The United States offers 48 PhD programmes in Engineering & Technology across 20 universities, making it one of the premier global destinations for doctoral engineering research. World-leading institutions including Northwestern University, University of Wisconsin–Madison, Rice University, and University of California San Diego are among those offering doctoral programmes in this broad field. Tuition ranges from roughly €13,000 to €98,000 per year, though the majority of doctoral students in the US receive full funding through research assistantships.
PhD programmes in Engineering & Technology at US universities typically last four to six years and combine coursework with original research leading to a dissertation. Specialisations available include electrical, mechanical, civil, biomedical, chemical, and computer engineering, among others. The US engineering doctoral ecosystem is supported by substantial federal research funding from agencies such as NSF, NIH, and DARPA, making it possible for most admitted PhD students to have their tuition and living expenses covered.
Princeton University's Department of Chemical and Biological Engineering offers graduate programs designed to prepare students for leadership roles in research, academia, and industry. The department emphasizes a strong foundation in chemical engineering principles, chemistry, biology, mathematics, and physics. Key strengths include a low student-to-faculty ratio, fostering close mentorship, a diverse student body, strong interdisciplinary collaborations, and proximity to a significant concentration of industrial research laboratories. The graduate programs are primarily focused on the Ph.D. degree, with master's programs available for practicing engineers seeking to enhance their knowledge.
The University of Wisconsin–Madison offers advanced graduate studies in Chemical and Biological Engineering, leading to a PhD. This program focuses on research and development at the intersection of chemistry, biology, and engineering principles. Students engage in cutting-edge research within state-of-the-art facilities, contributing to scientific advancements and innovative solutions. The program is designed to train future leaders and researchers in academia and industry. The curriculum emphasizes a strong theoretical foundation coupled with practical research experience, preparing graduates for impactful careers in various fields, including biotechnology, materials science, energy, and pharmaceuticals.
The Chemical and Nano Engineering program at UC San Diego focuses on cutting-edge research at the intersection of chemistry, biology, and engineering. A key area of investigation is 3D bioprinting and biomaterials for applications in tissue engineering and regenerative medicine. Researchers explore the complex interactions between cells and materials across various scales, from the molecular to the tissue level, and over different time spans. The program aims to advance fundamental scientific understanding of cell-material interactions, biomaterials science, and biomechanics. Simultaneously, it addresses technological and translational challenges in repairing and regenerating tissues and organs. This interdisciplinary approach prepares students for impactful careers in academia and industry.
The Computational Science, Engineering, and Mathematics (CSEM) program at UT Austin offers a premier graduate experience focused on interdisciplinary study. This program is primarily structured as a PhD track, designed for students whose ultimate goal is doctoral research. Students admitted to the PhD program may also earn a Master's degree within the CSEM framework along the way. All PhD applicants are considered for funding opportunities such as fellowships and research assistantships. The Master's program is a terminal degree and does not provide a pathway to the PhD program. A limited number of students are admitted to the Master's program annually, and funding is not available for Master's students. The CSEM Program is an intercollegiate initiative, not housed within a single traditional department but drawing faculty and resources from across the university.
This research paper, 'Demographics and Technology Diffusion: Evidence from Mobile Payments,' investigates how the age composition of a population influences the adoption of new technologies. Using data from India's mobile payment sector and a leading bank, the study found that younger adults are more inclined to use mobile payments compared to traditional methods like cards. This age-driven preference appears to be a significant factor, often outweighing other consumer characteristics. The research suggests that businesses serving younger demographics may see higher adoption rates for new technologies. To further validate this, the study analyzed merchant adoption data, confirming that businesses in areas with younger populations were more likely to adopt mobile payment technology. The findings indicate that an aging population could potentially hinder the spread of financial innovations.
