Bachelor of Science, Major in Materials Engineering

at San Jose State University USA

MS Physics, concentration in Modern Optics is offered by the Department of Physics and Astronomy. The students in this concentration receive instruction in fundamental areas of physics and gain experience and knowledge in a wide range of subjects related to Modern Optics. All candidates are required to complete a thesis including the defense (Plan A) or take an oral comprehensive examination as culminating experience (Plan B).

Programs leading to the Master of Science in Chemical Engineering Degree have been developed for the following specializations: Biotechnology, Environmental Engineering, and Semiconductors and Polymer Processing. Other specialized programs can be developed through consultation between the graduate advisor and student.

We offer Masters in Chemical Engineering Degree with Thesis in Biotechnology/Biochemical Engineering. Please contact Dr. Melanie A. McNeil for more information.

The program of study, which may involve either the thesis or non-thesis option, provides a balanced program of advanced study of chemical engineering principles with emphasis on both fundamental and applied aspects of the areas considered. The core program is complemented by a variety of advanced technical electives, allowing the program to be tailored to the needs and interests of the individual.

The program of study normally involves the thesis option, with opportunities for research under the direction of a faculty advisor. Late afternoon and early evening classes are regularly scheduled for the convenience of employed engineers who wish to pursue graduate work on a part-time basis.

The Department of Chemical Engineering currently has research projects in the areas of biokinetics, vapor-liquid equilibria, suspensions, reaction kinetics, catalysis, bioremediation, and semiconductor processing including dry wafer cleaning. Project activity is sponsored by local industries as well as by government funding agencies.

The MSE degree is an interdisciplinary program with the primary objectives of offering the practicing engineer the opportunity to develop a wide range of knowledge and skills needed to function in today's complex industrial environment.

The program is designed to provide flexibility for students who need coursework that is interdisciplinary and not available through the other engineering programs in the college. The MSE program typically includes courses from at least three different programs in the College of Engineering, and may also use courses in the College of Science or the College of Business.

Program Learning Outcomes
Students completing the Master’s of Science General Engineering Program will be able to:

• Evaluate and apply advanced engineering principles, methods, and tools to solving  problems or improving efficiency.
• Design and implement a component, system, or process to meet design specifications and objectives.
• Understand and advance the frontiers of emerging technologies.
• Understand the social, economic and political context of contemporary engineering practice and its ethics; understand the impact of engineering solutions on society and the environment.
• Communicate effectively in both oral and written forms.

Materials Engineers design, characterize and manufacture the "stuff" of our everyday world. Semiconductors, metals, polymers, ceramics, and composites are examples of the materials used to make everything around you - from your computer to the chair you are sitting in, from artificial body parts to the skin of the space shuttle. Materials scientists and engineers work in nanotechnology, biotechnology, aerospace, alternative energy, microelectronics and virtually every industry sector.

Major areas of study are the relationships between materials' structure, properties, processing, and performance. The MatE programs stress the roles of design, development, and process engineering, and also prepare the exceptional student for research and graduate study. The Department has excellent laboratory facilities for courses and student research.

• Become a technically qualified engineer to address complex problems and be able to apply learned skills in engineering careers
• Maintain and enhance professional competence by acquiring new knowledge and refining skills
• Fulfill the needs of society in solving technical problems using engineering principles, tools, and practices, in an ethical and responsible manner
• Demonstrate leadership skills in the workplace and function professionally in a globally competitive world

Student Outcomes
The graduates from the Department of Electrical Engineering have the following abilities, knowledge, characteristics, and skills:

• An ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics
• An ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors
• An ability to communicate effectively with a range of audiences
• An ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts
• An ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives
• An ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions
• An ability to acquire and apply new knowledge as needed, using appropriate learning strategies

Spatial Art is an interdisciplinary program that encompasses a broad range of media including Ceramics, Glass, Installation Art, Metal Fabrication and Casting, Multimedia, Performance Art, and Sculpture. It provides excellent facilities and resources for students who wish to realize their ideas in three-dimensional form. The area is guided by a faculty with varying philosophical approaches and technical expertise and a common concern for spatial issues.

Technical facilities include well-equipped shops in a variety of areas. The jewelry lab allows for smithing and casting of small metal works. The large ceramics facility has complete clay mixing capacity and fifteen kilns which can serve almost any purpose, including a fifty cubic foot gas kiln. The glass area is a modern lab with heat recuperative furnaces, as well as slumping and casting facilities. A large foundry and outdoor sculpture yard provide for the realization of ideas in cast and fabricated metal, stone and mixed media, including large scale work, with all the major welding equipment, vacuum casting capability, two 285 lb casting crucibles, a 140 cubic foot burnout kiln, and a fork lift. The wood shop is fully equipped for furniture making and construction of sculpture in wood, foam and plastics. The machine shop has mills and lathes, and metal-cutting bandsaws. Other shop facilities include a laser cutter, plastic vacuum former, spray booth, sandblaster, and sheet-metal working machines.

