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1. Program Overview

A PhD in Chemistry at the University of Sydney is undertaken as the Doctor of Philosophy (Science), the university’s research doctorate in the Faculty of Science, delivered through the School of Chemistry. It is a research-intensive degree designed for students with a strong academic background who want to deepen their knowledge and expertise in a chosen area of chemistry.

The heart of the program is an independent, original research project that culminates in the submission of a doctoral thesis of up to 80,000 words. There is no standard taught curriculum in the way an undergraduate or master’s-by-coursework degree has one; instead, candidates work closely with a supervisory team, develop a research question, carry out experiments or computations, and report their findings to the international research community through publications and, ultimately, the thesis.

The degree is offered in full-time mode on campus at the university’s Camperdown–Darlington campus in inner Sydney, and typically takes three to four years of full-time study to complete. Chemistry PhD candidates join one of the school’s research groups and become part of a broad scientific community: the Faculty of Science is described by the university as attracting world-class researchers and top science students from across Australia, creating a vibrant environment for higher-degree research.

Because the PhD is supervisor-driven, the most important early step for any prospective candidate is identifying a research area and a potential supervisor whose expertise aligns with their interests. The school’s research spans the full breadth of modern chemistry — from synthesis and catalysis to materials, spectroscopy, computation, and drug discovery — which is explored in detail in Section 3.

2. Why the University of Sydney

The University of Sydney was established by the University of Sydney Act 1850 and inaugurated in 1852, making it Australia’s oldest university. It is a public, research-intensive university and a member of Australia’s Group of Eight (Go8) research universities, with a long record of scientific achievement and alumni who have shaped Australian public life, including prime ministers, High Court justices, and leading scientists.

The university’s main campus sits across the inner-city suburbs of Camperdown and Darlington, about three kilometres from Sydney’s central business district. Its architectural identity is defined by the heritage-listed Neo-Gothic sandstone Quadrangle, designed by Edmund Blacket in the 1850s, and the Great Hall completed in 1858. The School of Chemistry is housed in the Chemistry Building, one of the first structures in Australia with a curtain-wall design and among the campus’s first postwar permanent buildings; its laboratories were completed in 1959 and it was formally opened in 1960.

The School of Chemistry describes itself as ranking among the top chemistry departments in Australia, and its stated mission is to address real-life challenges through research excellence while educating chemists to become leaders in industry and society. Chemistry research at Sydney is explicitly oriented toward pressing challenges in health, sustainability, and science literacy.

For a doctoral candidate, several practical factors make Sydney attractive. The university reports a student community drawn from more than 130 countries, so international PhD candidates join a genuinely global campus. Research is supported by shared major facilities — including Sydney Analytical, which provides X-ray scattering, spectroscopy, and other characterisation instruments used across chemistry research — and by national research infrastructure such as synchrotron and neutron facilities accessible to Australian researchers. The university also participates in large collaborative programs, such as its node of the Centre of Excellence in Exciton Science, giving candidates exposure to multi-institution research networks.

Finally, location matters: the Camperdown campus is embedded in one of the world’s most liveable major cities, with Sydney’s harbour, beaches, cultural institutions, and a large chemical, pharmaceutical, and technology employment market on the candidate’s doorstep. For researchers interested in industry pathways after graduation, that proximity is a genuine advantage.

3. Research Areas

Chemistry research at the University of Sydney is organised into four broad themes that bring together experts to discover, develop, and disseminate solutions to pressing challenges:

1. Chemistry education and communication research — investigating teaching, learning, assessment, and student engagement, and exploring science democratisation through public engagement.
2. Functional energy materials — research on nanomaterials such as MOFs, ionic liquids and solids, and polymers for batteries, fuel cells, photovoltaics, gas storage, and magnets.
3. Molecular innovations in health — developing molecular tools and interventions for infectious diseases, cardiovascular diseases, neurodegenerative diseases, cancer, and immunological and inflammatory disorders.
4. Self-assembled nanomaterials — experimental and computational work on molecular self-assembly, polymer nanoparticles, and nanostructured surfaces, addressing sustainability and drug delivery.

Within and across these themes, the School of Chemistry offers PhD projects spanning all areas of contemporary chemistry, including computational and theoretical chemistry, molecular design and synthesis, materials chemistry, green chemistry and renewable energy, molecular spectroscopy and photonics, drug discovery and medicinal chemistry, supramolecular chemistry, biological chemistry/chemical biology, soft matter, and neutron and synchrotron diffraction and spectroscopy.

