OCB3108L Marine Field Studies (Study Abroad in Florida) - Curriculum Guide

Course Description

OCB3108L is a residential marine field course, and it is one of the most distinctive courses in this catalog. The Statewide Course Numbering System titles it Study Abroad in Florida: Marine Field Studies and describes it in unusual detail:

"This is a 5-week, field intensive course designed to expand student knowledge of the biodiversity, geochemistry, and human impact of Florida's coastal and offshore ecosystems through a round-robin trip around Florida to explore marine ecosystems. This course will take students from the reefs of the Florida Keys to the open Gulf of Mexico aboard state-of-the-art research vessels, as well as shallow tropical estuaries of the western Everglades, the temperate estuarine and coastal environments of northeast Florida, and watersheds in northwest Florida. Field and laboratory work will allow students to utilize current marine research methods while learning about marine environments and their organisms. Some field activities will be physically demanding."

⚠⚠ The statewide prerequisite is a real four-course gate with a grade condition: `CHM2045`, `CHM2046`, `BSC2010` and `BSC2011`, each with a grade of C or better — general chemistry I and II and biology I and II — or permission of the instructor.

⚠ "Study Abroad in Florida" is not a contradiction, and the phrase is worth decoding because a student will not recognise it. It means a course structured like a study-abroad programme — residential, immersive, continuous, away from campus for weeks — but conducted entirely within Florida. The rationale is straightforward: Florida has coral reefs, an open ocean shelf, mangrove and seagrass estuaries, temperate Atlantic coast and spring-fed watersheds within one state's boundaries, so the range of marine environments a student would travel internationally to see is available domestically, more cheaply, and with research vessels.

Two Florida public universities carry it, both at 3–4 credits: the University of North Florida as Field Studies in Marine Science and the University of West Florida under the statewide title.

⚠⚠ Two structural notes before the content. The credit value is a range within each institution (3–4), which is set with the department rather than by the catalog. And ⚠ the `L` suffix here does NOT mean a 1-credit laboratory attached to a lecture — it means the course is entirely practical work. See *Special Information*.

Learning Outcomes

Required Outcomes

⚠⚠ Work safely in coastal, offshore and vessel environments: boat safety, personal flotation, sun and heat management, hydration, marine hazards, and the authority to decline an unsafe activity.
Identify the major Florida marine and coastal ecosystems — coral reef, hardbottom, seagrass, mangrove, salt marsh, oyster reef, beach and dune, open shelf — and describe the physical conditions that define each.
Identify common Florida marine organisms to an appropriate taxonomic level using keys and field guides.
⚠ Apply current marine field methods: transect and quadrat survey, plankton and benthic sampling, water-column profiling (CTD), Secchi depth, seine and trawl, sediment coring, and specimen handling.
Measure and interpret water-quality and geochemical parameters — temperature, salinity, dissolved oxygen, pH, turbidity, nutrients, chlorophyll — and relate them to biological patterns.
⚠⚠ Keep a rigorous field notebook: contemporaneous records, station metadata, coordinates, conditions, methods as actually performed, and observations distinguished from interpretations.
Analyse field data — compute means, variability and simple comparisons — and present results in tables and figures.
⚠ Explain human impacts on Florida's marine systems: nutrient loading and eutrophication, harmful algal blooms, coral disease and bleaching, fishing pressure, coastal development, freshwater alteration, and sea-level rise.
Explain the geochemistry of these systems in outline — carbonate chemistry and calcification, nutrient cycling, sediment transport, estuarine mixing.
Relate oceanographic conditions to biological distribution — why a species is here and not there.
Work effectively in a field team under physically demanding and logistically constrained conditions.
⚠ Communicate findings in a written report or presentation to scientific standards.
Apply the ethical and legal framework of field work: collection permits, protected species and habitats, marine sanctuary and park rules, and minimal-impact practice.

