100 results about "Passive heating" patented technology

The invention provides a method for preparing hydrogen and LNG from coke oven gas. The method comprises the following steps: electric decoking; boosting of the coke oven gas by a compression system; cooling of the raw gas coke oven gas by using the BOG gas (the BOG gas is a gas formed after the passive heating gasification of LNG) of LNG in order to further remove tar, benzene, naphthalene and like substances in the coke oven gas; and pretreatment using a TSA process to finely remove macromolecular impurities, such as tar, benzene, naphthalene and the like; wet and dry two-stage desulfurization for removing sulfides in the coke oven gas; two-stage low pressure shifting for a reaction of CO and water vapor to form CO2 and hydrogen; and pressurization using a compressor, an MDEA solution process for removing carbon dioxide, a membrane separation technology for separating hydrogen and methane, separation, concentration and purification of the hydrogen and methane, and dehydration, demercuration and liquefaction of the separated high-concentration methane to obtain the LNG. The coke oven gas is finally converted into the hydrogen and the LNG which have high values, so the energy of thecoke oven gas is fully used, and the environment is protected.

The photovoltaic passive heating wall includes glass plate with photovoltaic cells adhered to the back side, two summer ventilating openings, two winter ventilating openings, heat collecting wall, and DC blower for speeding the airflow in the airflow channel. The photovoltaic glass plate is installed on one frame parallel to the heat collecting wall, two summer ventilating openings are in the upper and the lower part of the airflow channel separately, two winter ventilating openings are in the upper and the lower part of the heat collecting wall separately, and the DC blower is installed in the winter ventilating openings or the airflow channel. The present invention has photovoltaic cells, forced airflow to lower the temperature of the cells and raised electricity generating efficiency, the electricity generating and heating functions and building appearance with fascination.

The invention discloses a dynamic climate compensation method for centralized heating. Firstly, the outdoor temperature is predicted, water supply and return temperatures are adjusted some time ahead according to the predicted value of the outdoor temperature, and the hysteresis of pipe network adjustment in the manner that adjustment is performed while sampling is overcome. The outdoor temperature of the next day is predicted according to local historical meteorological data and weather forecast of the meteorological department, and the value is used as basic data for prediction of a thermal load; and then the thermal load is predicted, that is, the thermal load curve of the next day is calculated according to the outdoor temperature. With the method, the outdoor temperature is reasonably predicted so as to realize advanced dynamic adjustment of a climate compensator; heating medium parameters of a heating system are adjusted by the aid of an adjusting model according to the thermal load value set in advance, a heat source is changed from original wide passive heating into active heating, on the premise that the indoor temperature for the user is stable, the operation adjusting indictor of the heating system within the specified time are given in advance, the heating efficiency is improved, and the heating energy consumption is reduced.

A gutter cover which more effectively and efficiently prevents the clogging of gutters and the formation of ice dams without the use of heating cables and other active components. The gutter cover comprises a first section, a second section, and a passive heating element. The first section is adapted to be installed over or under roofing material covering the roof for directing water from the roof. The second section is attached to the first section and adapted to be installed over an open end of the gutter for directing the water from the roof into the gutter while preventing debris from entering the gutter. The passive heating element is provided for absorbing heat from sunlight and thereby preventing or minimizing accumulation of snow or ice on or near the second section without the use of heating cables or other active heating components.

A device for protecting superconducting magnet quench comprises a superconducting magnet and a quench protection circuit. When the device protects passive heating of the superconducting magnet, the superconducting magnet (2) composed of a plurality of superconducting coils (1) is divided into n segments, n being not smaller than 1. Each segment includes one or a plurality of superconducting coils (1). Each segment is parallelly connected with serially connected devices such as an electrifiable spring (3), a variable resistor (4), a quench trigger heater (5), a piecewise resistor (6) and a bidirectional protection diode (7). The whole superconducting magnet (2) is connected with a power supply (8) in parallel. When the device protect energy bleeding of the superconducting magnet, the quench protection circuit further comprises a bleeder resistor (14); after sequentially connected in series, an electrifiable spring (12), a variable resistor (13), the bleeder (14) and a bidirectional protection diode (15) are parallelly connected to two ends of the superconducting magnet.

An improved pre-heating, contiguous in-line water heater is described. The in-line water heater utilizes a passive heating means to passively heat at least a portion of the input water received by the in-line water heater. The result is a more cost efficient water heater. The in-line water heater is integrated with a means for control to receive input from at least one sensor and to regulate the operation of the in-line water heater.

A device for removing condensate from a surface of a transparent material is disclosed. The device uses a power supply to conduct an electrical current through and thereby heat a transparent thermo-resistive element embedded within the transparent material. As the transparent thermo-resistive element is heated, heat transfers to a surface of the transparent material, thereby heating such surface to a temperature above the dew point of the condensing liquid which in turn prevents fogging on the surface of the transparent material. Embodiments of the present invention have utility in performance eyewear where fogging has the potential to reduce visibility.

