Lithium battery supply chain innovation —
greener, better, and at a lower cost.

Producing zero-carbon, low-cost battery materials through proprietary electrolytic separation. No chemical reagents consumed. No freshwater consumption. Just electricity.

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Our Mission

Sustainability starts at the source.

MetaGenesis is a company dedicated to bringing sustainability for the future by producing zero-carbon and low cost lithium battery materials. We operate at the heart of the clean energy transition, supplying the raw materials the world needs while setting a new standard for how they are produced.

Our proprietary electrolytic lithium extraction (ELE) technology recovers battery-grade materials from feedstocks that even conventional processes cannot economically treat. Unlike existing extraction methods, our process consumes no chemical reagents and no freshwater, and can run entirely on renewable energy — producing pure industrial-grade freshwater as a byproduct when processing brines and produced water.

By recovering critical minerals from brines, waste streams and spent batteries, MetaGenesis is positioned to become a global leader in sustainable battery material supply, and an essential strategic partner for any company serious about a lower-carbon future.

MetaGenesis facility
About MetaGenesis

One modular solution for a variety of feedstocks and concentrations.

From high-concentration brines to ultra-low concentration produced water and even battery scrap, our system is engineered to recover battery-grade materials where conventional methods cannot economically operate.

MetaGenesis Business Segments

Focused on the Production of Zero-Carbon-Footprint Lithium Battery Raw Materials and Production Technology Solutions

Commercialised Segments

Salt lake brine extraction
High Li Concentration

Extraction from Salt Lake Brine

Sustainable and efficient extraction of battery material from high-concentration brines.

Oilfield brine extraction
Low Li Concentration

Extraction from Oilfield Brine

Sustainable and efficient extraction of battery material from low-concentration brines.

Battery scrap recovery
Closed-Loop Recovery

Lithium Extraction from Battery Scrap

Closed-loop, high-value recovery of battery material from lithium-ion battery scrap.

R&D Pipeline

Solid-state battery materials
Next Generation

Solid-State Battery Materials

Research, development, and production of key material for next-generation solid-state batteries.

Why partner with us

Our value as your partner.

01

Turn waste into revenue

Your produced water, or battery scrap contains minerals with real market value. We handle the recovery — you capture a new, ongoing revenue stream from a feedstock you already own.

02

Accelerate your ESG goals

Our zero-reagent, renewable-ready process produces battery materials with a dramatically lower carbon footprint than conventional mining — giving you quantifiable progress toward your ESG and net-zero commitments.

03

Proprietary, in-house technology

Everything we deploy is developed and owned in-house, protected by patents. No licensing risk, no third-party dependencies — and a technology moat that scales with us globally.

A Global, Robust IP Portfolio

9 Granted Patents, 28 Filed, All Invention Patents

MetaGenesis patent certificates from multiple jurisdictions
The Future of Lithium

The decarbonization race runs through lithium.

Global emissions targets are reshaping the materials economy. Demand is set to grow fivefold by 2035, and the battle for clean batteries has moved upstream — into the material itself.

The Carbon Frontier

Regional targets are converging — and all roads lead to lithium.

Saudi Arabia
Saudi Green Initiative — 278 Mtpa CO₂e cut by 2030.
Europe
≥55% GHG cut by 2030, net zero by 2050. The EU Battery Regulation already mandates carbon-footprint declarations, with caps to follow.
China
Dual Carbon goals — peak before 2030, neutral before 2060.
North America & SE Asia
Binding net-zero targets by 2050.
Clean batteries are key to decarbonization
  • High Impact Energy and transport together produce about half of global emissions.
  • Solution A European EV emits roughly 70% less than a gasoline car across its lifetime — 63 against 235 g CO₂e per km. But the decarbonization battle has shifted upstream, to the materials inside the battery.
  • Lithium Demand Set to grow fivefold by 2035 (IEA, STEPS).
85–90%
of a battery cell's carbon footprint comes from its raw materials, once the cell is built on low-carbon power — making material production the single most important lever left.
EURegulation 2023/1542

The EU Battery Regulation — carbon-footprint declaration now, intensity caps to follow. Refining still consumes large volumes of acids and alkalis and leaves high-salinity wastewater behind.

Sources: Saudi Green Initiative; European Commission, European Climate Law; IEA Policies Database; IPCC AR6 WGIII (2022); ICCT (2025); Nature Communications (2024); Journal of Energy Storage (2024); Regulation (EU) 2023/1542.

