School of Research

 Ph.D. in architecture usually takes 3-5 years to complete, depending on the curriculum and research specialization. This postgraduate degree focuses on unique research and theoretical investigation in architectural studies. Candidates specialize in fields such as sustainable design, urban planning, architectural history, and emerging construction technologies. The curriculum often includes coursework, rigorous tests, and a dissertation that adds new understanding to the topic. Students learn advanced critical thinking, research methods, and academic writing abilities. Graduates can pursue various professions in academia, research institutions, or high-level roles within architectural firms. This degree equips students to be thought leaders and innovators in architectural theory and practice.

Ph.D. in Biotechnology is an advanced research degree that involves biology, technology, and engineering. It generally takes 4-6 years to complete. The curriculum focuses on discovering innovative solutions to healthcare, agricultural businesses, and environmental issues. Students engage in intensive coursework, laboratory research, and frequent collaborations with industry partners. Genetic engineering, bioinformatics, molecular biology, and bioprocess engineering are all significant study fields. Candidates have to do original research, publish in peer-reviewed publications, and defend their doctoral thesis. This degree prepares graduates for managerial positions in academia, research institutes, pharmaceutical businesses, and biotech startups, advancing disciplines such as medication development, sustainable agriculture, and biofuel production.

A Ph.D. in Biochemistry normally takes 4-6 years to complete, with a concentration on the chemical processes found within and related to living organisms. This advanced degree needs intensive laboratory research, data analysis, and the creation of a unique thesis. Students analyze molecular biology, enzymology, and cellular metabolism. The program often involves coursework, teaching assistantships, and the publication of research publications. Graduates have the ability to pursue careers in academia, pharmaceutical research, biotechnology, and allied fields. The doctoral program develops critical thinking, problem-solving abilities, and the ability to design and conduct autonomous research, resulting in important contributions to the field of biochemistry and related life sciences.

 Doctor of Philosophy (Ph.D.) in Pharmaceutics is a rigorous 5-7 year research-focused doctoral program that provides students to serve as leading specialists in the development and improvement of drug delivery systems. The program includes advanced topics in pharmaceutical sciences such as pharmacokinetics, medication development, manufacturing methods, and regulatory issues. Ph.D. candidates perform original laboratory and clinical research, culminating in the submission of a doctoral dissertation which contributes significantly to the field of pharmaceutics. Graduates have been trained for positions as pharmaceutical scientists, university instructors, regulatory advisors, and R&D professionals in the pharmaceutical business. The Ph.D. in Pharmaceutics program equips students with the specific knowledge required to revolutionize drug delivery methods, improve patient outcomes, and impact the future of pharmaceutical product development.

Ph.D. in Molecular Biology typically spans 4 - 6 years, encompassing advanced coursework, comprehensive exams, and original research. This program delves into the molecular mechanisms of biological processes, including DNA replication, gene expression, and protein synthesis. Students engage in hands-on laboratory work, utilizing techniques such as PCR, sequencing, and CRISPR to investigate cellular functions and disease mechanisms. Collaboration with interdisciplinary teams is common, fostering a broader understanding of the field. Graduates often pursue careers in academia, biotechnology, pharmaceuticals, or healthcare, contributing to advancements in genetic research, therapeutic development, and innovative biotechnological solutions.

Ph.D. in Environmental Science normally lasts 3-5  years and focuses on advanced study on key environmental challenges. The program includes difficult courses in ecological theory, environmental policy, sustainability, and advanced research methods. Students conduct original research, which frequently includes fieldwork, data analysis, and interdisciplinary cooperation, culminating in a dissertation that adds to the body of knowledge in the discipline. Candidates may study climate change, conservation biology, environmental chemistry, or ecosystem management. The curriculum prepares graduates for positions in academia, government agencies, non-profit organizations, and the commercial sector, with an emphasis on practical solutions to environmental issues.

A Ph.D. in Energy Science is a research-oriented program that investigates sustainable energy systems, renewable energy technologies, and the fundamental concepts that underpin energy production and consumption. The curriculum typically lasts 3 to 5 years and covers topics such as solar, wind, bioenergy, energy storage, and energy policy. Students conduct theoretical and practical research to address global energy concerns, increase energy efficiency, and develop novel clean energy solutions. In most cases, admission requires a Master's degree in Environmental Science, Physics, Chemistry, or a related discipline. Graduates improve energy research, sustainability, and policy by pursuing positions in academia, research institutions, or the energy industry.

 

A Ph.D. in Chemical Engineering is a research-oriented program that focuses on using chemical principles to design, develop, and optimize chemical, material, and energy-based processes. The program typically lasts 3-5 years and covers topics like as thermodynamics, fluid mechanics, process control, reaction engineering, materials science, and nanotechnology. Students perform original research to address complicated engineering issues, improve industrial processes, and create new materials or energy solutions. The curriculum covers advanced chemical engineering topics, research methodology, and culminates in a dissertation. Graduates frequently pursue positions in academia, research institutions, or sectors including pharmaceuticals, petrochemicals, energy, and manufacturing.