by each PI on their respective campuses. This will add new subjects related to bioprocess engineering. (2) Installation and testing of the internet-based videoconferencing classroom at the three sites. (3) Testing, evaluation, and improvement of the course material and delivery at three collaborating universities. (4) Dissemination of the course to other universities by means of internet broadcasting and streaming multimedia videos.
Project Methods
The proposed team-taught videoconferencing course entitled Bioprocess Engineering is designed to teach students the knowledge and skills required by bio-based industry. The course will be taught imultaneously at North Carolina A&T State University, Florida A&M University, and Fort Valley State University using videoconferencing classroom technology. During the summer of the third year, a workshop will be held for educators and others interested in the course on the campus of Florida A&M University. The key topics of the course will be presented at that workshop. Experts from USDA and other top universities will be invited to present recent findings in bioprocess engineering and evaluate the course. Recommendations for modifying course content will be solicited from participants. Each participant will receive a CD which includes all the PowerPoint slides describing the Bioprocess Engineering course.

Progress 09/15/05 to 09/14/09

Outputs
The objectives of this project were: 1.Development of laboratory experiments and course materials, 2.Installation and testing of internet-based videoconferencing classroom, 3.Testing and evaluation of course materials, and 4.Sharing the course documents with partnering universities. Bioprocess Engineering course (BIOE 622) was developed and taught for the first time during the fall 2008. Dr. Lijun Wang, a tenure-track faculty member in Biological Engineering Program at NC A&T State University was the instructor this course. He has a professional engineering license in Chemical Engineering had the primary teaching responsibility for this course. This is a required course within the Biological Engineering curriculum and as a result it is being offered continuously. A fully functioning video conferencing facility has been purchased and installed on the campus of both NC A&T SU and Florida A&M University for use with this multi-disciplinary multi-campus video conferencing course, and for other uses beyond this project. Course materials have also been developed and shared for the instruction of BIOE 422 Introduction to bioprocess engineering on NC A&T campus, and BASE 4812: Food and Bioprocess Engineering on Florida A&M University. Training was conducted by AVI-SPL on the use of the video conferencing technology and associated components. Participants included BIOE faculty and the manager of computational facilities from NCA&T for training on NC A&T campus. The training workshop at FA&MU was attended by faculty at Biological and Agricultural Systems Engineering (BASE), one student, and a computer support technologist from the FA&MU. The course notes and documents have been shared among the two partnering institutions, NCA&TSU and FA&MU. The third collaborator from the Fort valley State University left the university at the beginning of the project. Thus, they did not participate in the development of this course. When Fort Valley decides to develop a bioprocess engineering course in their Agricultural Engineering or Food Science curriculum, we will share the course materials with them. To introduce the new course material to faculty from other 1890 Universities, we are planning to make presentations during the ARD bi-annual symposium. PRODUCTS: We have developed four course modules. Module I, Energy and material balance which consists of 6 Chapters: Introduction to bio-processing, material conservation, cell growth, product formation, energy conservation, and energy calculation. Module II, Transport phenomena which consists of 6 chapters: Viscosity of fermentation broth, mixing calculation and improvement, heat transfer equipment, heat transfer calculation and design, mass transfer calculation and design, oxygen transfer and measurement. Module III, Bio-separation which consists of 4 chapters: Filtration and centrifugation, extraction, adsorption, and chromatography. Module IV, Bioreaction which consists of 4 chapters: bioreaction kinetics, cell growth kinetics, production kinetics, bioreactors OUTCOMES: We have developed a fully functioning bioprocess engineering course which is now a required course within the Biological Engineering curriculum. This course covers the engineering concepts for biological conversion of raw materials to food, pharmaceuticals, fuels, and chemicals. More emphasis has been placed on energy balance, material balance, fluid flow and mixing, heat and mass transfer, bioreaction kinetics, and control of bioreactors. For the first two-years of this course the enrollment was 5 students thus it was considered to be a low enrollment course (less than 10 students per course). However, a plan is under discussion to merge Biological and Chemical Engineering Programs on NCA&T campus. When this plan is complete we will enroll both Biological and Chemical Engineering students in this course which will generate high student enrollment and thus high impact on the student training. Florida A&M University (FAMU) is a partner in this multi-campus course development project. The bioprocessing course they developed was BASE 4812: Food and Bioprocess Engineering. This is a senior level course with about 3-5 student enrollment per year. This is a required course in the Agricultural and Biological engineering program. As the enrollment in the BASE program grows, the enrollment in this course will grow as well. It is also possible that we get some seniors from Food Science Program to sign up for this course as an elective course. The video conferencing room that we have developed is also available for other uses, for example, other courses and/or meetings with others outside of Biological and Agricultural Systems Engineering and Florida A&M University. DISSEMINATION ACTIVITIES: The course notes and documents have been shared among the two partnering institutions, NCA&TSU and FA&MU. The third collaborator was from the Fort valley State University who left the university at the beginning of this project. Thus, he did not participate in the development of this course. When Fort Valley decides to develop a bioprocess engineering course in their Agricultural Engineering or Food Science curriculum, we will share the course materials with them. To introduce the new course material to faculty from other 1890 Universities, we are planning to make presentations during the ARD bi-annual symposium. FUTURE INITIATIVES: We are planning to enroll Chemical Engineering students along with Biological Engineering students in this course thus, increasing its scope and impact.