A diaper bag having a major compartment with pockets on the walls or bottom thereof for one or more of the following accessories needed either by the mother or baby for travel: wipes, diapers, spare clothes, Mom's ipod, cell phone, keys and/or wallet, a changing mat, snacks, formula, baby food, and having actively or passively heated and cooled insulated compartments for formula, baby food included on the inside or outside of the main compartment.

A method for producing hydrocarbons from a region having adjacent strata divided by an impermeable or partially permeable barrier and, wherein at least one of the strata contains hydrocarbons, comprises of sufficiently heating one of the stratum to allow heat to be conducted to the hydrocarbon containing stratum and producing hydrocarbons therefrom. In one aspect, both strata contain hydrocarbons, such as bitumen, and heat is generated by a steam assisted gravity drainage process to the adjacent stratum. Heat may also be generated by in-situ combustion of hydrocarbons to preheat an adjacent stratum, or by electrical heating. Once pre-conditioned to a higher in-situ temperature, hydrocarbon production may be facilitated by diluting the target pre-heated hydrocarbon bearing stratum with solvent injection.

The invention provides a recovery unit for a reversible hot melt adhesive waste material, which comprises a stander, a motor, a fabric guide roller, heating rollers, scrapers and an adhesive-gathering groove, wherein two heating rollers are correspondingly arranged on the stander, and one heating roller is connected with the motor and is taken as an active heating roller to drive the other passive heating roller contacted with the active heating roller to rotate; the fabric guide roller is arranged on the stander to guide a composite substrate waste coiled material to pass through between the two heating rollers; the stander is also provided with three scrapers which are contacted with the surfaces of the two heating rollers and a glue surface of the composite substrate waste coiled material; and the below of the scrapers is provided with the adhesive-gathering groove. During work, the two heating rollers heat and melt an reversible hot melt adhesive on the surface of the composite substrate waste coiled material; the scrapers scrape away the reversible hot melt adhesive adhered to the surfaces of the active heating roller, the passive heating roller and the composite substrate waste coiled material; and the reversible hot melt adhesive falls into the adhesive-gathering groove. The recovery unit has a reasonable structure, and can effectively recover the reversible hot melt adhesive on the surface of the composite substrate waste coiled material, save resources and reduce the cost.

A heat pump system that can be selectively utilized to discharge excessive heating and cooling capacity toward secondary devices of the system to maintain operation of the heat pump system to better manage the respective temperatures associated with the fluid flows in a manner that reduces the need for cycling the heat pump system ON and OFF to attain desired fluid output temperature manipulations.

The invention provides an adhesive heating and temperature control device used in the accelerometer assembling process. The adhesive heating and temperature control device comprises a heat preservation mold, a heating device arranged in the heat preservation mold and used for evenly heating adhesive between a meter shell and a meter core in the accelerometer assembling process, and a control device connected with the heating device and used for controlling heating temperature and heating time in the heating process. Due to the fact that the adhesive between the meter shell and the meter core is evenly heated in the accelerometer assembling process, the adhesive of a single accelerometer is evenly heated in the solidification process, and the service life of the accelerometer is prolonged; heat is preserved through the heat preservation mold, the heating temperature and the heating time can be controlled through the control device in the heating process, the heating temperature and the heating time for solidification of the adhesive on meter heads of the accelerometers of the same batch are the same, and the accelerometers of the same batch are prevented from being different.

A nozzle for an injection molding apparatus includes a nozzle body having a first nozzle body portion, a second nozzle body portion, and a third nozzle body portion, the second nozzle body portion movably connected to at least one of the first nozzle body portion and the third nozzle body portion, the first nozzle body portion and the third nozzle body portion being heated by the first and second nozzle heaters, respectively, or by a heater jacket tube heating, the heater sleeve has a cutout along the length of a second nozzle body portion that is substantially free of nozzle heaters to allow the second nozzle body portion to pass through with the first nozzle body The portion is passively heated in contact with the third nozzle body portion.

An active heating system for an underwater diver uses material particles that can generate heat in an exothermic reaction in the presence of oxygen. The material particles are positioned at selected region(s) within an underwater diver's attire. A source of oxygen gas is coupled to the selected region(s).

The present invention relates to a fast heating-up control method and device based on a photo-thermal type and a heating furnace. The method comprises the following steps: performing parameter calibration of a receiver putting samples; setting a target heating parameter, and generating corresponding heating factors according to the target heating parameter and the calibration parameter received by the receiver; performing illumination heating of the samples in the receiver according to the heating factors, detecting an actual heating parameter in the receiver in real time, comparing the actual heating parameter and the target heating parameter, quitting the samples in the receiver when the actual heating parameter is the same as the target heating parameter, and finishing a heating flow. Corresponding heating factors are generated according to the target heating parameter and the calibration parameter of the receiver, active heating of the samples in the receiver are performed according to the corresponding heating factors, and the samples are not directly heated so as to realize fast heating up and ensure accurate control of the heating process.

