Boron prospectivity
across the USA.
Evaporitic borate and pegmatitic boron, ranked and explained — validated across the United States.
Explore the live demos →
What the model reads for boron.
Every boron target is scored on the same seven lines of evidence — with a pathfinder-geochemistry signature tuned to this system.
Host rock
rock type and age
Gravity & magnetics
buried structures and intrusions
Radiometrics
potassium, thorium, uranium
Terrain shape
elevation, slope, aspect
Surface texture
radar (Sentinel-1)
Alteration
mineral signatures from satellite
Pathfinder chemistry
the elements that point to your commodity
Pathfinder geochemistry the model weighs
Lead signal: Lithium, arsenic and antimony. These are the elements this national model actually reads to rank boron ground.
What is boron?
Boron is a light metalloid that almost never occurs as the free element; in nature it is locked into borate minerals, chiefly the sodium borates borax and kernite and the calcium and sodium-calcium borates colemanite and ulexite. Because borates are highly soluble, economic concentrations form only in arid settings. MineDSS models boron through two seeded families: evaporitic borate systems, deposited in closed desert basins, and pegmatitic systems, where boron is carried in tourmaline within highly evolved granitic bodies. Each leaves a mappable footprint — evaporite-bearing lacustrine sequences or altered, veined pegmatite margins, distinctive geophysical responses and a co-located multi-element geochemical halo — which is exactly the pattern a prospectivity model is built to read across large, partly covered terrains.
The deposit model
Evaporitic borate deposits form in impermeable, internally drained basins in arid climates, where volcanic and geothermal activity supplies boron-rich waters that pond in playa lakes and concentrate through evaporation. As the brine matures, a zoned borate assemblage precipitates, with sodium borates such as borax and kernite passing outward into calcium-bearing colemanite and ulexite, interbedded with clays and other evaporites. Pegmatitic systems concentrate boron along the volatile-rich margins of fractionated granitic intrusions, where it crystallises as tourmaline alongside other incompatible elements. MineDSS reads these contrasting settings by combining mapped sedimentary and intrusive geology and basin architecture, geophysical signatures of concealed structures and lithologies, satellite-derived indications of altered and evaporite-bearing ground, and the pathfinder geochemistry that trails a boron-enriched system, ranking ground by its resemblance to well-characterised evaporitic and pegmatitic boron settings.
Why it matters
Boron is a strategic industrial material and appears on critical-minerals lists in several jurisdictions, reflecting both its breadth of use and the concentration of its supply. A large share of world borate production and reserves sits with a small number of producers, led by Turkey and the United States, so security of supply is a live concern for downstream manufacturers and governments alike. Interest has sharpened further because boron is essential to neodymium-iron-boron permanent magnets, which drive electric-vehicle motors and wind-turbine generators, and to a range of defence and high-technology applications. Transparent, defensible targeting of prospective ground therefore supports secure, diversified supply for both enterprise and government stakeholders.
Where it's used
The largest uses of boron are in glass and ceramics: borosilicate glass, valued for its resistance to thermal shock, and boron-bearing fibreglass and glass-wool insulation, along with ceramic glazes and enamels. Borates are also central to detergents and bleaches, to agriculture as an essential micronutrient in fertilisers, and to flame retardants and wood preservatives. In high-technology and defence sectors, boron enables neodymium-iron-boron magnets, extremely hard boron carbide for abrasives and armour, and, through its strong neutron absorption, control and shielding materials in nuclear reactors. This breadth across construction, agriculture, clean energy and defence underpins steady, strategically significant demand.
How MineDSS reads it
MineDSS reads a boron-focused pathfinder suite qualitatively rather than through fixed weights. The seeded elements are lithium, arsenic, antimony, strontium, tin and beryllium, with lithium, arsenic and antimony carrying the lead signal. Lithium concentrates alongside boron in evaporated continental brines; arsenic and antimony track the geothermal and hot-spring activity that feeds borate basins, an association seen in the arsenic- and antimony-bearing borate beds of the Mojave; strontium follows the calcium-borate and evaporite chemistry; and tin and beryllium mark the evolved pegmatitic setting in which boron forms tourmaline. This geochemistry is interpreted alongside mapped geology and basin architecture, geophysical expressions of concealed structure and lithology, and satellite indications of altered and evaporite-bearing ground. No single line is treated as decisive; the model weighs converging evidence rather than any isolated anomaly.
Boron prospectivity — common questions
Which boron deposit types does MineDSS model?
MineDSS models two seeded families: evaporitic borate systems and pegmatitic boron systems. Evaporitic deposits form in closed, arid desert basins where boron-rich volcanic and geothermal waters concentrate by evaporation, precipitating a zoned assemblage of sodium borates such as borax and kernite and calcium borates such as colemanite and ulexite. Pegmatitic systems carry boron in tourmaline along the volatile-rich margins of highly fractionated granitic intrusions. Both leave a distinct footprint — evaporite-bearing lacustrine sequences or altered pegmatite margins with a co-located geochemical halo — which is the pattern the model is built to read. It does not attempt to represent unrelated deposit styles.
How is the model's accuracy measured, and where is boron available?
We validate every model the hard way — held-out spatial cross-validation. We hide known deposits, rebuild the model without them, then test whether it still finds them, with test blocks kept spatially separated so it cannot memorise nearby points. We are currently refreshing our published national skill figures so they reflect deployment-time performance, and will republish them per model. Coverage today spans the United States; the figures are model-level skill, never a specific site's measured accuracy, and never a discovery or JORC / NI 43-101 resource claim.
Which pathfinder elements does MineDSS use for boron?
The seeded pathfinder suite is lithium, arsenic, antimony, strontium, tin and beryllium, with lithium, arsenic and antimony carrying the lead signal. Lithium co-concentrates with boron in evaporated continental brines, arsenic and antimony trace the geothermal and hot-spring input that feeds borate basins, strontium follows the calcium-borate and evaporite chemistry, and tin and beryllium mark the evolved pegmatitic setting where boron crystallises as tourmaline. MineDSS interprets this geochemistry qualitatively and alongside other evidence — mapped geology and basin architecture, geophysical signatures of concealed structure and lithology, and satellite indications of altered and evaporite-bearing ground — rather than applying fixed numeric weights to any one element.
Does a high MineDSS score mean a deposit or a resource estimate?
No. A high score means ground is geologically similar to known boron-mineralised systems and merits closer exploration attention. It is not a discovery, not a JORC or NI 43-101 resource or reserve estimate, and not drilling or investment advice. MineDSS ranks prospectivity to help prioritise where to look; confirming whether economic borate or boron mineralisation is present, and in what quantity and grade, still requires field programmes, drilling and independent assessment by qualified professionals.
Other commodities we model
Better boron targets. Evidence you can check.
Draw your ground, pick boron, and see the ranked targets and the reasoning behind each.
Explore the live demos to see it on real ground.