The Jacobs School of Engineering at UC San Diego offers several doctoral (Ph.D.) programs managed by individual academic departments. These programs are designed for students seeking to engage in advanced research and contribute to the forefront of engineering and computer science. With a strong emphasis on interdisciplinary collaboration and cutting-edge research, the Jacobs School aims to foster innovation and address complex global challenges. Students benefit from the expertise of distinguished faculty, including Nobel laureates and National Academy members, within a vibrant and inclusive academic community. The school is recognized for its high research impact, ranking among the top engineering schools nationally for citations per publication. Graduates are prepared for prominent roles in academia, industry, and government, contributing to the innovation economy.
The Doctor of Philosophy (PhD) program in Electrical and Computer Engineering at Rice University is designed to train students to become independent researchers capable of advancing the state of the art in the field. This program focuses on developing research skills, leadership in research groups, and the ability to solve complex real-world problems through integrated knowledge and independent study. Students progress through several stages, including MS candidate, PhD-qualified student, and PhD candidate, with advancements requiring committee approval. The curriculum emphasizes foundational coursework, developing a research area, and completing a significant research project culminating in a PhD thesis.
The Doctor of Philosophy (PhD) in Electrical & Computer Engineering at the University of Illinois Urbana-Champaign offers two admission tracks: a traditional doctoral program for those with a master's degree and a direct doctoral program for those with a bachelor's degree. This program focuses on advanced research and aims to develop students' abilities to identify and solve complex technical challenges in the field. Students will gain in-depth knowledge in specialized areas, develop strong communication and teaching skills, and be prepared for research-oriented careers. Research within the department is diverse, spanning numerous interdisciplinary programs and laboratories, including affiliations with centers like the Beckman Institute and the Coordinated Science Laboratory. This provides ample opportunities for graduate students to engage in cutting-edge research and collaborate across disciplines. Students can also pursue specialization through the Computational Science & Engineering optional graduate concentration. Graduates are expected to demonstrate expertise in at least one sub-area of ECE, possess a broad understanding of the field's research landscape, and be capable of functioning effectively as researchers and potential educators.
The Doctor of Philosophy (Ph.D.) in Nuclear Engineering at Penn State focuses on advanced research in nuclear materials and computational science. This program delves into the complex behavior of materials used in nuclear reactors, particularly the interaction of zirconium cladding with hydrogen. Students will investigate the physics and mechanisms governing the formation of hydride microstructures and their impact on material integrity and embrittlement. The research aims to develop quantitative metrics to better assess cladding performance and safety. This Ph.D. dissertation work explores the relationship between precipitation conditions, hydride morphology, and the resulting embrittlement in zirconium cladding. A quantitative phase field model is developed to predict hydride morphology and identify the mechanisms behind circumferential and radial hydride precipitation. The research also introduces a new metric, the Radial Hydride Continuous Path (RHCP), to quantify hydride microstructure and its correlation with crack propagation, offering a more accurate assessment of cladding integrity. The program emphasizes computational materials science, phase field modeling, and multi-physics simulations. Students will gain expertise in analyzing microstructure evolution, understanding the effects of stress on material properties, and developing new tools for materials characterization. The ultimate goal is to improve the safety and reliability of nuclear fuel cladding through advanced research and development.
The Doctor of Technology (DTech) at Purdue University Northwest is a professional doctoral degree focused on applied research and professional practice. This program is designed for individuals who want to integrate theory with practical application at an advanced level, enabling them to stand out in the technology industry. The DTech curriculum addresses real-world industry problems that require innovative solutions and a deep understanding of current technological challenges.
The PhD in Materials Science, offered by the Mork Family Department of Chemical Engineering and Materials Science, provides a rigorous academic and research experience. The program covers a wide array of subject areas, including advanced semiconductor materials, nanostructures, ceramics, metal composites, biotechnology, advanced computation, membrane separations, reactor design, and oil and gas exploration. Faculty research spans diverse fields such as energy technologies, health and wellness, data science, quantum materials, and advanced manufacturing methods. This program is designed to foster innovation and discovery in the field of materials science.