Optional Outcomes

Complete an independent field project with a question, design, data and conclusion.
Use snorkelling or, where certification and institutional authorisation allow, scientific diving as a survey method.
Work with GIS or remote sensing to place field observations in a spatial context.
Use molecular or microscopy techniques on collected material.
Participate in an ongoing monitoring programme and contribute data to it.
Engage with resource managers — sanctuary staff, FWC biologists, water management district scientists.
Address restoration practice — coral propagation, oyster reef, seagrass or mangrove planting.
Present at an undergraduate research conference.

Major Topics

Required Topics

⚠ Field and vessel safety, and minimal-impact and permitted practice — always first.
Florida's marine setting — the peninsula's geology, the carbonate platform, the Loop Current and Gulf Stream, tides and seasonality.
Coral reef and hardbottom systems of the Keys — structure, zonation, reef organisms, ⚠ and the current condition of the Florida reef tract.
Open shelf and pelagic sampling aboard a research vessel — plankton, water column, benthos.
Mangrove and seagrass estuaries of the western Everglades — productivity, nursery function, tropical-temperate transition.
Temperate coastal and estuarine systems of northeast Florida — salt marsh, oyster reef, tidal creeks.
Watersheds of northwest Florida — freshwater inputs, springs, land-use influence on receiving waters.
Field methods — survey design, transects and quadrats, nets and dredges, water sampling, instrument profiling, specimen preservation.
Water chemistry and geochemistry — salinity and mixing, oxygen dynamics, nutrients, carbonate system.
Organism identification and the use of keys.
Human impact — nutrients and blooms, coral disease, fishing, development, hydrological alteration, climate and sea level.
Data handling and reporting — notebook, spreadsheet, figures, scientific writing.
⚠ Management and policy context — the Florida Keys National Marine Sanctuary, state parks and aquatic preserves, FWC, and the water management districts.

Optional Topics

Independent project design and execution.
Scientific diving and snorkel survey methods.
GIS, remote sensing and mapping.
Microscopy, genetics and laboratory analysis of field material.
Long-term monitoring and citizen science.
Restoration ecology in practice.
Fisheries assessment methods.
Science communication and outreach.

Resources & Tools

⚠ There is usually no conventional textbook. The materials are a field manual written by the instructors, method protocols, and a reading list of primary papers. Standard references where one is assigned: Ecology of Marine Sediments, The Biology of Coral Reefs, or a general marine biology text such as Marine Biology (Castro and Huber).
⚠⚠ Florida-specific field guides, and these are worth owning: Reef Fish Identification: Florida, Caribbean, Bahamas and Reef Creature Identification (Humann and DeLoach) — ⚠ the standard waterproof guides everyone in Florida marine science uses; Seashore Plants of South Florida; and the Florida Fish and Wildlife Research Institute's free identification resources.
⚠⚠ Free and authoritative — the state publishes a great deal: FWC's Fish and Wildlife Research Institute (red tide and HAB status, fisheries data, habitat maps); the Florida Keys National Marine Sanctuary condition reports; NOAA (tides, buoys, sea-surface temperature, the Coral Reef Watch bleaching alerts); the water management districts for watershed and water-quality data; and DEP's aquatic preserve and water-quality programmes.
⚠ Bring, and be specific about it: a waterproof field notebook (Rite in the Rain or equivalent) and pencils — ⚠ ink and ordinary paper do not survive a boat; reef-safe sunscreen (oxybenzone and octinoxate are restricted in some reef jurisdictions and are bad practice everywhere near coral); a wide-brimmed hat, long-sleeved sun shirt, polarised sunglasses with a retainer; closed-toe shoes that can get wet and a separate dry pair; a refillable water bottle of real capacity; seasickness medication tried in advance rather than on the day; and a dry bag for anything electronic.
⚠⚠ Ask about cost early and in writing. Field courses carry fees beyond tuition — vessel time, accommodation, travel between sites, meals, equipment. Ask what the fee covers, what it does not, and whether scholarships or departmental support exist. ⚠ They frequently do and are not advertised; ask the department, and ask the financial-aid office how a summer field course interacts with your aid.
⚠ Florida field stations worth knowing about, because they are where courses like this are based and where undergraduate research placements come from: Keys Marine Laboratory (Layton), Mote Marine Laboratory (Sarasota and the Keys), FSU Coastal and Marine Laboratory (St. Teresa), UF Whitney Laboratory (Marineland), Smithsonian Marine Station (Fort Pierce), Harbor Branch (Fort Pierce) and Rosenstiel (Miami).

