LGL Limited is entering an important new phase in the commercial development of its bioengineered leather platform through a proposed joint venture with US-based luxury brand operator IMPOSTER LLC.

The proposed 50/50 joint venture is designed to create a capital-efficient route into the North American luxury market, with an initial focus on showcasing and commercialising T-Rex Leather™ at major US luxury and cultural events.

From technology to commercial activation

For LGL, the partnership represents a significant step forward in the journey from technology development to market activation.

IMPOSTER brings US luxury-market relationships, brand-building expertise and experience across premium retail and cultural channels. Together, the companies aim to introduce T-Rex Leather™ to a new audience while establishing a platform for future commercial opportunities.

The first phase will see T-Rex Leather™ showcased through targeted US activations, including events around the Hampton Classic Horse Show, New York Fashion Week and the Humane World Gala.

Subject to the completion of the proposed transaction and funding conditions, a second phase would establish broader commercial category exclusivity through the joint venture.

Protecting the technology behind the material

Importantly, LGL and BSF Enterprise PLC will retain ownership of the underlying intellectual property, scaffold workflows and core cellular technology developed through the Advanced Tissue Engineering Platform (ATEP™).

LGL will act as the exclusive material supplier to the proposed joint venture, creating a model that combines LGL’s proprietary material technology with IMPOSTER’s commercial and brand capabilities.

More than T-Rex Leather™

While T-Rex Leather™ provides a powerful and distinctive demonstration of what the platform can achieve, it is only one expression of LGL’s wider technology.

The partnership provides an opportunity to demonstrate how cultivated and bioengineered leather can move beyond conventional material development and into a new category of luxury — where materials can be engineered, cultivated and ultimately grown to specification.

Leather is moving from animal inheritance to engineered exclusivity.

The proposed joint venture remains subject to due diligence, definitive agreements, funding conditions and customary approvals. However, its development marks an important milestone as LGL moves towards commercialising its technology and establishing a presence in the North American luxury market.

The post LGL and IMPOSTER: Opening a New Chapter for Cultivated Luxury Leather appeared first on Lab Grown Leather.

The leather industry has a dilemma it hasn’t been able to shake roughly 1.4 billion animal hides being processed every year, tied to a livestock system that drives up to 80% of agricultural land use, and with it, deforestation on a global scale. The usual answer has been to look for a “vegan” alternative. But most of those alternatives are just PU or PVC in disguise, petroleum-based plastics that never biodegrade and quietly shed microplastics into the environment instead.

For years, that’s been the choice on the table: animal impact, or plastic pollution. It isn’t much of a choice at all. It’s a failure of imagination.

So we built a third option, not a substitute, but something genuinely new. We call it T-Rex Leather.

An Idea 68 Million Years in the Making

Rather than trying to out-engineer nature with more chemistry, we went looking in deep time. Using large language models, our science team reconstructed the missing pieces of a 68-million-year-old collagen sequence and then got living cells to actually produce it.

What came back was surprising: the reconstructed sequence carried nearly three times more of the lysine building blocks responsible for cross-linking than modern collagen. More cross-links mean a stronger material at the molecular level, straight out of the gate. By rediscovering a protein sequence lost to time, we unlocked a material capability that doesn’t exist anywhere in nature today.

Grown, Not Glued

Here’s where T-Rex Leather really breaks from both traditional leather and its plastic-based rivals: there are no plastic glues or binders holding it together. We give cells the precise biochemical cues they need to weave and cross-link the collagen themselves, inside an advanced tissue engineering platform.

The result is a material that’s 100% biological and fully biodegradable, because it’s built by cells, not bonded with plastic.

Scientists have been able to grow small patches of skin tissue in petri dishes for 50 years. What’s new is proving this can happen at scale: large, durable sheets of material, with a modular factory blueprint designed to reach 1 million square meters of leather a year within the next decade. This isn’t a labs curiosity it’s a platform built to push plastic-based “alternative leathers” out of the market entirely.

The Sustainability Mathematics

Growing an entire animal to harvest a fraction of its biomass is inherently inefficient. Growing cells means growing only the material you actually need and that efficiency compounds into real environmental savings.

