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Significance and positioning

Last updated: 2026-10-20

“Significance” in scientific writing is two distinct things that share a word. The first is rhetorical positioning: how the author frames why the work matters, why now, and to whom. The second is review-criterion significance: the specific question NIH or NSF reviewers are scored against, distinct from rigor, innovation, and approach. A manuscript or grant succeeds when its rhetorical positioning lands on the same point the applicable review criterion measures — and fails, often invisibly, when the two diverge.

The empirical literature on what reviewers actually weight is thinner than the volume of advice on the topic suggests. Tahamtan et al.’s 2016 review of citation predictors [1] is the cleanest synthesis we have, and points to a small number of consistently strong factors (paper quality, journal impact factor, number of authors, international collaboration, field visibility) with much of the rest of the literature being noisy. Empirical work on peer review (Teplitskiy et al. PNAS 2022 on novelty [2]) finds that novelty, measured from reference-list combinations, predicts acceptance, and that conventionality predicts it too. Editors select for novelty even after accounting for reviewers’ recommendations.

For scriptorium, the practical implication is that the positioning section of a manuscript or grant (the abstract, the significance statement, the specific aims page, the closing paragraph of the introduction) is where the highest-leverage editorial work happens. reviewer-simulation (current) and a future positioning-audit skill should focus disproportionate attention here.

Two 2025–2026 developments sharpen this. For NIH applications, the 2025 scoring guidance tells reviewers that the Importance factor (Significance + Innovation) sets a ceiling on the overall impact score [12]. Positioning is now the limiting factor on a grant’s score, not one input among several. Second, a 2026 PNAS study of NIH and NSF proposals found that heavier LLM involvement is associated with lower semantic distinctiveness, with proposals positioned closer to recently funded work [15]. A writing tool that helps with positioning can push toward sameness, which is the opposite of what positioning is for.

Day & Gastel: the classic procedural guide

Section titled “Day & Gastel: the classic procedural guide”

Robert A. Day and Barbara Gastel’s How to Write and Publish a Scientific Paper, 8th edition (Greenwood, 2016; Cambridge University Press paperback, 2017; ISBN-13 978-1-4408-4280-1; Cambridge ISBN 978-1-316-64043-2) [3] is the longest-running general-purpose manual for scientific publishing. Day’s original 1979 edition has been continuously updated; Gastel joined as coauthor for recent editions and is now first author. The book is practical and procedural — title construction, abstract craft, author-instructions reading, response-to-reviewers — rather than theoretical. It is the default text in many graduate-level scientific writing courses outside biomedicine.

Day & Gastel’s framing of significance is conservative: state the problem, state what you did, state what is new, state why it matters, in roughly that order. The book does not propose a structural framework on the order of OCAR (narrative-frameworks) but it disciplines authors on the small craft moves (title weight-bearing, abstract structure, methods-as-recipe) that determine whether positioning lands.

Mewburn and the Thesis Whisperer tradition

Section titled “Mewburn and the Thesis Whisperer tradition”

Inger Mewburn, Director of Research Training at the Australian National University, has written extensively under the “Thesis Whisperer” brand (thesiswhisperer.com) on academic positioning, particularly for graduate students and early-career researchers. The relevant book-length treatment is How to Be an Academic: The Thesis Whisperer Reveals All (NewSouth Publishing, 2017; ISBN-13 978-1-74223-507-3) [4].

Mewburn’s contribution is sociological more than rhetorical: she frames academic writing as a positioning practice within a community of practice, where the writer is making claims not just about the work but about their membership in a field. The Mewburn–Thomson 2013 paper on why academics blog (Studies in Higher Education 38(8):1105–1119) [9] is part of this lineage.

The practical takeaway for a writing system: significance claims read differently depending on the writer’s apparent positioning. A junior author claiming “first demonstration” carries less weight than the same claim from a senior author at a high-prestige institution. This is neither fair nor avoidable; the editorial response is to make the evidence for the claim do more work and rely less on author authority.

