A medical fluid probe includes a heat spreader structure that defines therein a fluid chamber that is in fluid communication with an external environment around the probe, and a thermal energy source in thermal communication with the heat spreader structure. The heat spreader structure functions as both temperature-control elements and structural elements. A variety of separate structure elements, such as the heat pipes, may combine to form the heat spreader structure. The thermal energy source may be used to maintain the temperature of the heat spreader structure, such as by heating and/or cooling the heater spreader structure.

An intravascular temperature management catheter includes a shaft through which working fluid can circulate to and from a proximal location on the shaft. The catheter extends from a connector hub. At least one heat exchange member is supported by a distal part of the shaft or other part of the catheter to receive circulating working fluid from the proximal location. A temperature sensor is supported on the catheter for generating a temperature signal representative of blood temperature to a control system. The temperature sensor includes first and second conductive leads having respective first and second distal segments on or in the catheter shaft. The first and second distal segments are arranged to be in thermal contact with blood flowing past the catheter when the catheter is disposed in a blood vessel of a patient. Also, the temperature sensor includes a joining body connected to proximal segments of the first and second leads. The joining body may be supported in the hub or in another location proximal to the first and second conductive leads.

Devices for therapeutic interaction with an Abreu brain thermal tunnel (ABTT) terminus. Such devices provide heat to or remove heat from the ABTT terminus, and may also provide heat to or remove heat from veins connected to the ABTT. Therapeutic devices for engaging with the ABTT terminus benefit from diagnostics obtained at the ABTT terminus, or from other locations on the body.

Systems and methods described herein include a pressure delivery component that has a pressure applicator configured to selectively apply therapeutic pressure to a treatment portion of a user body, and also includes a thermal delivery component that has a thermal applicator that is a configured to apply thermal treatment to the treatment portion. The thermal applicator may be removably disposable in operative relationship with the pressure delivery component in a use configuration of the treatment delivery component such that the thermal applicator is disposable between the treatment portion and the pressure applicator when the treatment delivery component is disposed on the treatment portion in the use configuration. Moreover, the pressure applicator is operable to apply pressure to the thermal applicator to enhance apposition of the thermal applicator to the treatment portion.

A conformable garment or device, for example, for performing heat exchange with a patient, includes one or more tubes. At least one of the one or more tubes has a lumen configured to receive fluid for flowing through the lumen of that tube to heat or cool the tube. The one or more tubes may be coupled to form a conformable fabric or material, such that the conformable fabric or material conforms to a non-planar shape. The conformable garment or device may conform to cover a particular portion of the patient's body to heat or cool the patient's body.

Devices for therapeutic nasal neuromodulation and associated systems and methods are disclosed herein. A system for therapeutic neuromodulation in a nasal region configured in accordance with embodiments of the present technology can include, for example, a shaft and a therapeutic element at a distal portion of the shaft. The shaft can locate the distal portion intraluminally at a target site inferior to a patient's sphenopalatine foramen. The therapeutic element can include an energy delivery element configured to therapeutically modulate postganglionic parasympathetic nerves at microforamina of a palatine bone of the human patient for the treatment of rhinitis or other indications. In other embodiments, the therapeutic element can be configured to therapeutically modulate nerves that innervate the frontal, ethmoidal, sphenoidal, and maxillary sinuses for the treatment of chronic sinusitis.

Methods and apparatus for an improved Contrast Therapy Device that delivers alternating heated and chilled temperature fluids to a contrast thermal therapy pad. Mitigation processes maintain water temperature in hot water tanks and cold water tanks in order to keep water temperatures in the respective tanks from drifting beyond a desired setpoint range when the system switches a therapy state from a cooling cycle to a heating cycle or from heating cycle to a cooling cycle. Thermal shock is reduced to the fluid tanks. Mitigation techniques include delaying actuation of a return path flow, such as via a diverting solenoid. Mitigating delay can be a static time delay based upon one or both of: a volume of water in a therapy pad and related volume and rate of flow; and meeting a threshold transition temperature for return fluid temperature.

A medical fluid probe includes a heat spreader structure that defines therein a fluid chamber that is in fluid communication with an external environment around the probe, and a thermal energy source in thermal communication with the heat spreader structure. The heat spreader structure functions as both temperature-control elements and structural elements. A variety of separate structure elements, such as the heat pipes, may combine to form the heat spreader structure. The thermal energy source may be used to maintain the temperature of the heat spreader structure, such as by heating and/or cooling the heater spreader structure.

An endorectal cooling device holder is provided. The holder includes a base operable to be coupled to a surface, an arm extending from the base, and a receiver pivotably coupled with the arm. The receiver forms a receiving aperture operable to receive an endorectal cooling device and maintain the position of the endorectal cooling device.

A rapid contrast therapy system can provide cold, heat/hot/warm (hereafter referred to as “hot”), and/or rapid contrast therapy, which involves rapidly alternating between cold therapy and hot therapy. The system can circulate cold or hot fluid, such as water, through a hose, into a therapy wrap, and then back to the fluid reservoirs of the system. The system can utilize a vapor compression system or other chiller technology to cool the cold water reservoir, and immersion heaters can be used to heat the hot water reservoir.