Northwestern University's graduate programs aim to cultivate scholar-technologists adept at conducting cutting-edge research and development. We seek to push the boundaries of interdisciplinary scholarship. Our programs are ideal for students from diverse backgrounds who wish to explore research beyond traditional departmental limits. The most promising candidates are those who aspire to integrate a technological foundation with training in social sciences and humanities.
The PhD program in Electrical and Computer Engineering (ECE) is designed to develop students into leading researchers and innovators. The program typically takes four to six years to complete, requiring a minimum of one year of full-time graduate study in residence. Students are expected to demonstrate technical breadth, make consistent progress in research, contribute new knowledge to the field, and effectively disseminate their findings through written and oral presentations. The program emphasizes both coursework and independent research, guided by faculty advisors.
Princeton University's Department of Electrical and Computer Engineering (ECE) offers advanced graduate studies, focusing on a Ph.D. program. While specific undergraduate courses are listed, the primary graduate admission is for doctoral candidates. The department encourages applications from students with diverse academic backgrounds who are interested in research and innovation in fields such as robotics, machine learning, quantum engineering, and communication systems. International students are welcome and encouraged to apply. The university provides significant financial support to admitted graduate students, covering tuition, health insurance, and a stipend. The Ph.D. program emphasizes a strong foundation in fundamental engineering principles, coupled with cutting-edge research opportunities. Students engage with faculty on state-of-the-art projects, contributing to advancements in areas critical to modern technology and science. The curriculum is designed to prepare students for impactful careers in academia, research, and industry.
The PhD program in Geological Engineering at the University of Wisconsin–Madison integrates geology and engineering to address complex earth-related problems. Geological engineers play a crucial role in finding sustainable ways to utilize earth's resources while protecting the environment. This program is designed for students seeking advanced training to tackle challenges in land use, construction, resource extraction, and environmental remediation. The curriculum emphasizes developing analytical, numerical, and laboratory skills to solve novel problems associated with modern engineering practices. It appeals to students with backgrounds in various engineering and physical science disciplines. Research areas are diverse, including geotechnical and geo-environmental engineering, applied geophysics, hydrology, rock mechanics, and more. Students benefit from modern facilities, including specialized laboratories and field equipment. The university also offers various funding opportunities such as research assistantships, teaching assistantships, and fellowships to support qualified graduate students.
The PhD in Human-Centered Design & Engineering (HCDE) at the University of Washington focuses on research that advances the design, development, and application of technology. This program prepares students to conduct advanced independent research in areas where technology and human interaction intersect. It emphasizes both theoretical foundations and practical applications, equipping graduates for leadership roles in academia and industry. Admission to the HCDE PhD program is highly competitive, with a focus on evaluating applicants' academic history, research potential, and alignment with faculty interests.
The Industrial Engineering and Management Sciences PhD program at Northwestern University is designed to train researchers who possess strong foundational knowledge in operations research methodologies, including optimization, stochastic modeling and simulation, statistics, and data analytics. The program emphasizes the application of these skills to solve significant real-world problems, aiming to enhance the efficiency, quality, and mission fulfillment of organizations. Graduates are prepared for research-oriented careers in academia, industry, government, and non-profit sectors.
This program focuses on developing scholar-technologists capable of conducting cutting-edge research and pushing interdisciplinary boundaries. It is designed for students with diverse backgrounds who are interested in exploring research that extends beyond traditional departmental limits. The ideal candidates possess a strong technological foundation and a desire to integrate it with social science and humanities training.
Northwestern University's Materials Science and Engineering PhD program is the first of its kind in the world and is internationally recognized for its graduate's achievements. The program emphasizes a transdisciplinary approach, connecting fundamental science with practical applications to address global challenges. It is designed to cultivate analytical and innovative problem-solvers through curiosity-driven research. The department welcomes students from diverse academic backgrounds, including physics, chemistry, and various engineering disciplines, to foster a rich research environment.
