Luxonus develops a non-invasive 3D imaging device utilizing photoacoustic imaging (PAI) technology, which combines pulsed light and ultrasound to generate high-resolution images without radiation exposure. This device enables detailed visualization of vascular and lymphatic structures, facilitating accurate preoperative assessments and treatment evaluations for various medical conditions.
Funding
$10.4M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
Founders
Product
Problem
Current medical imaging techniques like X-ray CT and MRI can involve radiation exposure or require contrast agents, limiting their applicability for frequent monitoring and posing risks to certain patient populations. Existing methods may also lack the resolution needed for detailed visualization of microvasculature and lymphatic structures.
Solution
Luxonus is developing a non-invasive 3D imaging device based on photoacoustic imaging (PAI) technology, which combines pulsed light and ultrasound to generate high-resolution images without ionizing radiation. The device captures the ultrasonic waves produced when pulsed light is absorbed by tissue, creating detailed 3D visualizations of vascular and lymphatic systems. This allows for comprehensive assessment of morphological and functional information, including hemoglobin oxygen saturation, to support pre-operative planning, treatment monitoring, and early detection of disease progression. The technology aims to provide a safer and more detailed alternative to existing imaging modalities.
Target Audience
The primary target audience includes medical professionals in need of high-resolution vascular and lymphatic imaging, such as surgeons, radiologists, and researchers in hospitals and clinics.
Features
- Non-invasive imaging using pulsed light and ultrasound, eliminating radiation exposure
- High-resolution 3D visualization of blood vessels and lymphatic vessels
- Visualization of hemoglobin oxygen saturation
- Enables detailed assessment of tissue morphology and function
- Potential applications in pre-operative planning, treatment monitoring, and early disease detection