Name: Frontier Score for "The contribution of salt marshes to wave attenuation during extreme storms"
Rating: 67
Author: Frontier

What it is

Salt marshes protect coastlines by attenuating wind waves with their raised marsh platform and the vegetation above ground. Confidence that this service will persist as the climate changes requires knowing how extreme storms damage the platform and the vegetation, and a comprehensive, quantified understanding of how salt marshes and waves interact during extreme events has been lacking. The authors transferred intact salt marsh to one of the world's largest wave flumes and exposed it to increasingly higher waves, reaching up to 2 m significant wave height. The marsh substrate persisted with negligible erosion despite the cumulative wave exposure. The vegetation, by contrast, was progressively damaged as exposure continued, gradually reducing the wave attenuation it provided. Vegetation was most effective at attenuating waves on low-energy marsh coasts, with waves up to 1 m, where attenuation exceeded 10%, reaching up to 50%, whereas on high-energy marsh coasts, with waves above 1 m, attenuation does not exceed 10%. A global assessment by the authors supports this distinction between low- and high-energy conditions drawn from the flume experiment. Their results suggest that the marsh platform remains stable under extreme wave events, and that substantial wave attenuation by marsh vegetation is limited to low-energy marsh coasts.

Why it matters

In a giant wave flume, a salt marsh's soil barely eroded under waves of up to 2 m significant height, but its plants were progressively damaged and damped waves less and less. Salt marshes protect coasts with their raised platform and their vegetation, and a quantified understanding of how both fare in extreme storms had been lacking. Vegetation damped waves most on low-energy coasts, with waves up to 1 m, where attenuation exceeded 10%, reaching up to 50%; on high-energy coasts it did not exceed 10%, a distinction the authors' global assessment supports. Their results suggest the marsh platform stays stable under extreme waves, while substantial attenuation by vegetation is limited to low-energy coasts.

Underlined numbers link to their source. Every metric and quoted figure is listed under Sources and data below.

Filed underCoastal wetland ecosystem dynamics, Coastal and Marine Dynamics, Aeolian processes and effects

Scored 2026-10-25How scoring works

The Frontier Score, in full

How this entry's score is built, term by term. Open any pillar to see each sub-metric's raw value, how it maps to 0 to 100, and a link to its source (OpenAlex for most sub-metrics that combine several sources, NIH iCite where its ratio is part of field-normalized impact).

The three pillars as one shape: a result strong on every axis fills the triangle.

How the Frontier Score is calculated for this breakthrough
Term	Score	Weight	Points
EvidenceHow established and verifiable the result is.	89	× 0.25	22.3
ImpactHow much the result matters, judged field-relative and by current momentum.	50	× 0.25	12.4
NoveltyHow genuinely new the result is, and how fast-moving.	66	× 0.50	33.0
Weighted pillars			67.7
Frontier recency0 months since publication		× 0.99
IntegrityNot retracted		× 1
Frontier Score			67

Confidence: Early signalEarly signal: little citation history yet, so impact is an estimate and may shift as the work is taken up.