The invention discloses the use of a noncontact inductive heating body for preparing a fog and/or smoke generating device. The heating body comprises a passive heating body capable of being inductively heated in an alternating electric field and/or magnetic field; and a packaging body having an accommodating cavity for packaging the passive heating body. The shape of the accommodating cavity matches the shape of the heating body. When the heating body is in operation, a source material for generating fog and/or smoke is in direct contact with the packaging body so as to be heated, and the passive heating body is not in direct contact with the source material and is not in wire connection with a circuit and a power supply. The operating temperature range of the passive heating body does not exceed the withstand temperature of the packaging material. The invention also discloses a fog and/or smoke generating device which is high in heating efficiency, safe and highly efficient in energy, detachable and easy to clean.

A system configured for operation below a threshold temperature system includes a power supply, a housing, a temperature-sensitive electronic component, and a heating circuit. The temperature-sensitive electronic component is enclosed within said housing and electrically connected to the power supply, wherein the temperature-sensitive electronic component becomes susceptible to failure when the temperature of said temperature-sensitive electronic component decreases and crosses the threshold temperature. The heating circuit is at least partially enclosed within the housing and comprising a temperature-dependent resistor, the heating circuit electrically connected to the power supply and configured to generate heat energy within the housing when the temperature within the housing decreases and approaches the threshold temperature in order to maintain the temperature of the temperature-sensitive electronic component above the threshold temperature.

A method for operating an exhaust aftertreatment system injector to prevent coking includes steps of injecting fuel for heating the aftertreatment devices, when not injecting fuel, flowing air to purge and cool the nozzle to prevent carbon deposits when exhaust gas temperature is low, and substantially stop air flow to allow passive heating of the nozzle by the exhaust for oxidation of any accumulated carbon when exhaust temperature is high enough to support oxidation. Preferably, the nozzle has a catalytic material coating to reduce the temperature necessary for oxidation of the coking material.

The invention discloses a catalytic purification-sterilization disinfection type multifunctional photovolatic passive ventilation wall. Different modes are switched by controlling opening and closingof baffles at all ventilation openings. The ventilation baffles comprise an outdoor ventilation baffle (D1), an indoor lower ventilation baffle (D2) and an indoor upper ventilation baffle (D3). The ventilation openings comprise an outdoor ventilation opening (V1), an indoor lower ventilation opening (V2) and an indoor upper ventilation opening (V3). The back face of a heat absorption plate (5) issprayed with an adsorption-thermal catalysis coating. According to the catalytic purification-sterilization disinfection type multifunctional photovolatic passive ventilation wall, the thermal catalysis technology, the thermal sterilization disinfection technology and the solar photovolatic photo-thermal technology are innovatively combined and utilized, the functions of power generation in the heating season, passive heating ventilation, air purification and thermal sterilization disinfection can be achieved, and the functions of power generation in the non-heating season, domestic hot waterpreparation, passive cooling, purification and thermal sterilization disinfection are achieved; and in the transition season, according to the building requirements, the functions of domestic hot water preparation and passive heating can be flexibly achieved by adjusting the ventilation baffles while power generation, thermal catalytic degradation of formaldehyde and thermal sterilization disinfection are conducted.

The invention relates to the technical field of heaters, and discloses an intelligent fluid type electric heating box which comprises a base and a shell fixed onto the base. A feeding pipe and a discharging pipe communicating with the inner part of the shell are arranged on the side surfaces, close to two ends, of the shell; a heating assembly is fixed to one end, close to a feed inlet, of the shell; a part, used for heating, of the heating assembly is arranged in the shell; a flow monitoring assembly electrically connected with the heating assembly is fixedly connected into the feeding pipe;temperature monitoring assemblies electrically connected with the heating assembly are fixedly connected to the discharging pipe and the middle part in the shell; the heating assembly is used for heating a fluid medium entering from the feeding pipe; and the flow monitoring assembly and the temperature monitoring assemblies are used for monitoring and controlling the flow speed and the temperatureof the fluid medium, and can stop the heating operation of the heating assembly when the flow speed of the fluid medium is too low or the temperature is too high, so that the occurrence of the phenomenon that the service life of the electric heating box and the follow-up use of the fluid medium are influenced due to dry burning or excessive heating of the heating assembly is avoided.

A system for growing a crystal ingot from a melt is provided. The system includes a crucible assembly, a first heater, a second heater, and a passive heater. The crucible assembly includes a crucible and a weir separating an outer melt zone of the melt from an inner melt zone of the melt. The first heater is configured to supply thermal energy to the melt by conduction through the crucible. The second heater is configured to generate thermal radiation. The passive heater is configured to supply thermal energy to the outer melt zone by transferring thermal radiation generated by the second heater to the outer melt zone.