Pre-seed focus: one partner-ready proof package Seeking: two design partners and strategic life-science investors Open a discussion

Translational infrastructure for cardio-renal R&D

Make better preclinical decisions where current systems fail.

Corelia Bio is developing HETS™—a focused Human Engineered Tissue System for CKD-driven cardiac injury and fibrosis. It connects disease context, engineered tissues, decision-relevant readouts, and a live partner question.

One focused wedge One proof package One paid-pilot conversion

Current phase: customer discovery, validation design, and two written design-partner agreements before the full experimental build.

Engineered cardiac and kidney tissue modules connected in a cardio-renal microphysiological system
Next value inflection point Partner-ready evidence package Technical gates + buyer commitment + paid conversion
12+ yearstranslational cardiometabolic and kidney disease research
ELSA 2026Pitch Bowl and accelerator ecosystem participation
Göttingenlife-sciences ecosystem and Life Science Factory community
Validation-firstcapital-efficient, milestone-gated company build

The broken decision

Translation fails when the model cannot support the decision.

Cardio-renal programs often reach critical decisions with incomplete human-relevant evidence. HETS™ is designed to connect the partner question to a transparent prioritization or go/no-go output.

28.9%

of Phase II programs advanced to Phase III in the BIO/Informa/QLS 2011–2020 benchmark.

NAMs momentum

FDA is advancing validated human-relevant approaches, including organ chips, computational methods, and advanced in-vitro systems.

HETS™ decision workflow

From one live R&D question to a decision-ready evidence package.

Disease context, model design, readouts, and acceptance criteria are defined around the partner question.

01

Live R&D decision

Target, mechanism, biomarker, compound, or go/no-go question.

02

Disease context

CKD stress biology, cardiac remodeling, and acceptance criteria.

03

Human tissue system

Proposed renal and engineered myocardial modules with controlled exposure.

04

Readout package

Function, morphology, secreted factors, molecular profiles, and response.

05

Partner decision

Prioritize, refine, advance, stop, or define the next experiment.

Proposed workflow. Corelia Bio’s intended advantage is the full decision architecture—not a single isolated tool.

Futuristic AI illustration of functional cardiac tissue readouts and contractility signals
Functional

Measure what the tissue does.

Contractility, relaxation, calcium handling, and intervention response.

Futuristic AI illustration of structural tissue architecture and extracellular-matrix remodeling
Structural

See how disease remodels tissue.

Fibrosis, matrix organization, morphology, integrity, and stiffness.

Futuristic AI illustration of molecular networks, biomarkers, and multi-omics biology
Molecular

Connect phenotype to mechanism.

Secreted factors, focused molecular panels, and response signatures.

Futuristic AI illustration of a decision dashboard connecting biological evidence to go-no-go choices
Decision

Turn evidence into action.

Prespecified criteria to prioritize, refine, advance, or stop.

First proof point

Start with one high-value wedge: CKD-driven cardiac injury and fibrosis.

Corelia Bio’s first evidence package will test whether CKD stress can reproduce cardiac fibrosis, stiffness, and HFpEF-relevant dysfunction with prespecified functional and molecular readouts.

Status: validation design and design-partner phase · first physical evidence package targeted for Q1 2027

01

CKD stress biology

Uremic, inflammatory, metabolic, and endothelial signals.

02

Cardiac remodeling

Fibrosis, stiffness, stress response, and HFpEF-relevant dysfunction.

03

Decision-grade readouts

Function, biomarkers, structural biology, and molecular response.

04

Partner value

Prioritize targets and mechanisms, refine biomarkers, or differentiate compounds.

What partners can decide

Target and mechanism priority

Does the candidate pathway modify CKD-driven cardiac remodeling?

Biomarker relevance

Which signatures track with functional rescue?

Compound differentiation

Which candidate produces the strongest rescue profile?

Differentiation

Existing tools answer part of the question. HETS™ is designed around the complete decision.

The proposed advantage is human tissue context, heart–kidney crosstalk, and partner-defined decision utility.