Independent modelling by PA Consulting found that a scaled version of this process would use:

• 78% less water
• 87% lower carbon footprint
• Substantially less land

than traditional leather production.

Why a Handbag?

Lab-grown materials have long been dismissed by the industry as inferior imitations. To change that perception, we needed a proof of concept dramatic enough to be undeniable, so we made a handbag from 68-million-year-old, cell-grown collagen.

It worked. Interest from luxury brands wanting to work with the material increased tenfold, and the project picked up four Lions at Cannes Lions International Festival of Creativity 2026 for its innovation and storytelling.

But the handbag was never the point. It’s proof of a biomanufacturing process, one that scales, and one aimed squarely at a global industry worth hundreds of billions of dollars.

Beyond the Bag

Because this collagen is engineered at the molecular level, it isn’t limited to handbags, or even to leather goods as we currently think of them. The same platform opens the door to tailored materials for automotive interiors, high-performance sportswear, and jewellery, lighter, stronger, and more consistent than anything grown the old way.

Those material properties ripple outward. Lighter aviation seats mean lighter planes, which means better fuel efficiency, a small example of how a molecular-level innovation in one material can shift outcomes in an entirely different industry.

The Real Story

This isn’t a sustainable product dressed up as a headline. It’s a 68-million-year-old collagen sequence, rediscovered through modern protein modelling and grown by cells instead of synthesised from plastic. We didn’t set out to make a sustainable leather and market it as remarkable, we set out to make the most remarkable leather possible, and it turned out to be the most sustainable one too.

That’s T-Rex Leather.

The post We Went Back 68 Million Years to Solve Leather’s Plastic Problem appeared first on Lab Grown Leather.

For Lab-Grown Leather Ltd, a subsidiary of BSF Enterprise PLC, this marks another step in showing how bioengineered leather can move beyond a single proof-of-concept piece and into new luxury formats, from handbags to jewellery, and into wider high-value design applications.

Crafted from T-Rex Leather™, the earrings bring together reconstructed ancient collagen-fragment information, advanced cellular engineering and contemporary jewellery design.

The form was inspired by the calla flower, from a plant family that shared the Earth with the T-Rex 66 million years ago. By fusing this ancient lineage with our unique ATEP™ technology, we’ve engineered a wearable reunion of Earth’s history.

Designed and made in Newcastle upon Tyne by Vicky Wade, owner of Tori Lo Designs, the earrings also demonstrate how material innovation can support creative talent close to BSF’s own North East roots.

The strength, flexibility and structure of T-Rex Leather™ continues to offer designers greater freedom to explore sculptural form, folded surfaces and more ambitious jewellery design with a paleo-modern twist.

Leather is no longer limited by what animals we raise. It is being shaped by what biology can be directed to create.

These unique earrings will be worn by Dr Emily Telford at the Cannes Lions 2026 Festival, where T-Rex Leather has been shortlisted for Environmental Innovation.

Explore more about the platform behind the material at Elemental X, or visit BSF Enterprise PLC to learn more about the Group.

The post T-Rex Leather™ moves from Handbag to Jewellery ahead of Cannes Lions 2026 appeared first on Lab Grown Leather.

This marks a milestone moment for lab-grown materials, suggesting that the technology has moved beyond imitation into something altogether new, using prehistoric biology as the inspiration for the future of fashion.

The post The world is paying attention as lab-grown leather makes impact appeared first on Lab Grown Leather.

From Good Morning America, CNN, BBC News, CBS and ABC to Reuters, Yahoo Life, The Drum, Ad Age, Robb Report, Designboom and TechRadar, the response has shown one thing clearly:

T-Rex Leather™ is not only a striking luxury object. It is a signal of where bioengineered materials can go next.

Developed by Lab-Grown Leather Ltd, in collaboration with The Organoid Company, VML, Art Zoo and designer Michal Hadas of Enfin Levé, the handbag demonstrates the creative and commercial potential of LGL’s Advanced Tissue Engineering Platform (ATEP™).

