A method of targeting magnetic neurostimulation to a patient suffering a mood disorder is initially obtained by creating a brain network model through evaluation of data sensed from the brain of the patient. A determination is made of a brain target location of a first brain region which is based at least partly on a functional connection of the first brain region to a second brain region reflected in the brain network model. A magnetic stimulation signal is transmitted to the brain target location for treatment of the mood disorder of the patient where the magnetic stimulation signal is provided by a transcranial magnetic stimulator.

This application provides a physical targeted hyperthermia system used for tumor therapy and a control method thereof. The system mainly includes a hyperthermia apparatus body, a microwave radiation device, a microwave receiving device, a microwave imaging unit, a microwave temperature-measuring unit, a hyperthermia solution generating unit, a hyperthermia solution executing unit, and a hyperthermia control device. The hyperthermia apparatus body is used to provide stable supporting surface for a patient and to provide an mounting sites for related function devices, the microwave radiation device is used to generate a microwave with a set wavelength and a set frequency radiating toward a set direction, the microwave receiving device and the microwave imaging unit are used to accurately position the tumor tissue, the hyperthermia solution generating unit is used to generate hyperthermia parameter information, and the hyperthermia solution executing unit is used to generate corresponding hyperthermia solution execution information.

This application provides a physical targeted hyperthermia system used for tumor therapy and a control method thereof. The system mainly includes a hyperthermia apparatus body, a microwave radiation device, a microwave receiving device, a microwave imaging unit, a microwave temperature-measuring unit, a hyperthermia solution generating unit, a hyperthermia solution executing unit, and a hyperthermia control device. The hyperthermia apparatus body is used to provide stable supporting surface for a patient and to provide an mounting sites for related function devices, the microwave radiation device is used to generate a microwave with a set wavelength and a set frequency radiating toward a set direction, the microwave receiving device and the microwave imaging unit are used to accurately position the tumor tissue, the hyperthermia solution generating unit is used to generate hyperthermia parameter information, and the hyperthermia solution executing unit is used to generate corresponding hyperthermia solution execution information.

A retinal phototherapy or photostimulation system includes a laser console generating at least one treatment beam having parameters to photostimulate or treat, while not permanently damaging, a retinal target tissue. The parameters of the at least one treatment beam are fixed so as not to be alterable by a medical provider. A projector or camera projects the at least one treatment beam onto at least a portion of the retina, and a scanning mechanism controllably directs the at least one treatment beam to treatment areas of the retina.

Low power MASER (Microwave Amplification by Stimulated Emission of Radiation) radiation is used to non-invasively record molecular activity in a biological object such as a brain. Low power MASER radiation is also used to neuromodulate molecular targets via Rabi coupling, resulting for example in conformational and function change in specific molecular targets such as ligand-gated ion channels, voltage-gated ion channels, G-proteins, or dopamine receptors. The method can be used to change the energy state of targeted molecules via energization or enervation, or to ablate targeted molecules.

In one example in accordance with the present disclosure, an antenna system is described. The antenna system includes an array of antennas. Each antenna emits electromagnetic waves and is presented with a load that is different from other antennas in the array. The antenna system also includes a control system. The control system includes a single transmitter to sequentially drive antenna sets, a switching device to select, for each activation period in an activation sequence, an antenna set to be driven, and a controller. The controller determines an actual power output of each antenna and generates an adjusted control signal for the single transmitter such that the output of each antenna is controlled to match a target power for that antenna, regardless of a load for the antenna.

In one example in accordance with the present disclosure, an antenna system is described. The antenna system includes an array of antennas. Each antenna emits electromagnetic waves and is presented with a load that is different from other antennas in the array. The antenna system also includes a control system. The control system includes a single transmitter to sequentially drive antenna sets, a switching device to select, for each activation period in an activation sequence, an antenna set to be driven, and a controller. The controller determines an actual power output of each antenna and generates an adjusted control signal for the single transmitter such that the output of each antenna is controlled to match a target power for that antenna, regardless of a load for the antenna.

Disclosed are a deep body spread microwave hyperthermia device for personal uses and an operation method thereof. The operating method may include generating a control signal to control patches attached to the skin of a user, dividing the control signal into a first signal and a second signal having a phase different from a phase of the first signal, transmitting the first signal and the second signal to patches attached to different positions, among the patches, and producing hyperthermia in a body of the user by radiating radio waves based on the first signal or the second signal received by each of the patches.

A phased-array MASER detector for synthetic aperture interferometric three-dimensional imaging. The detector elements, for example 10.sup.2-10.sup.6 zero bias Schottky detector diodes with sufficient sensitivity to reliably detect various values of MASER radiation, are arranged in layers offset in three dimensions. The phased-array MASER detector is particularly useful for detecting characteristics in a biological object using low energy (2-10 Watts), coherent MASER radiation. MASER intensity data of an interferometric pattern is collected by the detector array, is deconvolved, and is used to generate three-dimensional energy activity maps for a given time slice or on a time-shifting basis.

This application describes a novel approach of wireless charging or powering of a sensor-based device used for in vivo diagnosis and monitoring. In addition to implantable or subcutaneous devices, this approach can also be used for wireless charging of wearable and handheld devices. Specifically, this application describes charging of diagnostic and monitoring devices used for disease detection and management. More specifically, this application describes a method to wirelessly power integrated devices designed to detect or monitor analytes (e.g. biological or chemical species) and release drugs into the body in response to a specific change in the body's vitals, detected by the device.