ApproachHuman contextOrgan crosstalkTypical decision value
2D cell assaysReductionistMinimalHigh-throughput screening and focused mechanism tests
Animal modelsIndirectSystemic but species-dependentIntegrated biology with translation risk
Single-organ chipsHuman-relevantLimited to one organ or interfaceFocused tissue response and safety questions
Proposed HETS™ workflowHuman engineered tissuesCardio-renal interaction by designTarget, mechanism, biomarker, compound, and go/no-go evidence

Positioning statement, not comparative performance data. HETS™ remains in validation-design phase.

Partner with us

A strong design partnership begins with one decision your team must make.

Best fit: translational R&D teams with an active CKD–HFpEF, fibrosis, or cardio-renal program and a near-term decision.

01

Co-design

Define the decision, inputs, endpoints, acceptance criteria, and scientific champion.

02

Written scope

Agree the workflow, controls, outputs, limitations, and decision rule.

03

Scoped paid pilot

Generate the evidence package and agree the follow-on—or stop.

Partners bring

  • One live R&D decision
  • Scientific champion and relevant inputs

Corelia Bio brings

  • Fit-for-purpose study design
  • Integrated evidence strategy

Success looks like

  • Written design scope
  • Clear pilot, follow-on, or stop decision

Validation gates

Build the evidence in stages. Make each gate measurable.

HETS™ is a TRL 2 concept without integrated experimental proof-of-concept data. Public claims distinguish rationale, proposed design, and future Corelia-generated evidence.

  1. Current gate

    Design-partner discovery

    15–20 interviews, two written scopes, one live decision.

  2. Gate 1

    Baseline robustness

    Stable modules and predefined variability thresholds.

  3. Gate 2

    Disease phenotype and specificity

    Reproducible remodeling beyond nonspecific toxicity.

  4. Gate 3

    Responsiveness

    A reference intervention partially normalizes the phenotype.

  5. Gate 4

    Translational mapping and pilot conversion

    Map signatures to clinical or partner data and convert to a paid pilot.

Investor brief

A focused pre-seed plan with explicit conversion gates.

Capital will fund one partner-ready HETS™ proof package and at least one structured paid pilot.

Indicative raise €500k–€750k

Pre-seed validation capital.

Conversion gates 20 → 2 → 1 → ≥1

Interviews → scopes → proof → paid pilot.

Beachhead buyer Translational R&D

Active CKD–HFpEF/fibrosis programs.

What unlocks the next round Proof + pull

Technical gates, buyer commitment, and repeat demand.

Seeking nowStrategic pilot partners in cardio-renal R&D
Advisory gap1–2 biotech/pharma business-development advisors
Start a discussion
Ronald St-Louis, PhD, founder and CEO of Corelia Bio

Founder and traction

Built from firsthand experience with the translation gap.

Ronald St-Louis, PhD, brings 12+ years across diabetic kidney disease, CKD, cardiometabolic disease, fibrosis, target validation, and cross-functional drug discovery.

Harvard / Joslin Diabetes CenterAcademic disease biologyDiabetes and kidney disease
OVIBIOTranslational biotechMechanism-led program execution
EvotecDrug discoveryTarget validation and cross-functional decisions
Corelia BioFounder-market fitDisease biology + human models + decision logic
ELSA 2026 participation Life Science Factory Göttingen community InnoMatch Niedersachsen visibility Partner-discovery and validation-design phase

Evidence architecture

Publish evidence as the platform earns it.

Current materials define the context of use, validation gates, and partner decision.

Validation brief

HETS™ context of use

Model boundary, endpoints, acceptance criteria, and limitations.

Request the brief
Scientific rationale

Why CKD-driven cardiac fibrosis?

A focused wedge linking stress biology, remodeling, and functional rescue.

Review the first use case
Decision design

What makes a readout useful?

It must be reproducible, interpretable, and linked to a concrete decision.

See the workflow

Bring us one live decision

Bring one live R&D decision.

Corelia Bio is opening conversations with design partners, strategic investors, and biotech/pharma advisors.

Context sources

BIO / Informa Pharma Intelligence / QLS Advisors — Clinical Development Success Rates 2011–2020

U.S. FDA — New Approach Methodologies (NAMs)

External statistics describe industry context. HETS™ is currently a proposed workflow in validation-design phase and is not presented as experimentally validated.