T-Rex Leather™ shows how biology can be used to create materials beyond the limits of traditional animal hide.

It points to a future where luxury is not defined only by natural heritage, but by biotech exclusivity, precision and creative control.

This is the story the media picked up. A handbag became the headline. The platform behind it is the bigger story.

The post T-Rex Leather™ reveal gains global media attention appeared first on Lab Grown Leather.

A one-of-a-kind handbag designed by Enfin Levé.

Unveiled at Art Zoo Museum in Amsterdam on 2 April 2026.

Created through the collaboration between Lab-Grown Leather Ltd, VML and The Organoid Company.

A new chapter in leather begins here

T-Rex Leather™ is the first public expression of what happens when ancient biology meets advanced tissue engineering.

Developed by Lab-Grown Leather Ltd in collaboration with VML and The Organoid Company, this material has been created to show that the future of luxury leather does not need to depend on animals being raised and killed for their hides.

Its debut takes the form of a one-of-a-kind luxury handbag designed by avant-garde techwear label Enfin Levé. Unveiled at Art Zoo Museum in Amsterdam beside a colossal cast of a T. rex skeleton, the piece marks a striking meeting point between prehistoric biology and future-facing luxury design..

What is T-Rex Leather™?

T-Rex Leather™ is a novel leather material engineered using reconstructed dinosaur collagen sequences, advanced computational biology and Lab-Grown Leather Ltd’s proprietary Advanced Tissue Engineering Platform (ATEP™).

It sits within our Elemental X™ product stream, where biology, design and material innovation come together to create entirely new leather possibilities.

This is not a surface treatment, a plastic substitute or a coated imitation. It is a biologically engineered leather material created through a scaffold-free process that allows cells to build their own natural structure.

How it is made

To engineer leather from an extinct species, the team began with fossil-derived T. rex collagen sequences.

Using advanced computational biology and AI modelling, the missing genetic information required to form a complete collagen blueprint was predicted and reconstructed. That synthesised DNA was then inserted into a carrier cell line.

Billions of engineered cells were cultivated using our proprietary Advanced Tissue Engineering Platform (ATEP™) and translated into a leather material through our scaffold-free approach.

The result is a durable, repairable, biodegradable and fully traceable material created without animal slaughter, without deforestation-linked hide supply, and without chromium-heavy tanning processes.

Why this matters

The leather industry has long faced pressure around sustainability, traceability and reliance on animal agriculture.

At the same time, many alternatives have struggled to convince luxury markets because they compromise on authenticity, performance or material character.

T-Rex Leather™ takes a different route.

Rather than imitating leather from the outside, it rethinks leather at the biological level.

The project shows how Lab-Grown Leather Ltd’s platform can unlock new classes of high-value materials while preserving the tactile quality, strength and longevity expected of premium leather goods.

It also demonstrates a broader point.

Leather is no longer limited by what animals we raise, but by what biology we can design.

The first expression: a one-of-a-kind handbag

For its public debut, T-Rex Leather™ has been transformed into a one-of-a-kind luxury handbag by Enfin Levé.

Known for its technical precision, structural thinking and progressive design language, Enfin Levé approached the material as something to be understood rather than forced into familiar luxury conventions. The result is a singular object shaped by the behaviour and character of the material itself.

Following its unveiling, the bag will remain on display at Art Zoo Museum for six weeks before being auctioned to the highest bidder.

From one piece to future applications

While this first piece is unique, the material is not intended to remain a one-off.

T-Rex Leather™ will continue to be developed for future commercial availability, with initial applications focused on luxury accessories.

Over time, the wider potential of the platform extends into fashion, automotive and other high-performance material categories.

This is one expression of a bigger ambition inside Lab-Grown Leather Ltd’s Elemental X™ programme: creating leather materials that do not copy the past, but expand what leather can be.

Collaboration

T-Rex Leather™ has been developed through a multidisciplinary collaboration:

• Lab-Grown Leather Ltd Advanced tissue engineering, scaffold-free leather creation and material development
• VML Creative concept, strategic development and cultural positioning
• The Organoid Company Genome and protein engineering to reconstruct and optimise the prehistoric biomaterial blueprint
• Enfin Levé Design of the first luxury object made from T-Rex Leather™

The post T-Rex Leather™ Launched! appeared first on Lab Grown Leather.

