AI-Native Precision Oncology

We do not sell algorithms.
We create oncology assets.

DTS Oncology builds proprietary cancer therapeutics through computation, genomics and translational biology. The technology is the scientific engine; the economic product is a portfolio of ownable oncology assets.

Confidential scientific and IP review available under NDA

Investment thesis

A drug company, not an algorithm vendor

DTS Oncology is being built as an AI-native precision oncology company supported by the genomic, computational and biotechnology capabilities of DTS Genomics. Every capability exists to serve one output: a therapeutic asset we own.

Therapeutic hypothesis→Biomarker→Validation→Proprietary asset→Partnership

Why now

Better selection before capital deployment

The failure point in oncology is often not effort, but early programme selection: weak biological rationale, poor patient stratification, insufficient biomarkers and late recognition of translational risk.

From tumour biology to computable signal

The map of vulnerability is expanding. Selection is what remains scarce.

Company definition

Built on DTS Genomics capabilities

Explore DTS Genomics

What it is

  • Asset-centric precision oncology platform
  • AI-native therapeutic hypothesis engine
  • Biomarker and patient-selection strategy
  • Portfolio model with multiple value-creation routes

What it is not

  • Not a general AI software company
  • Not a single-asset biotech from inception
  • Not a commodity genomics-service provider
  • Not dependent on one therapeutic hypothesis

Operating model

Compute → Select → Validate → Own → Partner

The value chain moves from data-driven biological hypotheses to ownable therapeutic assets with clear partnering optionality. The company is organised around repeatable asset creation, not one-off service revenue.

  1. 01 COMPUTE Genomic and biological maps
  2. 02 SELECT High-probability hypotheses
  3. 03 VALIDATE Experimental evidence
  4. 04 OWN IP and therapeutic assets
  5. 05 PARTNER Licensing / co-development

Platform architecture

Four layers, one asset engine

Computational breadth with translational discipline. Each layer must support a decision: advance, modify, partner or terminate.

01

Genomic intelligence

Tumour biology, mutations, expression, resistance and patient stratification.

02

AI and modelling

Hypothesis generation, target prioritisation, mechanism mapping and combinatorial logic.

03

Translational validation

Assays, biomarkers, biological causality, reproducibility and kill criteria.

04

Asset formation

IP, development plan, indication strategy and a partner-ready package.

Asset origination

Three routes to ownable oncology assets

The model is not constrained to de novo discovery. Combining origination, acquisition and repositioning broadens the opportunity universe, shortens timelines in selected programmes and creates multiple paths to value inflection.

ORIGINATE

Create novel therapeutic hypotheses from computation, genomic insight and tumour biology.

ACQUIRE

Identify undervalued preclinical or clinical assets with incomplete biomarker logic.

REPOSITION

Rescue shelved or failed programmes through better indication, combination or patient selection.

First programme

DTSO‑001 turns the platform into a pipeline

A confidential discovery programme designed to nominate a proprietary, biomarker-led therapeutic opportunity in pancreatic cancer resistance biology.

Disease context

Pancreatic ductal adenocarcinoma with KRAS G12D biology and high unmet need.

Therapeutic angle

Resistance and adaptive dependency — not another direct KRAS inhibitor.

Investor relevance

Converts a platform thesis into a named, diligence-ready discovery programme.

Nominate only targets that survive five filters

01 Disease map PDAC · KRAS G12D · unmet need 02 Dependency map conditional vulnerability 03 Treatment-state map under RAS pressure 04 Biomarker model patient-selection hypothesis 05 Tractability + IP modality · FTO · ownability

Conditionality

The target matters specifically in the treatment-adapted tumour state.

Selectivity

The dependency is materially stronger in tumour biology than in normal biology.

Human relevance

Evidence is visible in patient-derived data or clinically credible models.

Tractability

There is a plausible modality: small molecule, biologic, degrader or combination.

Ownability

The claim space can support meaningful IP beyond a known literature observation.

Programme hypothesis only. No clinical value is claimed before biological validation.

90-day nomination plan

What the next financing must buy

The first proof point is not a clinical claim. It is a defensible package that proves DTS Oncology can convert a disease map into a ranked therapeutic programme.

  1. Days 0–15 Data room Datasets, disease map, competitive landscape and exclusion rules.
  2. Days 15–35 Candidate ranking Multi-factor scoring for target, biomarker, modality and IP potential.
  3. Days 35–60 Mechanism package Orthogonal evidence and biology review; resilience against false positives.
  4. Days 60–75 IP / FTO screen Claim hypothesis, prior-art map and initial freedom-to-operate red flags.
  5. Days 75–90 DTSO‑001 package Preferred target, two backups and the critical validation experiment.

Output after 90 days: a named programme with target rationale, biomarker hypothesis, validation protocol, budget, timeline, IP hypothesis and explicit GO/NO‑GO gates.

Defensibility

The moat is the closed loop between data, biology and asset ownership

AI alone is not a moat. Sustainable value comes from proprietary selection logic, validated biological insight, data accumulation, IP discipline and control over assets.

Selection discipline

Strict entry and kill criteria.

Biological evidence

Validation tied to mechanism.

Proprietary data loops

Each programme improves selection.

IP strategy

Composition, use, biomarker, combination and know-how.

Partner-ready assets

Clear packages for pharma diligence.

Milestone gates reduce binary risk

Each programme advances only when it meets predefined evidence gates — never when computational promise is mistaken for development readiness.

  1. Gate 0 Computational signal hypothesis only
  2. Gate 1 Biological rationale mechanism mapped
  3. Gate 2 Assay validation reproducible signal
  4. Gate 3 IP package protectable asset
  5. Gate 4 Partner package IND-enabling route

Business model & capital strategy

Multiple monetisation routes from one asset engine

Individual assets may follow different economic routes depending on evidence, risk, capital requirements and partner interest.

Licensing

Upfronts, milestones and royalties for partner-led development.

Co-development

Risk-sharing with pharma, biotech or specialist investors.

Asset sale

Monetisation at defined value-inflection points.

Retain & advance

Selective internal development where the upside/risk balance justifies it.

36 months to partnerable assets

  1. 0–6 months Corporate structure · platform specification · scientific advisory input · initial disease areas
  2. 6–12 months Programme shortlist · computational dossier · initial IP filings · validation protocols
  3. 12–24 months Experimental validation · biomarker package · partner-ready non-confidential data room
  4. 24–36 months Lead programme advancement · BD outreach · licensing and co-development options
Researcher reviewing genomic analyses in the DTS Oncology computational environment

Governance and de-risking

Scientific governance is part of the moat

The investor narrative is supported by controls that prevent overclaiming and protect future diligence. Judgement stays human; the platform only makes the evidence legible.

Scientific advisory board

Independent oncology, translational biology, genomics and clinical-development expertise.

Predefined kill criteria

Avoid sunk-cost escalation when the biology does not validate.

Data governance

Traceability, reproducibility and documented modelling assumptions.

IP governance

Prior-art review, filing cadence and trade-secret discipline.

Regulatory awareness

Early alignment with development pathways and evidentiary standards.

Positioning discipline: we never claim clinical value before clinical evidence exists.

The opportunity

Build a European AI-native oncology company that owns assets, not just predictions.