3.1 Molecular Design and Synthesis (Organic Chemistry)

Synthetic organic chemistry at Sydney centres on the design and construction of new molecules — from biologically active compounds to functional materials. PhD projects in this area typically involve multi-step synthesis, method development, and the use of modern analytical techniques to confirm structure and purity. The work feeds directly into the school’s health theme: new synthetic routes can supply candidate molecules for the Drug Discovery Initiative and for collaborations with clinicians and industry partners working on infectious diseases, cancer, inflammation, neurodegenerative disorders, and metabolic diseases.

3.2 Inorganic and Organometallic Chemistry

Inorganic and organometallic research focuses on metal-containing compounds and their reactivity, with strong links to catalysis. The school is home to the Laboratory of Advanced Catalysis for Sustainability, a research group of around twenty researchers led by Professor Thomas Maschmeyer, whose interests span catalysis, sustainable chemical processes and fuels, green chemistry, and organometallic chemistry — alongside batteries, nanoparticles, ionic liquids, biofuels, and nanostructured materials. PhD candidates in this area may develop new catalysts, study reaction mechanisms, or design processes that reduce energy use and waste in chemical manufacturing.

3.3 Physical and Theoretical Chemistry

Physical and theoretical chemists at Sydney investigate the fundamental behaviour of molecules using experiment and computation. The university hosts a node of the Centre of Excellence in Exciton Science, a multi-university collaboration (with the University of Melbourne, UNSW, RMIT University, Monash University, and the University of Sydney) focused on novel materials for low-cost, high-efficiency light-harvesting devices, using high-throughput screening, single-molecule photochemistry, and ultrafast spectroscopy. PhD projects may combine quantum-chemical modelling with advanced spectroscopic measurements to understand energy transfer, excited states, and photochemical processes relevant to solar energy.

3.4 Materials Chemistry and Nanoscience

Materials research within the functional energy materials theme concentrates on nanomaterials — including metal-organic frameworks (MOFs), ionic liquids and solids, and polymers — for applications in batteries, fuel cells, photovoltaics, gas storage, and magnets. Candidates in this area synthesise and characterise new materials, study their structure–property relationships, and test device-relevant performance. The work is inherently interdisciplinary, drawing on chemistry, physics, and engineering, and aligns with Australia’s broader research push toward clean energy technologies.

3.5 Green Chemistry and Renewable Energy

Green chemistry at Sydney is about making chemistry itself more sustainable: designing catalytic processes, renewable fuels, and low-waste synthetic routes. This work is anchored in the Laboratory of Advanced Catalysis for Sustainability and overlaps with the school’s energy-materials research. PhD candidates might develop catalysts for converting biomass-derived feedstocks, study ionic liquids as green reaction media, or work on battery and fuel materials that support renewable energy systems. The emphasis is on research with a clear pathway to environmental benefit.

3.6 Analytical Chemistry and Advanced Characterisation

Modern chemistry depends on sophisticated measurement, and Sydney supports this through Sydney Analytical, the university’s shared analytical facility offering X-ray scattering, spectroscopy, and other characterisation techniques used widely across chemistry research — including the characterisation of new drugs and proteins in drug-discovery work. The school also lists neutron and synchrotron diffraction and spectroscopy</strong> among its research areas, reflecting access to Australia’s national large-scale facilities. PhD candidates in analytical chemistry may develop new measurement methods, apply advanced techniques to complex samples, or specialise in crystallography and structural determination.

3.7 Drug Discovery and Medicinal Chemistry / Chemical Biology

The school’s health research is coordinated through the Drug Discovery Initiative (DDI), launched in 2018 to develop new drugs in partnership with clinicians and industry. Its research spans infectious diseases, cancer, inflammation, neurodegenerative disorders, and metabolic diseases, and has contributed to work on antibiotics, cardiovascular disease, Alzheimer’s disease, malaria, and tuberculosis. The initiative’s current Academic Director is Professor Michael Kassiou. PhD projects in this area blend organic synthesis, medicinal chemistry, and biological evaluation: designing molecules, testing them against disease targets, and refining them into potential therapeutic leads using facilities such as Sydney Analytical for characterisation.

