Abstract: A plurality of modules are simultaneously positioned at locations that correspond to different angiosomes. Each of these modules has a front surface shaped and dimensioned for contacting a person's skin, a plurality of different-wavelength light sources aimed in a forward direction, and a plurality of light detectors aimed to detect light arriving from in front of the front surface. Each module is supported by a support structure (e.g., a strap or a clip) that is shaped and dimensioned to hold the front surface adjacent to the person's skin at a respective position. Perfusion in each of the angiosomes is monitored using these modules, and the surgeon can rely on this information to guide his or her intervention.

Abstract: A plurality of modules are simultaneously positioned at locations that correspond to different angiosomes. Each of these modules has a front surface shaped and dimensioned for contacting a person's skin, a plurality of different-wavelength light sources aimed in a forward direction, and a plurality of light detectors aimed to detect light arriving from in front of the front surface. Each module is supported by a support structure (e.g., a strap or a clip) that is shaped and dimensioned to hold the front surface adjacent to the person's skin at a respective position. Perfusion in each of the angiosomes is monitored using these modules, and the surgeon can rely on this information to guide his or her intervention.

Abstract: A plurality of modules are simultaneously positioned at locations that correspond to different angiosomes. Each of these modules has a front surface shaped and dimensioned for contacting a person's skin, a plurality of different-wavelength light sources aimed in a forward direction, and a plurality of light detectors aimed to detect light arriving from in front of the front surface. Each module is supported by a support structure (e.g., a strap or a clip) that is shaped and dimensioned to hold the front surface adjacent to the person's skin at a respective position. Perfusion in each of the angiosomes is monitored using these modules, and the surgeon can rely on this information to guide his or her intervention.

Abstract: A plurality of modules are simultaneously positioned at locations that correspond to different angiosomes. Each of these modules has a front surface shaped and dimensioned for contacting a person's skin, a plurality of different-wavelength light sources aimed in a forward direction, and a plurality of light detectors aimed to detect light arriving from in front of the front surface. Each module is supported by a support structure (e.g., a strap or a clip) that is shaped and dimensioned to hold the front surface adjacent to the person's skin at a respective position. Perfusion in each of the angiosomes is monitored using these modules, and the surgeon can rely on this information to guide his or her intervention.

Abstract: A plurality of modules are simultaneously positioned at locations that correspond to different angiosomes. Each of these modules has a front surface shaped and dimensioned for contacting a person's skin, a plurality of different-wavelength light sources aimed in a forward direction, and a plurality of light detectors aimed to detect light arriving from in front of the front surface. Each module is supported by a support structure (e.g., a strap or a clip) that is shaped and dimensioned to hold the front surface adjacent to the person's skin at a respective position. Perfusion in each of the angiosomes is monitored using these modules, and the surgeon can rely on this information to guide his or her intervention.

Abstract: The disclosed subject matter includes optical tomographic systems for acquiring and displaying dynamic data representing changes in a target tissue sample to external provocation. For example, the disclosed devices, methods and systems may be used for quantifying dynamic vascular changes caused by imposed blood pressure changes for diagnosing peripheral artery disease.

Abstract: The disclosed subject matter includes optical tomographic systems for acquiring and displaying dynamic data representing changes in a target tissue sample to external provocation. For example, the disclosed devices, methods and systems may be used for quantifying dynamic vascular changes caused by imposed blood pressure changes for diagnosing peripheral artery disease.

Abstract: A plurality of modules are simultaneously positioned at locations that correspond to different angiosomes. Each of these modules has a front surface shaped and dimensioned for contacting a person's skin, a plurality of different-wavelength light sources aimed in a forward direction, and a plurality of light detectors aimed to detect light arriving from in front of the front surface. Each module is supported by a support structure (e.g., a strap or a clip) that is shaped and dimensioned to hold the front surface adjacent to the person's skin at a respective position. Perfusion in each of the angiosomes is monitored using these modules, and the surgeon can rely on this information to guide his or her intervention.

Abstract: The disclosed subject matter includes optical tomographic systems for acquiring and displaying dynamic data representing changes in a target tissue sample to external provocation. For example, the disclosed devices, methods and systems may be used for quantifying dynamic vascular changes caused by imposed blood pressure changes for diagnosing peripheral artery disease.

Abstract: The disclosed subject matter includes optical tomographic systems for acquiring and displaying dynamic data representing changes in a target tissue sample to external provocation. For example, the disclosed devices, methods and systems may be used for quantifying dynamic vascular changes caused by imposed blood pressure changes for diagnosing peripheral artery disease.

Abstract: The disclosed subject matter includes optical tomographic systems for acquiring and displaying dynamic data representing changes in a target tissue sample to external provocation. For example, the disclosed devices, methods and systems may be used for quantifying dynamic vascular changes caused by imposed blood pressure changes for diagnosing peripheral artery disease.

Abstract: The disclosed subject matter includes optical tomographic systems for acquiring and displaying dynamic data representing changes in a target tissue sample to external provocation. For example, the disclosed devices, methods and systems may be used for quantifying dynamic vascular changes caused by imposed blood pressure changes for diagnosing peripheral artery disease.