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Nuclear engineering utilizes atomic-level processes, including nuclear fission (splitting atomic nuclei) and various forms of radiation like alpha, beta, gamma, neutron, and positron emissions. These technologies serve diverse purposes, from generating approximately 20% of the nation's electrical power through nuclear energy to medical applications that benefit one in three hospital patients through diagnostic imaging and cancer therapies. Annually, this field injects over $400 billion into the U.S. economy through both nuclear engineering and radiological health engineering initiatives.
The Master of Engineering curriculum requires completion of at least 30 credit hours, combining specialized nuclear engineering courses with broader College of Engineering offerings. Sample study tracks are available for nuclear engineering and nuclear materials concentrations, though each student's specific academic path is ultimately determined in consultation with their faculty advisor and advisory committee.
A student holding a Bachelor of Science degree in engineering or a qualified senior during the last semester may apply for admission to graduate studies to work toward the non-thesis degree of Master of Engineering (MENG), majoring in their particular field of nuclear engineering.
English proficiency can also be demonstrated by:
Minimum TOEFL i-BT score of 80 (in person or Home Edition) from a test date within two years (Texas A&M University does not accept the MyBest TOEFL score), or
Minimum TOEFL Essentials score of 8.5, or
Minimum IELTS Academic test score of 6.0 overall band (Texas A&M University does not accept the IELTS General test), or
GRE Verbal Reasoning score of at least 146 (subject to departmental approval), or
GMAT Verbal Score of at least 22 (subject to departmental approval), or
Acquiring alternative verification during the admission process from the Graduate and Professional School via a departmental request.