Patient-specific ablation simulation

Confirm tumor coverage before every ablation.

Hapchot generates a patient-specific simulation of your ablation zone. Confirm coverage. Check margins. Then trigger.

The challenge

Percutaneous tumor ablation is performed blind.

No real-time visualization of the treated zone. No patient-specific modeling. Practitioners rely on theoretical ablation zones that do not account for individual anatomy or tissue properties.

90%*[1]

recurrence risk

when tumor coverage falls below 95%

Up to 50%[2]

local recurrence rate

in some indications, leading to re-ablation and therapeutic escalation

€6–15k[3]

cost per recurrence

in retreatment and re-hospitalization costs per patient

* For irreversible electroporation (IRE) of hepatocellular carcinoma (HCC) tumors

Introducing Hapchot

Predictive dosimetry for interventional oncology

Peri-operative assistance for percutaneous tumor ablations

Thermal (Radiofrequency, microwave) and electroporation (IRE and ECT)

Patient-specific simulation of the ablation zone to confirm tumor coverage and correct needle placement before triggering treatment.

Radiologists

Treat with certainty — confirm coverage and correct needle position before triggering treatment.

Hospitals

Fewer local recurrences, fewer rehospitalizations — and the costs that come with them.

Patients

Precise treatment from the first procedure, limiting the risk of therapeutic escalation.

Hapchot device

Clinical workflow

A frictionless peri-operative workflow. Any device. Any indication.

Hardware-agnostic and compatible with your existing imaging and ablation systems. Will be available for multiple solid tumor indications including liver, pancreas, prostate, and lung.

1

Phase 1

Planning

Plan the optimal needle strategy

Load patient CT or MRI imaging, segment the tumor, and run a predictive simulation to define the ideal needle placement.

2

Phase 2

Intra-operative guidance — after needles/applicators are placed

Elastic image fusion

Generate a new digital twin by fusing pre-op imaging with current intra-operative anatomy to confirm tumor location after positioning.

EP ablation coverage
Thermal ablation coverage

Verify coverage & treat

Simulate the ablation zone, confirm tumor coverage exceeds the safety threshold, and correct needle positions (if needed) before triggering treatment.

Competitive advantage

Every other tool shows you a generic ablation zone. Hapchot simulates the actual one.

Planning software provides theoretical ablation zones that don't account for actual anatomy. Hapchot closes that gap with patient-specific simulation, before treatment begins.

Status quo

No assistance

  • No 3D visualization of coverage or margins
  • No pre-operative planning tool
  • Treatment triggered without coverage confirmation

High risk of recurrence[1,2]

Highly dependent on operator

Existing solutions

Planning software

  • Generic zone estimates based on device manufacturer specs
  • Rigid image registration — does not account for intra-operative deformation
  • No patient-specific tissue modeling

Theoretical coverage ≠ actual coverage

Recurrence risk remains

Predictive dosimetry

Hapchot

  • Elastic image registration — compensates for anatomical movements
  • Predicted ablation zone based on actual anatomy and tissue properties
  • Coverage and margins confirmed before treatment

Accurate coverage and margins assessment.

The conditions for local tumour control.

Theoretical ablation zone — generic, not patient-specific
Hapchot patient-specific simulated ablation zone
Theoretical zone
Hapchot simulation

Clinical evidence

Why tumor coverage and margins are everything

Tumor coverage and adequate margins are the main technical goals of every ablation and the strongest predictors of local tumour control.

≥ 5 mm[4]

minimum adequate ablation margin

The strongest predictor of local tumour control.

5%[5]

local tumor progression with software-confirmed margins

Up to 50% in standard practice.

€6–15k[3]

cost per local recurrence

Per patient, in re-ablation, therapeutic escalation, and re-hospitalization costs.

Published evidence

31

patients

Retrospective clinical study — European Radiology, 2025

Sutter O., et al. “Towards Perioperative, Numerically-Assisted Irreversible Electroporation for Hepatocellular Carcinoma: Clinical Outcomes Informed by Numerical Simulations.”

