Revolutionary Lithium Extraction Technology

Patented, modular lithium extraction at the source that turns brine into battery-grade lithium - faster, cleaner, and more cost-effective than traditional mining.

Discover our lithium extraction technology
Lithium Extraction Technology (1)

Rethinking Critical Mineral Supply

The status quo can’t keep up. Your assets can.

For decades, the plan for lithium has been remote, billion-dollar megaprojects: long lead times, heavy infrastructure, complex permitting, and concentrates shipped halfway around the world to be refined. That model is slow, fragile, and costly - and it won’t deliver the lithium the market needs.

Meanwhile, lithium-rich brines are already moving through your system.

Oilfield produced water and geothermal brines flow through your infrastructure every day. With the right technology, those “waste” streams become high-efficiency feedstocks for local, battery-grade lithium and other critical minerals - a new revenue line inside assets you already own.

Direct Lithium Extraction (DLE) turns that flow into product - but DLE isn’t a box, it is a system. It must handle real-world brines, not just lab samples. We’re industrial water experts, not mining theorists, and we’ve built a patented, surface-based lithium extraction solution that runs on your brines.

We don’t sell you DLE equipment. We design, build, own, and operate lithium plants on your wastewater - and share the upside while we carry the headache.

Why rely on distant, high-cost sources when the solution is right here?

We’re building a modern critical-minerals platform that turns wastewater into local, sustainable, and cost-effective battery-grade lithium - the fastest route from resource to market.

Turning Wastewater into Lithium Revenue

We operate the lithium plant. You keep the upside.

Lithium Harvest produces battery-grade lithium chemicals from secondary brines like oilfield produced water and geothermal brines - right where those streams already flow and existing infrastructure already stands.

No multi-billion-dollar mines. No decade-long waits. Just modular, surface-based adsorption DLE integrated with proprietary water treatment to deliver local lithium chemicals on-site by design.
We work as your DBOO lithium partner. You provide the brine and site access. We design, build, and operate the plant, sharing the upside through revenue sharing or royalties.

Do you really want to become a lithium operator? Leave that to us. We handle extraction, refining, and offtake under a DBOO model, so you can add a new revenue line without requiring new teams, new expertise, or heavy CapEx on your balance sheet.

We transform your liability stream into one of the world’s most sustainable, lowest-cost local lithium supplies at industrial speed - and we handle the heavy lifting in design, construction, and day-to-day operations. You keep running your assets. We turn your brine into long-term lithium revenue.

Our Process - From Brine to Bottom Line

Integration is our superpower - because real brines are never “lab clean”.

Most DLE players optimize a single “DLE box” and quietly struggle with real-world water chemistry. We don’t. Our process is built around the brine you actually have - low-grade, variable, and complex - not the cleaned-up lab version.

In DLE, success isn’t just about the extraction step. It’s about how you integrate everything upstream and downstream. We engineer the whole process, not just a “DLE box”. Pre-treatment, extraction, and refining are designed to work together to produce bankable, battery-grade products - not just pilot curves.

How it works in practice

  1. Collection: Produced water or geothermal brine is collected and directed to our co-located treatment facility.
  2. Advanced water treatment: We remove solids, hydrocarbons, and other contaminants using our proprietary filtration technology, creating the ideal conditions for high-yield lithium extraction.
  3. Lithium extraction: Lithium is efficiently extracted by DLE without using any chemicals.
  4. Lithium refining: Lithium is refined into battery-grade lithium carbonate.

Treated brine and process water are then managed through reinjection, reuse, or compliant disposal, integrated with your existing water systems.

The value isn’t just in recovering lithium - it’s in delivering qualified tonnes with minimal losses. That’s how we drive higher project value per ton.

Connect with us to explore our solution
Lithium Harvest Lithium Extraction Plant (1)

Direct Lithium Extraction - But Different

At Lithium Harvest, our proprietary Direct Lithium Extraction (DLE) technology combines advanced adsorption methods with advanced water treatment, transforming oilfield wastewater and other lithium-rich brines into high-purity lithium.