3.8 Supramolecular Chemistry, Self-Assembly, and Soft Matter

The self-assembled nanomaterials theme covers experimental and computational research on molecular self-assembly, polymer nanoparticles, and nanostructured surfaces, addressing challenges in sustainability and drug delivery. Supramolecular chemistry — chemistry beyond the molecule, where non-covalent interactions build ordered structures — underpins applications from responsive materials to nanocarriers that deliver drugs to specific sites in the body. PhD candidates in this area may design self-assembling systems, study soft matter such as gels and colloids, or engineer nanostructured surfaces with tailored properties.

4. Program Structure & Timeline

The Doctor of Philosophy (Science) is a research degree with no fixed coursework sequence. Its structure is built around milestones that guide a candidate from orientation to thesis examination. While individual timelines vary by project, a typical full-time pathway looks like this:

• Year 1 — Foundations: orientation and safety/induction training, an in-depth literature review, refinement of the research question, development of a detailed research plan, and the formal confirmation of candidature — the milestone at which the university confirms that the project is viable and the candidate is progressing satisfactorily. Many candidates begin generating preliminary results and may attend their first conferences or group seminars.
• Year 2 — Deep research: the main experimental or computational phase. Candidates typically produce the bulk of their results, present at national or international conferences, and begin drafting manuscripts for peer-reviewed publication. Annual progress reviews assess advancement against the research plan.
• Year 3 — Completion and writing: final experiments or calculations, completion of publications, and writing of the thesis. The thesis — up to 80,000 words — is submitted for examination, usually by independent examiners, following university procedures.
• Beyond Year 3 (if needed): Australian PhDs commonly extend into a fourth year for writing, revisions requested by examiners, or completion of scholarship-supported work. Candidates should discuss realistic timelines with their supervisor from the outset.

Each candidate works under a supervisory team, typically led by a principal supervisor with one or more auxiliary or associate supervisors who provide complementary expertise. Regular meetings, group seminars, and school colloquia form the rhythm of research life. The university also provides researcher-development training — in areas such as research integrity, academic writing, statistics, and career planning — which candidates are expected to engage with alongside their laboratory or computational work.

Progress is monitored through formal reviews, and candidates must meet the university’s progression requirements to continue their enrolment. Part-time enrolment may be available in some circumstances; candidates interested in part-time study should confirm availability and any scholarship implications with the university before applying.

5. Admission Requirements

Admission to the Doctor of Philosophy (Science) is competitive, and meeting the minimum requirements does not guarantee an offer — admission remains at the discretion of the Associate Dean (Research Education/HDR) for the Faculty of Science. To be eligible to apply for a PhD, candidates must demonstrate sufficient prior research experience and capability. In most cases, this means having completed one of the following:

• a bachelor’s degree with first or upper second class Honours, in a field relevant to the proposed research (for chemistry, typically chemistry or a closely related discipline);
• a master’s degree performed at a high academic standard, which includes a substantial component of original research; or
• an equivalent qualification that demonstrates research experience, excellence, and capability — for example, research outputs or professional research experience assessed as equivalent.

Applicants whose qualifications fall short of these criteria may in some cases be considered for the Master of Philosophy as an alternative pathway, with the possibility of upgrading to the PhD if their research demonstrates sufficient scope and depth — candidates should check the current Faculty of Science guidance on this route.

English language requirements. Applicants whose prior education was not in English must meet the university’s English proficiency requirements for postgraduate research before an unconditional offer can be issued. Currently published minimums for the PhD (Science) include IELTS 6.5 overall, PTE Academic 64, or TOEFL iBT 85 — confirm the exact current requirements on the official course page, as scores and test validity periods can change.

Supervisor support. While the formal application is assessed by the university, in practice a PhD application in chemistry is far stronger — and in many cases effectively requires — prior contact with a potential supervisor who agrees that the proposed project fits their group. Referee reports are an essential part of the application, particularly for applicants who apply before completing their current qualifying degree.

6. Application Process

Applying for a PhD in Chemistry at the University of Sydney follows the university’s standard higher-degree-by-research (HDR) admissions process. The steps below reflect the published procedure; always verify the current process on the official Doctor of Philosophy (Science) course page before applying.