Career Pathways

⚠⚠ A field course is disproportionately valuable on a marine-science résumé, and it is worth saying why: field competence is what employers and graduate advisers cannot infer from a transcript. Anyone can pass an ecology lecture; not everyone can run a transect in a current, keep a usable notebook in a boat, and identify what they are looking at. This course is evidence of the second thing.
Zoologist and Wildlife Biologist (SOC 19-1023), Biological Scientist (SOC 19-1029), Environmental Scientist and Specialist (SOC 19-2041), Biological Technician (SOC 19-4021) — ⚠ the technician category is the realistic first job and field skills are exactly what it hires for.
Fishery and wildlife management — ⚠ FWC is a large employer with field-based roles, and its Fish and Wildlife Research Institute runs monitoring programmes that need people who can sample.
Environmental consulting — seagrass and mangrove surveys, benthic assessments, permitting support for coastal development; ⚠ a genuine and steady Florida market.
Marine resource management — the Florida Keys National Marine Sanctuary, NOAA, the National Park Service (Everglades, Biscayne, Dry Tortugas), state aquatic preserves, and the water management districts.
Aquarium, education and outreach roles; restoration practitioners (coral, oyster, seagrass, mangrove) — ⚠ Florida has an unusually large reef- and oyster-restoration sector.
Graduate study in marine biology, oceanography, fisheries or coastal science — ⚠⚠ and this is the strongest argument for taking the course: field experience is what makes an application competitive, and it is what an adviser asks about.
Scientific diver, vessel and research-support roles, and Captain/Mate (SOC 53-5021) for those who go toward vessel operations.
⚠ The honest caution: marine biology is a popular field with more graduates than research positions, entry-level field and technician work is often seasonal, contract-based and modestly paid, and progression usually needs a graduate degree. The people who do well are the ones with field skills, a boat licence or a diving certification, and data competence — and this course plus a statistics course plus a coxswain or diver certification is a much stronger combination than a degree alone.

Special Information

Offering Notes — offerings and hours, school by school

Institution	Its title	Credits	Contact hours
University of North Florida	Field Studies in Marine Science	3–4	not published
University of West Florida	Study Abroad in Florida: Marine Field Studies	3–4	not published

⚠ Two public carriers, both State University System. ✅ Both at the same 3–4 credit range and both teaching the same subject — UWF matches the statewide title; UNF's "Field Studies in Marine Science" is the same course described more plainly.

⚠⚠ The credit value is a RANGE within each institution, not between them. 3 or 4 credits depending on the version of the course you register for — most likely the number of weeks, the number of sites, or whether an independent project is included. ⚠ Ask what determines it and what you are registering for, because a 3-credit and a 4-credit registration of a five-week residential course are not the same commitment.

⚠ A third public institution carries the bare number `OCB3108` — the University of South Florida, as *Marine Field Studies* at 4 credits. ⚠⚠ And a fourth identifier, `OCB3108C`, is carried by NO institution at all, which is worth knowing if you meet it in a course list or a transfer evaluation. The real identifiers are `OCB3108` and `OCB3108L`.

⚠ The 60 contact hours at the top of this guide are derived, and derived unusually. No institution publishes a figure. ⚠⚠ The ordinary credit-to-hour convention is meaningless for a five-week residential field course. A field intensive of this kind occupies most of the working day for five weeks — realistically well over 150 hours of contact once travel, sampling, laboratory work and evening data sessions are counted. The 60 figure is a conservative lower bound chosen for comparability with other 3–4 credit courses; treat the real commitment as a full-time occupation for five weeks.

