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SILICTECH

Investors & Partners

The anode is the last large unclaimed gain in lithium-ion.

This page sets out why we think that is true, what we are building, how it could reach a market, and what could go wrong. The last part matters as much as the first.

Value creation

Value compounds as uncertainty is removed.

Each gate answers a harder commercial question. Can the material be repeated? Does a qualified customer want it? Will that customer fund evaluation? Can both teams develop it toward qualification?

A cinematic engineering qualification line carrying silicon carbon material through four gates: repeatable material, requested sample, funded electrochemical evaluation, and joint battery development.

Current position / G1

G1

Repeatable material

G2

Requested sample

G3

Funded evaluation

G4

Joint development

The commercial pathway moves a repeatable silicon carbon material through a requested sample, funded electrochemical evaluation, and joint battery development.

Commercial proof

Four gates, with the current one marked.

The first commercial objective is not a headline valuation. It is a sequence of increasingly credible signals that connects repeatable material to paid customer work.

  1. G1Current focus

    Reproducible material

    A repeatable material and electrode process supported by traceable bench data.

  2. G2Next signal

    Sample request

    A qualified cell developer asks to evaluate a sample against an explicit use case.

  3. G3First revenue

    Funded evaluation

    A partner funds structured testing, adaptation, and technical support around its cell platform.

  4. G4Commercial pathway

    Joint development

    The material and electrode are co-developed toward qualification, scale-up, and supply or licensing.

Silic Tech is pre-revenue. It has no announced contracts, letters of intent, grants, or external funding. Reproducible material is the current G1 focus.

Thesis

Six steps in the argument.

  1. 01

    Demand is compounding

    Electrification of transport, grid storage, and aerospace are all pulling in the same direction: more stored energy per unit of mass and volume.

  2. 02

    Graphite is near a material ceiling

    At 372 mAh/g theoretical capacity, incremental graphite optimisation returns less each year. The constraint is the material, not the engineering around it.

  3. 03

    Silicon holds the largest known headroom

    Roughly ten times the theoretical capacity, from an abundant element already familiar to industrial supply chains.

  4. 04

    The barrier is mechanical, not chemical

    Silicon's capacity is not in question. Its survival under repeated ~300% volume change is. That is a materials-architecture problem.

  5. 05

    We are building directly at that barrier

    A carbon architecture engineered to absorb expansion, hold electrical contact, and stabilise the interface.

  6. 06

    Manufacturing compatibility lowers adoption cost

    A material intended to run on existing electrode lines faces a materially shorter path to qualification than one requiring new plant.

Market

A small market growing quickly.

Silicon–carbon anode materials are early. The figures below come from preliminary third-party market research and have not yet been independently verified by us.

$141M
Approximate global market, ~2026EstimateMarket estimate.Preliminary third-party market research. Source to be cited before launch.
$3.1B
Potential projected market, 2034EstimateMarket estimate.Preliminary third-party projection. Source to be cited before launch.
~35%
Indicative CAGREstimateMarket estimate.Derived from the projections above. Source to be cited before launch.

Demand drivers

  • Global electric-vehicle adoption
  • Demand for longer vehicle range
  • Demand for fast charging
  • Growth in renewable generation
  • Expansion of stationary storage
  • Consumer demand for longer device runtime
  • Aerospace electrification
  • Battery supply-chain investment
  • Strategic demand for differentiated battery materials

Defensibility

Where a moat could form.

We hold no granted patents and make no patent-pending claim. What follows is where we believe defensible advantage accumulates in this category, and where our development effort is directed.

  • Composite material architecture
  • Silicon morphology and particle design
  • Carbon-shell engineering
  • Interfacial control
  • Synthesis pathways and processing conditions
  • Surface treatment and composite formulation
  • Electrode integration
  • Manufacturing know-how
  • Accumulated experimental data

Intellectual-property strategy is under development. We describe our position as process know-how and materials-design expertise, because that is what it currently is.

Commercial pathways

Four routes to revenue.

These are not four separate businesses. They are staged options on the same underlying material platform, and which one leads depends on who moves first with us.

B2B material supply

Development and supply of silicon–carbon anode powders and engineered active materials to cell manufacturers and strategic customers.

Joint development

Co-development programmes with battery manufacturers, automotive companies, electronics companies, or strategic material partners.

Technology licensing

Licensing of selected material architectures, processing methods, or production approaches where commercially appropriate.

Strategic partnerships

Partnerships spanning scale-up, validation, pilot manufacturing, raw-material supply, cell integration, and market deployment.

Roadmap

Undated on purpose.

We do not publish projected dates or completion percentages. Milestones appear here once they are reached and can be substantiated.

  1. Material

    • Material architecture optimisation
    • Formulation refinement
    • Synthesis process repeatability
  2. Validation

    • Electrochemical validation
    • Coin-cell testing
    • Full-cell testing
    • Third-party validation
  3. Scale

    • Pilot-scale synthesis
    • Electrode integration
    • Customer sampling
  4. Commercial

    • Strategic joint development
    • Manufacturing scale-up
    • Commercial qualification

Risk

What could stop this working.

Any investor who has looked at silicon anodes before already knows this list. Publishing it is not a weakness; omitting it would be.

  • Technical risk

    Silicon-anode degradation is a well-studied and genuinely hard problem. Many credible approaches have not reached commercial durability.

  • Scale-up risk

    Material behaviour at gram scale does not automatically reproduce at tonne scale. Process repeatability is an open engineering question.

  • Qualification timelines

    Cell manufacturers and automotive OEMs run multi-year qualification programmes. Adoption is slow by design, for good reason.

  • Competitive field

    Several well-capitalised companies are pursuing silicon anodes with substantial funding and pilot capacity already in place.

Early conversations are the valuable ones.

We are a development-stage company with no revenue, no funding round announced, and no commercial contracts. What we have is a clear technical thesis and three co-founders whose experience spans battery science, industrial IP, manufacturing discipline, and customer qualification.

Detailed technical data, test methodology, and development status are available to serious counterparties under a confidentiality agreement.