A treatment device for a medical treatment heats a biotissue. The device includes first and second heat transfer portions which come in contact with the biotissue. The device includes first and second resistance elements which are supplied a power having a first power value and a second power value to heat the first heat transfer portion and second heat transfer portion, respectively. The device includes temperature acquiring section which acquires a first temperature of the first heat transfer portion. The device includes a control section which calculates the first power value based on the first temperature, and determines the second power value corresponding to the first power value. The device includes first and second power supplying sections which supply the power having the first and second power value to the first and second resistance elements, respectively.

A treatment device for a medical treatment heats a biotissue. The device includes a treatment tool which includes a heat transfer portion and a resistance element, a storage section which stores a time-power list including time-power relations, and a controller. The controller includes a resistance value acquiring section acquiring a resistance value of the resistance element, a power supplying section supplying the power to the resistance element, and a control section. The control section causes the power supplying section to supply a predetermined state detection power in a state detection period, calculates a change of the resistance value in the state detection period, acquires the time-power relation corresponding to the change of the resistance value, and causes the power supplying section to supply the power based on the acquired time-power relation.

The apparatus and method includes a proximal balloon subsystem including a proximal balloon positionable to a selected first location within a blood vessel to be ablated. A distal balloon subsystem including a distal balloon is positionable to a selected second location within the blood vessel to be ablated. An ablating subsystem including an ablating element is configured to be positioned between the proximal balloon and the distal balloon within the blood vessel to be ablated. An evacuation port is configured to evacuate fluid between the proximal balloon and the distal balloon.

A dermal conditioning device is for creating at least one pressure point on at least an external surface of an eyelid. The device includes at least one skin tissue lesion generator, at least one controller, a power supply and a housing, the controller coupled to the skin tissue lesion generator. A power supply couples to the skin tissue lesion generator and the controller and the housing encasing the skin tissue lesion generator and the controller. The controller controls the skin tissue lesion generator to generate at least one signal and to apply the signal to stress the external surface of an outer layer of the eyelid, the stress causing a formation of the pressure point on the eyelid without tissue coagulation, thereby activating at least one of a corneal reflex, a menace reflex, and a lacrimation reflex of the eyelid by activating at least one nociceptor on the eyelid.