Advanced X-ray Energy-sensitive Microscopy for Virtual Histology
This project aims to develop a prototype phase-contrast micro-CT scanner for non-invasive 3D histology to enhance volumetric analysis of tissue samples, particularly lung lesions.
Projectdetails
Introduction
In the last 20 years, phase-contrast x-ray imaging has evolved from first proof-of-principle experiments with relatively poor contrast to a mature research field with many branches. Standing on the shoulders of scientific achievements and technological development, the time has come where virtual histology for biomedical applications is within reach. The aim of this research project is to design and construct a prototype x-ray microscope for three-dimensional histology.
Current Imaging Modalities
In the clinics, we are used to non-invasive three-dimensional image modalities such as:
- Computed tomography (CT)
- Ultrasound
- Magnetic resonance imaging (MRI)
The ability to visualize and track structures through a volume is extremely valuable for the purpose of diagnosis.
Challenges in Histology
However, for microscopy of tissue biopsies, our golden standard is histological procedures involving thin slicing of the tissue before imaging in a microscope. This process renders volumetric interpretation very difficult, if not impossible.
Proposed Solution
With the proposed phase-contrast micro-CT scanner, tissue samples can be imaged in three dimensions. This allows the computer rendering of the sample to be sliced in any arbitrary plane, providing the possibility of volumetric data analysis. In this fashion, useful volumetric information can be extracted for various applications in biomedical research.
Direct Applications
As a direct application, we will use this 3D Histology setup to obtain a detailed volumetric understanding of the development of lung lesions and complement it with gold standard microscopy techniques.
Benefits of Lab-Based Setup
A lab-based setup for virtual histology will allow:
- Full studies of disease pathologies with statistical significance
- Optimization of experimental protocols
Technical Implementation
To achieve the goal of soft tissue micro-CT, we will implement a novel inverse-geometry single-grating interferometer. When combined with state-of-the-art detector and source technology, a scanner for high-resolution phase-contrast tomography of soft tissue will be realized.
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 2.000.000 |
Totale projectbegroting | € 2.000.000 |
Tijdlijn
Startdatum | 1-5-2023 |
Einddatum | 30-4-2028 |
Subsidiejaar | 2023 |
Partners & Locaties
Projectpartners
- LUNDS UNIVERSITETpenvoerder
Land(en)
Vergelijkbare projecten binnen European Research Council
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Material Decomposition in X-ray Phase-Contrast Imaging with Coherent Sources
This project aims to develop a robust algorithm for signal separation in X-ray microtomography, enabling quantitative analysis of materials from single exposures at synchrotron sources.
Phase Contrast STEM for Cryo-EM
This project aims to enhance cryo-electron tomography in biology using high-resolution scanning transmission EM, improving imaging quality and enabling new insights into cellular structures.
In vivo Immunofluorescence-Optical Coherence Tomography
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Revealing 3D Atomic Structure and Chemistry in Scale-Bridging Volumes via 5D Hyperspectral Electron Tomography
This project aims to revolutionize electron microscopy by developing methods to image large volumes with atomic detail and chemical resolution, enhancing our understanding of material structures and dynamics.
Vibrational speckle tomography microscopy for fast intra-operative cancer tissue histopathology
The SpeckleCARS project aims to develop fast, label-free 3D histology imaging for real-time cancer diagnosis and treatment, eliminating the need for biopsies and improving accuracy and accessibility.
Vergelijkbare projecten uit andere regelingen
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Enabling the transition to 3D digital pathology
3DPATH aims to develop a clinically viable 3D tissue scanner using advanced light-sheet fluorescence microscopy to enhance histopathology accuracy and improve patient care globally.
NEW TECHNOLOGY FOR 1 MICRON RESOLUTION BIOMEDICAL IMAGING
The 1MICRON project aims to revolutionize cancer detection by developing high-resolution, integrated x-ray sensors for immediate surgical feedback, potentially saving over 100,000 treatments annually in Europe.
MHz rate mulTiple prOjection X-ray MicrOSCOPY
This project aims to revolutionize 4D X-ray microscopy by enabling MHz-rate imaging of fast processes in opaque materials, unlocking new insights for various industries.
Development of an In-Vivo Brillouin Microscope (with application to Protein Aggregation-based Pathologies)
This project aims to enhance Brillouin Microscopy for real-time, non-destructive assessment of viscoelastic properties in living cells, addressing key biomedical challenges.
On-chip tomographic microscopy: a paraDIgm Shift for RevolUtionizing lab-on-a-chiP bioimaging technology
DISRUPT aims to revolutionize biomedical imaging with a novel lab-on-chip technology for cost-effective, high-resolution cancer detection and diagnostics using integrated tomographic microscopy and AI.