⚠⚠ The `L` suffix does NOT mean a 1-credit laboratory here

⚠ Across this catalog an `L` suffix normally means a 1-credit laboratory taken alongside a lecture. This number is the clearest counterexample: it carries 3–4 credits, it has no lecture partner, and it is not a laboratory in the ordinary sense.

The `L` here signals that the course is ENTIRELY practical work — field and laboratory rather than classroom. ⚠⚠ So do not apply the 1-credit-lab assumptions to it: it is not a small add-on, it does not accompany anything, and it cannot be dropped while keeping a lecture.

⚠ The practical consequence is a transfer one. A receiving institution's transfer evaluator, seeing an `L` suffix, may assume a 1-credit laboratory and question a 3–4 credit value. Keep the syllabus and the field manual — they establish what the course actually was, and for a course this distinctive the syllabus is persuasive.

⚠⚠⚠ The prerequisite is a real four-course gate — plan two years ahead

The statewide prerequisite is `CHM2045`, `CHM2046`, `BSC2010` and `BSC2011`, each with a grade of C or better, or instructor permission.

⚠ That is general chemistry I and II plus biology I and II — a full two years of introductory science with a grade condition, and it tells you what kind of course this is: not an introductory marine-biology survey but a methods course for students who already have the science.

Two practical consequences:

⚠⚠ Sequence it deliberately. A student who wants to take this in the summer after their second year must have both chemistry and both biology courses done by then, which means planning from the first term. The chemistry is the part students defer, and deferring it defers this course by a year.
⚠ The C-or-better condition is explicit, so a D in general chemistry II blocks eligibility even where it counted toward a degree.
⚠ "Or permission of the instructor" is real and worth using. If you have equivalent preparation or are a term short, ask — field courses have limited places and instructors select people who will cope, not only people who tick boxes.

⚠⚠⚠ What "physically demanding" means, and who should ask questions first

⚠ The statewide description says it outright: "some field activities will be physically demanding." That sentence is doing real work and deserves unpacking rather than repeating.

Expect, across five weeks: long days outdoors in Florida summer heat and humidity; extended time on small and large vessels, with sun, motion and limited shade; wading in soft mud, seagrass and mangrove, which is genuinely hard walking; lifting and hauling gear, nets, coolers and sample containers; snorkelling and swimming; early starts governed by tides rather than convenience; and travel between sites around the state.

⚠⚠ Things to raise with the instructor early, privately, and without embarrassment — every one of them is routine and usually accommodated:

Swimming ability. ⚠ Ask whether a swim test is required; for snorkel-based work it often is. If you are not a confident swimmer, say so before the term rather than at the water's edge.
Seasickness. ⚠ Common, manageable, and not a reason to avoid the course — but try medication in advance, and tell the instructor so they can plan.
Heat tolerance, medication that affects heat or sun sensitivity, asthma, diabetes, allergies (including to marine stings), and mobility or joint limitations.
Dietary requirements and accommodation needs for a residential course.
⚠ Disability accommodations. Field courses can and do accommodate — alternative roles, modified tasks, assistive arrangements — but only if the conversation happens before the logistics are fixed. Contact both the instructor and your institution's disability office early.

⚠⚠ And the safety points that are not negotiable: sun and heat are the real hazard, not sharks — hydrate continuously, cover up, and report feeling unwell immediately, because exertional heat illness progresses quickly and Florida field seasons have produced it. Wear the flotation device when told to, know where the vessel's safety equipment is, and never enter the water alone.

⚠ Five weeks: the scheduling consequence nobody plans for

⚠⚠ A five-week residential field intensive cannot be combined with anything. It is not a course you take alongside a job or another class — it occupies the whole day, most days, away from home.

