Open Access
hpcui@usst.edu.cn
chinasfj@126.comAlgorithms such as adaptive beamforming and synthetic aperture technology have significantly improved the quality of ultrasound images.
New algorithms, such as deep learning, can adapt to more complex signal environments at the expense of real-time performance.
Combining different algorithms can overcome the limitations of a single algorithm, thereby improving image resolution, contrast, and noise resistance.
Open Access
hpcui@usst.edu.cn
chinasfj@126.comAlgorithms such as adaptive beamforming and synthetic aperture technology have significantly improved the quality of ultrasound images.
New algorithms, such as deep learning, can adapt to more complex signal environments at the expense of real-time performance.
Combining different algorithms can overcome the limitations of a single algorithm, thereby improving image resolution, contrast, and noise resistance.
Medical ultrasound imaging, as a non-invasive, safe, and reliable technology, plays an important role in clinical diagnosis and treatment. However, traditional ultrasound imaging techniques have limitations such as low resolution, poor penetration depth, and high noise levels. To address these issues, beamforming algorithms have become essential. This paper discusses the development and current research status of beamforming algorithms in the context of medical ultrasound systems, focusing on commonly used beamforming algorithms such as synthetic aperture imaging, adaptive beamforming (especially minimum variance distortionless response), and generalized sidelobe canceller technology. These algorithms optimize the emission and reception of ultrasound waves, overcoming the limitations of traditional techniques and improving image resolution, penetration depth, and noise suppression. They provide support for the advancement of medical ultrasound imaging technology and its clinical applications.
ISSN: 2957-5478
Volume 3, Issue 1
March 2025
Pages: 1-76