We don’t just extract lithium - we rethink how it’s produced.

Our solution delivers the fastest, most cost-effective lithium production on the market while setting a new global benchmark for sustainability. Whether your brine comes from oil and gas operations or geothermal sources, our process turns waste into a strategic, revenue-generating resource.

Lithium Harvest Lithium Extraction Solution

Lithium Harvest Solution

Direct Lithium Extraction Plant

Traditional DLE

Lithium Harvest Advantage

Lithium Harvest Advantage

Project implementation time 12-18 months 5-7 years No drilling permits needed
Lithium feedstock Produced water/geothermal brine Continental brine No asset acquisition
System design Modular and mobile Mobile / stationary Unique modular design
Freshwater consumption per mt of LCE 22,729 gallons 26,417 gallons Water recycling/reuse
CO₂ footprint per mt of LCE Neutral 2.5 tonne Offsets CO₂ footprint from wastewater
Average invested capital per mt of LCE $17,100 $62,500 No land acquisition, exploration, and drilling
Average cost per mt of LCE $3,647 $6,000 Low energy technology
Lithium Harvest Lithium Extraction Solution

Lithium Harvest Solution

Project implementation time 12-18 months
Lithium feedstock Produced water/geothermal brine
System design Modular and mobile
Freshwater consumption per mt of LCE 22,729 gallons
CO₂ footprint per mt of LCE Neutral
Average invested capital per mt of LCE $17,100
Average cost per mt of LCE $3,647
Direct Lithium Extraction Plant

Traditional DLE

Project implementation time 5-7 years
Lithium feedstock Continental brine
System design Mobile / stationary
Freshwater consumption per mt of LCE 26,417 gallons
CO₂ footprint per mt of LCE 2.5 tonne
Average invested capital per mt of LCE $62,500
Average cost per mt of LCE $6,000
Lithium Harvest Advantage

Lithium Harvest Advantage

Project implementation time No drilling permits needed
Lithium feedstock No asset acquisition
System design Unique modular design
Freshwater consumption per mt of LCE Water recycling/reuse
CO₂ footprint per mt of LCE Offsets CO₂ footprint from wastewater
Average invested capital per mt of LCE No land acquisition, exploration, and drilling
Average cost per mt of LCE Low energy technology

We Outpace Peers

Cleaner. Smaller. Cheaper. Faster.

Lithium Harvest Lithium Extraction Solution

Lithium Harvest Solution

Direct Lithium Extraction Plant

Traditional DLE

Solar Evaporation Brine Extraction

Solar Evaporation Brine Extraction

Hard Rock Mining

Hard Rock Mining

Lithium feedstock Produced water/geothermal brine Continental brine Continental brine Rock / spodumene
Project implementation time 12-18 months 5-7 years 13-15 years 10-17 years
Lithium carbonate production time 2 hours 2 hours 13-24 months 3-6 months
Lithium yield >95% 80-95% 20-50% 40-70%
Average footprint per mt of LCE 61 ft² 172 ft² 39,352 ft² 3,605 ft²
Environmental impact Minimal Minimal Soil and water contamination Soil and water contamination
Freshwater consumption per mt of LCE 22,729 gallons 26,417 gallons 118,877 gallons 20,341 gallons
CO₂ footprint per mt of LCE Neutral 2.5 tonne 3.1 tonne 20.4 tonne
Average invested capital per mt of LCE $17,100 $62,500 $34,000 $60,000
Average cost per mt of LCE $3,647 $6,000 $6,400 $7,000
Lithium Harvest Lithium Extraction Solution

Lithium Harvest Solution

Lithium feedstock Produced water/geothermal brine
Project implementation time 12-18 months
Lithium carbonate production time 2 hours
Lithium yield >95%
Average footprint per mt of LCE 61 ft²
Environmental impact Minimal
Freshwater consumption per mt of LCE 22,729 gallons
CO₂ footprint per mt of LCE Neutral
Average invested capital per mt of LCE $17,100
Average cost per mt of LCE $3,647
Direct Lithium Extraction Plant

