JUSTICE · ENVIRONMENTAL JUSTICE
Published by | Langhorne P. Breedlove
MONDAY, NOVEMBER 9, 2026 · 1:20 AM ET
Tags: Great Salt Lake · Water Rights · Conservation · Dust · Wildlife · Western Waters
Dear fellow American proletariat: Utah has a remarkable arrangement with the Great Salt Lake. We divert the rivers that feed it, celebrate its beauty on tourism brochures, and express sincere astonishment when the water disappears. A lake, regrettably, cannot deposit applause into its watershed.
American Proletariat proposes restoring the Great Salt Lake through measurable water deliveries, enforceable conservation agreements, science-led habitat protection, responsible industrial use and public-health monitoring. The policy also calls for adapting lessons to other stressed Western watersheds, while respecting their distinct legal systems, ecosystems and communities. We do not propose stealing water from one desperate basin to create the illusion of solving another.
Establish a coordinated federal-state-Tribal restoration partnership that measures water actually reaching the Great Salt Lake, expands lawful water leasing and dedication, restores wetlands, monitors dust exposure and publicly reports the water balance. Set provisional lake-level and salinity objectives through independent science and legally binding plans rather than announce an arbitrary target unsupported by hydrology.
AP would support conservation incentives, infrastructure modernization, water-rights transactions and enforceable protections for environmental flows. Irrigators, cities, industries, Tribes, conservation organizations and downstream interests must participate in decisions that affect their rights and livelihoods. Federal grants should reward verified results, not simply the purchase of equipment with the word 'efficient' written on its invoice.
Great Salt Lake is a terminal saline lake, meaning incoming water leaves mainly through evaporation rather than a river outlet. Its water and salinity levels respond to snowpack, climate, upstream depletion, causeways and evaporation. The lake is the remnant of ancient Lake Bonneville, and its historic average level is near 4,200 feet above sea level. (Sources 01, 02)
The lake's annual surface elevation reached approximately 4,211.6 feet during its high-water period in 1986. In November 2022, the south-arm gauge registered a modern record low near 4,188.5 feet. The contrast reveals a fluctuating system with extraordinary exposure to changes in inflow; neither high water nor record drought represents a permanent baseline. (Source 02)
In 2023 Utah established the Office of the Great Salt Lake Commissioner through H.B. 491. The office released a strategic plan in January 2024 focused on water delivery, conservation, air and water quality, ecosystem health and coordination. Utah's subsequent 2026 legislation included provisions for water commitments, dedicated water applications and agricultural water leasing for lake preservation. Those measures are existing state actions, not new inventions by AP. (Sources 03, 04)
On November 8, 2026, Utah's wildlife agency reported a south-arm surface elevation of approximately 4,190.0 feet. Utah's official conditions dashboard showed a north-arm reading of 4,189.8 feet on November 5. These provisional gauge readings are snapshots, not estimates of the lake's total volume or its future trajectory. (Sources 01, 05)
The lake has consequences far beyond its shoreline. Utah's Division of Wildlife Resources reports that more than 12 million birds representing 339 species use Great Salt Lake and its associated wetlands and uplands. The system supports major concentrations of eared grebes, Wilson's phalaropes, pelicans and other migratory birds whose survival depends on food webs, water and suitable salinity. (Source 06)
The Congressional Research Service's April 2026 report found that irrigated agriculture depleted an average of approximately 1.5 million acre-feet of water per year that otherwise could have entered the lake during 1989–2023. That is not a claim that all agricultural use is waste or that every acre-foot could be recovered immediately. It is evidence that decisions throughout the watershed materially affect the lake. (Source 07)
As the water recedes, exposed lakebed can contribute to dust. The U.S. Geological Survey reported in August 2025 that dust from dry lake sediments may present health risks, particularly for children in northern Utah. However, Utah's Department of Environmental Quality reported in 2026 that monitoring had not established rising airborne arsenic or other heavy-metal concentrations attributable to lake-level change, and that important questions about dust chemistry and exposure remain unresolved. A credible public-health response must neither dismiss these risks nor declare every windstorm a confirmed toxic exposure. (Sources 08, 09)
Utah administers most relevant water rights under state law; federal agencies manage their own lands and programs, and Tribal sovereignty and treaty obligations require separate legal consideration. Congress can authorize restoration grants, federal scientific monitoring and cross-agency coordination, but cannot simply replace every state water allocation by proclamation. Conservation and transfers must account for priority systems, return flows, existing users and enforceable delivery to the lake. (Sources 03, 07)
The Congressional Research Service outlines options including a new federal restoration initiative, direct federal support to Utah, or expanded use of existing programs. Each carries governance and oversight tradeoffs. AP's preferred approach is a negotiated, auditable federal-state-Tribal partnership with transparent jurisdictional responsibilities rather than an additional agency created merely to hold meetings about the agencies already holding meetings. (Source 07)
Publish basin-wide inflow, depletion, evaporation, groundwater, reservoir releases, salinity and lake elevation in a common public dashboard. Disclose measurement uncertainty, differentiate north and south arms and account for the causeway's effects. Establish a credible hydrological baseline before promising how quickly a target elevation can be reached.
Expand voluntary leasing, dedication and conservation transactions where legally feasible, with independently verified acre-feet reaching the lake. Guard against double counting saved water, paper reductions that never reach a tributary, and transfers that damage other communities. Evaluate compensation for farmers and other water users alongside the cost and durability of each transaction.
