Master of Biotechnology

at San Jose State University USA

The goal of this concentration, offered by the Department of Physics and Astronomy, is to give the candidate a thorough grounding in physics, computer programming, and numerical methods. All candidates are required to complete a thesis including the defense (Plan A) or take an oral comprehensive examination as culminating experience (Plan B).

The Master of Science in Statistics prepares students to become practicing statisticians in business, government and industry fields. It features theoretical and applied coursework in statistics and advanced statistical techniques, and its skills-based coursework emphasizes writing and communication skills and provides students with practical project experience. The program was developed in concert with industry and is designed to dovetail into professional career opportunities.

Persons with bachelor’s degrees in engineering, the sciences, economics, business, the social sciences or other fields that use statistics are encouraged to apply. Those with bachelor’s degrees in mathematics or statistics are welcome to apply for the program in order to advance their technical and theoretical skills.

The advancing technology of our nation makes the continuation of study toward an advanced degree advisable for motivated students of suitable scholarship and promise. The program for advanced study in Mechanical Engineering at San José State University is designed to develop a high degree of competency, both in theory and in practice, required by technology.

San José State University is a campus of the California State University. It is situated in the city of San José, which is regarded as the hub of the Silicon Valley. The area is renown for the large concentration of high tech industry. There is a great demand for engineers possessing advanced skills. The Mechanical Engineering Graduate Program is designed to afford ample opportunity for working engineers to continue their education. Courses and scholarly activities in such areas as fluid dynamics, thermodynamics, heat transfer, rigid-body dynamics, vibrations, modal analysis, finite element methods, computer-aided mechanical engineering design and optimization, controls and manufacturing engineering and mechatronics systems engineering can lead to a degree of Master of Science in Mechanical Engineering (MSME).

Program Education Objectives

• A strong foundation beyond the undergraduate level in their chosen focus area as well as in mathematics, basic science and engineering fundamentals, to successfully compete for technical engineering positions in the local, national and global engineering market, advance in their current position or pursue doctoral studies.
• Professional and lifelong learning skills to be able to apply and extend theory to solve practical contemporary engineering problems.
• The expertise necessary to design mechanical engineering systems with possible specialization in areas such as energy systems, electronics cooling, electronics packaging & reliability, finite element analysis & CAD, mechatronics & MEMS, product design, robotics, automation & manufacturing.
• Strong verbal and written communication skills, including the ability to read, write and comprehend technical documents.
• Ability to think and work independently to perform design and in-depth analysis in solving open-ended mechanical engineering problems.

This degree is recommended for students who wish to work in the research and development area of industry. This program also prepares a student for graduate study in applied mathematics, numerical analysis, or operations research. The concentration in applied and computational mathematics provides a solid foundation in classical applied mathematics as well as computational mathematics, which could be informally described as "how to employ mathematics on computers wisely." A graduate could seek direct employment assisting a group of scientists with the formulation and solution of problems. There is a great need in local and national technical industries for people with sufficiently strong mathematical knowledge to participate on such teams. For example, modern techniques for solving partial differential equations are very sophisticated; the best method in a given situation depends on the properties of the model. Once a numerical approximation has been formulated, the techniques to solve that, and the commercial software available to do it, again require informed decisions.

The Organizational Studies major is an interdisciplinary major designed to help students develop skills for careers in a variety of organizations including small businesses, multinational corporations, non-profit organizations, and local, state, and national government agencies. Organizational Studies courses are designed to give students skills for real-world problem solving. Students have the opportunity to take courses across a wide range of social science disciplines including anthropology, communications studies, economics, political science, psychology, and sociology. Organizational studies is ideally suited for students who want careers in business, government, or the non-profit sector, where knowing how organizations work is a key to success.

The B.S. Recreation Degree Program offers a specialized concentration in Recreation Therapy. This concentration prepares students to work as a Recreation Therapist in medical and non-medical settings. Graduates of the program are prepared to become nationally and state certified through the National Council for Therapeutic Recreation Certification (NCTRC) and the California Board of Recreation and Park Certification (CBRPC) exams. Recreation therapists provide treatment towards improved health of body, mind, and spirit in a variety of organizational settings including clinics, nonprofit and for-profit healthcare, nursing homes, pediatrics, forensics, and parks and recreation agencies.  Recreation Therapy curriculum is comprised of 38 units of core classes, 13 units of recreation therapy classes and 13 units of courses in support of the major. The curriculum culminates in a semester-long internship (14 weeks) under the supervision of a faculty member and mentorship of a Recreation Therapist.

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.

The MFA graduate program in Digital Media Art at the CADRE Institute reflects the innovative atmosphere in Silicon Valley. Academic programs emphasize artistic experimentation within a context of historical, cultural, and theoretical study. The program is intended for students with interest in contemporary research. CADRE's diverse community of faculty and graduate students produce artworks involving visualization, simulation, hypertextuality, information, mapping, telepresence, networks, and interactive systems. Candidates for the MFA in Digital Media Art must demonstrate strong artistic accomplishment in a relative field of endeavor. Applicants must provide a statement of intent indicating conceptual orientation and proposed direction of study.

The MFA is a 3 year program of study including seminars, art history, studio courses and independent study. Student progress is monitored through a series of open faculty reviews and exhibition of works. A final exhibition in the University Art Gallery is also required. Students are encouraged to take courses outside of the School of Art and Design as may be appropriate to their development. SWITCH, the on-line electronic journal of the CADRE Institute, dedicated to Digital Media Art discourse, provides a unique opportunity to engage in a significant publishing endeavor. Technical facilities include a wide range of computing resources. Students work across the boundaries of computer visualization, animation, digital video, multimedia, electronic sculpture, sound and virtual reality. CADRE supports its own networking environment and offers unparalleled opportunity to produce internet based artworks.

The Bachelor of Science degree in ComputerEngineering (CMPE) goes beyond programming to include engineering methodologies and hands-on project experience. The program prepares students to become qualified engineers for IT leading companies in Silicon Valley and international engineering market by providing them with state-of-the-art engineering methods, emergent technologies, team work experience, and solutions so they are capable to address design, coding, validation, and measurement issues for the construction of large-scale computer systems and software applications in the real world.

The Bachelor of Science in Industrial Technology with a concentration in Computer Network System Management is designed to prepare students for employment opportunities in the field of Computer Network System and Management.

You will gain knowledge, skills and practical experience in network systems, operations, administration, and management.

Computer Network System Management is a diverse and expanding field which leads to careers including telecommunication and network services. The graduates of this concentration could design, implement, and maintain computer and information networks such as Local Area Network (LAN), Wide Area Network (WAN), Internet/Intranet/Extranet, Data Communications Network, and Computer Security to protect from cyber-attacks. Graduates of the Industrial Technology in Computer Network System Management will be able to:

• Use a broad understanding of network and communications technologies to solve challenges in wireless networking and communications.
• Use current programming languages and methods to solve problems in business and industry.
• Solve network and electronic systems problems in analytical and creative ways.
• Apply analog and digital communication techniques to a variety of problems in industry.
• Use computer-aided design and simulation for the development of electronic systems, printed circuit boards, and integrated circuits.
• Develop and implement software systems for control of industrial processes in electronics and communications.
• Integrate the processes of instrumentation and automation in the electronics industry.
• Use skills and knowledge in the control of electronics and networking manufacturing processes, production scheduling and testing.
• Apply networking and telecommunications theory and management.
• Design and analyze electronic circuits and systems.