GEO3372: Conservation of Natural Resources

Course Description

GEO3372 Conservation of Natural Resources is the study of how societies use mineral, soil, water, forest and wildlife resources, what constrains that use, and what conservation actually requires — analysed geographically, which is to say with attention to where things are and why that matters.

The course is offered at approximately four Florida institutions, including the University of Florida, the University of North Florida and the University of West Florida.

The University of West Florida places it in the College of Science and Engineering, Department of Earth and Environmental Sciences at 3 semester hours, requires EVR 2001 OR ESC 2000 OR GLY 2010, and covers the "nature and extent of mineral, soil, water, forest and wildlife resources and their conservation, with particular emphasis on the United States against a general background of world resources."

⚠ This guide is written from a narrower evidence base than most in this repository — only one Florida catalog description was obtainable, and the statewide title (Conservation of Resources) matches it. Expect variation between institutions, particularly in the balance between physical resource description and policy analysis, and in how much attention goes to Florida specifically. Read your own syllabus.

What makes this a geography course rather than an environmental science course. The subject matter overlaps considerably, but the analytical frame differs: geography asks where resources are, where the demand is, and what the distance between them costs — economically, politically and environmentally. ⚠ Resources are unevenly distributed and demand is unevenly distributed, and almost never in the same places. That mismatch generates trade, infrastructure, dependency and conflict, and it is the course's organising insight.

The conceptual foundation is the distinction between renewable and non-renewable resources, and it is less tidy than it first appears. Minerals are finite in any meaningful sense. Forests, fisheries and groundwater are renewable only within a rate — harvest or extract faster than the replenishment rate and they behave as non-renewable, which is the mechanism behind fishery collapse and aquifer depletion alike. ⚠ "Renewable" is a statement about a rate, not a category, and grasping that early makes the rest of the course coherent.

The tragedy of the commons is the course's central analytical model. A resource open to all, where each user's benefit is private and the cost of depletion is shared, tends toward overuse even when every user understands the outcome. ⚠ The important qualification — and any course that omits it is teaching a caricature — is Elinor Ostrom's work, which documented many real common-pool resources successfully governed for generations by their users through local institutions, and identified the design principles that make that work. Ostrom won the Nobel Prize in economics for it, and her finding is that the choice is not only between privatisation and state control.

The resource categories each have their own logic, and the course works through them: soil — formation rates measured in centuries against erosion rates measured in years, salinisation, and the conservation practices that address them; water — surface and groundwater, allocation doctrine, quality, and the fact that water problems are almost always distributional; forests — succession, sustained yield, the difference between a forest and a plantation; minerals and energy — reserves versus resources, extraction externalities, and the transition question; fisheries and wildlife — maximum sustainable yield and why it has proven so difficult to implement.

⚠⚠ Florida is an unusually good place to study this, and the state's issues are the course's material.

• Water is Florida's defining resource question. The Floridan aquifer supplies most of the state's drinking water and is subject to saltwater intrusion where over-pumped near the coast; the state's springs have measurably declined in flow; and the Everglades — drained, compartmentalised, and now the subject of the largest ecosystem restoration effort ever attempted — is a case study in what a century of water management costs and what reversing it involves.
• Phosphate mining in central Florida is a nationally significant extractive industry with substantial reclamation obligations and a legacy of phosphogypsum stack management.
• Coastal development, sea level rise and beach nourishment put resource questions in front of a Florida student directly.
• Fisheries — commercial and recreational — and the management structures governing them.
• Land conservation through the Florida Forever programme and the Florida Wildlife Corridor.

