Abstract:
An electrophysiology mapping system is provided with modules which can be attached thereto, each module including an item of subcutaneous interventional equipment and information about the item of subcutaneous interventional equipment, including shape information and size information. At least one sensor is placed upon the item of subcutaneous interventional equipment at a known location thereon. This sensor allows for position, and also preferably orientation, of the item within an image presented on a display of the electrophysiology mapping system. The at least one sensor can be at least one electrode or two or more electrodes, with different known positions for the electrode, or electrodes. The at least one sensor can be one or more magnetic field sensors interacting with a magnetic field associated with the electrophysiology mapping system. Transthoracic ultrasound fitted with sensors thereon can also be utilized as a further module attachable to the electrophysiology mapping system.
Abstract:
A photoacoustic apparatus of the present invention obtains distribution information of concentration of a substance inside an object using electric signals originated from acoustic waves generated from the object irradiated with a plurality of lights having a plurality of wavelengths, and includes a signal processor for obtaining a plurality of sound pressure distribution information, obtains concentration information of the substance at a certain position based on an user input, and obtains distribution information of the concentration of the substance inside the object using the sound pressure distribution information, concentration information of the substance, and information on absorption of each of the lights having the plurality of wavelengths by the substance.
Abstract:
Methods and apparatus for providing a functional mapping of a brain lesion in a patient's brain. The method comprises determining using a computer processor, based on human connectome data stored on at least one computer datastore in communication with the computer processor, at least one functional network associated with a location of a brain lesion identified in an image of a patient's brain. The at least one functional network includes a plurality of brain areas functionally connected to the location of the brain lesion and a plurality of correlation measures. Each of the correlation measures indicates a strength of functional connection between the location of the brain lesion and a respective brain area of the plurality of brain areas in the at least one functional network. The method further comprises determining, based at least one functional network, a likelihood that the brain lesion is causing one or more patient symptoms.
Abstract:
An apparatus according to the present invention is configured to obtain an ultrasound image and a photoacoustic image of an object, and includes a display control unit configured to display a moving ultrasound image on a first display area (1710) in a display unit (160). Different examples of images to be displayed are disclosed. The display control unit may e.g. be configured to, based on information representing a display instruction given when a moving image of the ultrasound image is being displayed, display a still image (1721) of a superimposition image of the ultrasound image and a photoacoustic image corresponding to a time point of the display instruction on a second display area (1720) in the display unit.
Abstract:
An integrated home based system to measure and report vital patient physiological data via telemedicine is disclosed. The integrated medical device is a personal, affordable, portable medical monitor, providing multiple critical vital sign data for real-time face-to-face communication with qualified health care professionals, direct from the comfort of your home (or wherever you may be travelling), whenever you need it. It is also linked to a secure patient medical record so the patient and/or healthcare professional can collect, archive and track information and trends.
Abstract:
An optical imaging system utilizes a three-dimensional (3D) light scanner to capture topography information, color reflectance information, and fluorescence information of a target object being imaged, such as a surgical patient. The system also utilizes the topography information of the target object to perform an image mapping process to project the captured fluorescence or other intraoperative images back onto the target object with enhanced definition or sharpness. Additionally, the system utilizes the topography information of the target object to co-register two or more images, such as a color image of the target object with a fluorescence image for presentation on a display or for projection back onto the target object.
Abstract:
Systems and methods are disclosed for diagnosis, risk assessment, and/or virtual treatment assessment of visceral ischemia and related disorders. One method includes receiving a patient-specific anatomic model of a patient's visceral vasculature, including visceral vasculature of the patient's visceral organs and bowel; determining a location in the patient-specific anatomic model of the patient's visceral vasculature; determining, for the location in the patient-specific anatomic model, a blood flow characteristic of blood flow through the location in the patient-specific anatomic model of the patient's visceral vasculature; determining a tissue region of the patient's bowel proximate the location in the patient-specific anatomic model of the patient's visceral vasculature; and generating an assessment of blood supply adequacy to the tissue region of the patient's bowel or generating a risk score for risk of disease for the patient's bowel, based on the determined blood flow characteristic and an expected blood flow characteristic associated with the tissue region of the patient's bowel.
Abstract:
Disclosed herein are portable handheld devices, systems, and methods for the evaluation of tissue pathology and the evaluation and/or monitoring of tissue regeneration. The handheld devices and systems perform laser speckle and hyperspectral imaging to assess tissue pathology and tissue regeneration. The device and system of the disclosure may also perform 3D surface reconstruction.