The Materials Science and Engineering PhD program at the University of Wisconsin–Madison focuses on developing new materials to address critical global challenges. Research areas span a wide range, including energy, healthcare, sustainable manufacturing, aerospace, and computing. The field is undergoing a revolution, moving from trial-and-error to data-driven design using computational methods, machine learning, and high-throughput synthesis and characterization. This program emphasizes an interdisciplinary approach, with faculty collaborating across campus and welcoming students from diverse undergraduate backgrounds. Students benefit from state-of-the-art facilities and research centers, preparing them for successful careers in industry, national laboratories, and academia.
The NanoEngineering PhD program at UC San Diego is designed to prepare students for careers in research and teaching, with a strong emphasis on research. Students specialize in one of three focus areas: Biomedical Nanotechnology, Molecular and Nanomaterials, or Nanotechnologies for Energy and the Environment. The program requires completion of 10 courses, including core courses, electives within the chosen focus, and electives from other areas. Students must also successfully pass several rigorous examinations throughout their studies, culminating in a dissertation defense. The program aims to provide a tailored and in-depth educational experience to ensure a comprehensive understanding of the student's chosen field.
The University of California, San Diego offers M.S. and Ph.D. degrees in NanoEngineering. This program focuses on the scientific, technical, and engineering challenges in nanotechnology, particularly in the controlled synthesis of nanostructured materials for biomedical, energy, and environmental applications. The curriculum is highly interdisciplinary, integrating fundamental science with engineering problem-solving across traditional boundaries. Students gain expertise in designing and manufacturing devices and systems that leverage unique nanoscale material properties, often integrating biochemical and synthetic inorganic processes. The program aims to prepare graduates for careers in science-based industries and emerging high-technology companies, equipping them with skills for multidisciplinary teamwork, communication, and computational technology. Educational methods include group-based problem-based learning and web-based interactive tutorials.
Rice University's Department of Chemical and Biomolecular Engineering offers a Ph.D. program designed for students seeking advanced research opportunities. Applicants can apply directly to the Ph.D. program, regardless of whether they hold a master's degree. The program admits students for the fall semester only. The curriculum will include required coursework upon matriculation.
The Doctor of Philosophy (Ph.D.) program in Electrical and Computer Engineering (ECE) at UC San Diego is a research-focused degree. It requires the completion of specific coursework, passing a preliminary examination, a university qualifying examination, and the successful defense of a doctoral dissertation. The program is designed to train students to become independent researchers capable of making significant contributions to the field.
This Ph.D. program is designed for students seeking advanced training in technology and engineering design, with a focus on developing leadership skills for research and teaching roles. The curriculum is highly flexible, allowing you to personalize your course of study in collaboration with your advisor and a special committee to align with your specific interests and career aspirations. Admission is directly to the Ph.D. program; a Master's degree is not a prerequisite. A key milestone is the Qualifying Examination, which includes Subject Area Examinations administered by the ECE Faculty, typically taken before the second year of study.
The Ph.D. in Materials Science and Engineering at Duke University is a multidisciplinary graduate program designed for students with diverse academic backgrounds. This program fosters a strong materials community across the university by providing shared curricular experiences. It is an integral part of the Duke Materials Initiative (DMI) and involves faculty from eight participating departments within the Pratt School of Engineering and Trinity College of Arts and Sciences. Students benefit from a wide array of research areas and faculty advisors, with the potential to engage with resources from the School of Medicine, Nicholas School of the Environment, Sanford School of Public Policy, Duke University Energy Initiative, and the Innovation & Entrepreneurship Initiative.
Cornell offers a doctoral program in Operations Research and Information Engineering (ORIE), providing a rigorous academic and research environment. The program emphasizes operations research as a mathematical science, preparing students for advanced research and scholarly work. Students will collaborate closely with distinguished faculty, renowned for their teaching and research, contributing to new understandings in the field. The program fosters a strong analytical foundation through interdisciplinary study, covering topics from optimization to statistics and probability, supported by faculty expertise and state-of-the-art research facilities. Graduates are prepared to become leaders in decision and management sciences, securing positions in academia and industry.