Learning Outcomes

Required Outcomes

• Define natural resource and explain why the category is partly cultural and technological rather than purely physical.
• Distinguish renewable, non-renewable and flow resources, and explain why renewability is a statement about rate.
• Distinguish reserves from resources and explain how economics and technology move the boundary.
• Explain the geographic distribution of major resources and the economic and political consequences of the mismatch between supply and demand.
• Explain the tragedy of the commons, and evaluate Ostrom's design principles for successful common-pool resource governance.
• Distinguish conservation, preservation and sustainable use, and trace the historical debate between them.
• Explain soil resources — formation, classification, erosion, degradation, salinisation — and the principal conservation practices.
• Explain water resources — the hydrologic cycle, surface and groundwater, aquifer behaviour, allocation doctrines, and quality problems.
• Explain forest resources — distribution, succession, harvest systems, sustained yield, deforestation drivers.
• Explain mineral and energy resources — occurrence, extraction, externalities, depletion, and the transition to lower-carbon sources.
• Explain fisheries and wildlife resources — population dynamics, maximum sustainable yield and its practical limitations, habitat as the binding constraint.
• Explain biodiversity and the principal threats to it, and the rationale for protection.
• Explain land use and the drivers of land-use change, including urbanisation and agricultural conversion.
• Explain the principal US conservation institutions and statutes — the federal land agencies, NEPA, the Clean Water and Clean Air Acts, the Endangered Species Act.
• Analyse externalities, valuation and ecosystem services as economic framings of resource problems.
• Analyse a specific resource issue using data, and evaluate the management options against stated criteria.
• Interpret maps, spatial data and resource statistics critically.

Optional Outcomes

• Apply GIS and remote sensing to resource mapping and change detection.
• Analyse climate change as a resource and conservation problem.
• Analyse environmental justice — the distribution of resource benefits and environmental burdens.
• Analyse indigenous and traditional resource management systems.
• Analyse international resource governance — treaties, transboundary resources, resource conflict.
• Analyse agricultural systems and food security.
• Analyse marine and coastal resource management.
• Analyse protected area design and connectivity.
• Analyse Florida-specific resource issues in depth — the aquifer, the Everglades, phosphate, coastal change.
• Analyse the circular economy and recycling as resource strategies.

Major Topics

Required Topics

• Defining resources; renewability, reserves, and the role of technology and price.
• Geographic distribution of resources and demand.
• Population, consumption and resource demand.
• Common-pool resources — the commons problem and its governance.
• The conservation movement — conservation versus preservation; the historical development of US policy.
• Soil — formation, erosion, degradation, conservation practice.
• Water — hydrology, groundwater, allocation, quality, scarcity.
• Forests — ecology, management, deforestation.
• Minerals and energy — occurrence, extraction, externalities, transition.
• Fisheries and wildlife — yield, habitat, management.
• Biodiversity and protected areas.
• Land use and land-use change.
• Institutions, law and policy — agencies, major statutes, planning processes.
• Resource economics — externalities, valuation, ecosystem services, incentives.
• Case analysis and the evaluation of management options.

Optional Topics

• GIS and remote sensing applications.
• Climate change and resources.
• Environmental justice.
• Indigenous and traditional management.
• International and transboundary governance; resource conflict.
• Agriculture and food systems.
• Coastal and marine resources.
• Protected area design and corridors.
• Florida resource case studies.
• Recycling and materials cycles.

Resources & Tools

• Textbooks in use: Cutter and Renwick, Exploitation, Conservation, Preservation: A Geographic Perspective on Natural Resource Use — the closest fit to a geography-department version of this course; Miller and Spoolman, Living in the Environment; Chiras and Reganold, Natural Resource Conservation; Owen, Chiras and Reganold for the policy-oriented treatment.
• Frequently assigned alongside: Ostrom, Governing the Commons — ⚠ read at least the design principles even if the whole book is not assigned; Hardin's original "Tragedy of the Commons" essay, read critically; Leopold, A Sand County Almanac; Carson, Silent Spring; Diamond, Collapse, usually read with its critics.
• Free federal data, all usable directly in a paper: the USGS — its Mineral Commodity Summaries is the standard annual reference on mineral reserves and production, and its water data programme covers streamflow and groundwater levels; the USDA Natural Resources Conservation Service for soil surveys, including the Web Soil Survey tool; the US Forest Service Forest Inventory and Analysis programme; the Energy Information Administration; NOAA for fisheries stock assessments; and the US Fish and Wildlife Service for listed species.
• Florida sources, and they are exceptionally good for undergraduate work: the five water management districts — South Florida, Southwest Florida, St. Johns River, Suwannee River and Northwest Florida — which publish water supply plans, minimum flows and levels, and monitoring data; the Florida Department of Environmental Protection, including its Florida Springs programme and phosphate regulation; the Florida Fish and Wildlife Conservation Commission; the Florida Natural Areas Inventory; Florida Forever and the Florida Wildlife Corridor; and the Comprehensive Everglades Restoration Plan documentation, which is voluminous, public and genuinely instructive.
• Mapping tools: QGIS (free) and ArcGIS Online where the institution licenses it; the USGS National Map; Google Earth Engine for change detection.
• Professional bodies: the American Association of Geographers, the Soil and Water Conservation Society, and The Wildlife Society.
• Journals: Annals of the American Association of Geographers, Conservation Biology, Ecological Economics, Journal of Environmental Management.

