International Journal for Research in Applied Science and Engineering Technology

2016 ◽  
Vol 7 (2) ◽  
pp. 77-90
Author(s):  
Ben Tran

At the foundational level, for computer programmers, the code that programmers build and built into, are based on instructions, and the purpose of the program it later services. But computers do not have their own discretion beyond what humans incorporate into such systems and are essentially limited only to the extent its writer chooses. However, ABET to date, does not provide assurance or require accredited colleges and universities programs in applied science, computing, engineering, and engineering technology to take ethics courses or offer ethics courses nor train graduates in ethics. Yet, graduates, who then become practitioners, and ethical agents, are expected to be ethical agents. Hence, the purpose of this article is on machine ethics, specifically, on the theoretical and philosophical meaning of ethics—different types of ethics and utilitarianism. In addition to exploring the theoretical and philosophical paradigm of ethics, technology will be defined, in relations to machine ethics.


1917 ◽  
Vol 21 (83) ◽  
pp. 257-300
Author(s):  
W. H. Hatfield

Before proceeding, I wish to say that I much appreciate the invitation to present this paper to your Society. The science of aeronautics has evolved at a great pace, and typifies what can be done with applied science, and the tangible results are so apparent that it would be superfluous to discuss them. It would .appear to me that the rapidity with which the efficiency has increased is due to the whole-hearted collaboration of the different branches of applied science and engineering, the honours being shared, after giving first place to the sporting instinct of the early flyer, by the physicist, the engineer, and the metallurgist. You will notice that my modesty places the metallurgist last. It is quite a confession to make, but it is a fact, nevertheless, that I accepted with pleasure your invitation to give this paper, principally because I have always taken a keen interest in the metallurgical side of aeronautics.


1925 ◽  
Vol 29 (178) ◽  
pp. 469-534
Author(s):  
W. H. Hatfield

Before proceeding, I wish to say that I much appreciate the invitation to present this paper to your Society. The science of aeronautics has evolved at a great pace, and typifies what can be done with applied science, and the tangible results are so apparent that it would be superfluous to discuss them. It would appear to me that the rapidity with which the efficiency has increased is due to the whole-hearted collaboration of the different branches of applied science and engineering, the honours being shared after giving first place 10 the sportinginstinct of the early flyer, by the physicist, the engineer, and the metallurgist. You will notice that my modesty places the metallurgist last. It is quite a confession to make, but it is a fact, nevertheless, that I accepted with pleasure your invitation to give this paper, principally because I have always taken a keen interest in the metallurgical side of aeronautics.


Author(s):  
Janet Dong ◽  
Janak Dave

Experiential Learning (EL) is a philosophy in which educators purposefully engage learners in direct experience and focused reflection in order to maximize learning, increase knowledge, and develop skills. Based on the learning cycle proposed by Lewin and the philosophy of Dewey, in that each experience builds upon previous experiences and influences the way future experiences will affect the learner, Kolb[1] developed the experiential learning model to describe the learning process. The four stages of the model are: Concrete Experience, Reflective Observation, Abstract Conceptualization and Active Experimentation. This model shows how theory, concrete experience, reflection and active experimentation can be brought together to produce richer learning than any of these elements can on its own. The College of Engineering and Applied Science did not implement the Kolb model fully due to insufficient resources. Therefore, only the first two of the four stages were used. Many avenues of concrete experiential learning exist for the students in the engineering technology programs at the University of Cincinnati, such as co-op, service learning, global study programs, field projects, academic research, etc. This paper gives a description of the experiential learning of students at the University of Cincinnati in the areas of global study, honors program and undergraduate research. Two faculty members in Mechanical Engineering Technology from the College of Engineering and Applied Science were involved in these experiences. Their experiences, along with student reflections, are discussed in the paper.


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