# NIH Biosketch Template for Grant Applications By the end of this guide you will be able to build a compliant NIH biosketch from scratch, fill every section with content that reviewers actually read, generate the finished document with the free federal tool built for this purpose, and run a final check before your grant application goes in. You will also know which parts of the biosketch applicants most often leave out, and how to fix them. Before you start, put these items on hand: - A My NCBI account (free, from the National Center for Biotechnology Information) - An ORCID iD (a free, persistent researcher identifier) linked to your My NCBI profile - A My Bibliography collection in My NCBI populated with your publications - The funding opportunity announcement (FOA) for the grant you are targeting - The current official NIH biosketch form page, downloaded from the NIH grant forms website - A draft list of your five strongest contributions to science If you have never used SciENcv, the Science Experts Network Curriculum Vitae tool, plan about two hours for the first build. After that, updates take minutes because the tool pulls your publications and positions directly from your linked accounts. ## What the NIH Biosketch Is and Where It Fits in Grant Proposal Planning The NIH biosketch is a short, structured biography that every named key person on an NIH grant application must submit. It replaces the full academic CV in the application package. Reviewers use it to answer three questions: who are you, why are you the right person for this project, and what have you already accomplished that predicts success. The biosketch matters more than its length suggests. A CV can run dozens of pages and lists everything you have done. The NIH biosketch format forces selection. You choose a handful of contributions, describe why they matter, and connect them to the specific project in the application. That act of selection and argument is a core skill in grant proposal planning, and it is the same skill you will use in the project narrative, the specific aims, and the resource plan. Templates do real intellectual work here, not just formatting work. Research on requirements documentation in engineering shows that when a template encodes the questions the reader will ask, the author's job changes from inventing structure to filling intent, which simplifies and speeds up the whole document [1]. The biosketch template works the same way. Section headings, page limits, and the reference rules are the reviewers' questions written down. Your job is to answer them in order. The personal statement and the contributions to science are the two narrative sections where applicants gain or lose the most ground. A commentary in PLoS Pathogens on omissions from the NIH biosketch focuses attention on exactly this problem, that applicants frequently leave out the material reviewers need most, particularly material connecting their experience to the proposed project [2]. The sections below show how to close those gaps. ## The NIH Biosketch Format at a Glance The current NIH biosketch format has four lettered sections and a five-page limit for the entire document, including all sections and the publications you cite within it. The page limit is the single hardest constraint for most applicants, so treat every line as a budget. | Section | What goes in it | Practical guidance | |--|--|--| | A. Personal Statement | Why your experience and qualifications fit the specific role in this application | Tailor to each FOA, name the project, stay within a few paragraphs | | B. Positions, Scientific Appointments, and Honors | Employment history, appointments, honors | Compress older entries, keep the most recent and most relevant | | C. Contribution to Science | Up to five contributions, each with a short description and up to four cited publications | Lead each entry with a one-sentence takeaway, write for a broad reviewer | | D. Additional Information: Research Support and/or Scholastic Performance | Ongoing and completed research support from the last three years that overlaps with this application, or scholastic performance for early-stage investigators | List only projects relevant to the application, include your role and percent effort | Three structural rules catch people off guard: 1. The five-page limit covers the whole biosketch, not each section. A five-contribution section C with four references each can consume the entire document, which is why most funded applicants use fewer contributions described more fully. 2. Publications cited inside the biosketch do not count against other application page limits, but they must fit inside the biosketch's own five pages as formatted citations. 3. Research support in Section D should include ongoing and recently completed projects that overlap with the proposed work, with your role on each. A complete grant history is a CV problem, not a biosketch problem. ## Step-by-Step: Building Your Biosketch with the Free NIH Template Tools ![Three step flow comparing the SciENcv route with the manual Word form route and the shared final PDF check.](/article-images/illustrations/biosketch-template-nih-build-routes.webp) There are two routes to a finished biosketch. Route one is SciENcv, the free biosketch template NIH provides through NCBI, which generates a compliant PDF automatically. Route two is the official Word or PDF form page, which you fill manually. SciENcv is the better default because it eliminates formatting errors and keeps your publication list synchronized with My Bibliography. Both routes produce a document in the same NIH biosketch format. ### Step 1. Link your accounts Log in to My NCBI, go to SciENcv, and connect your ORCID iD and your NCBI My Bibliography. SciENcv imports your positions, education, and publications from these linked sources. If your ORCID record is thin, spend twenty minutes filling in your employment history and education first, because the tool can only import what exists there. ### Step 