Eterna Regeneratives
Eterna Regeneratives develops keratin-based biomaterials that guide the body's own regenerative mechanisms for enamel repair and bone regeneration. The platform self-assembles into β-sheet-rich structures that nucleate calcium-phosphate mineral growth, producing enamel-like architectures that integrate with native tissue and resist abrasion. For bone, protein-derived scaffolds mirror trabecular structure to support organized tissue deposition.
- New Materials
- Biotechnology
- Healthcare Technology
- Medical Devices
- Hardware
Funding
Raised to date
$4MRaised 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.
across 1 round
$4M · Seed
Announced Sep 2026 · from article date
Disclosed cumulative: $4M
Founders
Founder details are not available yet.
Product
Problem
Current dental and orthopaedic treatments for enamel damage and bone defects rely on synthetic materials or grafts that do not fully restore native tissue architecture. Enamel cannot naturally regenerate once lost, and existing bone graft materials often fail to guide organised, functional tissue growth, leading to suboptimal clinical outcomes.
Solution
Eterna Regeneratives provides a biomaterials platform that uses keratin-based scaffolds to guide the body's own regenerative mechanisms. For enamel repair, the materials self-assemble into β-sheet-rich structures that nucleate calcium-phosphate mineral growth, producing organised, enamel-like apatite architectures that integrate with native enamel and resist abrasion. For bone regeneration, protein-derived scaffolds mirror trabecular bone structure, preventing soft-tissue infiltration while supporting osteogenic signalling and progressive bone bridging across defects. The materials are designed to work with the body's chemistry, enabling biomimetic repair rather than simple replacement.
Target Audience
Primary customers are dental professionals and clinics for enamel repair applications, and orthopaedic surgeons and bone grafting specialists for bone regeneration procedures.
Features
- Keratin-based biomaterials that self-assemble into β-sheet-rich spherulites and fibrous templates for guided mineralisation
- Enamel repair mechanism that nucleates apatite nanocrystals into elongated, locally aligned enamel-like architectures that resist abrasion under controlled toothbrushing challenge
- Bone scaffolds with trabecular-scale structural templates that prevent soft-tissue infiltration and support organised bone deposition with progressive bridging across defects
- Six-step mechanisms for both enamel and bone applications, from protein self-assembly through to tissue integration and maturation, including lamellar-like bone architecture development
- Formats developed for professional dental care delivery and orthopaedic/bone grafting clinical use
- Patent-protected technology platform applicable across multiple mineralisation and tissue regeneration indications