Ronawk develops Bio-Blocks, a 3D tissue-mimetic porous hydrogel substrate that creates bio-mimetic microenvironments for cell and tissue culture, enabling real-time observation and manipulation of cellular functions. This technology addresses the limitations of traditional 2D cell culture methods, which fail to replicate the in vivo environment and often lead to senescence and reduced regenerative capacity in cells.
Funding
$10.9M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
Founders
Product
Problem
Traditional 2D cell culture methods fail to replicate the in vivo environment, leading to cellular senescence and reduced regenerative capacity. These methods also present challenges in real-time observation and manipulation of cellular functions, hindering the development and scaling of effective therapies.
Solution
Ronawk develops Bio-Blocks, customizable 3D tissue-mimetic porous hydrogel substrates that create bio-mimetic microenvironments for cell and tissue culture. These Bio-Blocks enable the propagation of functional microtissues with organized cells and active signaling, mimicking native tissue. The platform facilitates real-time visualization, efficient nutrient exchange, and compatibility with prevailing tissue processing techniques. By maintaining the stem-like phenotype of cells and reducing senescence, Bio-Blocks accelerate the development of next-generation therapies.
Target Audience
The primary target audience includes researchers and clinicians in biotech and life sciences who are developing cell-based therapies and require advanced tools for cell and tissue culture.
Features
- Customizable 3D porous hydrogel substrates that mimic native tissue
- Bio-mimetic microenvironments for enhanced cell and tissue culture
- Real-time observation and manipulation of cellular functions
- Efficient nutrient exchange for optimal cell growth
- Compatibility with standard tissue processing techniques
- Reduced cellular senescence compared to 2D culture methods
- Maintained stem-like phenotype for enhanced regenerative capacity