This company develops biomaterials using micro and nanotechnology for applications like 3D cell culture and tissue engineering. Their bio-scaffolds, monolithic matrices, and micro-carriers facilitate advanced cell treatment and bioseparation in regenerative medicine.
Funding
Funding not disclosed
Founders
Product
Problem
Traditional methods of cell culture and bioseparation often lack the complexity and efficiency needed for advanced regenerative medicine applications. Existing 2D cell culture techniques do not accurately mimic the in-vivo environment, while conventional bioseparation methods can be inefficient and damaging to cells.
Solution
Tantti develops advanced biomaterials utilizing micro and nanotechnology to create innovative solutions for 3D cell culture and bioseparation. Their product portfolio includes bio-scaffolds that provide a 3D environment mimicking in-vivo conditions, monolithic matrices for efficient cell treatment, and microcarriers designed to enhance bioseparation processes. These materials facilitate improved cell proliferation, differentiation, and recovery, enabling advancements in cell therapies, tissue engineering, and drug discovery. By offering customizable and scalable solutions, Tantti aims to overcome the limitations of traditional cell culture and bioseparation techniques, fostering breakthroughs in regenerative medicine.
Target Audience
The primary target audience includes researchers, cell therapy developers, and biopharmaceutical companies involved in regenerative medicine, tissue engineering, and drug discovery.
Features
- **SpherTantrix:** Three-dimensional scaffolds that mimic the in-vivo environment, promoting cell growth and differentiation.
- **UniTantrix Microcarriers:** Soluble microcarriers for cell expansion in bioreactors, facilitating efficient cell harvesting and separation.
- **DuloCore Resin:** Monolithic matrices designed for high-resolution bioseparation and purification of biomolecules.
- Customizable scaffold architectures and material compositions to suit specific cell types and applications.
- Enhanced surface area for increased cell attachment and proliferation.
- Improved mass transfer for efficient nutrient delivery and waste removal.
- Scalable manufacturing processes for cost-effective production.