1. Define your research direction. Review the School of Chemistry’s research themes and areas (see Section 3) and identify two or three groups whose work genuinely excites you. Read recent papers from those groups so you can speak concretely about their research.
2. Find a potential supervisor. Use the university’s Research Supervisor Connect tool to search for supervisors by research area, or browse the School of Chemistry’s staff and group pages. Note that supervisors may decline if there is insufficient time to develop a project proposal, so start early.
3. Contact the supervisor. Write a concise, professional email including: your academic background and research experience (with examples such as an academic transcript), your CV/résumé, the area of interest for your PhD, and — crucially — why you believe your research interests align with their group. Attach or offer to share a brief indicative research proposal if requested.
4. Prepare your documents. Typical requirements include academic transcripts, a CV, an indicative or developed research proposal (requirements vary by area), referee reports or letters of recommendation, proof of English proficiency (if required), and identification documents. Thesis copies may be required for PhD applications based on prior research degrees.
5. Submit the online application. Lodge your formal application for admission through the university’s online HDR application system for the Doctor of Philosophy (Science), selecting chemistry as your research area and nominating your agreed supervisor.
6. Apply for scholarships separately. Scholarship applications — including for Australian Government Research Training Program (RTP) scholarships — follow their own rounds and deadlines (see Section 7). Apply for admission and scholarships in the correct sequence and well ahead of deadlines.
7. Await assessment and offer. Applications are assessed on academic merit, research experience, referee reports, and supervisor availability. Successful applicants receive an offer of admission, which may be conditional (for example, on completing a current degree or meeting English requirements) until all conditions are satisfied.
8. Accept, enrol, and arrange a visa (international students). Accept the offer by the stated deadline, complete enrolment, and — for international candidates — apply for an Australian student visa and arrange Overseas Student Health Cover (OSHC).

7. Funding & Scholarships

Funding is one of the most important parts of PhD planning, and the University of Sydney offers several scholarship pathways for chemistry doctoral candidates. The flagship scheme is the Australian Government Research Training Program (RTP), supplemented by equivalent university-funded scholarships. All RTP and equivalent scholarships are competitively awarded on academic merit and research experience — they are not automatic with admission.

The main scholarships available to commencing or enrolled higher-degree-by-research students are:

• RTP Stipend Scholarship — open to domestic and international students commencing or enrolled in a higher degree by research. It provides a living stipend, published by the university at AUD $42,754 per annum (2026 rate) and AUD $44,293 per annum (2027 rate), plus a relocation allowance and a thesis allowance. Stipend rates are set annually, so always check the official scholarship page for the current figure.
• RTP Fee Offset (international students) — awarded automatically to international students who receive an RTP Stipend Scholarship. It covers 100% of tuition fees for up to 14 research periods and includes Overseas Student Health Cover (OSHC).
• University of Sydney International Stipend Scholarship (USYDIS) — a university-funded equivalent of the RTP Stipend for international students, competitively awarded, with the same published stipend rates and relocation/thesis allowances as the RTP Stipend.
• University of Sydney Tuition Fee Scholarship (international students) — awarded automatically to recipients of the USYDIS, covering 100% of tuition fees for up to 14 research periods.
• University of Sydney Postgraduate Awards (UPA) (domestic students) — the domestic university-funded equivalent, competitively awarded, with the same published stipend rates and allowances as the RTP Stipend.

Scholarship tenure for a PhD is generally up to 14 research periods (a research period is roughly a semester-length block; extensions are not typically available). The university notes that preference in awarding scholarships may be given to applicants who identify as Aboriginal and/or Torres Strait Islander people (per university policy), who intend to enrol in a PhD, and who have not previously received an Australian Government or university scholarship — or completed an HDR course — at the same level.

Beyond these central schemes, candidates should investigate Faculty of Science and School of Chemistry scholarships (project-specific or donor-funded awards are advertised from time to time), and external funding such as home-country government scholarships or international schemes. The China Scholarship Council postgraduate research arrangement with the university, for example, supports eligible Chinese candidates who hold an unconditional PhD admission offer and a university tuition-fee scholarship.

8. Life in Sydney

Sydney is Australia’s largest city and one of its most international, set around a spectacular natural harbour with famous beaches — including Bondi, Manly, and Coogee — national parks at its edges, and a mild climate with warm summers and cool, short winters. For a PhD student, the city offers an enviable combination: a serious research environment during the week and an outdoor, culturally rich lifestyle on weekends.

