Bachelor of Science, Major in Industrial Design

at San Jose State University USA

The M.A. in Applied Anthropology is designed to help students develop skills in applying or using anthropological knowledge which can be used across a wide range of careers. Specifically, its mission is to enable students to build on their knowledge of cultural anthropology, physical anthropology and archaeology to address real world problems and issues. The program seeks to provide a structure through which students can develop as practitioners by working closely with faculty on projects that are often done in collaboration with regional organizations. Graduates of our program have secured positions in public, private, and non-profit organizations as researchers, designers, administrators, and program developers. The M.A. program is built around three broad sets of research skills: (1) ethnographic methods for understanding how social systems, including organizations and communities, function in the regional environment; (2) assessment and evaluation skills, especially those based on qualitative methods that complement quantitative methods; and (3) the planning and design of programs, organizations, services, and artifacts.

Students graduating from this program should:

• Understand a range of anthropological research methods and be able to conduct research relevant to problem solving in various settings and for different clients or partners
• Know basic models of applying anthropology in different settings and have the skills to be able to function as practitioners in several
• Be knowledgeable about (a) the discipline of anthropology in general and how it contributes to understanding and improving contemporary society; and (b) a particular field of anthropology in greater depth
• Be able to function effectively in at least one content area or domain of application
• Understand personal, political, and ethical issues inherent in research and application
• Develop professionally as practitioners with skills in contracting, project management, and budgeting, as well as the ability to communicate about project goals and findings and the discipline of anthropology to diverse audiences
• To be knowledgeable about the region as a social and cultural system with complex state, national, and global interconnections

The Painting, Drawing, and Prinmaking faculty at San Jose State University are actively involved in the contemporary art community and exhibit nationally and internationally. Faculty work ranges from realism to abstraction, from conceptual to environmental. Graduate students are encouraged to develop their own creative and expressive directions through work with the faculty, individual studio projects, gallery exhibitions, interaction with the professional art community in the San Francisco Bay Area, and the investigation of current issues and concepts as presented in the graduate seminars.

General studio/classroom space is available for painting and drawing and there are well-equipped support facilities such as wood and metal shops. Graduate printmakers have the use of four large studio/classrooms, as well as the intaglio and lithography press prep rooms. A papermaking lab is also available. Three intaglio presses and four lithography presses allow the printer to work in monoprint or in editions, on stones or aluminum plates. The screen printing studio has a large vacuum-exposure table for exposing plates and stencils. The photo darkroom, with graphic arts camera and enlargers, allows printmakers access to a variety of photo-printmaking processes for all printmaking media.

This program prepares students for intellectually and aesthetically challenging careers in Graphic Design by providing courses that emphasize theory and professional practice. The curriculum concentrates on the organization and visual communication of information and includes typography, form and image, information architecture, user interface, interactive design, and motion graphics. Additionally, students have the opportunity to attend special classes and workshops led by studio professionals and faculty members.

To be admitted to the program, students must pass two portfolio reviews. To advance to the BFA GD program, students must pass two Junior and two Senior Reviews.

Chemical Engineers combine science with engineering technology to make an essential contribution to many industries, including biotechnology, semiconductor processing, environmental engineering, manufacturing and industrial chemicals. The Chemical Engineering degree also provides a strong foundation for graduate degrees in a range of disciplines. The Department has excellent laboratory facilities for courses and student research.

We offer specialization in biochemical engineering program which blend traditional engineering and subjects in the biological sciences with specially developed biochemical engineering courses and labs. Please contact Dr. Liat Rosenfeld for more information.

Chemical engineers in biotechnology work on projects related to pharmaceuticals and genetically engineered materials for diagnostics and treatment, and food and chemical processing. Chemical Engineers working in the environmental area are responsible for control of air pollution, remediation of contaminated water, hazardous materials management, waste reduction, industrial health and safety, risk analysis, and regulation. Manufacturing opportunities are in semiconductor fabrication, electronics, analytical equipment, and processing equipment for the production of inorganic and specialty chemicals.

