our Approach

Advancing minimally invasive brain surgery through real-time imaging

Two men in business attire conversing at a white table in an office with a whiteboard behind them.

Hemorrhagic Stroke

An intracerebral hemorrhage is a type of stroke caused by bleeding deep within the brain tissue.

  • It happens when a blood vessel in the brain ruptures
  • Blood accumulates, putting pressure on and damaging brain tissue
  • It is the deadliest type of stroke and often leads to severe disability
  • Rapid diagnosis and treatment are crucial to reduce brain injury
Cross-section of brain showing red area indicating an intracerebral hemorrhage in the right hemisphere.

Subdural Bleeding

It is a chronic bleeding that occurs between the skull and the brain.

  • It is common in older adults, and can develop slowly after a minor head injury

  • Blood collects beneath the brain’s outer covering, putting pressure on the brain

  • Standard treatment uses a small surgical hole to remove the blood

  • Bleeding comes back in up to 30% of patients
  • Recurrence leads to repeat surgeries, longer hospital stays, and more complications
Cross-section of a human brain showing cortical layers and a red highlighted area on the right side.

Brain tumors

Abnormal growths of cells that develop in or around the brain.
Key facts:

  • Brain tumors can be benign or malignant
  • Diagnosis is challenging because symptoms can develop slowly and gradually
  • MRI scans and biopsies are commonly used, but determining the exact tumor type can still be difficult
  • Treatment may include surgery and is delicate as the tumor is located near functional areas
Cross-section of brain showing a red tumor on the right side beneath the skull layers.
Technology
01

Continuous 4D ultrasound

Ultrasound is a technique to see the brain in real time using sound waves. We will deliver the next generation of ultrasound image guidance. With this technology the surgeon can see deep brain structures and blood vessels continuously during surgery.

02

Intraoperative X-Ray

X-Ray is a medical imaging technique that uses a small dose of radiation to create pictures. The aim is to create a next generation robotic imaging platform capable of delivering high-performance intraoperative 2D&3D imaging. Together with the ultrasound, this information will improve surgical guidance.

03

Training simulator

A simulator is a realistic training system that lets healthcare professionals safely practice medical procedures without working on real patients. A high-fidelity surgical simulator will be developed to train clinicians in minimally invasive treatment of chronic bleeding.

04

Ultrasound & microbubbles

Microbubbles can safely be used to open the blood-brain barrier when ultrasound is applied. With this technique, surgeons will be able to determine tumor characteristics without invasive biopsies.

05

Cryoablation

Cyroablation is a technique that uses extremely cold temperatures to destroy tumors. We're developing image-guided cryoablation as a minimally invasive technique, where only a small needle needs to enter the brain.

During surgery

How the technology supports surgery

During brain surgery, surgeons operate in a highly constrained environment where visibility is limited. SEISMIC develops advanced imaging tools and minimally invasive treatment techniques that help surgeons:

  • to identify critical structures
  • expand treatment options for previously inoperable tumours/bleedings
  • reduce complications
  • ultimately improve both survival and quality of life for patients
Surgeons in an operating room use a surgical microscope and watch a monitor showing the procedure.

“Better real-time imaging during brain surgery could significantly improve surgical precision and help protect critical brain structures.”

Pieter Kruizinga
Lead researcher, Erasmus MC
clinical studies

Clinical validation in surgical practice

Our solution will be validated in 8 clinical studies. This ensures that our solutions are addressing real challenges and providing real benefit for the patients.

COLD

Brain tumour - treatment

Phase II study of image-guided cryoablation (extreme cold via a small skull opening) for low-accessibility brain tumours; safety, feasibility, early outcomes.

Lead partner: Erasmus MC
Micro-BUBBLE

Brain tumour - diagnosis

Microbubble-enhanced focused ultrasound opens the blood-brain barrier for liquid biopsy, releasing brain-tumour biomarkers for minimally invasive diagnosis.

SIMULATOR cSDH

Training / simulation (SDH)

Development of a high-fidelity surgical simulator training module for minimally invasive chronic subdural haematoma procedures.

Lead partner: Surgical Science Sweden AB
RESCUE

Subdural haematoma - drainage + MMA embolisation

Single image-guided procedure combining haematoma drainage with middle meningeal artery embolisation to reduce ~30% cSDH recurrence after surgery.

Lead partner: Radboud University Medical Center
PROMS cSDH

Subdural haematoma - outcomes

Development of quantitative and qualitative (patient-reported) outcome measures to standardise reporting in chronic subdural haematoma.

Lead partner: Radboud University Medical Center
INSIGHT-CSDH

Subdural haematoma - registry

Multicentre NL registry investigating neurosurgical strategies and interventions guiding chronic subdural haematoma treatment and outcomes.

Lead partner: Radboud University Medical Center
SAV-MIS

Intracerebral haemorrhage - approach validation

Anatomical validation and experimental models of minimally invasive surgical approaches to access and evacuate deep brain haemorrhage.

Lead partner: Institut d'Investigacions Biomèdiques August Pi i Sunyer
REPAIR-ICH

Intracerebral haemorrhage - treatment

SEISMIC ICH trial: image-guided minimally invasive drainage device to reach and evacuate deep intracerebral haemorrhage via a small skull opening.

Lead partner: Institut d'Investigacions Biomèdiques August Pi i Sunyer
Timeline

Project roadmap

The technology is developed and evaluated in close collaboration with neurosurgeons. By testing the imaging approach in clinically relevant scenarios, researchers can assess how well the system visualises brain structures, supports surgical orientation and fits within existing surgical workflows. This ensures that the technology addresses real challenges faced during brain surgery.

TIMELINE · KEY MILESTONE DATES
Drag or Scroll >

September 2026

Stakeholder advisory group established

December 2026

Key clinical and technical requirements defined

January 2028

All clinical studies ready to start & Baseline operating room performance established

January 2028

Clinical studies reach mid-point recruitment target

July 2028

First imaging prototypes deployed in hospitals

January 2029

Assessment of clinical and healthcare value completed

January 2030

Final recommendations for future imaging systems delivered & Clinical studies completed