2. Create a new biosketch and choose the source In SciENcv, select "New Document," choose "NIH Biosketch," and pick an external source such as ORCID or an existing SciENcv document as the starting point. The expected output is a draft document with sections A through D already framed in the official NIH headings and a delegation of your imported positions in Section B. ### Step 3. Write the personal statement into Section A Paste or type your tailored statement. Keep it to three or four paragraphs. A worked example, written for a hypothetical early-career investigator applying to study antibiotic resistance: > I am a microbiologist with eight years of experience in bacterial genomics and antimicrobial resistance surveillance. My doctoral work mapped the spread of carbapenemase genes across regional hospital networks, and my postdoctoral work developed rapid whole-genome sequencing workflows that reduced typing time from days to hours. The proposed project applies these methods to wastewater surveillance, a setting where my experience with low-biomass sample preparation and fragment assembly directly addresses the technical risks identified in this application. I will lead Aim 2 and co-lead the data integration aim with Dr. [Name], with whom I published two collaborative methods papers. Notice what this example does. It names the project, it names specific aims, it names a role, and it explains why prior experience de-risks the proposed work. Every sentence has a job. This is the discipline that separates a biosketch from a biography. ### Step 4. Write Section C, contributions to science For each contribution, write a one-sentence heading, a short paragraph, and cite up to four papers. A worked example: > 1. Rapid genomic typing of hospital-associated pathogens. I led the development of a sequencing and analysis pipeline that cut pathogen typing from several days to under eight hours, and demonstrated its use in two hospital networks. The pipeline is now used by three regional public health laboratories. (Cited: four papers) ### Step 5. Complete Sections B and D Review the imported positions in Section B and delete entries that predate your scientific career unless they add something a reviewer needs. In Section D, list ongoing and recently completed research support relevant to this application. For each entry, include the funding source, the project period, your role, and percent effort. Early-stage investigators without major grant history can use Section D to present scholastic performance instead, which the current format accommodates. ### Step 6. Generate and download the PDF In SciENcv, click "Create PDF." The expected output is a formatted PDF with the NIH header block at the top, your sections in order, and the total length within five pages. SciENcv output is accepted by NIH electronic submission systems without modification. ### Step 7. Run the manual check Even with generated output, verify these items yourself: - Total page count is five or fewer - The personal statement names the FOA or the project - Every contribution in Section C has a heading, a narrative, and no more than four cited papers - Section D lists ongoing support with roles and percent effort - The document version matches the forms version required by the FOA ## Writing Section A, the Personal Statement The personal statement is the one section of the biosketch that must change with every application. A generic statement copied between applications is one of the most common omissions the biosketch literature flags, and it is the omission reviewers notice fastest [2]. The most reliable way to write this section is to treat it as a structured narrative rather than free prose. Work on narrative support for technical documents shows that a predefined narrative structure, paired with prompting questions about what each part must accomplish, helps authors produce coherent text instead of staring at a blank page [3]. Apply that idea directly. Ask yourself the questions the structure implies and answer them in order: 1. What is this specific project asking me to do? 2. Which parts of my training and track record map onto those demands? 3. What will my role be, on which aims, and with whom? 4. What risk in this project does my experience specifically reduce? One additional habit strengthens drafting across your whole application. Research on implementation facilitators found that short, templated reflective writing after each work session helped professionals consolidate what they had learned and improve their effectiveness over time [4]. A five-minute reflection after each drafting session, noting what you struggled to explain and what a reader would question, produces concrete edits for the next pass. This habit costs minutes and reliably improves the statement's specificity. ## Writing Section C, Contributions to Science Section C is where senior applicants win or lose the most. Reviewers are often generalists, so each contribution should be readable by a scientist outside your subfield. The pattern that works is the same for everyone: 1. A one-sentence heading that states the accomplishment in plain language 2. Two to four sentences on the problem, your specific role, and the outcome 3. Up to four selected publications, chosen to prove the claim, not to pad the count Choose four or five contributions rather than the maximum five if your record supports fewer well-developed entries. A tight four beats a padded five, because the page budget you save goes back into Section A and Section D, which carry the application-specific argument. If you struggle to describe your own work plainly, borrow a technique from collaborative drafting research. Systems designed for multi-author documents highlight which edits are significant and which parts of a paper are likely to need revision after a change upstream. You can imitate this manually. Ask a colleague from a different subfield to mark every sentence in Section C where they lost the thread. Those marks are your revision