What predicts citation impact (Tahamtan et al. 2016)

Section titled “What predicts citation impact (Tahamtan et al. 2016)”

Tahamtan I, Safipour Afshar A, Ahamdzadeh K. Factors affecting number of citations: a comprehensive review of the literature. Scientometrics. 2016;107(3):1195–1225. DOI: 10.1007/s11192-016-1889-2. [1]

This review synthesized 198 empirical studies on what predicts citation counts. The three categories of factors:

  1. Paper-related — quality, novelty/originality of subject, field characteristics, study type (review > original > letter), length, abstract characteristics, title characteristics.
  2. Journal-related — impact factor, accessibility (open access), indexing, language (English dominant).
  3. Author-related — number of authors, international collaboration, author seniority/h-index, institutional reputation.

The most consistent findings across studies: paper quality and journal impact factor dominate; international collaboration and number of authors contribute modestly; author demographics (age, gender, race) have weak and inconsistent effects.

For editorial work, the actionable factors are: title clarity and informativeness, abstract structure, choice of journal, and the inclusion of a clear methodological signal in the abstract. The non-actionable factors (institutional prestige, author seniority) bound the realistic ceiling of editorial improvement.

Wang J, Veugelers R, Stephan P. Bias against novelty in science: A cautionary tale for users of bibliometric indicators. Research Policy. 2017;46(8):1416–1436. DOI: 10.1016/j.respol.2017.06.006. [5]

More directly germane:

Teplitskiy M, Peng H, Blasco A, Lakhani KR. Is novel research worth doing? Evidence from peer review at 49 journals. PNAS. 2022;119(47):e2118046119. DOI: 10.1073/pnas.2118046119. PMID: 36395142. [2]

This study used 20,538 manuscripts submitted to Cell and Cell Reports (2013–2018) and 6,785 manuscripts submitted in 2018 to 47 Institute of Physics Publishing journals. Novelty and conventionality were measured from the atypicality of journal combinations in each manuscript’s reference list, not from how the manuscript describes itself. Findings: (a) “higher novelty is consistently associated with higher acceptance” — top-quintile novelty submissions were 6.5 percentage points more likely to be accepted than bottom-quintile ones; (b) higher conventionality was also associated with acceptance (+16.3% top-bottom quintile difference); (c) reviewer disagreement was not systematically related to novelty or conventionality; and (d) “editors select strongly for novelty even conditional on reviewers’ recommendations” (+7.0%). The authors conclude that journal peer review “favors novel research that is well situated in the existing literature.”

The editorial implication: positioning that flags novelty and conventional grounding does better than positioning that flags novelty alone. The manuscript that opens with “Although the X approach is well established, we show…” is making both moves simultaneously. This extends the finding (researcher inference): the study measured what a manuscript cites, not how it frames itself, and it did not isolate the abstract or editorial-screening stage.

NIH significance and the simplified review framework (2025)

Section titled “NIH significance and the simplified review framework (2025)”

As of January 25, 2025, NIH applications submitted under the Simplified Review Framework score against three factors rather than the five legacy criteria [6]:

  • Factor 1: Importance of the Research (combining Significance and Innovation) — scored 1–9
  • Factor 2: Rigor and Feasibility (Approach) — scored 1–9
  • Factor 3: Expertise and Resources (Investigator, Environment) — rated for sufficiency, not scored

The legacy Significance criterion read: “Does the project address an important problem or a critical barrier to progress in the field? If the aims of the project are achieved, how will scientific knowledge, technical capability, and/or clinical practice be improved?” Under the Simplified Review Framework, reviewers instead “evaluate the importance of the proposed research in the context of current scientific challenges and opportunities”. They “assess whether the application addresses an important gap in knowledge in the field, would solve a critical problem, or create a valuable conceptual or technical advance”, and evaluate “the rigor of the scientific background for the work (e.g., prior literature and/or preliminary data)”. The Innovation language adds that “a project that is not applying novel concepts or approaches may be of critical importance for the field.” [6]

The reframing matters editorially. Under the old framework, an author could be strong on Significance and weak on Innovation (or vice versa) and get a mixed score. Under the new framework, both are bundled into Factor 1. Our reading (researcher inference) is that an application that nails one but not the other will score lower than one that ladders both into a single positioning claim. NIH’s scoring guidance (effective October 2025 Council round) makes Factor 1 more consequential still: “a project of moderate or limited importance (Factor 1) cannot be made more impactful by a strong approach (Factor 2) and/or appropriate expertise and resources (Factor 3)”, and “Your Factor 1 score should set a limit for the best possible overall impact score” [12]. Positioning sets the upper bound for the application. See nih-significance-patterns for the funding-side changes (no paylines from January 2026; proposed score-free reporting) and NIH’s 2025 policy that applications “substantially developed by AI” are not considered original [16].