Invest in metering, efficient municipal systems, leak reduction, appropriate agricultural improvements, wastewater reuse and industrial water accounting. Evaluate consumptive use rather than treating every reduction in diversion as water delivered to the lake. A new pump can use less electricity and still leave the lake thirsty if the conserved water is simply consumed elsewhere.
Restore wetlands and hydrologic connections where projects are supported by ecological evidence. Expand lakebed dust-source mapping, particulate monitoring and medically relevant exposure research. Prioritize practical interventions at sites that demonstrably generate harmful dust, and publish findings even when they complicate a preferred political narrative.
Compare Utah's experience with other terminal lakes, the Colorado River Basin and drought-stressed Western communities, without conflating their legal compacts or ecological conditions. Coordinate interstate science and federally supported resilience where appropriate. Tribal governments must be partners in water planning, not ceremonial guests invited after the allocation decisions are complete.
The baseline must account for Utah's existing water legislation, conservation programs, restoration grants, water transactions and federal contributions. For example, the 2026 Utah legislation included a $30 million appropriation connected with purchasing U.S. Magnesium, $2.75 million in ongoing lake support and $5 million for water litigation. These measures belong in baseline accounting, subject to verification of actual expenditures and outcomes. (Source 04)
For the first year, estimate hydrological monitoring, legal and water-rights review, water transactions, agricultural and municipal incentives, wetland work, dust monitors, administration and program evaluation. For each of ten years, separately model annual water volumes delivered, acquisition and leasing costs, infrastructure lifecycle costs, grant transfers, avoided duplicative spending, operation and maintenance, climate scenarios, and legally realistic financing. A water right purchased on paper is not a water supply delivered in a drought.
Compare a state-led continuation scenario, a federal matching-grant partnership and a broader multiagency restoration plan. Publish the cost per verified additional acre-foot reaching the lake and the cost per habitat acre demonstrably improved, alongside nonmonetary ecological benefits. Do not automatically monetize uncertain avoided health harms as cash savings, and do not treat projected property-value or tourism gains as appropriated revenue.
AP's first-year net cost and ten-year fiscal position remain undetermined because the annual water-volume target, acquisition price, eligible projects and federal-state cost share have not been fixed. A credible ledger must disclose those parameters rather than declare the lake saved by a round number.
Water conservation can reduce return flows that downstream users and habitats depend upon. Buying water rights can be expensive and contentious, and voluntary transfers can affect rural economies. Infrastructure projects can alter wetlands, create unexpected ecological harms or encourage more consumption. Drought and warming may offset some gains even when individual projects perform as designed.
Some Utah stakeholders favor state-led stewardship and warn that a federal restoration office could add cost, jurisdictional friction and delay. Others argue that the scale of the ecosystem and federal wildlife and public-health interests justify stronger federal participation. The options should be compared using matched budgets, delivery authority, scientific results and explicit responsibilities, not simply judged by which seal appears on a letterhead. (Source 07)
Dust deserves special caution. A drying lakebed is an environmental and potential health concern, but exposure to a specific contaminant must be demonstrated by sampling and epidemiology, not inferred from the presence of that contaminant in sediment alone. Utah's monitoring record presents both reasons for continued investigation and limits on what can currently be asserted. (Source 09)
Publish lake elevations in both arms, seasonal and annual water volume, measurable inflows, acre-feet legally dedicated and actually delivered, salinity, wetland acreage and habitat quality, bird abundance, brine shrimp and fly indicators, exposed dust-generating surface, particulate concentrations and health-study results. Track cost per verified acre-foot, conservation effects on rural communities, and dispute resolution.
The Great Salt Lake does not belong to a press office, a party or a photo opportunity. Its condition reflects the choices of an entire watershed, and its future will reflect what those choices become. The public deserves measurable restoration, transparent tradeoffs and a government competent enough to tell the difference between water promised and water delivered.
01 · Utah Division of Wildlife Resources — Great Salt Lake Water Levels, south-arm gauge updated November 8, 2026. https://wildlife.utah.gov/gslep/waterlevels
02 · Utah Division of Water Resources — Great Salt Lake, historical lake elevations and watershed overview. https://water.utah.gov/great-salt-lake/
03 · Office of the Great Salt Lake Commissioner — Great Salt Lake Strategic Plan, January 15, 2024; page updated June 17, 2026. https://greatsaltlake.utah.gov/strategic-plan/
04 · Office of the Great Salt Lake Commissioner — 2026 Great Salt Lake Legislative Actions and appropriations. https://greatsaltlake.utah.gov/legislation/
05 · Utah Division of Water Rights — Great Salt Lake Conditions, USGS north- and south-arm gauges, updated November 5, 2026. https://wre-rapps.utah.gov/GSLApp/
06 · Utah Division of Wildlife Resources — Birds at Great Salt Lake, ecosystem counts and species. https://wildlife.utah.gov/gslep/wildlife/birds
07 · Congressional Research Service — Restoring the Great Salt Lake Ecosystem, R48928, April 30, 2026. https://www.everycrsreport.com/reports/R48928.html
08 · U.S. Geological Survey — Dust from the Great Salt Lake Dry Lakebed: A Possible Health Risk, August 28, 2025. https://www.usgs.gov/programs/environmental-health-program/science/dust-great-salt-lake-dry-lakebed-a-possible-health
09 · Utah Department of Environmental Quality — Great Salt Lake Dust: Information and Frequently Asked Questions, 2026. https://deq.utah.gov/daq/great-salt-lake-dust-information-and-frequently-asked-questions
WE ARE ONE. · E PLURIBUS UNUM.