Traditional DLE

Lithium feedstock Continental brine
Project implementation time 5-7 years
Lithium carbonate production time 2 hours
Lithium yield 80-95%
Average footprint per mt of LCE 172 ft²
Environmental impact Minimal
Freshwater consumption per mt of LCE 26,417 gallons
CO₂ footprint per mt of LCE 2.5 tonne
Average invested capital per mt of LCE $62,500
Average cost per mt of LCE $6,000
Solar Evaporation Brine Extraction

Solar Evaporation Brine Extraction

Lithium feedstock Continental brine
Project implementation time 13-15 years
Lithium carbonate production time 13-24 months
Lithium yield 20-50%
Average footprint per mt of LCE 39,352 ft²
Environmental impact Soil and water contamination
Freshwater consumption per mt of LCE 118,877 gallons
CO₂ footprint per mt of LCE 3.1 tonne
Average invested capital per mt of LCE $34,000
Average cost per mt of LCE $6,400
Hard Rock Mining

Hard Rock Mining

Lithium feedstock Rock / spodumene
Project implementation time 10-17 years
Lithium carbonate production time 3-6 months
Lithium yield 40-70%
Average footprint per mt of LCE 3,605 ft²
Environmental impact Soil and water contamination
Freshwater consumption per mt of LCE 20,341 gallons
CO₂ footprint per mt of LCE 20.4 tonne
Average invested capital per mt of LCE $60,000
Average cost per mt of LCE $7,000
Benchmark Mineral Intelligence, S&P Global, and International Lithium Association

How Our Technology Performs in the Real World

Lithium Harvest is designed to outperform traditional lithium routes in what truly matters: emissions, footprint, water usage, capital, cost, and time to revenue.

The benchmarks below demonstrate how our surface-based DLE and DBOO model compares to evaporation, hard rock, and other DLE concepts - in terms that matter to your operations, ESG, and commercial teams.

  • Zero-Carbon Operations (Scope 1 & 2)

    We remove the big emitters: no blasting, no trucking, no acid calcination. By co-locating extraction and refining at the source, powering low-pressure equipment with clean energy (including geothermal energy where available), and avoiding emissions tied to oilfield wastewater disposal, Lithium Harvest can essentially eliminate Scope 1 and 2 CO₂ emissions from our lithium production.

    What this means for your site:

    • A lithium plant on your asset that supports your decarbonization and ESG targets
    • Scope 3 and lifecycle benefits for the offtakers we sell to, attached to volumes coming from your operations

    In our lifecycle analysis, lithium from our operations can reduce the EV greenhouse gas breakeven point by up to 5.7 times compared to batteries using conventionally mined lithium. Learn more here.

  • Compact by Design - No Ponds, No Pits

    Evaporation ponds sprawl across salt flats - tens of thousands of square feet per ton of LCE produced - while hard-rock pits, waste dumps, and tailings dams scar larger areas than the orebody itself. Our plants do not. Lithium Harvest’s facilities sit on compact pads next to produced water centers and geothermal plants and are up to 99% smaller than evaporation ponds and 98% smaller than open-pit mines.

    No pits, no ponds, no long new roads or pipelines. Smaller pads = easier siting, faster permits, lower civil costs, and far less ecological and community disturbance.

    What this means for your site:

    • Easier integration into existing facilities
    • Lower local impact and smoother stakeholder and community dialogue
  • Minimal Freshwater Consumption

    Evaporation consumes vast volumes of water. Hard-rock circuits often rely on chemical-intensive process water. Our adsorption-based DLE uses water as the working fluid for desorption instead of heavy chemical cocktails. Around 96% of the water remains within the DLE circuit, and 90% is recycled plant-wide, with no waste products.

    We may use slightly more water than some hard-rock routes, but using water rather than complex chemistry reduces costs, lowers the freshwater intensity of evaporation, and remains competitive with other DLE technologies without the burden of hard-rock chemistry.

