A wearable cooling and heating system for placement at a body region of a user, including a retention mechanism defining an internal side, and an external side; a temperature modulation subsystem, coupled to the retention mechanism, including a temperature-controllable substrate arranged at the internal side of the retention mechanism, a shield, defining a shield cavity, the shield arranged at the external side of the retention mechanism and coupled to the temperature-controllable substrate, and a heat exchanger in thermal contact with the temperature-controllable substrate and arranged within the shield cavity; a control module, retained by the retention mechanism, communicatively coupled to the temperature modulation subsystem, wherein the temperature modulation subsystem is operable between a cooling mode and a heating mode by the control module, wherein the cooling mode includes generating a low temperature at the temperature-controllable substrate, and wherein the heating mode includes generating a high temperature at the temperature-controllable substrate.

Intra-vaginal devices and methods are disclosed for a broad range of applications in the women's health field. The devices and methods provide for placement in the cervical region, and for transferring heat to a cervical region, a barrier contraception method, collection of menstrual fluid, and release of drugs and/or hormones intra-vaginally. The device also can address multiple women's health issues.

A method of manipulating a quick connect/disconnect system includes connecting a first coupling portion of a first connecting member to a fluid conductor and inserting a second coupling portion of the first connecting member within a third coupling portion of a second connecting member. The method further includes inserting the third coupling portion within a ring assembly which is rotatably coupled to the first coupling portion and engaging a mating feature on an external surface of the third coupling portion with a mating feature on an internal surface of the ring assembly. The method also includes rotating the ring assembly about the third coupling portion while the first mating portion is engaged with the second mating portion; and forcing the second coupling portion to move further within the third coupling portion by rotation of the ring assembly.

A heating mat that, by making use of a multilayered structure, is able to provide therapeutic benefits to a user. The heating mat has a waterproof base layer, a heating layer, PEMF emitters, and a primary therapeutic layer. The primary therapeutic layer uses therapeutic stones and a stone harness to maintain the therapeutic stones in a position that facilitates treatment. The waterproof base layer is a water-impervious membrane that prevents external fluids from damaging the electronic components of the heating mat. The heating layer functions as a flexible heating element for the heating mat and is mounted across the waterproof base layer. The PEMF emitters are devices which generate pulses of EM energy that are known to have therapeutic properties. The PEMF emitters are mounted in between the waterproof base and the heating layer. The primary therapeutic layer is mounted across the heating layer, opposite to the waterproof base layer.

The present invention relates to a device for carrying out cryotherapy treatments, which corresponds to a closed element, shaped like a tube or container, which mainly includes a treatment chamber into which the patient enters and is closed by an access door, as well as a system for supplying and storing a treatment gas, i.e. nitrogen, which allows to reach very low temperatures that are adequate for the recovery of the patient's muscular system. In this way, the device of the present invention has the advantage that the bottom thereof has a floor in the form of a grid, which allows that the gas used and applied to the patient to pass through same and then to be recovered by a feedback system that recirculates the gas and sends it back to the top of the device for application.

A system includes a patient support unit having an enclosed patient environment, a heating module, a skin temperature sensor module, an environmental sensor module, and a control system. The control system is configured to selectively operate the system in a pre-programmed weaning mode configured to gradually wean the patient from the warmed patient environment series of stepped air temperature decreases performed over a series of stepped time durations achieves a goal air temperature while maintaining a goal skin temperature within a weaning abort deviation.

A thermal transfer device for providing thermal treatment to a patient. A patient support portion supporting and contacting the patient includes a first segment of a fluid flow path to receive a fluid from a fluid source. A flexible covering coupled and movable relative to the patient support portion defines a space therebetween that substantially conforms to the patient. The flexible covering includes a second segment of the fluid flow path. The fluid is circulated through an inlet, an outlet, and fluid flow path for supplying heat to or removing heat from the patient support portion and the flexible covering. A fluid circulation system with a controller may selectively adjust heat transfer from temperature zones defining the patient support portion. The thermal transfer device or a mattress cover may provide for controlling the microclimate, or conditions at or near the interface between the patient and the patient support portion.

The present invention relates to a stent using wirelessly transmitted power, and to an external driving device thereof. To this end, a stent is provided with: a power receiving part wirelessly receiving power from the outside; a power storing part storing the power; a second communicating part receiving a control command from the outside; an electrical stimulation part generating electrical stimulation by using the power; a photosensitizer coated onto a stent; an LED illuminating the vicinity of the stent; and a second control part controlling the heat-generating stent on the basis of the control command.

A cold compression device has a driving assembly, a tank, a wrap assembly, and a tube assembly. The driving assembly includes a water pump and an air pump. The wrap assembly has a wrap, a water pack in the wrap, and an air pack in the wrap and overlapped on the water pack. The tube assembly has a first tube, a second tube, a third tube, and a fourth tube. The first tube connects the tank and the water pump. The second tube connects the water pump and the water pack. The third tube communicates with the water pack and the tank. The fourth tube connects the air pump and the air pack. Thus, as the first tube is detachable from and put out of the tank, the water pump may draw air into the water pack, which discharges the water in the water pack thoroughly.

The present disclosure concerns hyperthermic devices for treating vascular involvements related to cancer therapies, such as surgery. In specific embodiments, the device is configured to provide therapeutic heating to destroy vessel-encasing tumors while still protecting the vessel itself. In particular embodiments, the devices utilize two opposing semi-cylindrical shells that encase the vessel in need of treatment of a tumor thereon. In other devices, a flexible substrate is guided under and around the vessel and tumor thereon.