NSF’s Merit Review Criterion 2 (“Broader Impacts”) was added in 1997 under Director Neal Lane and has been the subject of substantial empirical and philosophical analysis since [7, 8]. The criterion asks how the proposed work will “benefit society and contribute to the achievement of specific, desired societal outcomes.” NSF’s current examples, which it says are illustrative rather than prescriptive, are STEM education, public engagement, societal well-being, a globally competitive STEM workforce, partnerships, national security, U.S. economic competitiveness, and research and education infrastructure [7]. NSF’s 2025 priorities guidance tells investigators to “prioritize the first six broader impacts goals” of the America COMPETES Reauthorization Act of 2010. It requires that activities addressing the seventh goal (expanding participation of women and underrepresented groups) be “open and available to all Americans” [13]. In December 2025 the National Science Board recommended that NSF “pursue renaming the ‘Broader Impacts’ criterion to ‘Societal Benefits’”; this is a recommendation, not adopted policy [14].

Holbrook (2005) [8] documents persistent community concerns: ambiguity about how broader impacts are weighted relative to intellectual merit; lack of evaluative consensus among reviewers; difficulty of projecting societal impact from basic research. Bozeman & Boardman (2009) [11] give a critical assessment of the criterion, which “has met with resistance from the scientific community”. A 2023 study (Woodson & Boutilier, Research Evaluation 32(2)) compared NSF award abstracts with project outcome reports from 2014–2017. It found “the number of broader impacts proposed in the abstracts is significantly higher than the number of broader impacts reported” in the outcome reports, a pattern common across directorates and impact types except impacts serving advantaged groups [10]. The authors caution that this does not show scientists are “delinquent or disingenuous”. Rather, it suggests many broader-impacts statements are aspirational rather than operational. The NSB report’s own survey found that only 53% of NSF staff said it is clear how to assess Broader Impacts, against 96% for Intellectual Merit [14].

For editorial work, the implication: broader-impacts language should be specific (named partners, named programs, named metrics) rather than aspirational (“will broadly benefit underrepresented groups”). The specific form survives reviewer scrutiny better. Under NSF’s current priorities guidance, broadening-participation activities should also be described as open to all participants, with any targeting framed by non-protected characteristics such as institution type, geography, socioeconomic status, or career stage [13].

LLM use and the distinctiveness of positioning (2026)

Section titled “LLM use and the distinctiveness of positioning (2026)”

Qian Y, Wen Z, Furnas AC, Bai Y, Shao E, Wang D. The rise of large language models and the direction and impact of US federal research funding. PNAS. 2026;123(33):e2601439123. DOI: 10.1073/pnas.2601439123. [15]

Using confidential NIH and NSF submissions from two US R1 universities and all publicly released NIH and NSF awards, the authors found that LLM use “rises sharply beginning in 2023” with a bimodal split between minimal and substantive use. “Higher LLM involvement is consistently associated with lower semantic distinctiveness, positioning projects closer to recently funded work within the same agency.” At NIH, LLM use was positively associated with proposal success and early publication output, with gains concentrated in non-hit papers; NSF showed no comparable associations. The design is observational, so the success association does not show that LLM use causes funding.

The editorial implication (researcher inference): a positioning critique should check whether the claimed gap and contribution are specific to this project or could describe any recent award in the area. Skills should not introduce generic framing in the course of “improving” significance prose.