    What this means for your site:

    • A lithium plant that fits within tight water and permits constraints
    • Water stress is a gating criterion for offtakers and sustainable bond buyers.
  • Optimized Capital Footprint - Built to Reduce CapEx

    Traditional lithium projects spend heavily before the first tonne is produced - earthworks, pits or ponds, long pipelines, new roads, and large conversion plants.

    We take a different route.

    Lithium Harvest places modular, surface-based plants on existing sites, using the infrastructure you already have: pads, power, roads, and water handling. No pits, no ponds, no long new pipelines. Modular trains are right-sized to your brine flow and built from a repeatable design, so more of the expenditure goes into productive capacity, not dirt and concrete.

    What this means for you:

    • Lower total capital required compared to greenfield ponds or hard-rock mines - less capital at risk, shorter build cycles, and faster payback
    • Less site work and civil spending by using the land and infrastructure you already operate
    • Scalable by design - start at a sensible scale and add modules as brine volumes and offtake grow, with expansions that can be funded mainly from operating cash flow

    Lithium Harvest is in the lowest-cost decile compared to DLE peers, with up to 73% lower CapEx per ton of LCE than traditional mining routes.

  • Cost Leadership in Lithium Production

    Hard-rock and long-distance supply chains carry significant cost burdens: mining fleets, diesel haulage, 1,000°C kilns, multi-step conversion, and extensive logistics. Evaporation leaves a significant amount of lithium behind, resulting in wasted reagents and labor.

    We run fully automated, low-pressure operations with short logistics, high lithium recovery, and minimal reagents after pretreatment. Fixed-price access to waste-stream brine removes the ore-price volatility seen in mining routes. The result is a structurally lower steady-state unit cost - in our benchmarking, up to 48% lower than traditional mining methods. Lithium Harvest operates well inside the bottom decile of peers’ operating costs with meaningful headroom to market-clearing price bands, positioning our plants for durable margins and disciplined growth.

    What this means for you as a site partner:

    • A plant on your asset designed to stay competitive even in weak price environments
    • More resilient revenue share from lithium volumes that are built to keep running through the cycle
    • For offtakers, we sell to: competitively priced, low-footprint lithium from your region, backed by a cost base designed to stay online when higher-cost supply shuts in
  • Accelerated Project Timelines

    Conventional lithium projects typically take 10-17 years (for hard rock) or 13-15 years (for evaporation) to reach nameplate capacity. We take a different route.

    By leveraging existing produced-water and geothermal infrastructure, avoiding pits and ponds, and installing modular surface plants, we can transition from the final investment decision to the first commercial tonnes in approximately 12 to 18 months.

    What this means for you:

    • Near-term revenue share instead of decade-long development cycles
    • Faster ESG impact from assets you already own
    • A scalable template that can be rolled out across your broader portfolio

We’re Different from the Other 100 DLE Players

Not all DLE is created equal. Some teams sell media, some sell skids, some sell slides. We build and operate full plants that run on real brines, on real sites, with real economics.

Anyone can talk about direct lithium extraction. Very few can deliver it at scale, on complex brines, with bankable performance. You’re not just picking a technology - you’re choosing a partner, a cost curve, and a risk profile.

Our edge is a combination of protected process IP, a flow sheet purpose-built for wastewater brines, full-process water-treatment expertise, and an on-site DBOO model that keeps design, build, and operations in one hand. The result: plants that are faster to build, cheaper to run, and structurally hard to copy.

Explore the points below to see what truly sets Lithium Harvest apart in the DLE landscape.

  • A Real, IP-Protected Moat - Full Process, not a “DLE Box”

    Most DLE players focus on a single step or are still stuck in pilot mode. Lithium Harvest is different.

    We own an IP-protected, end-to-end process for extracting lithium from wastewater, including pre-treatment, DLE, and post-treatment, all engineered for surface-level feedstock.

    This is not generic DLE. It is a fully integrated, highly engineered process refined over decades of real-world industrial water operations.