Market Outlook

Battery material — a US$202B market by 2032.

2025 $70.8B Global market value
2032 $201.8B Nearly 3× projected size
  • Lithium demand is forecast to grow fivefold by 2035 as EVs and data centres scale.
  • Mining alone is unlikely to meet it, and governments are racing to control supply and limit exports (China, EU, US).

Global Battery Material Market (US$B)

16.1% CAGR
2025
2032E
USD · 2025–2032 forecast
Future Sources of Battery Material

The growth is not in the mine. It is in the brine and the scrap.

Measured as compound annual growth rate over 2025–2035, conventional mining expands at a fraction of the pace of the sources replacing it. Brine and spent batteries are where the market is moving — and where the extraction technology is still young enough to decide who wins.

Supply route
Compound annual growth rate, 2025–2035
Lithium mining
Hard rock & brine, all methods
7.2%CAGR
Brine extraction Our focus
Via direct lithium extraction (DLE)
19.6%CAGR
Battery recycling Our focus
US$5.8B (2025) → US$37.5B (2035)
20.6%CAGR

Sources: Fortune Business Insights, Battery Material Market 2025–2032 (Sept 2026); IEA, Global Critical Minerals Outlook 2025 (STEPS); Future Market Insights, Lithium Mining Market (2026); IDTechEx, Direct Lithium Extraction 2025–2035; Global Market Insights, Li-ion Battery Recycling Market (2026).

A Process Without Compromise

Sustainable Lithium, redefined.

Most processes trade one burden for another — cleaner water for dirtier power, lower cost for harsher chemistry. Ours holds four conditions at the same time.

  1. Zero

    Chemical reagents consumed

    Separation is driven electrolytically, so there is no wastewater stream and no hazardous byproduct to treat or dispose of.

  2. Net positive

    Freshwater balance

    No freshwater is consumed. Running on brine or produced water, the process returns more clean water than it takes.

  3. 100%

    Renewable-ready

    Electricity is the only input. On renewable power the material carries effectively no process carbon.

  4. Any

    Feedstock composition

    Adaptable across lithium concentrations and impurity profiles — including ultra-low-concentration sources no other commercial solution can reach.

Clean material is no longer a premium. Under the coming carbon caps, it is the licence to supply.

Core Technology

The MG ELE system — mineral recovery powered by electricity alone.

A modular electrolytic platform that produces high-purity battery materials in a single step. No reagents consumed. No wastewater. No trade-offs between sustainability and economics.

Electrolytic Lithium Extraction

The MG ELE system.

Our modular solution ELE (Electrolytic Lithium Extraction) is not only adaptable but economically viable across a wide variety of feedstocks and lithium concentrations. Our proprietary process and system design are protected by a robust patent portfolio.

ELE enables the production of high-purity lithium products in a single step — powered solely by electricity. It eliminates costly, polluting chemical reagents and avoids complex downstream purification, resulting in a clean, streamlined process with no waste byproducts.

In simple terms, ELE unlocks lithium extraction using only electricity — delivering a zero-waste, low-cost solution. Sustainability and economic viability are no longer trade-offs, but inherently aligned.

The MG ELE Process diagram
Technology Advantages

Green-based production for zero-carbon results.

Only requires electricity

Core technology runs purely on electrical input — no thermal processing, no reagent consumption.

No chemical reagents consumed

No reagents consumed, no wastewater. Environmental advantages designed into the process from day one.

Lower operating costs

Lower OPEX + lower carbon intensity = a fundamentally more competitive supply chain.

Ultra-low concentration capable

Commercially viable at lithium concentrations no competitor can touch — unlocking new feedstocks.

High purity & recovery

Battery-grade purity in a single-step process with industry-leading recovery rates.

Modular & scalable

System architecture designed to scale from pilot to industrial production with the same proven core.

Our Main Products

Battery-grade output, every time.

For other product inquiries, please contact us.

Battery-grade Lithium Carbonate

≥99.5% Purity (wt%)

Electrolytic Nickel

≥99.5% Purity (wt%)

Electrolytic Cobalt

≥99.2% Purity (wt%)

Manganese Sulfate

≥98% Purity (wt%)

Li-ion Solid Electrolyte

Powder, pellet, and tube
Contact Us

Let's build a cleaner supply chain — together.

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Headquarters 48377 Fremont Blvd., Suite 115
Fremont, CA 94538