Development roadmap

From clinical evidence to standard of care

The path from research to regulatory approval in interventional oncology is measured in years. We're on it — and the institutions partnering with us today are shaping the clinical evidence that will define tomorrow's standard of care.

NowActive

Research v1 — Electroporation dosimetry

Numerically-assisted electroporation for hepatic tumors. Retrospective study published in European Radiology (2025).

IRE (electroporation)Hepatic tumorsResearch use only

Research partnerships are currently open.

2028–2029In development

Research v2 — Thermal dosimetry

Full predictive simulation for radiofrequency (RFA) and microwave (MWA) ablation. Expands to liver, kidney, and pancreas indications.

RFA · MWALiver · Lung · PancreasIn development
Early 2029CE mark

v1 Commercial launch

CE marking (EU) for IRE dosimetry + thermal theoretical ablation zones. Commercial availability to interventional radiology departments.

CE mark (EU)510(k) to followInterventional radiology
2030–2031Planned

v2 Commercial + Urology

Commercial launch of thermal dosimetry (CE mark early 2030). Hapchot for Urology — prostate cancer indication — commercially available 2031.

Thermal CE markProstate cancerUrology expansion

Developed in collaboration with AP-HP, INRIA, CNRS, and Université Sorbonne Paris Nord and more

French National Institute for Research in Digital Science and Technology
French National Center for Scientific Research
Assistance Publique - Hôpitaux de Paris
Leading European Cancer Center
University Hospital Center of Poitiers
Université Sorbonne Paris Nord
French National Institute for Research in Digital Science and Technology
French National Center for Scientific Research
Assistance Publique - Hôpitaux de Paris
Leading European Cancer Center
University Hospital Center of Poitiers
Université Sorbonne Paris Nord

Founding team

Product development, science, clinical, and business expertise

Luc Lafitte

Luc Lafitte

CTO

Research engineer @ INRIA

Hapchot lead developer

Simon Revelly

Simon Revelly

CEO

Ex-head of Product @ Pollen Robotics

Medtech Product, Marketing & Sales

Dr. Clair Poignard

Dr. Clair Poignard

Scientific director

Research director @ INRIA

Hapchot co-creator

Dr. Baudouin de Senneville

Dr. Baudouin de Senneville

Scientific advisor

Research director @ CNRS

Hapchot co-creator

Pr. Olivier Seror, MD

Pr. Olivier Seror, MD

Medical advisor

Head of Interventional Radiology @ Hôpital Avicenne, APHP

Hapchot co-creator

Dr. Olivier Sutter, MD

Dr. Olivier Sutter, MD

Medical advisor

Interventional Radiologist @ Hôpital Avicenne, APHP

Hapchot co-creator

Research program

Partner with us

We're currently selecting research partner institutions for our clinical validation program. Early partners contribute to the evidence base and receive priority access at commercial launch.

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References

  • [1]
    Sutter O., et al. "Towards Perioperative, Numerically-Assisted Irreversible Electroporation for Hepatocellular Carcinoma: Clinical Outcomes Informed by Numerical Simulations" (2025).DOI: 10.1007/s00330-025-12223-7

    Presented at World Congress of Electroporation 2024, Rome — and Journées Françaises de Radiologie 2024, Paris.

  • [2]
    Stättner S., et al. "Ablative margins in percutaneous thermal ablation of hepatic tumors: a systematic review." Expert Review of Anticancer Therapy, 2023.
  • [3]
    Charalel R., et al. "Short-Term Out-of-Pocket and Total Costs of Care After Ablation, Resection, or Transplant for Early-Stage Hepatocellular Carcinoma: A National SEER-Medicare Cost Comparison." AJR, vol. 223, 2024.
  • [4]
    Paolucci I., et al. "International multisociety Delphi consensus for liver tumour thermal ablation: margin assessment." Lancet Oncology, 2026.

    Endorsed by ESSE, CIRSE, and SIO. 72-expert Delphi consensus across North America, South America, Europe, and Asia.

  • [5]
    Laimer G., et al. "International multisociety Delphi consensus for liver tumour thermal ablation: procedural and practice standards." Lancet Oncology, 2026.