  • reviewer-simulation (current). Should distinguish between the rhetorical-significance critique (“the framing doesn’t make me care”) and the criterion-significance critique (“under NIH simplified review, this doesn’t ladder Factor 1 well”). Knowing the target venue and the applicable review criteria changes what the simulator says. For NIH grants, a weak Factor 1 critique should be presented as capping the overall assessment, per the 2025 scoring guidance [12].
  • desk-rejection-risk (current). Its significance-framing category draws on this note. The novelty-plus-conventional-grounding check should be attributed to Teplitskiy et al. 2022 [2], and described as consistent with that study rather than shown by it. The study measured reference-list novelty and conventionality across the whole acceptance decision; it did not test abstract-level framing or the desk-screening stage.
  • venue-fit (current). Uses the significance axis; nothing in this refresh changes how the axis is scored.
  • terminology-normalization (current). Exempts significance claims proper from the promotional-register catalog. The NIH Innovation language — a project “not applying novel concepts or approaches may be of critical importance” [6] — is a reason not to push authors toward “novel” in grant prose.
  • specific-aims-audit (planned, v0.4). NIH specific aims pages live or die on whether they articulate (i) a problem of acknowledged importance, (ii) a critical barrier, (iii) a tractable approach. The skill should test for each move explicitly. This is the most direct application of the Schimel OCAR + ABT diagnostic (narrative-frameworks) to the grant-writing domain. Under the 2025 scoring guidance, (i) and (ii) bound the score and should be tested first.
  • positioning-audit (proposed). A read-only critique skill that evaluates the abstract, significance statement, and introduction-closer for: (i) whether the “why now” is clearly stated, (ii) whether novelty is paired with conventional grounding, (iii) whether the named beneficiaries of the work are specific, not aspirational, and (iv) whether the claimed gap is distinctive to this work rather than generic to the field [15]. Outputs a per-element assessment with span pointers.
  • broader-impacts-audit (proposed, NSF-specific). Checks whether broader-impacts statements name specific partners, programs, and measurable activities — rather than aspirational claims — and whether participation activities match NSF’s current priorities guidance [13]. Could share infrastructure with positioning-audit.

The deeper design implication: positioning is the part of the manuscript where structured-output skills can have the highest leverage and the lowest semantic risk. The positioning sections are short, opinionated, and high-stakes. A scriptorium that focuses critique-skill density here produces visible improvements that authors can actually adopt. It should stay critique-first: Qian et al. [15] and NOT-OD-25-132 [16] both point away from generating positioning prose for the author.

Verdict: Yes (current and v0.4) for the grounding role; Maybe later for the stand-alone positioning-audit and broader-impacts-audit skills.

If Yes: This note already grounds desk-rejection-risk, venue-fit, and terminology-normalization, and is named as grounding for the v0.4 specific-aims and aims-significance-coherence skills. Required data: project.target_venue or target_funder, the abstract, significance statement, and introduction-closer (manuscripts) or the aims page (grants). The October 2026 refresh changes three things these skills should reflect: the corrected novelty attribution and scope (Teplitskiy et al. 2022), the Factor 1 ceiling, and NSF’s current Broader Impacts guidance.

If Maybe later: positioning-audit flips to Yes once desk-rejection-risk’s significance-framing category proves too coarse in use, or authors ask for positioning critique outside a submission context. broader-impacts-audit flips to Yes when NSF adopts final merit-review language (the “Societal Benefits” rename or the Guidance on Financial Assistance), so the skill is not built on wording that is about to change.

