Master of Engineering in Mechanical Engineering (STEM)

at EDUCO - Stevens Institute of Technology USA

Unlike financial engineers, who use mathematical modeling and computer science skills to create algorithms and tools, financial analysts combine their programming skills with talents in data analysis and statistics to design innovative solutions to finance problems. They also use excellent business and communication skills to assess client needs and make recommendations to executive teams.

The Stevens master’s in Financial Analytics teaches professionals to apply their physics, statistics or engineering skills to the lucrative finance industry. You’ll learn from faculty whose insights are changing how the industry is thinking about concepts like machine learning, data modeling and optimization in finance. You’ll take courses in one-of-a-kind financial labs, home to the data analysis and visualization tools used on Wall Street. Most importantly, our location on the Hudson River ensures you’ll have regular interaction with industry recruiters in New York City, just 10 minutes away by train or ferry.

New developments in robotics, internet security and wireless networking are often the result of hardworking electrical engineers. Graduate study in electrical engineering can lead to fascinating and lucrative careers in industry, government or business, as well as further study in a doctoral program.

At Stevens, graduate students participate in cutting edge faculty research projects funded by the National Science Foundation, Air Force Research Laboratory, Office of Naval Research and various private organizations.

Concentrations

• Communications
• Power Engineering
• Robotics and Automated Systems
• Microelectronics and Photonics
• Artificial Intelligence

Solidify your mathematical foundations and learn to apply advanced math with problem-solving in the mathematics master’s program.

Practical mathematics can be found in nearly every corner of the known universe and in many industries. Integral to the fields of natural science and engineering, mathematics often leads to new discoveries in business and technology.

At Stevens, the mathematics master’s program approaches inquiry and research with a focus on pure mathematics. Pure mathematics investigates fundamental topics in math theory, analysis and calculation, and this program offers collaborative, cross-disciplinary opportunities through research and electives. Subjects examined throughout this program include complex algebra, probability, combinatorial analysis, topology and stochastic processes. Students will learn to effectively use and understand advanced mathematical techniques, such as those emerging in data science.

The physics master’s program prepares physics and applied physics students for an academic career path and the pursuit of a Ph.D. in physics, as well as a research-based career in industry.

Physics students will build upon core concepts introduced within a physics undergraduate degree program, studying the fundamental branches of physics while simultaneously developing advanced mathematical and problem-solving skills. The program aims to establish general expertise in physics while also promoting critical thinking skills for multidisciplinary applications.

While many physics graduates go on to obtain a Ph.D., many others also work within research roles in sectors and industries as varied as their interests–defense, aerospace, government, education, healthcare, energy, materials, technology, computing and IT.

The materials science and engineering master’s program offers both Master of Engineering and Master of Science degrees designed to foster independent scholarly work while providing flexibility to accommodate your interests and career goals.

Each of the materials science and engineering master’s programs immerses students in a dynamic and collaborative learning environment focused on innovative research. As a student, you will receive a solid foundation in the fundamentals of materials science and investigate important current topics in energy, biomedicine and nanotechnology.

Concentrations

• Interdisciplinary Nanotechnology (CEMS, CCB, ME, PHY)
• Interdisciplinary Microelectronics and Photonics (CEMS, ECE, PHY)
• Materials Technology for Energy and Sustainability

In the applied artificial intelligence masters program, graduate students develop a strong background in the theoretical foundations and algorithm development in artificial intelligence and deep learning with a thorough understanding of a variety of engineering applications. Students will learn a blend of software and hardware skills that are applicable across multiple engineering domains.

Students are immersed in a hands-on approach to learning within a mix of course offerings, from fundamental core courses to state-of-the art topics such as internet of things (IoT), information systems security, and big data applications.

Masters students in the applied artificial intelligence program have the opportunity to work on exciting new projects and applications relating to:

• Machine learning
• Deep learning
• Image processing and computer vision
• Autonomous robotics
• Smart health
• Biomedical engineering
• Transportation engineering
• Financial engineering
• Embedded systems
• Software engineering
• Intelligent communications networks

Concentrations

• Artificial Intelligence in Design and Construction
• Biomedical Engineering
• Computer Engineering
• Data Engineering
• Electrical Engineering
• Mechanical Engineering
• Software Engineering
• Systems Biology

Intended to meet the need for professionals who can harness complex data and convert it into meaningful information, the Master of Engineering in systems analytics provides students with expertise in visualizing, manipulating and extracting important concepts from systems data, complemented by training in traditional systems decision-making.

The master’s degree equips students with state-of-the art data visualization and knowledge extraction techniques for the purpose of analyzing trends, assessing risk, discovering patterns and building decision models that can better develop, maintain and improve complex engineering systems and enterprises.

The program prepares students with broad coverage of fundamentals as well as state-of-the-art industrial practices in the areas of design, fabrication, integration, and application of microelectronic and photonic devices in communication and information systems. Designed for maximum flexibility, the program accommodates the backgrounds and interests of students with either a master's degree or graduate certificate.

To apply for this program, select "Interdisciplinary Science" or "Interdisciplinary Engineering" on the application, and indicate your desire to pursue the program in microelectronics and photonics on your statement of purpose.?

From market and technological changes to policy and budgetary uncertainty, the space industry has been faced with increasing challenges that transcend technical boundaries.

The Master of Engineering in space systems engineering at Stevens, delivered by the primary authors in the field of space systems today, provides experienced professionals with the edge needed to excel in this increasingly complex and competitive industry. Stevens is a recognized provider of space systems engineering education to NASA employees and space industry professionals worldwide, taught in partnership with Teaching Science and Technology, Inc. (TSTI).

In today's space related enterprises, change is the only constant. To fully utilize existing opportunities and explore new ones within a modern space-centric enterprise, it is crucial to have both the technical knowledge necessary to design cutting edge space missions and associated products, as well as the systems knowledge that is required to operate in an increasingly complex technical, business and policy environment.

At Stevens, the graduate certificate in space systems engineering and the master's degree in either space systems engineering or systems engineering with a concentration in space systems allows professionals working in government and the private space-related enterprises to combine robust technical education in space systems design and development, and key space systems processes, with a holistic understanding of systems engineering principles.

The engineering physics master’s program prepares students for a successful career in industry or research by combining courses in fundamental physics with specializations that focus on applications to current research and technology. Students will gain deeper insight and skills in specific branches of engineering and interdisciplinary physics research including quantum engineering, applied optics, solid state device engineering and nanotechnology.