Eisbach Bio

Eisbach Bio

Munich, Germany· Est.
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Private Company

Total funding raised: $48M

Overview

Eisbach Bio is pioneering a novel approach to precision oncology by targeting allosteric regulatory sites on molecular machines essential for tumor genome reorganization. Its core technology, the ALLOS platform, uses physiological screening and proprietary AI models to design highly selective small molecules that exploit synthetic lethal vulnerabilities in genetically defined cancers. The company is advancing a clinical-stage program targeting ALC1 in HRD cancers and has a preclinical pipeline targeting CHD1 and WRN, aiming to create therapies with a wider therapeutic window.

Oncology

Technology Platform

The ALLOS platform integrates physiological screening of full-length enzyme complexes with proprietary, target-specific AI models to discover allosteric small-molecule inhibitors. It focuses on 'Real Biology First,' screening targets in their regulated state to uncover synthetic lethal vulnerabilities for precision oncology.

Funding History

2
Total raised:$48M
Series A$48M
SeedUndisclosed

Opportunities

The company targets large, defined oncology populations with high unmet need, such as HRD cancers post-PARP inhibitor resistance and PTEN-deficient tumors.
Success with its lead asset could validate its novel allosteric platform, enabling a scalable pipeline and attracting significant partnership or acquisition interest.

Risk Factors

Key risks include clinical failure of its novel ALC1 inhibitor, potential inability of the ALLOS platform to consistently deliver superior drugs, and intense competition in the synthetic lethality space.
As a private, pre-revenue company, it also faces significant financing risk.

Competitive Landscape

Eisbach competes in the crowded field of precision oncology and DNA damage response, facing large pharma and biotechs pursuing PARP combinations, WRN inhibition, and other synthetic lethal approaches. Its differentiation hinges on the unique allosteric mechanisms discovered by its ALLOS platform, aiming for superior selectivity.