---
name: brycewang-stanford/limnology-and-oceanography
source: https://app.decimal.ai/s/brycewang-stanford-limnology-and-oceanography@1/SKILL.md
source_sha256: db879c933419
---

# Limnology and Oceanography (limnology-and-oceanography)

## Journal positioning

Limnology and Oceanography is the Association for the Sciences of Limnology and Oceanography
(ASLO) flagship for the aquatic sciences, spanning freshwater (lakes, rivers, wetlands) and
marine (coastal and open-ocean) systems within a single community. Its scope covers aquatic
ecology, biogeochemistry, plankton and microbial processes, and the physical–biological and
physical–chemical coupling that links them. Its defining expectation is **rigorous
aquatic-science evidence that delivers process insight** — an advance in understanding how
aquatic organisms, chemistry, and physics interact, not a descriptive survey or a
single-system observation without mechanism. A terrestrial study, or a purely
physical-oceanography paper with no biological or biogeochemical coupling (better suited to a
geophysics venue), is a poor fit however competent. This skill is a **fit / venue-selection /
re-framing** tool. It does not replace the journal's current author guidance. Before
submitting, re-check the live Limnology and Oceanography author instructions and data policy.

## When to trigger

- The author names Limnology and Oceanography and wants a fit/framing check for a
  freshwater or marine aquatic-science paper.
- An aquatic ecology, biogeochemistry, or plankton/microbial study must be re-framed around
  its process insight and physical–biological coupling, or recognized as out of scope.
- The author is choosing between this journal, `global-biogeochemical-cycles`,
  `global-change-biology`, and a hydrology or geophysics venue.
- The author needs the journal's aquatic-process and measurement expectations across the
  limnology–oceanography continuum.

## Scope & topic fit

- Aquatic ecology and community/food-web processes in lakes, rivers, estuaries, coastal
  seas, and the open ocean, including trophic interactions and population dynamics.
- Aquatic biogeochemistry: carbon, nutrient (N, P, Si, Fe), oxygen, and trace-element
  cycling, and the controls on productivity, respiration, and elemental stoichiometry.
- Plankton, microbial, and viral processes: physiology, diversity–function links, blooms,
  and microbial loop dynamics with quantitative rate measurements.
- Physical–biological and physical–chemical coupling: mixing, stratification, transport, and
  light fields as controls on biological and chemical distributions.
- Biological–chemical responses to environmental change (warming, deoxygenation,
  acidification, eutrophication) when an aquatic process mechanism is central.
- Methods and approaches that enable new quantitative insight into aquatic processes, when
  validated and broadly useful.

## Method & evidence bar

- The contribution must rest on a **quantitative aquatic-science process**, not a descriptive
  inventory or a single-station snapshot without mechanism.
- Rate and flux measurements (productivity, respiration, nutrient uptake, grazing,
  remineralization) need stated methods, controls, calibration, and uncertainty.
- Field sampling must address spatial/temporal representativeness, mixing depth and
  stratification context, and confounding water-mass or seasonal effects.
- Experimental and incubation studies need adequate replication, appropriate controls, and
  honest treatment of bottle/enclosure artifacts and scaling to the natural system.
- Coupled physical–biological claims must support the linkage with data or a validated model,
  not assert correlation as mechanism.
- Data should be deposited or available per ASLO/journal policy, with relevant
  oceanographic/limnological metadata and cruise or site documentation.

## Structure & house style

- Standard research-article structure (Introduction, Methods, Results, Discussion);
  re-check current article types and length on the live guide.
- The introduction must establish the aquatic-process gap and why the system or mechanism
  matters across the limnology–oceanography community, not only to one basin or lake.
- Figures should be quantitative and load-bearing: depth/section profiles, rate
  measurements, time series, and process or coupling diagrams with uncertainty shown.
- An informative abstract stating results and their process significance is expected;
  re-check current abstract and formatting requirements on the live guide.
- Methods, station/cruise metadata, and data-availability statements must let a reader
  assess representativeness and reproduce the central rate or flux estimate.

## Official-submission checklist

- Before giving submission-ready advice, read `../../resources/source-basis.md` and
  `../../resources/official-source-map.md`; start from the ASLO/publisher anchors, then cite
  the current Limnology and Oceanography page you checked.
- Search the live site for "Limnology and Oceanography author guidelines" / "ASLO journals"
  and follow the current version.
- Re-check article types (including any letters/short-form and methods options), abstract
  format, and length/figure expectations.
- Confirm the data-availability and metadata-deposition policy and any community-database
  expectations for oceanographic/limnological data.
- Re-check competing-interests, funding, author-contribution, and AI-use disclosure, and
  open-access options.
- If the live official instructions conflict with this skill, the official instructions
  win.

## Pre-submission self-check

- [ ] The central contribution is an aquatic-science process insight, not a descriptive survey.
- [ ] Rate/flux measurements report methods, controls, calibration, and uncertainty.
- [ ] Sampling representativeness and stratification/water-mass context are addressed.
- [ ] Incubation/experimental work is replicated, controlled, and honest about enclosure artifacts.
- [ ] Physical–biological coupling is supported by data or a validated model, not asserted.
- [ ] Data, metadata, and cruise/site documentation meet current availability requirements.

## Common desk-reject triggers

- A terrestrial study, or one with no aquatic-process component, submitted to an aquatic-sciences venue.
- A purely physical-oceanography paper with no biological/biogeochemical coupling (better for a geophysics venue).
- A descriptive species or chemistry inventory with no mechanism, rate, or process insight.
- Single-station or single-date sampling presented as representative without mixing/seasonal context.
- Incubation results scaled to the ecosystem with no acknowledgment of bottle/enclosure artifacts.
- Missing data-availability statement, metadata, or cruise/site documentation.

## Re-routing decision

- Large-scale ocean/inland-water carbon or nutrient cycling is the dominant framing → `global-biogeochemical-cycles`.
- Climate-change biology of aquatic ecosystems is dominant → `global-change-biology`.
- Catchment hydrology / inland-water flow process dominant → `journal-of-hydrology` or `water-resources-research`.
- Purely physical-oceanography / circulation dynamics → a geophysics venue such as `nature-geoscience`.
- Population/evolutionary mechanism in aquatic taxa → `functional-ecology`, `ecology-letters`, or `molecular-ecology`.

## Output format

```text
[Fit] High / Medium / Low (one-line reason)
[Target] Limnology and Oceanography
[System] <freshwater / marine / coastal / estuarine>
[Topic tags] <2–3 closest aquatic-science topics>
[Process insight] <the aquatic ecological / biogeochemical / coupling mechanism advanced>
[Method/evidence] <do rates + representativeness + coupling support clear the bar?>
[Top risk] <the single most likely reason for rejection>
[Official items to re-check] <article type / abstract / data & metadata policy / disclosures>
[Re-route suggestion] <if not a fit, a better-matched venue>
```