Bachelor of Arts, Major in Physics

at San Jose State University USA

The BA in Art General Studio Practice Concentration allows students to pursue a general study in the visual arts, or to create their own curriculum combining studies in visual arts with other fields. For students preferring a broad art background instead of an intense specialization, this program provides students with a variety of art experiences.

Students enrolled in the Studio Practice concentration are not necessarily preparing for a career in art or design, although many use the program as preparation for graduate level studies. The required studio work is intended to intensify awareness of visual art forms and introduce a variety of technical processes and theoretical approaches. Concentrations and emphases are designed to offer opportunities to study digital media art, photography, pictorial art and spatial art. Studio Practice also provides a basic program leading to a teaching credential in art.

Teaching is a way for artists to develop and encourage creative ability in others and to increase awareness of the importance of art in our lives. The Art Teacher Preparation Program (ATPP) is vital to the future of Silicon Valley, because it trains the teachers who will teach aesthetics, problem solving and critical thinking skills to future citizens of the region and state.

The M.A. program in Communication Studies at San José State University is grounded in the theoretical and ethical foundations of communication studies; the modes of inquiry employed by communication scholars; and the practical application of these concepts and methods in professional and scholarly contexts.

We approach graduate study as an interdisciplinary exploration of multiple paradigms. Students are introduced to rhetorical, interpretive, quantitative, critical, and pedagogical frameworks.

Our curriculum is designed for new graduates, mid-career professionals, and those returning to school after a hiatus.

After completing the two-year program, alumni pursue careers in a range of fields: aspiring academics continue to doctoral programs, those with a passion for teaching pursue appointments at local community colleges, and many go on to careers in Silicon Valley or in the nonprofit sector

• 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

SJSU’s Music Education program has long been recognized for its outstanding preparation of music teachers. During their studies in in either vocal or instrumental pedagogy, Music Education students also enroll in core music classes such as Music Theory, private lessons, and performance ensembles that will allow them to grow as musicians. By obtaining a BM in Music Education, SJSU students are better prepared to undergo the California teaching certification process that is required in order to be a certified California music teacher. Students in this degree program are expected to present a thirty-minute senior recital.

The Master of Science in Meteorology prepares students for high-level professional responsibility, independent research, and continued graduate work in atmospheric science. Graduate-level theoretical and applied meteorology courses and a substantial research project lead to the preparation of the master’s thesis, the culmination of the degree plan of study. Departmental opportunities for financial support include research and teaching assistantships.

The Department of Meteorology and Climate Science has one of the most active research programs at SJSU. The meteorology faculty has a wide range of expertise and supports a broad range of research activity. Their areas of specialization include Weather Analysis and Forecasting, Fire Weather, Urban Meteorology and Air Pollution, Atmospheres of Other Planets, Tropical Meteorology, Radar and Satellite Remote Sensing, Cloud and Aerosol Physics, Atmospheric Dynamics, Meteorological Data Processing, Data Communications, and Data Acquisition and Display.

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.

The San Jose State University Human Factors and Ergonomics Master's Degree Program is an interdisciplinary degree program that prepares students for practice in their emerging profession through a course sequence that emphasizes theory,
practical applications, and research.

Human Factors/ Ergonomics students take a group of five core courses from several different San Jose State University departments and elective courses in topics of their choosing. The program culminates in a major project or thesis.

Program Outcomes
The program’s outcomes are expected to provide a firm foundation that enables graduates to achieve the above program objectives. The Human Factors/Ergonomics Program is designed to produce industrial and systems engineering graduates who:

• Have an ability to apply knowledge of the sciences of human factors and workplace ergonomics.
• Have an ability to design and conduct experiments, as well as to analyze and interpret data.
• Have an ability to design a system, component, or process to meet accepted human factors and workplace ergonomics standards within realistic constraints such as economic, environmental, social, political, ethical, health and safety,manufacturability, and sustainability.
• Have an ability to function on multi-disciplinary teams.
• Have an ability to identify, formulate and solve human factors and workplace ergonomics problems.
• Have an understanding of professional and ethical responsibility.
• Have an ability to communicate effectively.
• Have the broad education necessary to understand the impact of human factors and workplace ergonomics solutions in a global, economic, environmental, and societal context.
• Have a recognition of the need for, and an ability to engage in, life-long learning.
• Have the knowledge of contemporary issues.
• Have an ability to use the techniques, skills, and modern human factors and workplace ergonomics tools necessary for industrial and systems engineering practice.