  • The empirical literature on what reviewers weight is dominated by bibliometric proxies (citation counts) rather than direct measurement of reviewer decisions. The Teplitskiy et al. 2022 PNAS study [2] is unusual in using submission-level acceptance data across many journals; it is not yet replicated at scale, and its novelty measure is reference-based rather than rhetorical.
  • Mewburn’s positioning work is influential but pedagogical and qualitative rather than empirical. The claims about authority-effects on reviewer perception are plausible but not rigorously tested.
  • NIH’s Simplified Review Framework is new (effective January 2025) and there is not yet enough scoring data to tell whether the factor consolidation has changed what reviewers prioritize. The 2025 scoring guidance states the intended effect (Factor 1 as ceiling); whether reviewers apply it is unmeasured.
  • “Significance” as a criterion is famously vague. The empirical evidence that improving significance framing improves outcomes is indirect — largely from comparing accepted vs. rejected manuscripts after the fact, which is confounded with quality.
  • Qian et al. [15] show an association between LLM involvement and less distinctive positioning; whether editing tools that only critique (as opposed to generating text) have the same effect is unknown.
  1. Tahamtan I, Safipour Afshar A, Ahamdzadeh K. Factors affecting number of citations: a comprehensive review of the literature. Scientometrics. 2016;107(3):1195–1225. DOI: 10.1007/s11192-016-1889-2.
  2. Teplitskiy M, Peng H, Blasco A, Lakhani KR. Is novel research worth doing? Evidence from peer review at 49 journals. PNAS. 2022;119(47):e2118046119. DOI: 10.1073/pnas.2118046119. PMID: 36395142.
  3. Gastel B, Day RA. How to Write and Publish a Scientific Paper. 8th ed. Greenwood; 2016 (Cambridge University Press paperback, 2017). ISBN-13 978-1-4408-4280-1; Cambridge paperback ISBN-13 978-1-316-64043-2.
  4. Mewburn I. How to Be an Academic: The Thesis Whisperer Reveals All. NewSouth Publishing; 2017. ISBN-13 978-1-74223-507-3.
  5. Wang J, Veugelers R, Stephan P. Bias against novelty in science: A cautionary tale for users of bibliometric indicators. Research Policy. 2017;46(8):1416–1436. DOI: 10.1016/j.respol.2017.06.006.
  6. National Institutes of Health. Simplified Peer Review Framework. NOT-OD-24-010 and follow-on policy notices. https://grants.nih.gov/policy-and-compliance/policy-topics/peer-review/simplifying-review (accessed 2026-05-17; effective for applications submitted on or after January 25, 2025). Criterion text as quoted: https://grants.nih.gov/policy-and-compliance/policy-topics/peer-review/simplifying-review/framework (accessed 2026-10-20).
  7. National Science Foundation. Merit Review Broader Impacts Criterion: Representative Activities. NSF; ongoing. https://www.nsf.gov/funding/learn/broader-impacts
  8. Holbrook JB. Assessing the science–society relation: The case of the US National Science Foundation’s second merit review criterion. Technology in Society. 2005;27(4):437–451. DOI: 10.1016/j.techsoc.2005.08.001.
  9. Mewburn I, Thomson P. Why do academics blog? An analysis of audiences, purposes and challenges. Studies in Higher Education. 2013;38(8):1105–1119. DOI: 10.1080/03075079.2013.835624.
  10. Woodson T, Boutilier S. From intent to impact—The decline of broader impacts throughout an NSF project life cycle. Research Evaluation. 2023;32(2):348–355. DOI: 10.1093/reseval/rvac046.
  11. Bozeman B, Boardman C. Broad impacts and narrow perspectives: Passing the buck on science and social impacts. Social Epistemology. 2009;23(3–4):183–198. DOI: 10.1080/02691720903364019.
  12. National Institutes of Health. Simplified Review Framework: Scoring Guidance. Released March 14, 2025; effective 2025/10 Council round. https://grants.nih.gov/sites/default/files/Simplified-Review-Scoring-Guidance.pdf (accessed 2026-10-20).
  13. National Science Foundation. Updates on NSF Priorities. https://www.nsf.gov/updates-on-priorities (accessed 2026-10-20).
  14. National Science Board. Merit review for a new era at NSF (release of Merit Review for a Changing Landscape). December 2025. https://www.nsf.gov/nsb/updates/merit-review-new-era-nsf . Policy recommendations and staff-survey figures as presented in: National Science Board. NSF Merit Review for a Changing Landscape (slides). February 25, 2026. https://nsf-gov-resources.nsf.gov/files/NSB-Merit-Review-Changing-Landscape-Feb25-2026.pdf
  15. Qian Y, Wen Z, Furnas AC, Bai Y, Shao E, Wang D. The rise of large language models and the direction and impact of US federal research funding. PNAS. 2026;123(33):e2601439123. DOI: 10.1073/pnas.2601439123. Preprint: arXiv:2601.15485.
  16. National Institutes of Health. NOT-OD-25-132: Supporting Fairness and Originality in NIH Research Applications. July 17, 2025. https://grants.nih.gov/grants/guide/notice-files/NOT-OD-25-132.html