list. Field studies of collaborative writing show that the coordination around a document, not the document itself, is what makes joint revision hard, so set a single scheduled pass with one colleague rather than open-ended shared editing [5]. ## Revising with Mentors and Co-Investigators Most biosketches improve through one or two rounds of outside review, and the practical challenge is coordinating that review. Shared cloud documents are the standard tool. Studies of collaborative writing in shared documents report gains in enthusiasm, digital literacy, and writing skill alongside familiar difficulties with connectivity, device availability, and uneven participant ability [6]. The biosketch context is simpler than a classroom, and the lessons still transfer: use a single shared draft, one designated editor at a time, and a fixed deadline for each pass. For predoctoral and postdoctoral trainees, structured mentoring relationships measurably change outcomes. A decade-long program of one-on-one [grant writing](/knowledge/molecular-biology/grant-writing) partnerships for nursing trainees combined regular meetings, milestone timelines, writing and editing support, and attention to administrative documents. Among participants, 81.0 percent of submitted applications received funding, compared with 42.1 percent among comparable nonparticipants [7]. If your institution runs any structured grant development program, use it for the whole application, and bring the biosketch to your first meeting because it is the fastest document for a mentor to critique and the one that reveals positioning problems earliest. ## Using AI Writing Tools Without Risking Your Application ![Decision path asking whether text is already drafted and whether citations can be verified, ending in a safe polish or a stop.](/article-images/illustrations/biosketch-template-nih-ai-use-check.webp) AI-assisted tools can help you polish the biosketch, and they can also create problems if you treat them as a ghostwriter. Survey-based research on AI writing assistance among university learners found positive effects on writing accuracy and syntactic complexity, driven largely by personalized feedback and self-directed revision [8]. That makes grammar and clarity checking a reasonable use of these tools on your drafted text. The risks are equally documented. A review of AI adoption in academic writing at universities identifies plagiarism and misinformation as the leading challenges institutions face [9]. For a biosketch, the concrete risks are invented publication titles, distorted descriptions of your role on a paper, and generated claims about collaborations that never happened. Every fact in the biosketch, including every citation, every funding source, and every role, must be verifiable against your own records, because reviewers and NIH staff can and do check them. A safe workflow looks like this: 1. Draft every sentence yourself, from your own records 2. Use AI tools only for grammar, clarity, and concision on text that already exists 3. Verify every citation against the published record before submission 4. Never paste unpublished portions of the grant application into external AI services if your institution or the FOA restricts it ## How to Check Your Biosketch Before You Submit Run this check in order, and fix problems at the top of the list first because they are the ones that make an application noncompliant. 1. **Format compliance.** The document uses the current NIH form version named in the FOA. An outdated template version is a correctable-but-embarrassing error that delays your application. 2. **Page limit.** Five pages or fewer for the entire document. In SciENcv the generated PDF enforces this for you. In a manual Word build, check after every edit. 3. **Tailoring.** Section A names this project and this FOA. If you could submit the statement with any application, rewrite it. 4. **Contribution quality.** Every Section C entry leads with a plain-language heading and cites at most four papers. 5. **Research support accuracy.** Section D lists ongoing and recently completed overlapping projects with roles and percent effort, and matches the other support pages in the rest of the application. Inconsistencies between the biosketch and other components raise reviewer questions. 6. **Citation accuracy.** Every cited paper exists, lists you as an author where claimed, and is formatted per the NIH instructions. 7. **Freshness.** The document reflects your current position, current honors, and current support. A useful final test is to hand the biosketch to a colleague who does not know your work and ask them to state your proposed role on this project after ninety seconds of reading. If they cannot, Section A needs another pass. ## Common Mistakes and Limitations These are the errors that appear most often, in rough order of frequency: - **Submitting a CV, not a biosketch.** An exhaustive publication list squeezed into Section C with no narrative wastes your strongest section. Reviewers want the argument, not the archive. - **Reusing the personal statement across applications.** Section A must reference the specific project. A generic statement signals a generic application. - **Ignoring the five-page budget.** Long Section C entries crowd out the application-specific material in Sections A and D. - **Citing papers that do not support the claim.** Each cited publication in Section C should back the specific contribution described. Four precisely relevant papers beat four loosely related ones. - **Omitting overlapping research support.** If you are listed on another active grant in the same scientific area, reviewers expect to see it in Section D with your role. Omission reads as concealment. - **Writing contributions only a specialist can parse.** Reviewers for your application may not be in your subfield. Define jargon on first use and state significance in plain terms. - **Trust generated content.