A method and device for identifying cancer is disclosed. The method includes receiving gamma photons emitted from cancer cells present in an organism through at least one photoreceptor cell. The method further includes converting the gamma photons received through the at least one photoreceptor cell to a plurality of oscillating waves having a plurality of frequencies. The method includes creating a contour plot by projecting positive and negative peaks of each of the plurality of oscillating waves. The method further includes comparing pattern of the contour plot with a plurality of training contour plots to identify type of cancer affecting at least one body part of the organism, wherein each of the plurality of training contour plots are tagged with an associated type of cancer.

A system and method for determining fractional fat content of tissue comprises registering thermoacoustic image coordinates to an acquired ultrasound image, the acquired ultrasound image at least comprising target tissue within a region of interest; defining a thermoacoustic voxel grid coincident with the region of interest; obtaining thermoacoustic image measurement values from tissue within the region of interest corresponding to the voxels within the defined thermoecoustic voxel grid to yield a thermoacoustic measurement matrix; normalizing the thermoacoustic image measurement values within the thermoacoustic measurement matrix; calculating a fractional fat content map for the target tissue within the region of interest based on the normalized thermoacoustic image measurement values within the thermoacoustic measurement matrix and a reference thermoacoustic measurement value; and correcting the fractional fat content map based on tissue speed-of-sound data to yield a final fractional fat content map for the target tissue within the region of interest.

An acoustic wave apparatus comprising a supporting base provided with an insertion opening into which an object is to be inserted; a liquid vessel arranged below the insertion opening configured to store acoustic matching liquid; and a receiving portion configured to receive an acoustic wave generated at the object and propagated via the acoustic matching liquid from; a bank portion protruding from the liquid vessel toward the supporting base, wherein the liquid vessel includes a bank portion at upper side configured to reduce an amount of the matching liquid over flowed from the liquid vessel due to a changing of a wavefront of the matching liquid, in a part of a circumferential direction of the liquid vessel, the bank portion is provided with a communicating portion through which the acoustic matching liquid can pass.

The present invention provides a system for sensing physiological characteristics. The system includes a stimulating light emitting unit, a potential measuring unit, an analog-to-digital converting unit, a characteristic parameter group filtering unit, a characteristic parameter group storing unit, a comparing and calculating unit, an analysis unit, a display unit and a power supply unit. The present invention utilizes external signal light beams to stimulate the skin to fetch data of potential changes, and further observes the status of various organs or systems in the living creature by numerical means. The characteristic parameter group storing unit with the analysis unit and the display unit can remove the error probability caused by man-made operation in the prior arts, suitable for scientific research applications.

A system for imaging a biological sample including a tubular body having a side wall defining an interior shaped and sized for receiving the biological sample, an electromagnetic source positioned at one end of the tubular body interior for directing electromagnetic energy into the biological sample in the body interior, and an ultrasonic transducer positioned along said side wall of the body for receiving ultrasonic energy induced by the electromagnetic energy and transmitted through the biological sample.

A method for evaluating operational performance of a biological system and apparatus for fetching data required therefor are disclosed. The apparatus includes an emitting unit, an electric potential measuring unit, an analog-to-digital converting unit, and an operating unit. The present invention utilizes excitation of external signal light beams to fetch changed data of electric potential from the skin surface, further to observe the status of the organs inside the living creature's body. In comparison with traditional technologies, such as X-ray and nuclear magnetic resonance, the present invention has advantages of short observation time, low operating cost, and harmless to the living creature.

Method and systems for optimizing acoustic energy transmission in implantable devices are disclosed. Transducer elements transmit acoustic locator signals towards a receiver assembly, and the receiver responds with a location signal. The location signal can reveal information related to the location of the receiver and the efficiency of the transmitted acoustic beam received by the receiver. This information enables the transmitter to target the receiver and optimize the acoustic energy transfer between the transmitter and the receiver. The energy can be used for therapeutic purposes, for example, stimulating tissue or for diagnostic purposes.

An X-ray computed tomography breast imaging method comprises positioning a patient such that a breast of the patient is disposed adjacent to an ultrasound detector comprising a transducer array, wherein the transducer array comprises a plurality of ultrasonic transducer elements, positioning an X-ray source in a predetermined position directed toward the breast, actuating the X-ray source to emit an X-ray pulse into the breast to induce ultrasonic acoustic waves to emit from the breast, wherein the X-ray pulse has a duration in a range of 1 picosecond (ps) to 1 microsecond (s), detecting the ultrasonic acoustic waves with the ultrasound detector, and transmitting signals from the transducer array to a data processing system for generating an image of the breast.

A hybrid system is developed using thermal and electrical impedance imaging methods together. The innovation of the approach relies on the frequency dependence of the tissue's electrical impedance which facilitates the acquisition of multiple thermal images with currents at different frequencies injected to the region of the body under inspection. Proposed method without current application (in passive mode of operation) provides images which are obtained by standard thermal imagers. On the other hand, the application of the electrical current (in active mode of operation) increases the temperature contrast on the body surface depending on the electrical property of tissue. Therefore, the technique while increasing the thermal contrast provides frequency dependent conductivity distribution data which can be used as a basis for the detection of the breast carcinoma. The sensitivity of the technique is increased by an infrared camera with dual band (MWIR/LWIR) imaging capability.

A cancer detection system may comprise at least two imaging systems, each of which implements a different imaging modality, and each of which provides sampled image data. The system may further include, for each imaging modality, a modeling unit to produce modeled image data based on a common set of biophysical parameters. The system may also include a joint non-linear inversion module to receive information from each modeling unit and reconstruct a set of joint biophysical properties. The system may include a scaling unit to revise the common set of biophysical parameters based on the set of joint biophysical properties. The system may include a comparator to compare the sampled image data from each of the imaging systems to the corresponding modeled image data to determine a difference between the sampled image data and the modeled image data, and to determine when the difference is less than a threshold difference.