  • Industrial Water DNA - We’re Water Engineers, Not Mining Theorists

    While most lithium startups are founded by geologists or financiers and struggle with scale-up, our team brings over 20 years of experience in water treatment deployment, having installed more than 400 full-scale systems across the oil & gas and industrial sectors. We’re already working with industry leaders, including partners that produce over 70,000 tons of lithium carbonate annually.

    We have worked with every technology we use in our flow sheet, not in lab pilots, but in full-scale, high-uptime environments. That experience gives us unmatched expertise in:

    • Conditioning complex brines to maximize lithium yield
    • Control fouling, scaling, and other performance-killing risks
    • Managing resin life, media performance, and system balance
    • Integrating unit operations into a fully optimized, low-cost lithium extraction solution.

    This deep operational knowledge enables us to achieve battery-grade consistency and project-level value where others typically struggle.

  • Designed, Built, and Operated In-House

    We don’t hand your project to a generic EPC and hope it all fits together. Our facilities are designed, engineered, built, and operated in-house under a Design-Build-Own-Operate (DBOO) model.

    That gives you:

    • Lower CapEx through lean, fit-for-purpose design
    • Faster troubleshooting and performance tuning from the team that built the system
    • Operational knowledge is kept inside the project, not lost in handovers

    Most competitors must coordinate with multiple third parties, including tech vendors, EPCs, and operators, each with their own incentives and learning curves. That’s where projects often go off track. Our integrated model removes that friction.

    Our model keeps cost discipline, operational control, and long-term performance in one place - so you gain a new revenue stream without becoming a lithium operator.

  • Integration Is Our Superpower

    In DLE, success is not just about the extraction technology - it is about how you integrate all the upstream and downstream steps. Poor pre-treatment or inadequate refining can ruin recovery rates or disqualify the product for battery use.

    Many DLE players optimize the “DLE box” and underestimate the importance of pre- and post-treatment; we don’t. We have built our system to optimize every step - because the value lies not just in recovering lithium, but in qualifying product and minimizing losses at every step. That is why our partners capture more value per tonne of lithium from the same barrels of water they already handle.

Cleaner Lithium, Built for The Energy Transition

Traditional mining still supplies 89% of today’s lithium - and it’s too slow, too heavy, and too fragile for what comes next.

We know we’ve been throwing a lot of numbers at you. This is where they turn into real-world impact.

Hard rock and evaporation ponds are slow, costly, and resource-intensive. They create bottlenecks we can’t afford if we want to electrify faster and decarbonize at scale.

Below, you can see how Lithium Harvest compares key sustainability metrics when you replace pits and ponds with surface-based lithium extraction from wastewater. Every metric is calculated per tonne of LCE. Now multiply that by the millions of tonnes the energy transition will require - and you can do the math on what kind of lithium the world really needs.

Traditional Lithium Mine

Traditional Lithium Mining

Lithium Harvest Lithium Extraction Solution

Lithium Harvest Solution

Sustainability Advantage For Lithium Harvest

Sustainability Advantage

Lithium feedstock Continental brine/spodumene Produced water/geothermal brine Taps unconventional brines already flowing through existing infrastructure - avoids new pits, evaporation ponds, and blasting while delivering the extra lithium the energy transition can’t obtain from conventional mines alone.
Project implementation time 5-17 years 12-18 months | up to 17× faster Delivers lithium in time for this demand cycle, not the next one
Lithium carbonate production time 2 hours - 6 months 2 hours | up to 8,766× faster Hours instead of months - less waste, less weather risk, more efficient use of land and water
Lithium yield 20-95% >95% | up to 375% higher Gets more lithium from the same resource with less waste
Average footprint per mt of LCE 172 ft² - 39,352 ft² 61 ft² | up to 99% smaller 243 parking spots - a whole parking garage saved for every tonne
Freshwater consumption per mt of LCE 26,417 - 118,877 gallons 22,729 gallons | up to 81% lower Saves 1.5 million coffees worth of water each tonne
CO₂ footprint per mt of LCE 2.5 - 20.4 tonne Neutral | 100% lower Avoids emissions equal to 4.4 passenger cars taken off the road for a whole year
Battery CO₂ (per EV) 4.7 tonne 2.0 tonne | 57% lower Up to 57 % lower battery lifecycle emissions when our lithium is used
Lifetime EV CO₂ (per EV) 16.9 tonne 14.2 tonne | 16% lower Makes EVs meaningfully cleaner over their lifetime vs ICE
GHG breakeven vs ICE 11,335 mi/18,243 km 1,982 mi/3,190 km | 5.72× sooner EVs “win” on climate much sooner in real-world mileage, helping decarbonize faster
Traditional Lithium Mine

