One lead asset, ready for the bench. A repeatable engine.

Our lead program targets the single strongest genetic driver of Alzheimer's disease. It was generated and cross-validated entirely in silico — and is ready for experimental confirmation at the bench.

PROGRAM · TITAN Cross-validated in silico

ApoE4 structure corrector

Indication: Alzheimer's disease

TargetApoE4 (N-terminal domain)
ModalitySmall molecule (oral, CNS)
MechanismConformational structure correction
Binding siteExperimentally observed (6NCO)
Lead binding scores Under NDA
Library screenedLarge in-silico
Lead candidatesMultiple — in data room
IP statusProvisional filed
Lead program · Titan

Correcting the shape of risk.

ApoE4 differs from its benign counterpart by a structural quirk that makes the protein misfold and drive neurodegeneration. A small-molecule "structure corrector" can restore a healthier conformation — a mechanism with strong human-genetic and experimental support.

Thea generated a novel series of correctors designed against the only experimentally confirmed small-molecule pocket on ApoE4, then optimized for binding, drug-likeness, and a clean safety profile. Multiple leads cleared multi-parameter ADMET screening; the series is protected by a filed provisional patent.

Oral small moleculeCNS-penetrant by designNovel composition of matter
Why ApoE4

The most genetically validated target in Alzheimer's — and still undrugged.

#1
strongest genetic risk factor for late-onset Alzheimer's
~25%
of people carry at least one ApoE4 allele
15×
higher risk for two-copy carriers vs. non-carriers
0
approved drugs that directly target ApoE4

Decades of effort, overwhelming human genetics, and a clear mechanism — yet no disease-modifying therapy addresses ApoE4 head-on. That gap is precisely where a computational platform built for hard targets earns its keep.

Computational validation

What we've proven — and what we haven't yet.

We hold a high bar for what counts as validated. Below is an honest accounting of the program's current evidence.

Established (in silico)
  • Designed against an observed pocket.The only experimentally observed small-molecule binding site on ApoE4 (6NCO / 6NCN).
  • Strong predicted binding.Lead affinities cross-checked by independent scoring methods (figures under NDA).
  • Clean safety profile.Multiple leads cleared multi-parameter ADMET and structural-alert screens.
  • Protected IP.Composition-of-matter genus covered by a filed provisional application.
Next — partner-funded
  • Synthesis & biophysical binding.Confirm target engagement at the bench — SPR / ITC, with a co-crystal attempt.
  • Cellular functional assay.Demonstrate structure correction in ApoE4 cell models.
  • In-vitro ADME & stability.Microsomal stability, Caco-2 / MDCK-MDR1 permeability, plasma protein binding.
  • Early pharmacokinetics.Exposure and CNS penetrance in vivo.
  • Lead optimization.Medicinal-chemistry cycles toward an IND-enabling candidate.

Quantitative figures (affinities, screening and lead counts) are computational predictions shared under NDA. Experimental confirmation is the explicit objective of the next phase.

Portfolio

A platform, not a one-off.

Titan proves the engine. The same loop extends to additional genetically validated, structurally anchored targets as the company is resourced.

TitanApoE4 structure corrector Lead
Alzheimer's disease
Anchor ✓ · In-silico ✓Wet-lab next
Program 02Neurodegeneration Exploratory
Undisclosed CNS target
Target scopingPlanned
Program 03Isoform-selective expansion Research
Cross-isoform selectivity
FeasibilityPlanned

Programs 02–03 are exploratory and depend on partnership and funding. Titan is the company's lead — cross-validated in silico and IP-protected.

Partner with Thea

Take Titan into the lab.

We're seeking a strategic partner to fund experimental validation and lead optimization for a patent-pending Alzheimer's program.