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MI

Must Imaging

The startup has developed the MUT scan, a breast scanning device that utilizes transmission-mode ultrasound to perform 3D tomography of breast tissue at the voxel level. This technology enhances the detection of malignant lesions by providing detailed imaging that complements traditional mammograms and ultrasounds.

Los Angeles, United States
Updated 2 months ago

Funding

Funding not disclosed

Funding rounds are not available yet.

Founders

Founder details are not available yet.

Product

Problem

Current breast imaging techniques, like mammography, have limitations in sensitivity and specificity, particularly for women with dense breast tissue. These methods can also involve radiation exposure and breast compression, leading to discomfort and potentially limiting the frequency of screening. This can result in delayed or missed diagnoses, increasing the risk of advanced-stage breast cancer detection.

Solution

Must Imaging offers the Multimodal UltraSonic Tomography (MUST) system, a radiation-free, comfortable, and automated 3D breast imaging solution designed to overcome the limitations of traditional methods. The MUST system utilizes transmission-mode ultrasound to create tomographic images of the breast, immersed in a water bath, capturing distinct acoustic attributes of the tissue. AI-based algorithms fuse these multimodal images to generate 3D composite images, enabling radiologists to quickly and reliably identify potential malignant lesions. The system's design allows for operator-independent and rapid detection, improving clinical workflow and patient comfort.

Target Audience

The primary target audience includes hospitals, diagnostic centers, and physicians seeking a more sensitive, specific, and comfortable breast imaging solution, particularly for patients with dense breast tissue or those requiring frequent screenings.

Features

  • 3D breast imaging using transmission-mode ultrasound tomography
  • Multimodal image acquisition capturing acoustic refractivity and frequency-dependent attenuation
  • AI-based image fusion for enhanced lesion detection and characterization
  • Automated image processing and color-coding for fast and reliable diagnosis
  • Radiation-free and compression-free examination process
  • High sensitivity and specificity, especially in dense breast tissue
  • Ability to detect lesions as small as 2mm
This profile is AI-generated and may contain inaccuracies.