Traditional Lithium Mining

Lithium feedstock Continental brine/spodumene
Project implementation time 5-17 years
Lithium carbonate production time 2 hours - 6 months
Lithium yield 20-95%
Average footprint per mt of LCE 172 ft² - 39,352 ft²
Freshwater consumption per mt of LCE 26,417 - 118,877 gallons
CO₂ footprint per mt of LCE 2.5 - 20.4 tonne
Battery CO₂ (per EV) 4.7 tonne
Lifetime EV CO₂ (per EV) 16.9 tonne
GHG breakeven vs ICE 11,335 mi/18,243 km
Lithium Harvest Lithium Extraction Solution

Lithium Harvest Solution

Lithium feedstock Produced water/geothermal brine
Project implementation time 12-18 months | up to 17× faster
Lithium carbonate production time 2 hours | up to 8,766× faster
Lithium yield >95% | up to 375% higher
Average footprint per mt of LCE 61 ft² | up to 99% smaller
Freshwater consumption per mt of LCE 22,729 gallons | up to 81% lower
CO₂ footprint per mt of LCE Neutral | 100% lower
Battery CO₂ (per EV) 2.0 tonne | 57% lower
Lifetime EV CO₂ (per EV) 14.2 tonne | 16% lower
GHG breakeven vs ICE 1,982 mi/3,190 km | 5.72× sooner
Sustainability Advantage For Lithium Harvest

Sustainability Advantage

Lithium feedstock Taps unconventional brines already flowing through existing infrastructure - avoids new pits, evaporation ponds, and blasting while delivering the extra lithium the energy transition can’t obtain from conventional mines alone.
Project implementation time Delivers lithium in time for this demand cycle, not the next one
Lithium carbonate production time Hours instead of months - less waste, less weather risk, more efficient use of land and water
Lithium yield Gets more lithium from the same resource with less waste
Average footprint per mt of LCE 243 parking spots - a whole parking garage saved for every tonne
Freshwater consumption per mt of LCE Saves 1.5 million coffees worth of water each tonne
CO₂ footprint per mt of LCE Avoids emissions equal to 4.4 passenger cars taken off the road for a whole year
Battery CO₂ (per EV) Up to 57 % lower battery lifecycle emissions when our lithium is used
Lifetime EV CO₂ (per EV) Makes EVs meaningfully cleaner over their lifetime vs ICE
GHG breakeven vs ICE EVs “win” on climate much sooner in real-world mileage, helping decarbonize faster
Benchmark Mineral Intelligence, S&P Global, International Lithium Association, IEA, ICCT, and EDGAR Community Database

One Platform. Multiple Industries. Maximum Impact.

Our extraction system isn’t a one-size-fits-all solution - it’s a modular platform engineered to handle multiple brine sources, delivering local, fast, cost-effective, sustainable lithium across the entire battery value chain.

We’re water experts first. That expertise lets us recover lithium from virtually any lithium-bearing liquid - today that’s produced water and geothermal brine; tomorrow it could be recycling leachates or new industrial effluents.

Bottom line: One platform, many feedstocks, one mission - provide sustainable lithium exactly where the energy transition needs it most.

Contact Us

Talk to us about your brine! Our team of water treatment and extraction experts is ready to outline potential project pathways and next steps.

Contact Lithium Harvest
The contact form has been submitted. We will get back to you as soon as possible
An error occured while submitting the form
This site is protected by reCAPTCHA and the Google Privacy Policy and Terms of Service apply.