Duke University's Biomedical Engineering PhD program offers a dynamic and interdisciplinary research environment. Students join a community focused on translational research, benefiting from Duke's strong collaborations with its renowned medical research enterprise. The program aims to provide a unique PhD experience in Durham, fostering innovation and high-impact discoveries.
The PhD program in Computer Engineering at Northwestern University is designed to prepare students for leadership roles in academia, industry, and entrepreneurship. With a strong research focus, the program equips students to develop innovative technologies addressing global challenges in areas like energy, healthcare, and transportation. Students will explore the intricate relationships between hardware and software within an interdisciplinary, hands-on environment, focusing on a variety of cutting-edge topics. The curriculum is structured to provide both a deep understanding of a chosen research area and a broad knowledge base in computer engineering and related fields. The program emphasizes research from the outset, encouraging students to engage with faculty and explore potential thesis advisors early on. While coursework is required, the program prioritizes research, allowing students significant flexibility to delve into their specific interests.
Rice University's PhD program in Electrical and Computer Engineering (ECE) is designed to prepare students for advanced research careers in academia or industry. The program combines formal coursework with in-depth original research supervised by a faculty advisor, culminating in a thesis. Students typically earn a Master of Science (MS) degree as part of their PhD studies. Those with a prior MS degree that included a research thesis may be able to proceed directly to the PhD, potentially with reduced coursework requirements. In some instances, students with a prior MS degree without a thesis may also be eligible to bypass the Rice MS degree. Financial support is available for students admitted to the PhD program.
The PhD program in Electrical and Computer Engineering at Northwestern University prepares students for advanced research and development in a field that addresses critical global challenges in areas like energy, healthcare, and transportation. The program emphasizes collaborative, interdisciplinary research within state-of-the-art labs, guided by world-renowned faculty. Students gain a deep understanding of their chosen research area while also acquiring broad knowledge in computer engineering and related disciplines. The curriculum includes core and specialized courses, and culminates in independent research leading to a dissertation. Students typically complete the PhD in 4-5 years and are fully funded through a combination of research assistantships, teaching assistantships, and fellowships. The program encourages students to engage with faculty on cutting-edge research projects and provides opportunities for professional development through student groups and the Crown Family Graduate Internship Program. Graduates are well-prepared for careers in academia, industry, and research laboratories, with a notable success rate in founding startups.
The PhD in Engineering Management at Western New England University is designed to prepare leaders in the fields of engineering and technology. This program equips students with advanced technical depth and broad knowledge to excel as practitioners, researchers, teachers, and mentors. You will develop the skills necessary to conduct rigorous research focused on improving, designing, and managing complex human and technological systems across various sectors, including engineering, healthcare, service, and logistics. The program can be completed fully online, making it an ideal choice for working professionals seeking advanced education from a nationally recognized university.
The PhD in Human Centered Design & Engineering (HCDE) at the University of Washington focuses on developing advanced research skills to address complex societal challenges through design and engineering. The program emphasizes understanding the intricate relationships between people and technology, preparing graduates to become leaders in academia and industry. Admission to the HCDE PhD program is highly competitive, with a focus on evaluating applicants' academic history, research potential, statement of objectives, and letters of recommendation. The program aims to cultivate scholars who can contribute innovative solutions and theoretical advancements in the field of human-centered design and engineering.
The PhD in Industrial Engineering at Western New England University (WNE) is a research-oriented, thesis-based degree designed for individuals aiming for careers in organizational management, research and development, research management, or academia. The program equips you with advanced knowledge and skills in areas such as production planning, systems, quality, and cost analysis, enabling you to contribute to the body of knowledge in industrial engineering through original research and dissertation work. You will learn to apply data-driven decision-making and innovative tools to solve complex engineering challenges in diverse industries.