Impacts
The creation of the Bioprocess Engineering concentration within the Biological Engineering Program at NCA&TSU is a major consequence of this project. As a result of this development we have been able to add 7 students per year to our enrollment during the first three years of starting this program. As a result, our enrollment in the Biological Engineering Program was increased from 24 students in 2005 to 52 students in 2009. Increased enrollment has enabled the Biological Engineering Program to get out of low enrollment category thus, avoid being closed down by the University of North Carolina.

Publications

  • Shahbazi, A. Y. Li, Williams, K. 2007. Recovery of Lactic Acid from Fermentation Broth with Combined Nanofiltration and Reveres Osmosis Membrane. ASABE Paper No. 077062. St. Joseph, Mich.: 2007 ASABE Annual Meeting, Minneapolis, MN, June 17-20, 2007.
  • C. Wan., Y. Li, A. Shahbazi. 2007. Succinic Acid Production from Cheese Whey using A. succinogenes 130 Z. The 29th Symposium on Biotechnology for Fuels and Chemicals Denver, Colorado, April 30-May 3, 2007.
  • Wan. C., Y. Li, A. Shahbazi. 2007. Succinic Acid Production from Cheese Whey using A. succinogenes 130 Z. ASABE Paper No. 077029. St. Joseph, Mich.: 2007 ASABE Annual Meeting, Minneapolis, MN, June 17-20, 2007.
  • Croonenburghs, James, S. Xiu, and A. Shahbazi. 2008. The Feasibility of Using Duckweed from Constructed Wetlands to Produce Biofuels. Biological Engineering Institute, Annual Conference, Raleigh, NC March 2008.
  • Mr. James Croonenburghs, MS Thesis, The Feasibility of Using Duckweed from Constructed Wetlands to Produce Biofuels Civil and Environmental Engineering Department, NCA&TSU, May 2008.
  • Karen Williams, MS Thesis, Separation of Lactic Acid from Fermentation Broth with Combined Nanofiltration and Reverse Osmosis Membrane, Chemical Engineering Department, NCA&TSU, May 2006.


Progress 09/15/05 to 09/14/06

Outputs
Project Description: The Biological Engineering Program at NC A&T State University created a major concentration in Bioprocess Engineering for the first time. The bioprocess engineering course we are developing under this capacity building project will be serving as a core of this major concentration. The objectives of this project are: (1) Development of class notes; (2) Installation and testing of videoconferencing equipment in the participating universities; (3) Teaching and evaluating the course; (4) Dissemination of the course materials to other universities. Progress on Objectives: Objective (1) was completed in 2006-2007. The majority of the course notes have already been developed. The remaining lectures will be completed by July 2008. Objective (2) will be completed by July 2008. We are now in the process of securing the videoconferencing hardware and software. During the month of May and June we will complete the installation and testing of the videoconferencing equipment. Objective (3) will be completed during the fall 2008. BIOE 622, Bioprocess Engineering has already been scheduled to be taught during the fall 2008. Dr. Lijun Wang is a new tenure-track professor in Biological Engineering at NC A&T State University. He has a professional engineering license and will have the primary responsibility for teaching this course. Dissemination of the course materials to other universities (objective 4) will be carried out during the academic year 2008-2009. PRODUCTS: Lecture notes and Power Point presentations for the following modules have already been completed but not published yet. We will place them on the BlackBoard instructional web site at NC A&T State University during the summer session in preparation for Fall 2008 course offering. The instructional modules include: 1. Introduction to Bioprocess Engineering; 2. Enzyme and Enzyme Catalyzed Reactions; 3. Enzyme Kinetics and Inhibition; 4. Product Separation (Membrane separation, electrophoresis, chromatography, and centrifugation), 5. Unit Operation; 6. Bioreactor Design (ideal reactor, batch reactor, continuously stirred reactor), OUTCOMES: The expected impacts of this project will be materialized and assessed after the course has been taught and evaluated. The creation of the Bioprocess Engineering concentration within the Biological Engineering Program at NC A&T is a major consequence of this project. As a result of this development we have been able to increase our recruitment and enrollment in the Biological Engineering Program by 50% within the last one year. DISSEMINATION ACTIVITIES: None; to be completed next year. FUTURE INITIATIVES: Upon completion of the course delivery in the fall 2008, we will have a course evaluation and assessment on the campus of Florida A&M State University.

Impacts
The creation of the Bioprocess Engineering concentration within the Biological Engineering Program at NC A&T is a major consequence of this project. As a result of this development we have been able to increase our recruitment and enrollment in the Biological Engineering Program by 50% within the last one year.

Publications

  • No publications reported this period