Application deadline ( ).
December 1
Open house events
January-February
Admissions decisions
February-May
Spring (January) admission
Application deadline ( )
September 1
Open house events
September-October
Admissions decisions
November-December
Questions? Please contact : [email protected]
Students interested in pursuing a Ph.D. in the Department of Biology must apply to either the “B.S. to Ph.D. track” or the “Ph.D. program”, with the corresponding prerequisites:
B.S. to Ph.D. track: A bachelor's degree in biology, or a bachelor's degree in some other discipline with at least 12 hours of advanced level coursework (junior or senior level courses) in biology. This is the Ph.D. track designed for students with a B.S and without master’s degree, which tends to be the majority of applicants.
Ph.D. program: This track is for students that already have a master's degree in biology, or at least 30 hours of graduate level coursework in biology. A minimum undergraduate GPA of 3.0 (4.0 scale), as calculated by the Graduate School, is expected. An applicant's GPA in science courses will be taken into consideration. If an applicant has a master's degree, the GPA from their master's degree will also be considered. For applicants with up to 30 hours of graduate coursework but no master's degree, the GPA from those hours will be also be taken into consideration.
GRE: The Graduate Record Exam (GRE) is no longer required for admission.
Application, scores, and transcripts: Your online application will include instructions for uploading transcripts, test scores, and any other required materials.
International students: Students whose native language is not English must provide a score on the Test of Spoken English (TSE) of at least 45, a minimum score of 23 on the Speaking portion of the TOEFL iBT exam or a minimum score of 7 on the Speaking portion of the IELTS exam. See the following website for complete details: https://www.uta.edu/admissions/apply/international-graduate
Letters of recommendation: Three letters of recommendation are required for admission to the program. Ideally one or two letters should come from professors or instructors who can speak to your academic abilities; others may come from employers or other individuals who can comment on your work ethic and potential for graduate study. Letters should be emailed directly from the letter writer to [email protected] . If you have questions regarding letters of recommendation, please email [email protected] and include your UTA ID #, provided within your online application.
Letter of intent: Please email a Letter of Intent to [email protected] and include the following information:
What is the letter of intent used for:
PhD Funding: Ph.D. students are guaranteed 5 years of financial support in the form of Graduate Teaching Assistantships (GTAs), funded by the department, or Graduate Research Assistantships (GRAs), funded by grants to individual faculty members. Many students are supported by a mixture of these two assistantships throughout their PhD. All Ph.D. students enrolled full-time and receiving an assistantship also receive reduced-cost in-state tuition regardless of residence, and a major portion of these tuition costs are supported by the assistantships.
Checking the status of your application: You can check your application and admissions status through the MyMav student portal, where you can also review if you have any missing items needed to complete your application. CHECK YOUR STATUS IN MYMAV . To confirm receipt of letters of recommendation, first check with your recommenders before contacting [email protected] . Please include your UTA ID #, available via MyMav, in any correspondence with the Biology Department.
The UTA Biology Department encompasses numerous laboratories that conduct research on a remarkably broad range of topics, and choosing a lab and research topic can be difficult. About half of entering students join a single lab as a direct admission. The other portion of students decide to rotate in multiple labs their first year. If several labs are of interest to you, consider signing up for lab rotations your first semester. Our lab rotation option allows you to experience multiple labs before making a final decision. However, please be sure to reach out to at least two potential rotation faculty to be sure they are able and interested in taking students for rotation. In your letter of intent (see How To Apply above), inform the Biology Department which labs are of interest to you (list up to three labs), and note which faculty have agreed to host you as a lab rotation student if you are accepted.
The Biology Graduate Handbook is currently under revision. Up-to-date information regarding the PhD in Biology is available in the UTA Graduate Catalog . Questions regarding the Biology graduate program should be emailed to [email protected] .
Location : Life Sciences Building, Room 337, 501 S. Nedderman Dr., Arlington, TX 76019 Mailing address : P.O. Box 19498 Phone : 817-272-2872
The main objective of the Computational Biology PhD is to train the next generation of scientists who are both passionate about exploring the interface of computation and biology, and committed to functioning at a high level in both computational and biological fields.
The program emphasizes multidisciplinary competency, interdisciplinary collaboration, and transdisciplinary research, and offers an integrated and customizable curriculum that consists of two semesters of didactic course work tailored to each student’s background and interests, research rotations with faculty mentors spanning computational biology’s core disciplines, and dissertation research jointly supervised by computational and biological faculty mentors.
