Systems and methods for monitoring a mechanical force applied to a wound site repairing structure are disclosed. In an embodiment, the systems include a wound site repairing structure, a magnetoelastic sensor coupled to the wound site repairing structure, and a detection system. The detection system includes an excitation coil configured to transmit a signal to the magnetoelastic sensor and a detection coil configured to detect a signal indicative of a mechanical force applied to the wound site repairing structure. The detection system also includes a detection unit configured to detect the signal indicative of the mechanical force applied to the wound repairing structure.

Systems and methods disclosed herein provide efficacious pain management therapies based on delivery of physical medicine(s) via computer-implemented systems. Patient information comprising patient pain symptoms, patient physiological measurements, patient demographics, and other information is received at a pain therapy device. The patient information is compared with pain analytics data compiled on a plurality of individuals to determine a personalized pain management therapy. The personalized pain management therapy is applied via a combination of thermoceuticals, electroceuticals, ultrasound, and several other forms of physical medicine. Sensors coupled to the pain therapy device measure changes in physiological data resulting from the pain management therapy. The personalized pain management therapy can be adjusted based on the changes in the physiological data and/or patient feedback. The patient information, information about the applied therapy, and therapy outcome information is added to the analytics database.

A medical device includes a treatment module configured to apply a treatment to a patient. The medical device includes an interface configured to operatively connect to a removable storage device storing authorization data that identifies a level of treatment authorization. The medical device includes a processing device configured to perform operations in response to receiving user input indicating a treatment should be initiated. The operations include determining whether the removable storage device is valid for use with the medical device. If the removable storage device is determined to be valid, the authorization data is accessed. The processing device determines whether the treatment is authorized based on the accessed authorization data. If the treatment is determined to be authorized, the treatment module is controlled to apply the treatment. If the treatment is determined to not be authorized, the treatment module is controlled such that the treatment is not applied.

The present disclosure relates to an electronic therapy device including automatic controlled application of energies along with feedback control using sensors for improved synergistic effects and further the device is configured to be used for longer periods of time for improved and optimal therapeutic results without causing any adverse effects, the device can be used for pain management, healing, fitness, cosmetic and topical delivery related applications and a method for performing electronic therapy using the said portable electronic device.

Devices, systems and/or methods for monitoring and/or stimulating osteogenesis use sensor data from a target site of a bone to produce a quantitative output that can be used to determine the healing rate of the patient, when the bone at the target has fully consolidated and/or to direct further treatment of the patient.

An ultrasonic irradiation device 10 includes: an ultrasonic irradiation pad 110 including at least two output elements for emitting supersonic waves with output strength in a range of 505 mW/cm.sup.2 to 1105 mW/cm.sup.2 at output frequency in a range of 50050 kHz to 80050 kHz; drive control device 11 that drivingly controls the ultrasonic irradiation pad 110; and fastening device 120 that fastens the ultrasonic irradiation pad 110 in a state of being in close contact with a forearm 50 of the living body, in which the fastening device 120 is formed into a deformable strip having a removable fixed portion 120a in an end portion.

Various embodiments provide a method for an extended field of view treatment. The method can include the steps of imaging a region; targeting a region with directed ultrasound energy; monitoring the region; moving the imaging, treatment, and monitoring region while spatially correlating to one or more prior regions via imaging and/or position sensing; continuing the extended field of view treatment; and, achieving an ultrasound induced biological effect in the extended field of view treatment region.

A medical device includes a treatment module configured to apply a treatment to a patient. The medical device includes an interface configured to operatively connect to a removable storage device storing authorization data that identifies a level of treatment authorization. The medical device includes a processing device configured to perform operations in response to receiving user input indicating a treatment should be initiated. The operations include determining whether the removable storage device is valid for use with the medical device. If the removable storage device is determined to be valid, the authorization data is accessed. The processing device determines whether the treatment is authorized based on the accessed authorization data. If the treatment is determined to be authorized, the treatment module is controlled to apply the treatment. If the treatment is determined to not be authorized, the treatment module is controlled such that the treatment is not applied.

The present disclosure provides implants, sensor modules, networks, and methods configured to establish transcutaneous power and transcutaneous bidirectional data communication using ultrasound signals between two or more medical devices located on and within a body of a patient.

Various embodiments provide a method for an extended field of view treatment. The method can include the steps of imaging a region; targeting a region with directed ultrasound energy; monitoring the region; moving the imaging, treatment, and monitoring region while spatially correlating to one or more prior regions via imaging and/or position sensing; continuing the extended field of view treatment; and, achieving an ultrasound induced biological effect in the extended field of view treatment region.