Campus and community. The Camperdown/Darlington campus is in the inner city, close to the neighbourhoods of Newtown, Glebe, and Chippendale, which are popular with students for their cafés, bookshops, live music, and markets. The student-run University of Sydney Union (USU) operates from the Wentworth, Manning, and Holme buildings and runs clubs and societies, catering outlets, bars, and function spaces; its Welcome Week (formerly Orientation Week) at the start of the academic year is one of the largest student festivals in the country. The university’s six residential colleges on or near campus provide catered accommodation with strong intercollegiate sporting and cultural traditions, alongside university-managed apartments and the private rental market.

Getting around. Sydney has an extensive public transport network of trains, buses, light rail, and ferries, and the campus is well served by bus routes and nearby train stations. Many students cycle, and the inner-city location means much of student life is walkable.

Cost of living. Sydney is among Australia’s most expensive cities, and candidates should budget carefully. Major costs include rent (inner-city accommodation commands a premium, with more affordable options further out), food, transport, and — for international students — OSHC. A scholarship stipend is designed to support a modest student lifestyle; many PhD candidates supplement it with limited casual work such as tutoring or demonstrating in undergraduate laboratories, subject to visa conditions and the demands of their research. International students should check the work conditions attached to their student visa.

Research culture beyond the lab. Doctoral life at Sydney includes regular group meetings, school seminars and colloquia, national conferences, and the social life of a large postgraduate cohort. The Faculty of Science’s scale means chemistry candidates routinely interact with physicists, biologists, mathematicians, and engineers — valuable exposure for interdisciplinary careers.

9. Career Outcomes

A PhD in Chemistry from the University of Sydney prepares graduates for careers that demand deep technical expertise, independent problem-solving, and the ability to communicate complex ideas. Common pathways include:

• Academic research: postdoctoral fellowships in Australia or overseas, progressing toward independent research group leadership and university teaching positions. The international visibility of Sydney’s chemistry research — and publications produced during the PhD — supports applications for competitive fellowships.
• Industrial R&D: roles in pharmaceuticals and biotechnology, specialty and fine chemicals, materials and nanotechnology, batteries and clean energy, agriculture and food science, mining and resources, and environmental technology. Sydney-based employers span multinational companies and Australian start-ups, and the school’s industry-linked Drug Discovery Initiative gives medicinal-chemistry graduates direct exposure to industry collaboration.
• Government and national laboratories: research positions with public research organisations and agencies, in areas from defence science to environmental monitoring and standards.
• Science-adjacent professions: intellectual property and patent law (chemistry PhDs are valued in patent attorney training), science policy and regulation, technical consulting, scientific publishing and communication, and secondary or tertiary teaching.
• Data and quantitative roles: graduates with strong computational chemistry or analytical backgrounds often move into data science, modelling, and quantitative analysis roles in finance, consulting, and technology.

The transferable skills developed during the doctorate — designing and managing long-term projects, advanced data analysis, technical writing, presenting to expert audiences, and mentoring junior researchers — are valued well beyond chemistry itself. Candidates are encouraged to use the university’s researcher-development and careers services from the first year, not just at graduation, to build networks and explore options early.

10. Peer Comparison

The University of Sydney’s chemistry PhD competes with strong programs across Australia. All five universities below are research-intensive members of Australia’s Group of Eight. The comparison is qualitative only — strengths below are broad, general characterisations, and prospective candidates should verify current details on each university’s official pages.

How to use this comparison: the right choice depends less on institutional prestige than on supervisor fit. A candidate passionate about catalysis, for example, should weigh the specific catalysis groups at each university; one focused on drug discovery should compare medicinal-chemistry teams and industry links. Practical factors also matter: Sydney and Melbourne offer the largest industry job markets but the highest living costs, while Canberra and Brisbane offer different lifestyle and cost trade-offs. Visit group webpages, read recent papers, and talk to current PhD students before deciding.