The Computational Biology Graduate Group facilitates student immersion into UC Berkeley’s vibrant computational biology research community. Currently, the Group includes over 46 faculty from across 14 departments of the College of Letters and Science, the College of Engineering, the College of Natural Resources, and the School of Public Health. Many of these faculty are available as potential dissertation research advisors for Computational Biology PhD students, with more available for participation on doctoral committees.
School of Dentistry
The PhD in Oral Biology emphasizes basic science research and training to develop independent investigators.
The four-year PhD in Oral Biology encourages students to focus in one of five areas: biomaterials and biomechanics, epithelial biology and carcinogenesis, microbiology and immunology, sensory neuroscience or bone biology, craniofacial development and tissue engineering.
The program is designed to ensure that graduates will develop the capability to initiate independent research programs in important areas of oral biology. Most students execute projects that advance mechanistic understanding.
Joining the program.
We welcome a diverse pool of applicants, including international students.
Applicants must possess a bachelor's degree or equivalent, or a DDS/DMD degree or equivalent (international dental degrees (BDS, etc.) are acceptable).
PhD applications are due December 1 for the program beginning the following fall. Applicants are not admitted during the spring semester.
Applications must be completed online and should include a personal statement, a research essay, a diversity statement, CV or resume, proof of English language proficiency, letters of recommendation and transcripts.
Application Instructions
Subject | Description |
---|---|
Test scores | GRE is not required. |
Transcripts | Unofficial transcripts are allowed for application. Official transcripts required for matriculation. |
CV/Resume | Applicants must submit their resume or CV. |
Supplemental application | No supplemental application is required. |
Dental licensing | N/A |
Degree | Must hold a bachelor's degree or equivalent, or a DDS/DMD degree or equivalent (international dental degrees (BDS, etc.) are acceptable). |
Additional requirements | Applicants must submit a personal statement, research essay, diversity statement and three letters of recommendation. |
International applicants | We welcome international applicants. Applicants may need to demonstrate English language proficiency through testing or coursework. |
The first year of the PhD program consists primarily of coursework. Students select courses with their advisor's approval from a core curriculum recommended by the Graduate Faculty for each area and their minor program. The core curriculum provides students with a working knowledge of the major concepts and research paradigms in that scientific area, a working vocabulary and the basis for continued learning.
In the second year, students complete all coursework and the written and oral preliminary exams. The written and oral exams capture the student’s ability to think critically about the field and the application of logical experimental designs to test hypotheses and answer questions. Upon completion of this two-part preliminary examination of the research proposal, the student will work largely on the dissertation research project through month 45 in residence.
Months 45 through 48 will be used for dissertation writing. Students must also present a public seminar describing their dissertation research (which is attended by the final oral exam committee) no later than six months before defense of the thesis. The dissertation will be defended in another public seminar in month 48.
The International Max Planck Research School for Molecules of Life (IMPRS-ML) offers fully funded PhD student positions (m/f/d) in the areas of biochemistry, structural biology, biophysics, cell biology, systems biology, and computational biology . We are looking for outstanding graduates from all over the world to join our network of passionate young scientists in Munich.
The strongest asset of our graduate program is our dynamic and international research community. IMPRS-ML brings together two renowned Max Planck Institutes, the MPI of Biochemistry and the MPI for Biological Intelligence, as well as two leading partner universities, the LMU and TUM, to deliver first-class training for the world’s most promising young scientists.
At IMPRS-ML, we are dedicated to pushing the boundaries of knowledge. Our research groups focus on exploring the structure, function, and dynamics of biomolecules. They investigate how and where these molecules interact in biological systems to generate appropriate responses to environmental cues.
More than 30 distinguished and internationally recognized group leaders actively participate in the PhD program and offer challenging and cutting-edge research projects in the following areas:
IMPRS-ML– a structured PhD program for future leaders in science
IMPRS-ML provides comprehensive scientific training in a superb and vibrant research environment with state-of-the-art facilities to students aiming for a successful career in science. Our doctoral researchers work within international teams of scientists in an interdisciplinary setting with extensive access to expertise and support. Seminars, summer schools, elective courses, career development training and participation in international conferences supplement laboratory work.
We invite highly qualified candidates with a strong commitment to basic science to apply.
Applicants should hold an MSc (or equivalent degree) with a strong background in biological sciences, biochemistry, biophysics, biotechnology or a related discipline. Outstanding candidates with a first-class BSc degree (or equivalent degree) are eligible to apply for the fast-track option.
For more information, eligibility criteria and online application please visit our website .
Online applications open: 01.09.2024
Application deadline: 13.10.2024
Accepted candidates may start research projects between March and October 2025.
