Matching grant program for university nuclear engineering education

With declining availability of funds for recreational-related construction, communities are searching for innovative ways to receive funding. To have a better chance of receiving funding for the construction of a sports complex and to create a sanctuary for the federally endangered plant, the Texas poppy-mallow (TPM), a partnership was formed among city, county, state, and federal agencies, and private landowners. As a result, Mitchell County was awarded $441,000 from the Texas Parks and Wildlife Outdoor Recreation Matching Grant Program and Partners for Fish and Wildlife to build a 20-acre sports and recreation complex. Funds were awarded, in large part, because Mitchell County created a sanctuary for the TPM. This partnership also represents the first endeavor to restore the TPM.

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A Comparison of Different Communication Tools for Distance Learning in Nuclear Education

18th International Conference on Nuclear Engineering: Volume 2 ◽

10.1115/icone18-29824 ◽

2010 ◽

Author(s):

Glenn Harvel ◽

Wendy Hardman

Keyword(s):

Engineering Education ◽

Chemical Engineering ◽

Training Model ◽

Nuclear Industry ◽

Nuclear Engineering ◽

The Past ◽

Lecture Method ◽

Complex Models ◽

Education Model ◽

In Transit

Nuclear Engineering Education has seen a recent surge in activity in the past 10 years in Canada due in part to a Nuclear Renaissance. The Nuclear Industry workforce is also aging significantly and requires a significant turnover of staff due to the expected retirements in the next few years. The end result is that more students need to be prepared for work in all aspects of the Nuclear Industry. The traditional training model used for nuclear engineering education has been an option in an existing undergraduate program such as Chemical Engineering, Engineering Physics, or Mechanical Engineering with advanced training in graduate school. The education model was mostly lecture style with a small number of experimental laboratories due to the small number of research reactors that could be used for experimentation. While the traditional education model has worked well in the past, there are significantly more advanced technologies available today that can be used to enhance learning in the classroom. Most of the advancement in nuclear education learning has been through the use of computers and simulation related tasks. These have included use of industry codes, or simpler tools for analysis of the complex models used in the Nuclear Industry. While effective, these tools address the analytical portion of the program and do not address many of the other skills needed for nuclear engineers. In this work, a set of tools are examined that can be used to augment or replace the traditional lecture method. These tools are Mediasite, Adobe Connect, Elluminate, and Camtasia. All four tools have recording capabilities that allow the students to experience the exchange of information in different ways. The students now have more options in how they obtain and share information. Students can receive information in class, review it later at home or while in transit, or view/participate it live at a remote location. These different options allow for more flexibility in delivery of material. The purpose of this paper is to compare recent experiences with each of these tools in providing Nuclear Engineering Education and to determine the various constraints and impacts on delivery.

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