So plan around it: ⚠ it almost certainly runs in a summer term, which means giving up a summer's earnings or a summer internship; arrange time off work well ahead; check how a summer course affects financial aid, since aid for summer terms works differently; and ⚠ confirm housing — if you vacate a lease for the summer you may need somewhere for the weeks either side.

⚠ Registration is likely competitive and early. Field courses have hard capacity limits set by vessel berths and accommodation. Ask when applications open — often the previous autumn.

⚠ What makes this course worth the trouble

⚠⚠ Stated plainly, because the logistics above make it sound forbidding: students who take a field course of this kind consistently describe it as the most valuable course of their degree, and there are three concrete reasons rather than sentimental ones.

It is the only place the skills exist. Survey design that survives a current, identification under pressure, a notebook someone else could use — none of it can be learned from a lecture.
⚠ It is the strongest single line on a graduate or technician application, because it is evidence of field competence that a transcript cannot otherwise supply.
⚠⚠ Five weeks with the same faculty and the same small group produces references and connections that a lecture course cannot. Undergraduate research placements and graduate-school introductions come out of field courses disproportionately — and that is worth more than the credits.

AI Integration

⚠ This is a field course, and these tools have limited purchase on it. Saying so honestly is better than manufacturing a use case — the content is a boat, a mud flat and a notebook.

Where it genuinely helps:

Preparation before you go — background on Florida's ecosystems, the species you will meet, and the oceanographic setting. ⚠ Arriving knowing what a hardbottom community is makes the first week far more useful.
Explaining a method's purpose — why a quadrat is placed randomly, what a CTD measures, why a plankton tow is standardised.
Explaining the chemistry — carbonate equilibrium, oxygen saturation, estuarine mixing — a second and third way.
Data analysis after the fact — spreadsheet formulas, R or Python for plotting and simple statistics, and explaining what a test is appropriate for.
Structuring a report, and tightening prose in revision.
⚠ Generating a packing and question list before the course — genuinely useful, and worth checking against the instructor's own list.

⚠⚠ Where it fails, and the first two are disqualifying:

⚠⚠⚠ It cannot generate your data, and doing so is FABRICATION — the most serious offence available in a science course, treated more severely than plagiarism at most institutions. ⚠ Field data is messy in characteristic ways and generated data is not, and an instructor who was on the boat with you knows what that station produced. An incomplete honest dataset with an explanation of what went wrong is worth more marks than a tidy invented one — and "the net fouled and we lost the tow" is a real field result.
⚠⚠⚠ Safety information must never come from a generated answer. Vessel procedure, heat-illness response, marine-sting first aid and dive limits come from the instructor, the vessel captain, the field manual and lifeguard or medical guidance. ⚠ Poison Control is 1-800-222-1222, and on a boat the captain's instruction overrides everything.
⚠⚠ Species identification from a generated answer is unreliable and it matters here. Florida has close congeners, cryptic species and a large number of non-native arrivals, ⚠ and misidentifying a protected species — a listed coral, a sawfish, a sea turtle — has legal as well as scientific consequences. Use the Humann and DeLoach guides, FWC's resources and your instructor. Photo-identification apps are a hint, not a determination.
⚠ It invents local and regulatory detail — sanctuary rules, collection permit conditions, closed seasons, size limits, protected-species status. These are legal instruments and they change; use FWC and the sanctuary's own published rules.
It has no current conditions — red tide status, water temperature, bleaching alerts, weather windows. Those come from FWC, NOAA and the captain.
⚠ It cannot substitute for the skill. There is no reading path to a usable field notebook or to identifying a fish at three metres in a surge.

⚠ The framing that carries beyond the course: the value of a field observation rests entirely on the fact that somebody was there and wrote it down accurately. That is the whole basis of the science, and it is what five weeks in the field is really teaching. Use these tools to prepare and to analyse; make the observations yourself.

Academic integrity: read your syllabus, and ⚠ expect a field course's policy to name data fabrication explicitly. Where data is collected by a team and analysed individually, be clear which is shared and which must be your own — ask in week one rather than guessing.