Surface Wave Elastography with a Novel Cost-Effective Modality
Disciplines
Biomechanical Engineering | Engineering | Mechanical Engineering
Abstract (300 words maximum)
The primary objective of this study is to create a reliable and affordable approach for identifying diseases like bone tumors. Due to the high costs involved, current hospital tools such as MRI machines are not always accessible. As a solution, this research recommends the use of PCB Piezotronics accelerometers, which are readily available and more cost-effective. These accelerometers are small, lightweight, and can measure the vibrations in a structure caused by changes in stiffness, making them ideal for detecting changes in bone stiffness. To determine the relationship between bone stiffness and the vibrations produced, beef and chicken bones will be utilized as they closely mimic human bone. These bones will be subjected to various loads and accelerations. Additionally, a block of wood will be utilized as a baseline for the experiment to compare the results with those obtained from the bones. The ultimate goal of this experiment is to produce a band that can accurately, reliably, and efficiently detect changes in bone stiffness. This band will be affordable and non-invasive, making it accessible to a wider population. This research has the potential to improve the quality of life for many people, especially those who cannot afford expensive medical procedures, by developing a more accessible and cost-effective method for detecting bone diseases.
Academic department under which the project should be listed
SPCEET - Mechanical Engineering
Primary Investigator (PI) Name
Muhammad Salman
Surface Wave Elastography with a Novel Cost-Effective Modality
The primary objective of this study is to create a reliable and affordable approach for identifying diseases like bone tumors. Due to the high costs involved, current hospital tools such as MRI machines are not always accessible. As a solution, this research recommends the use of PCB Piezotronics accelerometers, which are readily available and more cost-effective. These accelerometers are small, lightweight, and can measure the vibrations in a structure caused by changes in stiffness, making them ideal for detecting changes in bone stiffness. To determine the relationship between bone stiffness and the vibrations produced, beef and chicken bones will be utilized as they closely mimic human bone. These bones will be subjected to various loads and accelerations. Additionally, a block of wood will be utilized as a baseline for the experiment to compare the results with those obtained from the bones. The ultimate goal of this experiment is to produce a band that can accurately, reliably, and efficiently detect changes in bone stiffness. This band will be affordable and non-invasive, making it accessible to a wider population. This research has the potential to improve the quality of life for many people, especially those who cannot afford expensive medical procedures, by developing a more accessible and cost-effective method for detecting bone diseases.