The Bachelor of Science in Industrial Technology with a concentration in Manufacturing Systems is designed to prepare students for technical and management careers in business and industry. Manufacturing Systems prepares you for a career in manufacturing design and management. You will gain knowledge, skills, and practical experiences in innovative manufacturing processes and management, computer integrated manufacturing, robotics and control systems, and computer aided manufacturing.

This dynamic and expanding field applied computer and advanced technologies to solving problems in manufacturing systems, computer aided design and manufacturing (CAD/CAM), and computer integrated manufacturing (CIM) to basic and advanced industrial manufacturing design. Graduates of the BSIT in Manufacturing Systems will be able to:

• Demonstrate skills in the planning and design of manufacturing processes.
• Describe the product life cycle and how products are manufactured.
• Design and plan industrial facilities.
• Select and operate computer numerical controlled and other machines.
• Describe the uses, advantages, and disadvantages of current and evolving manufacturing techniques including laser machining, electrical discharge machining, water jet and abrasive water jet machining, and rapid prototyping.
• Select, analysis and use polymers, composite materials, and materials in the design of manufactured products.
• Apply the theory of computer-integrated manufacturing (CIM), including the computer-aided design/computer-aided manufacturing (CAD/CAM) interface to industrial problems and settings.
• Use the principles of production scheduling and planning in an industrial environment.
• Apply knowledge of material properties and structural analysis to manufacturing product design.
• Use robots and mechatronics in a CIM environment.
• Demonstrate an understanding of materials management including Just-in-Time (JIT) and Materials Resource Planning (MRP).
• Integrate design, manufacturing, and materials into the design and development of new products.
• Apply the principles of Lean Manufacturing to manufacturing and soft systems. Analyze the appropriate use of marketing to both internal and external customers. Apply OSHA and NIOSH principles to facilities design and management.

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 field of packaging includes disciplines of engineering, graphic design, project management, advertising, and material science. Every product manufactured from health care and beauty products to washing machines and drugs require packages to protect and sell the product.

Almost every firm that makes a physical product has a packaging department with 20-40 individuals engaged specifically in packaging technology and applied engineering. A huge multinational like Johnson and Johnson can employ hundreds of individuals involved with some area of packaging their products.

SJSU's Packaging Program is one of a handful of programs in the USA providing technical expertise in the multidisciplinary field. The number of potential jobs for graduates and careers available with a background in packaging is driven by not only the uniqueness of the skills learned by the students but also by the fact that there are very few places to learn the skills necessary to design and develop package systems.

The number of positions available combined with the fact that there are only a handful of schools in the USA teaching Packaging creates a situation where Packaging has a 100% placement rate. In fact there are more jobs available than candidates available to fill them. This has been the fact for the last 60+ years since Michigan State University began the first Packaging program at the request of an Industry looking for people with package design skill sets.

Career development is another key advantage of an individual involved with packaging. Packaging professionals engage with almost every group in an organization, marketing, production purchasing, legal, product development, and graphics. A firm values individuals that have a broad picture of the operations and packaging interacts with these groups as part of their daily tasks. This makes individuals with packaging backgrounds valuable to a company as they understand how all of the operations combine and work together to accomplish corporate goals.

Program Learning Objectives

• Assess a package’s functional properties
• Demonstrate knowledge of package material properties to meet particular physical needs.
• Describe a package production system in order to present design and develop cost comparisons between various package configurations.
• Assess a distribution channel to identify particular stresses incurred.
• Design a package system (primary, secondary and tertiary) to contain, protect and transport products from manufacturer to consumer.
• Develop reproducible test methodologies for evaluating particular properties in a package/material.
• Organize and assemble presentations describing package systems, operations, designs, and cost comparisons.