The University of Illinois Urbana-Champaign offers a Doctor of Philosophy (PhD) in Industrial Engineering. This program allows students to enter with either a Bachelor of Science (BS) or a Master of Science (MS) degree. If entering with a BS, students have the option to earn an MS degree along the way or complete the PhD directly. The program focuses on rigorous academic study, research, and the completion of a dissertation. The curriculum requires a specific number of credit hours in core Industrial Engineering courses, external STEM courses, and thesis work. Students will also participate in graduate seminars and potentially elective courses, depending on their entry degree. A minimum GPA of 3.25 is required, along with successful completion of qualifying, preliminary, and final dissertation exams.
Rice University's Department of Materials Science and NanoEngineering (MSNE) offers a PhD program designed to foster a collaborative environment that encourages independence, innovation, and scholarship. As a doctoral student, you will join a highly selective academic community where faculty often hold joint appointments in other science and engineering departments, ensuring a broad and interdisciplinary approach to materials science and nanoengineering. The program emphasizes both the applied and theoretical aspects of the field.
The PhD program in Quantum Science and Engineering offers advanced training at the interdisciplinary forefront of quantum physics and information theory. This field is crucial for developing new technologies that leverage quantum mechanics, such as advanced quantum computers, secure communication systems, and highly sensitive sensors. The program aims to equip students with the knowledge and skills to build novel quantum systems, drive technological innovation, and become leaders in the rapidly growing quantum industry. Research at Princeton spans the entire quantum technology stack, from fundamental quantum matter and many-body physics to quantum information theory, algorithms, and hardware development, fostering a collaborative environment for cutting-edge discoveries.
Princeton University offers a PhD program in Robotics, providing a multidisciplinary approach to this rapidly expanding field. While the program is based within the Department of Molecular Biology for admissions and funding, the coursework integrates various engineering and scientific disciplines, including mechanical design, computer science, electrical engineering, and bioinspired design. Students will engage with both theoretical principles and hands-on project experience, preparing them for advanced research and careers in robotics. The curriculum is designed to give students a strong foundation in core robotics concepts, such as inverse kinematics, motion planning, localization, mapping, vision, and reinforcement learning. The program emphasizes practical application through team-based design and fabrication projects, leveraging tools like CAD, CAE, and CAM. This interdisciplinary training fosters critical thinking and problem-solving skills, crucial for innovation in areas from autonomous vehicles to robotic manipulators. While the university does not offer a Master's degree in this specific area, the doctoral program provides comprehensive financial support, including tuition, health insurance, and a generous annual stipend. International students are highly encouraged to apply, joining a diverse academic community focused on cutting-edge research in robotics.
This program focuses on research within Management Science, specifically investigating the impact of menu costs on retail performance through the adoption of electronic shelf label technology. It aims to educate scholar-technologists capable of conducting cutting-edge research and development, pushing the boundaries of interdisciplinary scholarship. The program is ideal for students with a technological background who are interested in exploring research that bridges technology with social science and humanities.
There are 48 PhD programmes in Engineering & Technology across 20 universities in the United States.
Listed tuition ranges from about €13,000 to €98,000 per year, but most admitted PhD students receive funded offers through research or teaching assistantships that cover tuition and provide a stipend.
Programmes are available at Northwestern University, University of Wisconsin–Madison, Rice University, University of California San Diego, Virginia Tech, and Western New England University, among 20 institutions.
Yes, and international students make up a significant proportion of US engineering doctoral cohorts. You will typically need a bachelor's or master's degree in a relevant engineering discipline, GRE scores, English language results, and a strong research proposal or statement of purpose.
A master's degree (or a strong bachelor's degree) in engineering or a related technical field is normally required, along with competitive GRE scores, research experience, strong recommendations, and a clear statement of research interests aligned with faculty projects.