Cellbricks Raises $11.5M to 3D Print Living Human Tissue
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Cellbricks Raises $11.5 Million to 3D Print Living Human Tissue

The Berlin-based startup is developing biofabricated implants for wound healing and reconstruction.

3/25/2026
Ghita Khalfaoui
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Berlin-based biotech firm Cellbricks Therapeutics has secured over $11.5 million in new financing to advance its biofabricated human tissue implants. The funding, led by Silicon Roundabout Ventures, will accelerate preclinical validation for therapies aimed at severe soft tissue loss. This investment propels the company's mission to create living, functional tissues and ultimately develop implantable human organs.


Bridging the Gap in Regenerative Medicine

Current treatments for severe injuries like full-thickness burns often rely on invasive grafts or synthetic implants that fail to restore biological function. Cellbricks is addressing this significant unmet need by developing living tissue constructs designed to integrate with the body. The company's goal is to move beyond simple structural repair and achieve true functional recovery for patients.

A Pragmatic Approach to a Grand Vision

The company is pursuing a strategic, stepwise approach, beginning with adipose tissue implants for complex wounds and breast reconstruction. This initial focus serves as a critical validation program, demonstrating the platform's ability to produce tissue that can function effectively in a clinical setting. It provides a tangible solution for patients while proving the technology's core capabilities.

Success in developing these large, vascularized adipose tissues provides the essential groundwork for more ambitious goals. The biological and engineering challenges solved here, such as ensuring nutrient supply, are directly applicable to creating more complex organ tissues like the liver. This methodical progression builds a credible pathway from advanced tissue implants today to organ replacement tomorrow.

Technology and In-House Expertise

At the heart of Cellbricks' innovation is a proprietary, light-based biofabrication platform capable of producing tissue significantly faster than competing methods. This technology enables the creation of large, viable tissue constructs with the intricate vascular networks necessary for survival and integration post-implantation. The platform's speed and precision are key differentiators in the field of bioprinting.

The company distinguishes itself with a fully integrated team that manages every aspect of the process under one roof. This includes expertise in cell biology, biomaterials, software, and the translational science required to reach the clinic. This comprehensive in-house capability allows for rapid iteration and optimization, creating a significant competitive advantage.

Commercial Strategy and Global Footprint

Cellbricks plans to partner with major pharmaceutical companies to bring its therapies to market, a model that generates early revenue and de-risks commercialization. This strategy involves upfront payments and milestone-based funding, allowing the company to advance its platform without needing to raise hundreds of millions independently. The approach aims to accelerate the path from lab to patient through strategic collaboration.

The company leverages a dual presence in Berlin and Boston to optimize its operations and accelerate progress. While Berlin offers a cost-effective environment for research and development, Boston provides access to a more rapid regulatory system and a vibrant innovation ecosystem. This transatlantic footprint creates a powerful balance between fiscal prudence and translational speed.


This new capital infusion marks a pivotal moment for Cellbricks Therapeutics, enabling the transition from promising research to rigorous preclinical proof. The funding will directly support animal studies and data generation required to move toward human trials, bringing the company closer to its goal. For patients awaiting better solutions, this progress represents a credible step forward in making functional tissue restoration a clinical reality.