The project brings together synthetic biology, computational protein design and material science, with contributions from The Organoid Company and creative partner VML. At its core sits Lab-Grown Leather’s proprietary Advanced Tissue Engineering Platform (ATEP™), which enables complex biological inputs to be grown into structured, leather-like tissue without animals and without traditional tanning.

From Proven Platform to Prehistoric Possibility

The origins of the T. rex leather project lie not in spectacle, but in capability. While exploring next-generation materials for luxury brands, VML’s Global Chief Creative Officer, Bas Korsten, was already impressed by what Lab-Grown Leather had achieved with cultivated collagen and structured skin tissue.

It was this existing capability that prompted a more ambitious question. If Lab-Grown Leather could reliably grow real leather without animals, could the same platform be used to explore entirely new forms of leather, including those inspired by extinct species?

That question led to a collaboration with The Organoid Company, whose scientists specialise in computational biology and protein reconstruction.

Reconstructing Ancient Biology

Using fossilised amino acid fragments preserved in Tyrannosaurus rex remains, The Organoid Company computationally reconstructed a collagen sequence inspired by T. rex biology. This DNA sequence was designed, validated and then introduced by TOC into living cells, creating a stable cellular system capable of producing the target collagen.

Crucially, Lab-Grown Leather does not create or insert the DNA. Instead, it applies its ATEP™ platform to take those cells and guide them into forming structured skin tissue.

In practice, this means Lab-Grown Leather introduces TOC’s engineered cells into its tissue engineering process, where they are grown, organised and matured into leather-like material with natural structure and integrity.

Turning Biology into Leather

This step is where the project moves from scientific curiosity to material reality.

Growing collagen alone does not produce leather. Leather requires thickness, organisation, durability and consistency, all of which are dictated by how cells are grown, supported and matured over time. Lab-Grown Leather’s scaffold-free approach enables cells to self-organise into continuous sheets of tissue, avoiding the limitations of traditional scaffolds and reducing material waste.

The result is Lab-Grown 100% Real Leather, created without animals, without petrochemicals, and without the environmental cost of livestock or conventional tanning.

As Dr Che Connon, CEO of Lab-Grown Leather, explains:

“This collaboration shows that advanced biology only realises its value when it can be translated into something functional. Our role is to take complex biological inputs and turn them into real materials that industries can actually use.”

A New Class of Luxury Material

The first T. rex-inspired materials are intended for limited-edition luxury applications, where innovation, rarity and craftsmanship are valued. Early concepts include handbags and accessories, with longer-term potential in automotive interiors and other premium sectors.

What sets the material apart is not just its origin story, but its authenticity. This is not a synthetic imitation or a plant-based substitute. It is real leather, grown cell-by-cell, designed for traceability, repairability and long-term use.

The project also reinforces a wider shift in how materials are conceived.

As Marcelo Bravo, Chief Business Officer at BSF Enterprise PLC, explains, expressing dino-inspired collagen in engineered cells opens the door to entirely new material properties.

By tuning collagen composition and tissue formation at the biological level, the partners can explore materials that range from soft and flexible to remarkably robust, with levels of stiffness, durability and performance that traditional tanning processes simply cannot deliver.

The long-term ambition is the creation of paleo-inspired, animal-free leathers with tunable mechanical properties, designed for specific use cases across luxury, performance and heritage applications.

Leather is no longer limited by the animals we raise, but by the biology we can design.

Looking Ahead

This milestone demonstrates more than the feasibility of T. rex-inspired leather. It validates Lab-Grown Leather’s broader platform and its ability to support entirely new categories of material, from heritage-inspired leathers to performance-driven applications.

By combining computational biology with scalable tissue engineering, Lab-Grown Leather is laying the groundwork for a future where leather innovation is driven by design, not extraction.

For Lab-Grown Leather Ltd and its partners, this milestone signals a future where leather is no longer limited by animals or chemistry, but designed through biology itself.

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