The Chemical Engineering Program at SJSU is designed to provide a solid engineering foundation and then allow the student to develop some specialization in an area of interest.

This concentration will prepare you for working in an increasingly diverse and globalized business environment. You will have an opportunity to learn about everything from Supply Chain and Materials Management to Global Operations Strategy, all of which are highly valuable skills in a successful multi-national business. Management in global operations has been an increasing trend the past few decades. With multi-national companies growing annually at an exponential rate, there is a demand for managers who can navigate the complexities and challenges of global operations. By earning a degree in Global Operations Management, it can lead to high paying salaries and a career enriched with experience interacting with worldwide enterprises.

The BSAE curriculum is based on a strong core of mathematics, science, and engineering science and is designed to prepare students for professional careers in aerospace engineering fields, such as aircraft and space systems research, design, development, testing, and integration. It also provides excellent preparation for graduate study.

Modern laboratories, both physical and computational, support experimental work in aerodynamics, flight mechanics, dynamics, stability & control, aerospace structures, space systems engineering, aircraft design, and spacecraft design.

Opportunities exist annually to participate in national design-build-fly competitions (aircraft) under the guidance of industry experts as well as design-build-launch projects (spacecraft) under the guidance of NASA engineers. Students may join the student chapter of the American Institute of Aeronautics and Astronautics (AIAA), the national professional society for the advancement of aerospace technology. Top students in the AE Program are invited to join our local chapter of Sigma Gamma Tau, the aerospace engineering honor society.

MS in Artificial Intelligence (AI) program provides students with a state-of-the-art educational experience to become outstanding, socially responsible engineers of AI systems. This program focuses more broadly on building engineering systems powered by advances in machine learning and AI. Students will learn the theoretical foundations and gain practical skills to manage and engineer various data forms, to make predictive analyses, to derive actionable insights, and develop intelligent hardware and software systems and related cutting-edge AI technologies. The program draws on insights from mathematics, statistical analysis, computer science, software engineering, and systems engineering and is, therefore, best suited for students with software/computer engineering, computer science, mathematics, and closely related backgrounds.

Program Learning Outcomes
Upon successful completion of the program, students will be able to:

• Identify and apply fundamental concepts, algorithms, and methodologies to formulate, analyze, design, and evaluate artificial intelligence and machine learning systems;
• Tackle complex machine learning and artificial intelligence problems using contemporary principles, algorithms, technologies, methodologies, and tools;
• Lead and participate in a team to develop AI and machine learning applications;
• Recognize the ethical, economic and environmental implications of their work, as appropriate;
• Sustain a process of life-long learning in engineering or other professional areas; and,
• Communicate effectively and persuasively with a variety of audiences.

The MS program is designed to provide students with theoretical and practical training to prepare them to work in a variety of clinical, counseling, and mental health settings. The training in San Jose State University’s MS in Clinical program emphasizes a scientific understanding and case formulation of psychopathology, known as an evidence based practice approach to psychotherapy.

The goal of the MS Clinical Program is to ensure that all graduates have minimal competences to become practicing psychotherapists who are eligible for internships and licensure. The program strongly encourages and attempts to develop the academic, professional, and clinical skills for all students. The MS Clinical Program faculty evaluates student professional and interpersonal maturity throughout the program with both formal and informal reviews. Only students who have demonstrated a high level of professional and personal integrity consistent with the role of a psychotherapist continue in the program and graduate.

The MSW Program at SJSU was founded in 1969 and was originally designed to educate and train social workers to work with Spanish speaking populations in California. We currently have three MSW Program models. In each model, the curriculum prepares students for professional practice,  and enables them to work competently with Latinos, other minority groups, and those communities, groups, families, and individuals who are disenfranchised, oppressed, and/or marginalized. The program uses a cohort-based enrollment and learning strategy, in which students progress take foundation year classes with the same group of students.

• 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