** As noted above, AI tools can fabricate citations and inflate roles. Every factual claim must trace to your own records. - **Treating the biosketch as a formality.** The biosketch is part of the reviewer's first impression of the investigative team, alongside the project narrative itself. One honest limitation of this guide applies to every application. NIH requirements and form versions change, and the FOA for your specific mechanism governs over any general guidance, including this article. Always download the current form page from the official NIH grant forms site and read the FOA instructions for your mechanism before finalizing. ## Building Long-Term Skill in Grant Proposal Planning The biosketch is a one-hour task inside a months-long project. Two findings from the writing research literature point to how applicants get better over the long run. First, structured instruction with deliberate practice transfers. A one-year study of an English for Specific Academic Purposes course followed engineering students and found strong transfer of writing outcomes into their discipline-specific coursework, supporting the idea that such courses can be taught for transfer [10]. A research grant writing course that makes you draft, defend, and revise real proposal components, biosketch included, produces skills that carry into every later application. If your institution offers one, take it before your first submission rather than after. Second, mentorship compounds. The nursing trainee partnership program described above ran for ten years and paired structured milestones with hands-on editing support, and its participants' funding rates reflected that investment [7]. The lesson for individual applicants is to seek the same four elements in any mentoring relationship: regular meetings, a milestone timeline, direct editing help, and someone who owns the administrative documents with you. Finally, close the loop after each submission. The reflective writing practice described earlier helped professionals turn each work cycle into documented learning [4]. After every review cycle, whether the application is funded or not, write down what reviewers said about you and your team specifically. Those notes become the seed of your next biosketch revision, and the next one after that. ## Frequently Asked Questions ### What is an NIH biosketch? It is a short, structured biography, limited to five pages, that every key person on an NIH grant application must submit in place of a full CV. It contains four sections covering your personal statement, positions and honors, contributions to science, and research support. ### Where can I find a free biosketch template NIH format? The official form page is on the NIH grant forms website, and the free SciENcv tool from NCBI generates a compliant document automatically. SciENcv is the better option because it imports your publications and positions and produces a submission-ready PDF. ### What is the page limit for the NIH biosketch? Five pages for the entire document, including all sections and the publications cited within it. There is no per-section allowance, so you must budget pages across the four sections yourself. ### How many contributions to science can I include? Up to five, and each one may cite up to four publications. Most strong applicants describe four or five contributions well rather than maximizing the count at the cost of depth. ### How is the biosketch different from my CV? A CV lists everything chronologically, while the biosketch is selective and argumentative. It asks you to choose the contributions and experiences that fit the specific project and to explain why they qualify you for the proposed role. ### Do I need SciENcv, or can I use a Word document? Either is accepted, as long as the finished document matches the current NIH format exactly. SciENcv removes the formatting risk and keeps your publication list synchronized with My Bibliography, which is why most applicants use it. ### How often should I update my biosketch? Update it before every new application, because Section A must be tailored to each funding opportunity and Section D must reflect your current support. A quarterly check of your linked ORCID and My Bibliography records keeps the rest current with almost no effort. ### Do early-career scientists fill out the same sections? Yes, the same four sections apply. Section D allows early-stage investigators to present scholastic performance in place of an extensive grant history, so use that flexibility if your funding record is still building. ## Sources 1. [Generating Requirements Documents for Embedded Systems: A Device Knowledge-Guided Approach](https://doi.org/10.1109/REW61692.2024.00032) 2. [Omissions from a National Institute of Health (NIH) biosketch.](https://pubmed.ncbi.nlm.nih.gov/29746562/) 3. [Narrative Support for Technical Documents: Formalising Rhetorical Structure Theory](https://www.semanticscholar.org/paper/4ffd2c2b242eed8e0f36fb9df9013c3f2de3f7ad) 4. [Reflective writing: a tool to support continuous learning and improved effectiveness in implementation facilitators](https://pubmed.ncbi.nlm.nih.gov/34479654/) 5. [Collaborative Writing Is Hard to Support: A Field Study of Collaborative Writing](https://doi.org/10.1023/A:1008636321493) 6. [Collaborative Writing Using Google Docs in an EFL Classroom: Voices from High School Students](https://doi.org/10.29408/veles.v5i2.3863) 7. [A 10-year examination of a one-on-one grant writing partnership for nursing pre- and post-doctoral trainees.](https://pubmed.ncbi.nlm.nih.gov/35430054/) 8. [Enhancing Writing Accuracy and Complexity through AI-Assisted Tools among Moroccan EFL University Learners](https://doi.org/10.36892/ijlts.v5i4.529) 9. [Artificial Intelligence in Academic Writing and Research Skills in Kenyan Universities: Opportunities and Challenges](https://doi.org/10.1080/18146627.2024.2440351) 10. [An investigation into the learning transfer of English for specific Academic Purposes (ESAP) writing skills of students in Singapore](https://doi.org/10.1016/j.jeap.2020.100908)