Career Pathways

• Environmental scientists and specialists (SOC 19-2041) — ⚠ the largest destination, and Florida's regulatory environment makes it a substantial employer.
• Conservation scientists and foresters (SOC 19-1031, 19-1032) — the USDA Natural Resources Conservation Service, the Florida Forest Service, and land trusts.
• Environmental compliance and permitting specialists (SOC 13-1041, 19-2041) — ⚠ Florida's wetland and water regulation makes permitting a large and steady private-sector employer, and consultancies hire at bachelor's level.
• Water resource specialists (SOC 19-2041, 17-2081) — ⚠ the five water management districts are significant Florida employers and are a distinctive feature of the state's governance.
• Fish and wildlife biologists and technicians (SOC 19-1023, 19-4021) — FWC, USFWS, and the state parks system. ⚠ Competitive, and frequently requires seasonal work before a permanent post.
• Park rangers and natural resource managers (SOC 19-4092, 33-9011) — the Florida Park Service, the National Park Service (Everglades, Biscayne, Dry Tortugas, Big Cypress), and county land management.
• GIS analysts (SOC 15-1299, 19-3092) — ⚠ the highest-return skill for a geography student in this field by a wide margin. A conservation graduate who can also do spatial analysis is materially more employable than one who cannot.
• Land use and environmental planners (SOC 19-3051) — ⚠ Florida's growth management framework makes local planning a real employer; the AICP certification is the professional credential.
• Environmental education and interpretation (SOC 25-9031, 25-2031).
• Nonprofit conservation (SOC 11-9151) — The Nature Conservancy, Audubon Florida, land trusts, and watershed organisations.
• Agricultural and extension services (SOC 19-1013, 25-9021) — UF/IFAS Extension operates in every Florida county.
• Graduate study in geography, environmental science, natural resource management, planning or environmental policy.

Special Information

Title and sourcing

The statewide title is Conservation of Resources; UWF titles it Conservation of Natural Resources. The number is GEO3372 and the difference is a single word, so articulation is clean.

⚠ Only one Florida catalog description was obtainable for this course, so the institutional variation is not documented here. The likely axis of variation is the balance between physical resource description and policy analysis, and secondarily how much attention the course gives to Florida specifically. Neither affects transfer.

⚠ The prerequisite is a genuine science requirement — check which one you have

UWF requires EVR 2001 OR ESC 2000 OR GLY 2010 — an introduction to environmental science, earth science, or physical geology. Any one of the three satisfies it.

⚠ This is content, not a maturity proxy. The course assumes you already know what an aquifer is, how soil forms, what a watershed is and roughly how mineral deposits occur. A student without any of the three will be learning earth systems and resource management simultaneously.

⚠ Practical note for transfer students: all three prerequisites are lower-division courses widely taught at Florida College System institutions, so this is a requirement you can and should satisfy before transferring. Confirm that your specific course articulates as one of the three — earth science and physical geology have several possible numbers, and an environmental studies course is not always accepted where an environmental science course is required.

The course sits in the junior year of geography, environmental science, environmental studies and earth science programmes, and is a common elective for biology, political science and planning students.

Course format and workload

3 credits, 45 contact hours — lecture and discussion, three hours per week. ⚠ No C or L suffix, so there is no scheduled laboratory; where the course includes mapping or data exercises, they are assigned rather than timetabled.

Expect 6–8 hours per week outside class. Assessment typically includes examinations, a resource issue analysis or case study paper, and often mapping or data exercises. Some sections include a field trip.

⚠ The case study paper is where the course is won, and the common failure is description without analysis. Recounting that the Floridan aquifer is under pressure is not a paper; stating who uses the water, under what allocation rule, what the alternatives cost, and what the trade-offs of each option are is one. The Florida data makes this genuinely achievable — the water management districts publish the numbers.

