The embodiment of the invention discloses a medical fluorescence imaging data acquisition system and an acquisition method thereof and belongs to the technical field of fluorescence imaging. The medical fluorescence imaging data acquisition system according to the invention comprises a shooting management module, a fluorescence characteristic storage module, a fluorescence region query module, a fluorescence data acquisition module and an image detection module, wherein the shooting management module is used for controlling and acquiring image information of fluorescence regions by adjusting a focal length, and the fluorescence characteristic storage module is used for storing comparative fluorescence characteristic information in the image information. When the present invention is used for acquiring fluorescence region images at fluorescence positions, by determining and comprising the fluorescence quantity and area information of each fluorescence region with standard data, the fluorescence image is shot again after a shooting focal length is adjusted, to acquire the clearer fluorescence image and reduce later image screening work.

According to one embodiment, an image processing apparatus includes a format data acquisition unit, a measurement data acquisition unit, a generation unit, and a record processing unit. The format data acquisition unit is configured to acquire format data including a measurement item. The measurement data acquisition unit is configured to acquire measurement data of a biological body relating to the measurement item from an electronic apparatus relating to measurement of the measurement item based on communication with the electronic apparatus. The generation unit is configured to generate measurement result data including the measurement item and biological information based on the measurement data. The record processing unit is configured to record the measurement result data.

A computing system for wound tracking is disclosed herein. A server computing device receives a first image of a wound of a patient captured by a first camera. Subsequently, the server computing device receives a message generated by a computing device, the message indicating that a second camera of the computing device is to capture a second image of the wound. Responsive to receiving the message, the server computing device causes data to be transmitted to the computing device, the data based in part upon the first image. The data causes the computing device to present a semi-transparent overlay to a view of the wound on a display as perceived through a lens of the second camera, the semi-transparent overlay indicative of the first image. The computing device captures the second image via the second camera and causes the second image to be received by the server computing device.

A portable sensing system device and method for providing microwave or RF (radio-frequency) sensing functionality for a portable device, the device comprising: a portable device housing configured to be carried by a user; and a sensing unit within said housing con-figured to characterize an object located in proximity to the portable system, said sensing unit comprising: a wideband electromagnetic transducer array said array comprising a plurality of electromagnetic transducers; a transmitter unit for applying RF signals to said electromagnetic transducer array; and a receiver unit for receiving coupled RF signals from said electromagnetic transducers array.

A trigger point treatment system for treating a patient, includes a cart, including a display; a trigger point scanning device with a scanning probe, and a trigger point massage therapy device, including a pressure point tip, a pressure sensor component, and an actual pressure indicator. A method of trigger point treatment includes scanning for myofascial trigger points, including locating, mapping, and marking trigger points; measuring a pressure pain threshold; applying a massage treatment; and optionally applying an injection treatment.

Provided are a method and system for individualized prediction of mental illness on the basis of brain function map monkey-human cross-species migration, and a method for determining a mental illness prediction model. The method for determining a mental illness prediction model comprises the steps: (a) data acquisition; (b) preprocessing; (c) brain region selection; (d) feature construction; (e) feature screening; and (f) modeling prediction. The method and system are non-invasive and have high accuracy, high sensitivity, good specificity, and are convenient to popularize.

A magnet suitable for use in a Magnetic Resonance Imaging (MRI) system. The magnet includes a magnet body having a bore extending therethrough along an axis of the body and a primary coil structure having at least four primary coils positioned along the axis. A first end coil is adjacent a first end of the bore of the magnet and a second end coil is adjacent a second end of the magnet. The first end coil and the second end coil are spaced apart by no more than 1000 mm and an imaging region produced by the primary coils is of a disk-type.

A patient support device includes a patient support surface having a size to accommodate at least a part of the patient body, the device including at least one receptacle for housing a coil, which at least one receptacle is arranged in an area of the patient supporting surface corresponding to the position of the anatomic region to be imaged, the patient support surface being covered at least partially by one or more cushions covering in combination the entire patient supporting surface or at least a part of it. At least one of the receptacles for coupling to a receiving coil being provided on at least each of one or more than one of the said cushions, the coil once coupled to a corresponding receptacle is connected to a control and processing unit of the MRI apparatus by means of a cable which is external to the said patient support device.

A bio imaging system includes a plurality of light emitters configured to irradiate light, and a plurality of sensors configured to detect light reflected by an internal tissue of a living body. Each sensor includes a plurality of photo-detecting elements having different absorption peak wavelengths in relation to each other.

A system and method for utilizing MD6DM models built from a SNAP case to generate an interactive four-dimensional (“4D”) angiogram, the 4th dimension including the dimension of time. By introducing such a 4th dimension to the angiogram, the example systems and methods enable visualization of a patient anatomy, such as blood flow over time, to be presented to a user in an interactive manner. This allows a user, such as a surgeon, to more effectively visualize and determine, for example, various anatomical features, such as the structure of an arteriovenous malformation (“AVM”).