Every sub-metric, traced to its source

EvidenceHow established and verifiable the result is.89

Evidence sub-metrics
Sub-metric	Raw value	0 to 100	Weight	Points	Source
Peer review & venueWhether the work has cleared peer review, and how selective its venue is. Peer review is necessary but not sufficient: before citations accrue, a fresh result in one of the five general flagships (Nature, Science, Cell, NEJM, the Lancet) is a stronger evidence signal than one in a selective specialist or society journal, which in turn outranks one in a legitimate but very high-volume mega-journal, and any of them outranks a preprint that has not been reviewed at all.Maps to 0 to 100: Peer-reviewed article graded by venue tier: flagship journal (Nature, Science, Cell, NEJM, the Lancet) 100; selective journal (every other journal the index admits: the specialist journals of those families, JAMA, PNAS, Physical Review Letters and X) 90; high-volume mega-journal (Nature Communications, Science Advances) 78; venue not recorded 88. Other records: review 90, book 70, dataset 60, preprint 45, an article that has not been peer reviewed 45, other 55.	Peer-reviewed, flagship journal	100	0.30	30.0	OpenAlex type / primary_location / source
CorroborationIndependent corroboration that the result is on the record and reaching beyond a single source, read as the BREADTH of independent records rather than the size of the citation pile. Counts how many of the five independent citation indices (OpenAlex, Crossref, Semantic Scholar, OpenCitations, Europe PMC) report a citation count for the work at all, zero included, plus orthogonal, non-citation lines of corroboration: citation in Wikipedia, registered clinical trials or clinical citations, released datasets or software or a repository copy, public funding on record, and technical-community discussion. Citation MAGNITUDE is deliberately judged under Impact, not here, so Evidence and Impact measure genuinely different things instead of both rewarding the same citation pile twice.Maps to 0 to 100: Starts at 28 and rises by 9 for each of the five independent citation indices that returns a citation count for the work (zero counts; OpenCitations returns zero even for a DOI it does not hold) and by 6 for each orthogonal non-citation line (Wikipedia, clinical trials or clinical citations, open datasets, software or a repository copy, public funding, community discussion), up to the top of the 0-100 scale.	4 of 5 citation indices report a count	64	0.30	19.2	OpenAlex, Crossref, Semantic Scholar, OpenCitations, Europe PMC, DataCite, NIH RePORTER, Wikipedia, Hacker News count of indices that report a count for the work + orthogonal reach
VerifiabilityHow openly the result can be read, reused, and reproduced. Rewards open access, a Creative Commons BY or CC0 license, a green repository copy anyone can archive, openly minable full text, and released datasets or software a reader can actually run. Cross-checked across OpenAlex, Unpaywall, Europe PMC, and DataCite.Maps to 0 to 100: Closed access 45; open access 88; any Creative Commons BY license (including the NC, ND and SA variants) or CC0 100. A repository copy raises the floor to 85, openly minable full text to 90, and released data or software to 92.	Open access (hybrid), CC-BY-NC-ND	100	0.20	20.0	OpenAlex, Unpaywall, Europe PMC, DataCite is_oa / license / has_repository_copy / open datasets
IntegrityRetraction and post-publication correction status. A retracted result is not evidence of anything and collapses the whole Frontier Score; a correction or expression of concern is a softer flag. A correction the publisher labels as its own error (a Publisher Correction) is not a flag on the work. Read across OpenAlex and Crossref (both update-to and updated-by notices).Maps to 0 to 100: Clean 100 (also when the only notice is a Publisher Correction); a correction or expression of concern 75; retracted 0. Flagged if OpenAlex OR Crossref records the notice.	No retraction or concern on record	100	0.20	20.0	OpenAlex, Crossref is_retracted / update-to / updated-by

ImpactHow much the result matters, judged field-relative and by current momentum.50

Impact sub-metrics
Sub-metric	Raw value	0 to 100	Weight	Points	Source
Field-normalized impactImpact relative to the world average for the same field, year, and type, so a small field and a large field are judged fairly. Triangulates three independent field-normalized measures: OpenAlex's Field-Weighted Citation Impact, its citation percentile within the exact field-and-year cohort, and the NIH iCite Relative Citation Ratio. 1.0x is average; the percentile is the share of same-field, same-year work it out-cites.Maps to 0 to 100: Each ratio (1.0 = field average) maps 1.0 to 50, 3.0 to 75, 9.0 to 90; the field+year percentile maps directly (top 1% -> ~99). The available measures are averaged. When none is available yet (very recent work), this sub-metric is left out and Impact is computed from the others.	3.4x FWCI, top 6% of field-year vs field	86	0.45	38.5	OpenAlex, NIH iCite fwci / citation_normalized_percentile / relative_citation_ratio
Influential citationsCitations that genuinely build on the work rather than mention it in passing (Semantic Scholar's influential-citation measure). A sharper signal of real impact than a raw count.Maps to 0 to 100: Saturating: 15 influential citations maps to 50, and none maps to 0. When Semantic Scholar has no measure for the work, this sub-metric is left out and Impact is computed from the others.	Not yet available	n/a	redistributed	0.0	Semantic Scholar influentialCitationCount
Citation velocityCitations received in the trailing twelve months (estimated from yearly citation counts: this year's so far plus the share of last year's that falls inside the window), judged as a rate rather than a lifetime total. Momentum is what a frontier index cares about: a result being taken up fast right now is landing, whether its lifetime pile is large or still small. Where an expected field citation rate is known, the momentum is also read relative to it, so a fast-moving result in a quiet field is not overlooked.Maps to 0 to 100: Saturating: 30 citations in the last twelve months maps to 50. When NIH iCite provides the field's expected rate, this is blended evenly with the ratio of observed to expected momentum.	1 in last 12 months	3	0.35	1.1	OpenAlex, NIH iCite counts_by_year / field_citation_rate

