With a Ph.D. in Chemistry, you are positioned at the forefront of chemical innovation and research, ready to spearhead groundbreaking projects and studies. In New Jersey, which boasts a rich history of collaboration between academia and the chemical and pharmaceutical industries, Ph.D. holders can drive advancements in drug development, materials science, and environmental solutions.

Westlake University’s Chemistry department is a pioneering, supportive, and innovative community of scholar-practitioners focused on building excellence between the chemical sciences and related branches of physical science, medicine, engineering, and material sciences.

The Doctoral School of PhD in Chemistry offers a four-year training and research program in a wide range of fields in chemical sciences, Analytical Chemistry, Bioorganic Chemistry, Homogeneous Catalysis, Chemistry of Coordination Compounds, Electrochemistry, Synthetic Organic Chemistry, Theoretical Chemistry, Environmental Chemistry, Biochemistry, and Separation Science. The chemistry program began in 1993 and since then the students have had access to all modern techniques and could take part in international scientific research programs, which leads the outstanding students to obtain a Ph.D. degree upon complying with the requirements of their studies.

This programme is based on the cooperation of two universities and one research institute - Brno University of Technology, Masaryk University and the Institute of Physics of Materials of the Academy of Sciences of the Czech Republic.

BioMedChem Doctoral School is an interdisciplinary school, which has a unique curriculum offer. Doctoral students of the school gain knowledge from one of the three above-mentioned disciplines, which is simultaneously closely related to the two remaining ones. Joint seminar classes constitute a platform to expand knowledge in these three fields, so far frequently considered as separate. It is a valuable supplementation of the gained knowledge that leads to a better and fuller understanding of processes and phenomena taking place at the interface between animate nature and its surroundings.

An interdisciplinary Chemistry program, which allows for the training of specialized doctors in the many fields of work that Chemistry covers, as a result of offering a wide and diverse range of lines of research and an equally wide and diverse panel of directors.

The Department of Chemistry here at SMU has a long history of excellence in research and teaching. Whether aspiring to a career in industry, medicine, or academia, the comprehensive curriculum provides students with the necessary knowledge and experience to excel in their future careers. The faculty maintain active research programs, attend numerous national and international meetings in their fields, and publishes in major journals.

The multidisciplinary doctorate degree in microsystems engineering builds on the fundamentals of traditional engineering and science combined with curriculum and research activities addressing the numerous technical challenges of micro- and nano-systems.

The Joint School of Nanoscience and Nanoengineering (JSNN) is much more than an academic unit. Our dynamic institution lives at the intersection of research and execution, the catalyst for breakthrough innovations that create high-impact academic, industry, and government research outcomes. We offer rigorous academic programs, as well as cutting-edge facilities and equipment that can help you achieve your own breakthroughs. JSNN has six research focus areas —nanobioscience, nanometrology, nanomaterials (with special emphasis on nanocomposite materials), nanobioelectronics, nanoenergy, and computational nanotechnology. Our mission is to forge partnerships with scientists and researchers from industry, academia, and government, working together to create impactful scientific research that drives change. Whether you’re looking to further your education or create a dynamic research collaboration, JSNN is here to partner with you. Come and explore the possibilities with us.

The primary aim in our doctoral school is to train scientists who can continue their creative scientific work related to leading fields of chemistry and environmental sciences after completion of their MSc studies. The doctoral school was established in 2000 as the highest level of education in chemistry and environmental sciences at the University of Pannonia. Since then, more than 125 degrees have been granted.

Micro- and nano-electronics is considered an essential technology, as it enables the development and growth of our society. It is explicitly mentioned in the most relevant strategic planning documents of Italy and Europe (eg: PNRR 21-26, European Commission, of which it is one of the Key Enabling Technologies, and the European Chips Act). Today, any technological development, in any sector, from telecommunications to biomedical, from mobility and transportation to energy, requires dedicated micro- and nano-electronic devices, which must be specifically developed and manufactured on large scale. The problem at an international level, identified with the term "chip shortage", which has clearly emerged in recent years, demonstrates how the world economy is increasingly bound to the availability of integrated circuits and systems.

The objective of the doctoral study program in chemistry is to train doctors of science, who are ready for a research career, able to work as scientists and educators. The program aims to expand their knowledge in chemistry and related fields, at the same time developing their skills of critical thinking, creativity, training their ability to seek original and independent solutions.

Postgraduate study in Bioorganic Chemistry serves for the education of chemical experts with an emphasis on the structure and functions of small organic molecules in living organisms and on the possibility of influencing biological processes in these organisms through the action of such molecules. The program is thus directed towards the study of all aspects of organic compounds, which are indispensable for the structure and functioning of living organisms. The broad spectrum of these compounds includes molecules with a building (primary metabolites) function, signaling function, activating or deactivating function in relationship to strategic proteins within the living organisms, and also compounds, which are produced by these organisms (natural products, secondary metabolites, metabolites of xenobiotics). The study is founded on the structure and synthesis of organic compounds with a focus on natural products, heterocycles, and other organic compounds, which are capable of modulating biological processes. Elucidation of the function of such compounds as parts of biological structures as well as that of their influence on biological processes and the possibility to modify this influence through structural changes are no less important. Bioorganic Chemistry thus serves as a link between Organic Chemistry and biomedical disciplines and partially overlaps with Pharmaceutical and Medicinal Chemistry. Bioorganic Chemistry is, however, more general than the latter two programs, which are primarily focused on the study and development of drugs, ie. a more limited subgroup of biologically active compounds.

Admission to the nano-SE PhD program requires a bachelor's or master's degree in an engineering or science discipline based on physical science. The Introduction to Nanoscience course is offered for students from a range of backgrounds as an introduction to nanotechnology. Check with your department to determine whether credit for this course may be applied towards your degree.

The Ph.D. in Chemistry demands a very high level of intellectual, theoretical, and practical specialized scientific knowledge and insight into problems related to the field of study and the application of advanced experimental methods and techniques of the modern research, as well as fundamental scientific and academic values in generating, processing, interpreting and presenting research data orally and in written form.