Aurita Bioscience
Pre-clinicalAurita Bioscience is a private biotechnology company developing a disruptive 3D cell culture ecosystem designed to overcome the limitations of traditional 2D and hydrogel-based 3D models. Its core technologies—LLS® microgels and Darcy™ perfusion plates—create a tunable, physiologically relevant microenvironment that supports complex cellular interactions, prolonged viability, and high-fidelity in situ imaging. The company is actively engaged in collaborative research projects in oncology, infectious disease (including SARS-CoV-2), and immunotherapy (CAR-T), positioning itself as a critical enabler for more predictive drug discovery and development.
Private Company
Total funding raised: $4.2M
AI Company Overview
Aurita Bioscience is a private biotechnology company developing a disruptive 3D cell culture ecosystem designed to overcome the limitations of traditional 2D and hydrogel-based 3D models. Its core technologies—LLS® microgels and Darcy™ perfusion plates—create a tunable, physiologically relevant microenvironment that supports complex cellular interactions, prolonged viability, and high-fidelity in situ imaging. The company is actively engaged in collaborative research projects in oncology, infectious disease (including SARS-CoV-2), and immunotherapy (CAR-T), positioning itself as a critical enabler for more predictive drug discovery and development.
Technology Platform
Aurita's core platform consists of patented Liquid-Like Solids (LLS®) microgels, a tunable 3D culture medium, integrated with Darcy™ perfusion plates that emulate capillary bed fluid dynamics, enabling highly biomimetic in vitro models for drug discovery.
Funding History
1Opportunities
Risk Factors
Competitive Landscape
Aurita competes with traditional 3D matrix providers (Corning/Matrigel) and organ-on-a-chip companies (Emulate, Mimetas). Its primary differentiation lies in the unique physical properties of its LLS® microgel medium (liquid handling, solid support) and its integrated, plate-based perfusion system, which aims to offer superior biomimicry with greater accessibility than complex microfluidic chips.