Many Spatial Arts students work in the area of installation. There are seven galleries of varying size within the Art building that can be used on a weekly basis for such projects. There are also two brand new shipping containers, known as the Freight and Cargo Galleries, for installation projects. Students also have access to University and School digital and video equipment that may be needed as a part of installation work. Graduate students are encouraged to explore and utilize any and all of these facilities as resources. As they grow in their abilities to visualize and express the form and content of their ideas in three-dimensional terms, they may see each concept dictating its own technique and material. The resources of the Department of Art and Art History faculty and laboratories offer rich critical and technical support.

Established over thirty years ago, the main objective of the Industrial Design Program is twofold: first, for students to understand the evolving needs of humanity; and second, for students to address those needs by giving form to solutions. Graduates will emerge from the program prepared to design sustainable solutions to world problems. They will be trained in designing for and from all perspectives and to take into account the diversity of human existence. In our program, students will get to put their concepts into practice from the convenience of our Seid Lab, funded by an alumni and holding the most cutting edge fabrication equipment, available strictly to Industrial Design students.

Our distinguished faculty recognizes that, to become impactful industrial designers, students must have a firm comprehension of all things related to the human experience. As such, the program takes full advantage of the university setting by collaborating with SJSU’s Anthropology, Business, and Engineering programs. Additionally, because of our ideal location at the center of Silicon Valley, guest speakers from local tech companies and design studios are often invited to give talks, as well as critique student work.

Industrial design is not just the design of objects that facilitate everyday living; it’s also the design around experiences and services. With the world in constant flux, we aspire to equip future industrial designers with essential tools—a balance of theory, skill, and practice—necessary to become global citizens and effect change throughout the world.

American Studies concentration provides a San José State home for the study of U.S. cultures. Our courses, research, and events emphasize the cultural, political, and social aspects of the United States, past and present. In addition to our core faculty, we draw our instructors from departments throughout the university in order to integrate disciplines and themes.

In order to major in American Studies, students choose the American Studies concentration within the Humanities major. American Studies graduates master knowledge and skills helpful to careers in teaching, advanced study in law and public policy, or going directly into museum work or business. Employers and graduate schools value the critical thinking, analytical, and writing skills of a broad liberal arts education like American Studies.

In both the major and minor, the student will take our most popular course, the full year "Introduction to American Civilization" and then quickly graduate into small seminars like "American Popular Culture," "The American Dream," and "Nature and World Cultures." The student will cap the major off with a senior seminar on an advanced research topic. Recent seminars focused on "American Autobiography," "The Fantastic in Literature," and "Jailed Artists and Writers in the U.S."  For a transfer student from another college, there's an alternative option for completing the minor that is just as dynamic, completely based in our upper division coursework.

The Bachelor of Science in Mechanical Engineering is accredited by the Engineering Accreditation Commission of ABET (Accrediatation Board for Engineering and Technology),

Within a few years of graduation, our ME graduates are expected to have:

• Applied engineering knowledge and skills to make positive impact on society through employment in industry, advanced study, entrepreneurship, and/or public service;
• Communicated effectively and performed professionally in both individual and multi-disciplinary team-based project environment;
• Engaged in and continue to engage in lifelong self-directed learning, including gathering and evaluating information independently, to maintain and enhance their professional skills;
• Determined and responded to ethical implications on issues such as public safety and intellectual property protection, and also weighed global and societal impacts of engineering solutions to contemporary problems.

Student Learning Outcomes

By the time they graduate, our students are expected to have acquired the following:

• An ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics
• An ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors
• An ability to communicate effectively with a range of audiences
• An ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts
• An ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives
• An ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions
• An ability to acquire and apply new knowledge as needed, using appropriate learning strategies.

The goal of ISE is to ensure that a manufacturing or service organization's systems are efficient, productive, safe, and well designed against cumulative injury, and that the systems incorporate the right tools and equipment. Types of activity involved in ISE include:

• Developing quality metrics for the organization's products or services and performance measures for its internal operations.
• Collecting data to measure and monitor the quality and performance.
• Improving the performance and hence the quality.
• Utilizing the latest computer-based analytical, modeling, and design technologies.

The MS Industrial and Systems Engineering curriculum prepares engineers for these activities and helps achieve the goal of ISE in a manufacturing or service organization. The curriculum prepares students to bridge the gap between operations and management with courses ranging from operations planning and control, quality assurance and reliability, human factors and ergonomics, human-machine interaction, information engineering, and cost-effectiveness analysis, to organizational development and total quality management.

Student Outcomes

• Student will be able to apply discipline knowledge and provide effective leadership to derive solutions to problems/challenges within an organization.
• Student will be able to effectively and productively participate in teams.
• Student will be able to recognize organizational processes and behaviors.
• Student will have an advanced level ability in collecting, analyzing, and interpreting data
• Student will have an advanced level ability in synthesizing and designing solutions for unstructured problems
• Student will have an advanced level ability in evaluating the impact of these solutions in the broader context of the organization and society.
• Student will have an advanced level ability in effectively communicating solutions in the form of written, oral and electronic media.
• Students will have an advanced level Knowledge of methodological and computational skills with which able to operate (apply) effectively.
• Student will be able to develop skills to support life-long learning within the field of profession of ISE