11. Tips for a Strong Application

1. Start with the supervisor, not the form. A PhD in chemistry is an apprenticeship. Identify groups whose recent publications genuinely interest you, then make contact months before any deadline. An enthusiastic supervisor is the single biggest factor in a successful application.
2. Personalise every contact. Reference specific papers or projects from the group and explain precisely how your background connects to their work. Generic mass emails are easy to spot and easy to ignore.
3. Show research experience, not just grades. Honours or master’s research projects, publications, conference presentations, and even well-described undergraduate research placements all count. Describe what you did — techniques mastered, problems solved — not just the project’s title.
4. Prepare a focused indicative proposal. Even where only an indicative proposal is required, a clear research question, brief literature context, proposed methods, and expected outcomes signal that you think like a researcher.
5. Choose referees who know your research. A detailed letter from a research supervisor outweighs a vague one from a senior figure. Brief your referees on the program and give them time.
6. Meet English requirements early. Book IELTS, PTE Academic, or TOEFL well in advance; scores take weeks to arrive and test slots fill up. Remember that proof of English is required before an unconditional offer can be issued.
7. Apply for scholarships in the right round. RTP and equivalent scholarship rounds close well before some admission intakes. Missing a scholarship round can mean waiting a full cycle — check the official timeline and work backwards.
8. Highlight transferable skills. Programming, advanced statistics, instrumentation expertise, science communication, and teamwork all strengthen a chemistry application, especially for computational or analytical projects.
9. Be honest about gaps. If your background is in a neighbouring field (biochemistry, materials science, physics), frame it as an asset and show how you will fill chemistry-specific gaps — supervisors value interdisciplinary candidates when the fit is genuine.
10. Proofread everything. Transcripts, CV, proposal, and emails should be error-free and consistently formatted. Attention to detail in an application predicts attention to detail in the lab.

12. Frequently Asked Questions

13. Key Facts

14. Application Checklist

15. Glossary

PhD (Doctor of Philosophy)

The highest university research degree, awarded for an original and significant contribution to knowledge, examined through a doctoral thesis.

Higher Degree by Research (HDR)

The category of postgraduate degrees — including the PhD and the Master of Philosophy — in which research, rather than coursework, is the primary component.

Australian Government Research Training Program (RTP)

Australian Government funding provided to participating universities, which then award RTP scholarships (stipends and fee offsets) to eligible HDR students.

RTP Stipend Scholarship

A competitively awarded living allowance for commencing or enrolled HDR students (domestic and international), with published annual rates plus relocation and thesis allowances.

RTP Fee Offset

Tuition-fee coverage for international HDR students, awarded automatically to RTP Stipend recipients, covering 100% of fees for up to 14 research periods and including OSHC.

Research period

The University of Sydney’s administrative block of HDR enrolment (roughly a semester in length); PhD scholarship tenure runs up to 14 research periods.

Honours

An additional (typically fourth) year of undergraduate study in Australia involving advanced coursework and an independent research thesis; first or upper second class Honours is the standard PhD entry pathway.

Research Supervisor Connect

The University of Sydney’s online tool for searching academic staff by research area to identify potential PhD supervisors.

Principal supervisor

The lead academic responsible for guiding a PhD candidate’s research, supported by auxiliary or associate supervisors with complementary expertise.

Confirmation of candidature

The formal early milestone (usually in the first year) at which the university confirms that the research project is viable and the candidate is progressing satisfactorily.

Thesis examination

The independent assessment of the doctoral thesis (up to 80,000 words), typically by external examiners, whose reports determine whether the degree is awarded.

Overseas Student Health Cover (OSHC)

Health insurance that international students in Australia are generally required to hold; included in the RTP Fee Offset for eligible recipients.

CRICOS

The Commonwealth Register of Institutions and Courses for Overseas Students; the University of Sydney’s CRICOS provider code is 00026A.

16. Official Resources

These official pages are the authoritative sources for current program details, dates, and figures. Verify everything in this guide against them before applying:

• University of Sydney — homepage: https://www.sydney.edu.au/ — the starting point for course search, admissions, and scholarships.
• School of Chemistry: https://www.sydney.edu.au/science/schools/school-of-chemistry.html — research themes, staff and group profiles, and school news.
• Faculty of Science: https://www.sydney.edu.au/science — faculty-level research, scholarships, and HDR information.
• RTP scholarships — International students: https://www.sydney.edu.au/scholarships/australian-government-research-training-program/rtp-international.html — stipend rates, fee offset, eligibility, and application timeline.
• RTP scholarships — Domestic students: https://www.sydney.edu.au/scholarships/australian-government-research-training-program/rtp-domestic.html — stipend, UPA awards, preference criteria, and timeline.
• Doctor of Philosophy (Science) course page: find via the course search on the university homepage — the authoritative source for current admission criteria, English requirements, intakes, and how to apply.