Max Planck Institute of Biochemistry Am Klopferspitz 18 82152 Martinsried Germany
Phone: +49 89 8578-1
Sep 12, 2024
Steffaney Wood is a fifth-year PhD student researching marine chemical biology at Scripps Institution of Oceanography at UC San Diego. She grew up primarily in San Clemente, Calif., and Silver Spring, Md. Wood received a bachelor's degree in environmental studies with a minor in chemistry from Davidson College in North Carolina. While earning her bachelor’s, Wood worked with NOAA Northwest Fisheries Science Center as a NOAA Hollings Scholar researching the prevalence of harmful algal blooms, or HABs, along the U.S. West Coast. Upon graduating, Wood received a U.S. Fulbright Student Program grant to research cyanobacteria HABs in the northern Baltic Sea at the Finnish Environment Institute (SYKE) Marine Research Centre in Helsinki, Finland. During this time, Wood earned a master's degree in microbiology and microbial biotechnology from the University of Helsinki. Wood is currently advised by Scripps marine biologists Bradley Moore and Andrew Allen . Wood is also a recipient of the Rita L. Atkinson Fellowship and a two-time recipient of the UC San Diego Brython Davis Endowed Fellowship .
explorations now (en): Why did you choose to attend Scripps?
Steffaney Wood (SW): I chose Scripps because I was inspired by a discovery made by researchers in the Bradley Moore and Andrew Allen lab groups. The researchers discovered domoic acid biosynthesis , which is produced during harmful algal bloom (HAB) events by Pseudo-nitzschia, which is a type of algae. After studying Pseudo-nitzschia blooms as an undergraduate, I was amazed by the Scripps scientists’ work. I met the study’s lead authors at the International Conference on Harmful Algae in Nantes, France, and after our conversation, I knew I wanted to join the project. I wanted to learn the skills necessary to explain biosynthetic pathways, or the production of a chemical compound by a living organism, of HAB toxins to answer how and why phytoplankton produce these toxins.
en: What are you researching at Scripps?
SW: I study how specific photosynthetic ocean microbes, or single-celled algae and bacteria, produce a neurotoxin, which is a substance that can damage the nervous system. Specifically, I focus on HABs of Pseudo-nitzschia, which produce the potent neurotoxin domoic acid. These blooms are dangerous because domoic acid can contaminate shellfish, poison marine mammals and seabirds, and threaten human health. Acute domoic acid intoxication can cause neurotoxic symptoms and death in marine life and amnesic shellfish poisoning in humans. My research explores the environmental and genetic factors influencing domoic acid production during Pseudo-nitzschia blooms and the evolution of domoic acid biosynthesis across diatom genera and species.
en: How did you become interested in science and your field of study?
SW: Growing up in Southern California, I have been fascinated by the ocean since I was young. I remember collecting my first phytoplankton sample at a marine science summer camp and being mesmerized by the invisible microbes in the ocean water. In college, my interest shifted to environmental health, particularly the relationship between ocean and human health. This led to an internship in Vera Trainer’s lab at the NOAA Northwest Fisheries Science Center in Seattle, Washington, where I studied Pseudo-nitzschia blooms along the U.S. West Coast. This experience propelled me into a career in marine biology research.
en: What’s life like as a Scripps student? Describe a typical day.
SW: In the morning before starting lab work, I like to go for a beach run along La Jolla Shores or paddle board if the conditions are calm! I have spent the majority of my PhD culturing phytoplankton in the lab. On my weekly culturing days, I go to the lab and make media — the solution with nutrients necessary to grow a microorganism — using amended natural seawater pumped from Scripps Pier. Next, I check the health of my cultures under the microscope and transfer a small amount of my existing culture to a new flask with fresh media. This process is like transferring a plant to a new pot with fresh soil.
en: What’s the most exciting thing about your work (in the field or in the lab)?
SW: The most exciting part of my work has been conducting fieldwork during an active, toxic Pseudo-nitzschia bloom. In the spring of 2023, we sampled a developing Pseudo-nitzschia bloom in Monterey Bay in collaboration with the Monterey Bay Aquarium Research Institute (MBARI) and many others. We also sampled a major domoic acid event in the Santa Barbara Channel last summer, which caused many California sea lion strandings to make national news. Fieldwork is always a pleasant reminder of why I love what I do, and during a toxic bloom, I'm reminded of how important research is. I’m excited to share the results of this fieldwork soon!
en: Are there any role models or mentors who have helped you along the way?
SW: I am grateful to many mentors who have guided me along the way. I want to thank Vera Trainer, David Backus, Sanna Suikkanen, and Anke Kremp for fostering my interest in research and marine biology. I am deeply appreciative of Bradley Moore, Andrew Allen, Scripps postdoctoral scholar Vikram Shende , and Scripps biological oceanographer Clarissa Anderson for their support during my PhD here at Scripps.
en: What are some of the challenges you face as a student?
