A portable thermoshapable fabric composite heating device kit mainly comprises a portable heating device and a thermoshapable fabric composite; wherein the portable heating device includes a first box body and a second box body disposed above or inside the first box body. A heating space formed between the bottoms of the two box body bodies is used to accommodate a heating pack. The thermoshapable fabric composite can be accommodated within a receiving space of the second box body. After water is added into the first box body to flood the heating pack, and a lid is placed to cover the top, the heat-generating material in the heating pack contacts the water to generate water vapor during an exothermic reaction. The water vapor enters the receiving space, in which the thermoshapable fabric composite is stored, through the multiple pores at the bottom of the second box body. The generated thermal energy will heat the thermoshapable fabric composite without the need for open flame or electricity. That is, the thermoshapable fabric composite can be heated and softened, so that the thermoshapable fabric composite can be used in the field without reliance on external elements, such as conventional heating or electricity, in order to achieve the purpose of providing first aid such as bandaging and fixation, and to prevent secondary injuries.

The present disclosure discloses an ignition temperature control apparatus of a gas water heater, comprising: a heat exchanger made of stainless steel; a combustion device which supplies high-temperature flue gas to the heat exchanger; a water passage communicated with the heat exchanger; a first temperature detection device provided on the heat exchanger or on the water passage; a controller, wherein if a temperature detected by the first temperature detection device is lower than or equal to a first preset temperature or a rate of decline of a temperature detected by the first temperature detection device is higher than or equal to a first preset value the controller controls the combustion device to operate in such a state that a requirement for thermal bearing capacity of the heat exchanger made of stainless steel is satisfied. The heat exchanger of the ignition temperature control apparatus of the gas water heater of the present disclosure, which is made of stainless steel, has good thermal inertia and excellent thermal insulation properties, and thus the combustion device is started for heating when the ignition temperature control apparatus of the gas water heater is in a stop state, such that it is possible to ensure that the heat exchanger will not fail while an anti-freezing effect can be achieved.

A controller for cool and warm dual system includes a bottom housing and the top housing, a water tank is provided in the bottom housing, a heater is provided in the water tank, and a tank cover is arranged on the water tank. Accommodating slots are defined in and extend through two sidewalls of the water tank along its width direction, respectively. The accommodating slots each accommodate a cooling end heat exchanger that extends into the water tank. Outer sides of the cooling end heat exchangers are respectively provided with a cooling plate, and outer sides of the cooling plates are respectively provided with a semi-circular shaped heat sink. Opposite sides of the heat sinks away from each other each define an inclined notch therein. Cooling fans matching with the notches are arranged in the notches, respectively. The cooling fan is set obliquely, and attaches to the heat sink.

The present invention comprises a system for the localized heating of a portion of water within larger water bodies through a partial confinement of said portion of water without completely interrupting the water flow and where the concept of being in the same water body is maintained, in order to facilitate the practice of recreational activities in a heated environment. The present invention provides a solution to achieve a comfortable temperature of the water for direct contact recreational purposes in a cost-efficient manner, with a partial confinement system that allows creating a heat plug and provides for a serpentine-type flow between both sides of the partial confinement system.

Marinized water bath vaporizer utilizing a slosh chamber having reduced water surface area to reduce the effects of wave created which the vaporizer is in motion, and systems utilizing such vaporizer, and to methods of making and using such vaporizer.

Marinized systems for vaporizing including a water bath vaporizer utilizing a slosh chamber having reduced water surface area to reduce the effects of wave created when the vaporizer is in motion, and systems utilizing such vaporizer, and to methods of making and using such systems.

Floating marinized water bath vaporizer utilizing a slosh chamber having reduced water surface area to reduce the effects of wave created which the vaporizer is in motion, and systems utilizing such vaporizer, and to methods of making and using such vaporizer.

Floating storage and regas vessels comprising a marinized water bath vaporizer utilizing a slosh chamber having reduced water surface area to reduce the effects of wave created which the vaporizer is in motion, and systems utilizing such vaporizer, and to methods of making and using such vaporizer.

The present invention comprises a system for the localized heating of a portion of water within larger water bodies through a partial confinement of said portion of water without completely interrupting the water flow and where the concept of being in the same water body is maintained, in order to facilitate the practice of recreational activities in a heated environment. The present invention provides a solution to achieve a comfortable temperature of the water for direct contact recreational purposes in a cost-efficient manner, with a partial confinement system that allows creating a heat plug and provides for a serpentine-type flow between both sides of the partial confinement system.

A controller for a painting assembly is provided. The controller includes at least one processor to set a threshold temperature to heat components of the painting assembly. The threshold temperature is set based on a carbon footprint in the painting assembly. The processor controls a first heater to generate the heat for a first duration for the components of the painting assembly. The first duration is determined based on the set threshold temperature. The processor compares a temperature of the components of the painting assembly with the set threshold temperature to determine a state of heat of the components of the painting assembly. The processor further controls a second heater to generate the heat for a second duration for the components of the painting assembly. The second duration is determined based on the comparison.