NoveltyHow genuinely new the result is, and how fast-moving.66

Novelty sub-metrics
Sub-metric	Raw value	0 to 100	Weight	Points	Source
Conceptual noveltyHow genuinely new the contribution is, measured at publication from the work's OWN content, not its date: how atypical its combination of research areas is versus all prior work, and whether it builds on a broad, deep base rather than only the newest papers in a fast-moving area. This is what separates a real advance from a recent-but-commodity result, and it needs no forward citations, so it is stable for brand-new work. An honestly noisy proxy (even state-of-the-art novelty measures agree only moderately with expert judgment), so it carries bounded weight and never drives the ranking alone.Maps to 0 to 100: Two publication-time signals, each 0-100. The primary one is atypical combination: how unusual the work's median pairing of research topics is versus the prior literature, by pointwise mutual information (a pairing made far more often than chance scores low). The second, foundational reach (the median age of the work's references and the share older than five years), can only lift it: when reach is higher, the score rises by 35% of the gap, and it is never lowered. When only one signal is measurable it is used alone; when neither is (a work too thin in topics or references), this sub-metric is left out and Novelty is computed from the other three. A review is damped to 60%.	Median topic pairing Coastal wetland ecosystem dynamics x Coastal and Marine Dynamics (28,081 prior works made this pairing); builds on refs a median 9.8y deep	43	0.45	19.2	OpenAlex topics + referenced_works (publication-time)
RecencyHow recently the work appeared. The frontier is now, so newer scores higher.Maps to 0 to 100: Exponential decay with a 12-month half-life from the publication date.	This month	99	0.30	29.8	OpenAlex publication_date
Attention accelerationWhether attention is rising: citations in the latest full year versus the year before. Accelerating interest signals an active, opening frontier.Maps to 0 to 100: Latest/prior-year ratio: 1x maps to 50, 2x to 75, 4x to 100. The prior year counts as at least 3 citations, so a jump from one citation to a few is not read as explosive growth. With no citations in the latest full year it reads as unknown, and unknown is neutral (50).	Not enough history	50	0.10	5.0	OpenAlex counts_by_year
Edge of reviewPreprints sit ahead of the peer-review process and brand-new papers have only just cleared it. Both earn novelty here (while a preprint is discounted under Evidence), because that is where the frontier forms first.Maps to 0 to 100: Preprint 95; any other record 80 when under 6 months old, 65 under 18 months, 45 after that.	Peer-reviewed record	80	0.15	12.0	OpenAlex type / publication_date

ProvenanceAll sources

Sources and data

The source figures behind this entry, grouped by the source that holds them: up to five citation indices cross-checked, field-normalized impact, then real-world reach (Wikipedia, community discussion, clinical trials, released data and public funding) where it exists. Each value links to its record.

OpenAlex

Primary record

Total citations: 1
Field-weighted citation impact: 3.4x field average
Citation percentile: Top 6% of its field-year
Citations, recent 12 months: 1
Publication date: 2026-10-21
Access: Open access (hybrid)

Crossref

Citations: 0
Works it builds on: 80

OpenCitations

Citations: 0

Europe PMC

Citations: 0

Unpaywall

Reuse license: CC-BY-NC-ND

OpenAlex record Read it in Nature

Figures quoted in the write-up

Figure	Value	Source
Highest significant wave height the intact salt marsh was exposed to (Increasingly higher waves in one of the world's largest wave flumes)	up to 2 m	Nature
Wave height dividing low-energy from high-energy marsh coasts (Low-energy coasts have waves up to 1 m, high-energy coasts waves above 1 m)	1 m	Nature
Wave attenuation at low-energy marsh coasts, where vegetation was most effective (Waves up to 1 m)	exceeded 10% (up to 50%)	Nature
Wave attenuation at high-energy marsh coasts (Wave height above 1 m)	does not exceed 10%	Nature

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Why it matters

The Frontier Score, in full

Sources and data

OpenAlex

Crossref

OpenCitations

Europe PMC

Unpaywall

Show this score where your work lives

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