⚠ Contested material, handled analytically

Resource policy is politically contested — water allocation, land use regulation, extractive industry, endangered species listings and climate policy all have organised interests on multiple sides, and several are live in Florida.

• The classroom standard is evidentiary and analytical. The question is what the data show, what the options are, and what each costs and to whom — not which side is correct as a matter of values.
• ⚠ Resource conflicts are genuinely distributional, and the course should say so plainly: conservation decisions allocate costs and benefits to identifiable people. A paper that treats a resource question as a purely technical problem has missed the substance.
• Students from agricultural, ranching, fishing, extractive or development backgrounds bring valuable knowledge and sometimes find the framing unwelcome. A well-run course treats that as information rather than as an obstacle.
• Expect findings that cut against your prior view. The evidence on some conservation interventions is strong; on others it is mixed; and the economic analysis frequently disappoints advocates on both sides.

Articulation and transfer

GEO3372 is a 3000-level upper-division course, not generally offered at Florida College System institutions, and taken after transfer.

⚠ Prefix note. GEO is geography; GLY geology; EVR environmental science; ESC earth science; GIS geographic information systems; PCB/BSC biological sciences; SWS soil and water science at UF. ⚠ Conservation and resource courses are distributed across GEO, EVR and SWS depending on which department houses the programme — so search by subject rather than by prefix when looking for an equivalent, and expect that a receiving institution without a geography department may apply this credit as a general environmental elective rather than as a specific requirement.

⚠ Professional certification note. Several conservation careers use credentials rather than licensure — Certified Wildlife Biologist (The Wildlife Society), Certified Professional Soil Scientist, AICP for planners — and each specifies coursework. If one of these is your target, check its education requirements against your transcript early, because they are course-specific and are much easier to satisfy before graduation than after.

AI Integration

Conservation and resource management have been transformed by remote sensing and computation more than by AI specifically, and the honest account separates the two.

Where the technology genuinely matters in this field:

• Remote sensing and change detection. ⚠ This is the largest real change in conservation practice. Satellite imagery processed at scale now tracks deforestation, land-use change, surface water extent, algal blooms and coastal erosion continuously rather than episodically — and Global Forest Watch and similar platforms make that monitoring public and free. Machine learning does the classification.
• Species distribution modelling and habitat suitability mapping.
• Camera trap and acoustic monitoring — automated identification of species from images and calls, which has changed the economics of wildlife survey work substantially.
• Water and hydrologic modelling, including demand forecasting.
• Predictive enforcement — targeting patrols against poaching or illegal fishing.

⚠ The course-relevant caution is the same one that appears in every applied field: automated classification is trained on labelled data and inherits its limits. A land-cover classifier trained elsewhere may misclassify Florida's wetland mosaics; a species model trained on presence records reflects where people looked as much as where the species is. Ground truthing is not a formality, and understanding what the data actually represents is the skill the course teaches.

Using AI tools for coursework. Models are useful for explaining a concept — how an aquifer behaves, what maximum sustainable yield assumes — for orienting yourself in an unfamiliar resource sector, for help with QGIS or R, and for generating counterarguments to a policy recommendation.

⚠ Where they fail, specifically:

• Fabricated numbers. Reserve estimates, water withdrawal figures, acreage, species counts and yield data are invented confidently. ⚠ Every figure should come from USGS, EIA, NOAA, FWC, DEP or a water management district — all free, all authoritative, and mostly Florida-specific.
• Stale or wrong regulatory detail. Listing status, permit thresholds and water rules change.
• Local specificity. ⚠ Models generalise, and resource management is local by nature — Florida's water law, its wetland permitting and its aquifer behaviour are not the national default, and a model will frequently supply the national default.
• Flattening genuine trade-offs. Resource questions have losers, and a model's tendency to produce a balanced, agreeable answer conceals exactly the distributional analysis the assignment wants.

Academic integrity. Read the syllabus; policies vary. Submitting generated prose as your own violates every Florida institution's policy, and ⚠ fabricated data in an environmental science context is treated more seriously than plagiarism — the field's credibility with a sceptical public rests on the integrity of its numbers, and it is a habit worth not forming.