Laboratory Activities Used in a Sophomore Materials Science Course at Texas A&M University

2000 ◽  
Vol 632 ◽  
Author(s):  
R. B. Griffin ◽  
A.L. Epps ◽  
K. T. Hartwig

AbstractA sophomore materials science course has been developed at Texas A&M University as part of a larger five course sequence through the support of the National Science Foundation. Texas A&M University is a member of the NSF sponsored Foundation Coalition. The courses were developed to include active and collaborative learning, application of technology, and integration as important components. Currently, a majority of departments within the College of Engineering (COE) at Texas A&M University have adopted the five-course sequence. During fall 99, the COE is teaching the materials course to 260 students or four sections of 70 students each.As part of the development of the materials class, a series of experiments have been developed for use within the classroom. The experiments give the students an opportunity to experience hands-on activities. Several of the activities are done within the classroom, while others are performed in a separate laboratory building. The classes consist of two- 1 h 50 min. periods, and this time provides the opportunity to have the laboratory activities in class. The experiments encourage the development of teams and support various applications of materials science. The majority of students have very limited laboratory experience, and this course provides them an opportunity to develop some laboratory skills. Currently, we do seven experiments: 4-point bending, tensile test: metals and polymers, heat treatment, thermal conductivity, viscosity demonstration, and electrical components. In the paper and during the presentation, we will demonstrate several of the experiments and provide examples of student work. A detailed description of each experiment will be included in the paper.

2000 ◽  
Vol 632 ◽  
Author(s):  
David E. Nikles

ABSTRACTThe College of Engineering at the University of Alabama is a member of the Foundation Coalition. We have created a new freshman engineering curriculum that integrates subject matter from calculus, chemistry, physics and general engineering studies courses. To motivate the study of chemistry, materials science themes were incorporated into the general chemistry course sequence.


Author(s):  
L. S. Chumbley ◽  
M. Meyer ◽  
K. Fredrickson ◽  
F.C. Laabs

The Materials Science Department at Iowa State University has developed a laboratory designed to improve instruction in the use of the scanning electron microscope (SEM). The laboratory makes use of a computer network and a series of remote workstations in a classroom setting to provide students with increased hands-on access to the SEM. The laboratory has also been equipped such that distance learning via the internet can be achieved.A view of the laboratory is shown in Figure 1. The laboratory consists of a JEOL 6100 SEM, a Macintosh Quadra computer that acts as a server for the network and controls the energy dispersive spectrometer (EDS), four Macintosh computers that act as remote workstations, and a fifth Macintosh that acts as an internet server. A schematic layout of the classroom is shown in Figure 2. The workstations are connected directly to the SEM to allow joystick and computer control of the microscope. An ethernet connection between the Quadra and the workstations allows students seated there to operate the EDS. Control of the microscope and joystick is passed between the workstations by a switch-box assembly that resides at the microscope console. When the switch-box assembly is activated a direct serial line is established between the specified workstation and the microscope via the SEM’s RS-232.


2021 ◽  
Author(s):  
Patrick M. Woodward ◽  
Pavel Karen ◽  
John S. O. Evans ◽  
Thomas Vogt

This comprehensive textbook provides a modern, self-contained treatment for upper undergraduate and graduate level students. It emphasizes the links between structure, defects, bonding, and properties throughout, and provides an integrated treatment of a wide range of materials, including crystalline, amorphous, organic and nano- materials. Boxes on synthesis methods, characterization tools, and technological applications distil specific examples and support student understanding of materials and their design. The first six chapters cover the fundamentals of extended solids, while later chapters explore a specific property or class of material, building a coherent framework for students to master core concepts with confidence, and for instructors to easily tailor the coverage to fit their own single semester course. With mathematical details given only where they strengthen understanding, 400 original figures and over 330 problems for hands-on learning, this accessible textbook is ideal for courses in chemistry and materials science.


Author(s):  
Kenneth L. Roberts

Modern industrial processes are presently adapting to the use of multiscale production techniques where consumer products can be made at the mesoscale and also approaching atomic, or the nanoscale level. Coupled with the fact that classical Science, Technology, Engineering and Mathematics (STEM) education typically does not address nanoscale science and engineering topics in most technical courses, this condition could potentially leave countless STEM students around the world relatively unprepared for the 21st century marketplace. This chapter focused on the development of the nanostructured materials science and engineering discipline from the most recent research and development topics to the integration of this information internationally into the technical classroom. The chapter presented future work on the adaption of the previous research and educational work on this topic at the College of Engineering at King Faisal University in Saudi Arabia and suggestions were offered for successful new nanoscale science and engineering course development.


2017 ◽  
pp. 1075-1093
Author(s):  
Kenneth L. Roberts

Modern industrial processes are presently adapting to the use of multiscale production techniques where consumer products can be made at the mesoscale and also approaching atomic, or the nanoscale level. Coupled with the fact that classical Science, Technology, Engineering and Mathematics (STEM) education typically does not address nanoscale science and engineering topics in most technical courses, this condition could potentially leave countless STEM students around the world relatively unprepared for the 21st century marketplace. This chapter focused on the development of the nanostructured materials science and engineering discipline from the most recent research and development topics to the integration of this information internationally into the technical classroom. The chapter presented future work on the adaption of the previous research and educational work on this topic at the College of Engineering at King Faisal University in Saudi Arabia and suggestions were offered for successful new nanoscale science and engineering course development.


Author(s):  
Daniel P. Cook ◽  
Robert Wysocki

The College of Engineering and the College of Fine Arts at UNLV are collaborating in the creation of an interdisciplinary program in Entertainment Engineering and Design. In one of the first classes that has been offered in the program, the students learn materials science fundamentals through applications in basic fabrication techniques. Combining traditional lecture sessions from engineering and studio sessions from fine arts, the students work in teams on projects derived from the entertainment industry. This paper describes the format of the course, the projects that the students are assigned and how the course will fit into the overall curriculum of the new program.


2011 ◽  
Vol 73 (6) ◽  
pp. 342-346 ◽  
Author(s):  
Maria João Fonseca ◽  
Fernando Tavares

This work details a science experiment on garlic's antibiotic properties designed to acquaint high school and introductory-level undergraduate students with concepts such as natural antibiotics, bioactive substances, and biosafety. This activity is optimized to be implemented by teachers with limited experience in laboratory activities and/or in poorly equipped schools. A list of materials is provided, along with safety and procedural instructions, discussion topics, and assessment suggestions.


2004 ◽  
Vol 827 ◽  
Author(s):  
Jonathan Stolk ◽  
Robert Martello ◽  
Franklin W. Olin

AbstractOlin College sophomores participate in integrated course blocks that merge technical content with business, arts, humanities, and social science topics, allowing students to work on engineering projects that have broader implications than the purely technical. In this paper, we present Paul Revere: Tough as Nails, a multidisciplinary course block that combines an introductory materials science course with a history of technology course and a large scale project. In Paul Revere, students explore connections between historical and technological materials science developments through examinations of Paul Revere's metallurgical work and analyses of the relevant social, environmental, political, and economic aspects that contribute to ancient and modern technologies. The explicit linkages among technical, non-technical, and hands-on aspects of the course improve learning of traditional topics, help drive interdisciplinary thinking, and lead to a high level of student satisfaction and motivation throughout the semester.


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