SW: As a PhD student, balancing research and life outside the lab can be challenging. Additionally, managing multidisciplinary projects across different labs at Scripps and collaborating with various other researchers adds complexity. However, I’m grateful for the diverse skills I’m acquiring during my PhD, as I believe they will be valuable in addressing environmental challenges in my future career.
en: What are your plans post-Scripps?
SW: I hope to work at the intersection of research and environmental management, applying the skills I’ve learned at Scripps.
You can find Wood on X @steffwould .
Summer fellowship program immerses students in diverse scientific research, scripps student spotlight: raymond leibensperger iii, charting change from coral reefs to climate science, sign up for explorations now.
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PhD students can face many challenges, such as a lack of confidence in their newly acquired skills or the uncertainty about which career path to choose. We highlight some ways to empower students in their doctoral journey.
The overall development of PhD students during their doctoral studies is important for their personal and professional growth, as well as for the success of their project. However, they are often encouraged to focus on their research project, with other aspects of academic and professional training receiving less attention. As a result, many students face difficulties in moving forward after finishing their doctoral studies. Thus, a well-rounded approach is necessary to empower PhD students with the abilities to confidently choose their career path.
A lack of research autonomy can stifle creativity and hold PhD students back in their development. By granting them control over certain aspects of their research — for example, by allowing them to steer parts of their projects or by encouraging independent exploration within the broader scope of their work — students will learn to become more self-reliant researchers.
Supervisors can further promote their students’ independence by encouraging them to propose their own hypotheses or conduct additional simulations or laboratory-based experiments. In this way, PhD students learn how to develop a research problem and how to tackle it — an invaluable skill not just in academia but in all walks of life.
In addition to conducting research, students must also learn to communicate their findings and develop presentation skills. Universities can facilitate training programmes on soft skills, such as writing research articles and presenting research to a broader audience. This will enhance students' ability to convey their ideas with confidence. It is particularly important when they present posters or give oral presentations in larger forums, such as conferences or seminars, or when they engage with their peers in the research field.
Networking is a vital component of a successful academic and professional career. It allows students to find collaborators, seek advice, and discover new research and job opportunities. However, many PhD students struggle to build and maintain professional relationships, often because of a lack of guidance on how to approach networking effectively. It is not uncommon for PhD students to be unaware of the research activities of their colleagues, whether from other departments or even the same department.
Institutions can help in this regard by organizing frequent workshops or seminars in which students can engage with peers and experts in their field. Conferences and summer schools also offer invaluable networking opportunities, while commonly providing students with the chance to present their research, which in turn enhances their presentation skills. Universities should actively support their students' participation in such events through travel grants. In addition, organizers of conferences and schools should also provide funding opportunities, especially for PhD students from developing countries where principal investigators may not have enough resources to support their students’ travel.
Another crucial aspect of a PhD student’s journey is the process of publishing their work. However, many students feel ill-equipped to handle the steps of academic publishing. They often rely on their supervisors to lead the process, which can leave them unprepared for the demands of publishing as they transition to more independent roles.
To address this, supervisors should actively involve students in every step of the publication process, from the discussion of a suitable target journal to the writing of a manuscript’s first draft and cover letter, to the actual submission and preparation of the response to reviewers' comments. Although this may require additional back-and-forth, it is an invaluable learning experience that prepares the students for future academic challenges and enhances the quality of their research output. These skills are also transferable and will undoubtedly benefit students in any future career path, whether in academia, industry or other sectors.
Uncertainty about future career paths is a common concern among PhD students. Many are unsure whether to pursue research positions or explore opportunities outside academia. Unfortunately, students often lack access to adequate career training, which hinders their ability to prepare for future employment. For example, many students don’t know how to tailor CVs for future employment options or are unsure for which non-academic positions their skills make them suitable applicants.
By facilitating career-oriented workshops, seminars and mentoring programmes, institutions could help guide PhD students on their career path. For example, students would benefit from the interaction with alumni, sharing their career stories. Career counselling and interactions with industry panels can provide insights into possible career choices, helping students understand the range of opportunities available to them. Additionally, workshops on CV writing, interview preparation, and transferable skills, such as project management and data analysis, can boost students' confidence in their abilities and prepare them for diverse career options.
Although the majority of the suggestions discussed above are well known within the academic community, they have not always been given the attention they deserve. By providing the necessary tools and opportunities to PhD students, we can tap their full potential and put them in a better position to contribute to the advancement of knowledge, to drive innovation and to make meaningful contributions to society.
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