Noise-reducing magnetic resonance image reconstruction software
This technology is an AI-based software for denoising and reconstructing MRI images.
Unmet Need: Fast, anatomically accurate, and de-noised reconstruction of medical MR images
Currently, acquiring magnetic resonance imaging (MRI) data requires long scan times, followed by multiple steps of image reconstruction and post-processing. Extended scan times create logistical burdens for patients and medical professionals. Additionally, slow reconstruction and limited image accuracy can reduce the speed and reliability of diagnosis from MRI images. Existing deep learning approaches typically operate on already reconstructed images and do not fully utilize information contained in raw magnetic resonance data.
The Technology: A deep learning-based MR image reconstruction and denoising software
This technology is an MRI denoising and reconstruction software that uses an Artificial Fourier Transform Network (AFT-Net) to perform deep learning-based reconstruction of MRI data. This network learns the transformation between raw MRI signal data and reconstructed images, enabling simultaneous image reconstruction and noise reduction while improving robustness to variations in acquisition quality.
This software was validated on publicly available human MRI datasets and preclinical mouse MRI scans, demonstrating improved image reconstruction, denoising performance, and robustness across different imaging conditions.
Applications:
- Accelerated MRI imaging with reduced sampling
- Clinical MRI reconstruction for diagnostic imaging
- Preclinical MR image reconstruction for enhanced MRI image quality
- Preclinical MR image denoising and artifact reduction
- Preclinical MRI image reconstruction for animal imaging studies
- Magnetic resonance spectroscopy reconstruction for metabolic analysis in clinical imaging
Advantages:
- Reconstruction directly from raw MRI data (k-space / FID)
- Ability to reconstruct from under-sampled and noisy data
- Robust to noise and artifacts
- Can be incorporated into existing deep learning networks
- Trained on various datasets to enable robust to variable acquisition and experimental parameters
Lead Inventor:
Patent Information:
Patent Pending (US20260051099)
Related Publications:
Tech Ventures Reference:
IR CU23246
Licensing Contact: Jerry Kokosha
