A spraying heat preservation vapor supplying device comprises: a heat preservation boiler having an inner chamber, an outer chamber surrounding the inner chamber and a compartment layer separating the inner chamber from the outer chamber; a high heat capacity material filled in the outer chamber; a heater connected to the heat preservation boiler and heating the high heat capacity material, heat of the high heat capacity material being transferred to the inner chamber through the compartment layer; a supplier tube having a first end disposed in the inner chamber; a liquid source connected to a second end of the supplier tube and supplying a liquid to the inner chamber through the supplier tube to absorb heat of the inner chamber so that a vapor is generated; and a vapor outlet connected to the inner chamber and outputting the vapor. A generator apparatus using the vapor supplying device is also provided.

A spraying heat preservation vapor supplying device comprises: a heat preservation boiler having an inner chamber, an outer chamber surrounding the inner chamber and a compartment layer separating the inner chamber from the outer chamber; a high heat capacity material filled in the outer chamber; a heater connected to the heat preservation boiler and heating the high heat capacity material, heat of the high heat capacity material being transferred to the inner chamber through the compartment layer; a supplier tube having a first end disposed in the inner chamber; a liquid source connected to a second end of the supplier tube and supplying a liquid to the inner chamber through the supplier tube to absorb heat of the inner chamber so that a vapor is generated; and a vapor outlet connected to the inner chamber and outputting the vapor. A generator apparatus using the vapor supplying device is also provided.

Exemplary apparatuses, systems, and methods are provided to produce steam for use in oil field applications. In some embodiments, a catalyst is provided that includes a plurality of ceramic bodies impregnated with an alkaline-promoted manganese oxide. In other embodiments, the catalyst includes a plurality of bodies formed of an active ceramic oxide in a consolidated state without an underlying ceramic body. The bodies are contacted with a liquid hydrogen peroxide having a strength, in one embodiment, between about 30 and about 70 weight percent to produce steam. The steam is directed to an oil field application, such as, but not limited to, a geologic formation to increase oil production from the geologic formation, an applicator to clean oilfield equipment, a heat exchanger to heat hydrogen peroxide, or a heat exchanger to heat living quarters.

Exemplary apparatuses, systems, and methods are provided to produce steam for use in oil field applications. In some embodiments, a catalyst is provided that includes a plurality of ceramic bodies impregnated with an alkaline-promoted manganese oxide. In other embodiments, the catalyst includes a plurality of bodies formed of an active ceramic oxide in a consolidated state without an underlying ceramic body. The bodies are contacted with a liquid hydrogen peroxide having a strength, in one embodiment, between about 30 and about 70 weight percent to produce steam. The steam is directed to an oil field application, such as, but not limited to, a geologic formation to increase oil production from the geologic formation, an applicator to clean oilfield equipment, a heat exchanger to heat hydrogen peroxide, or a heat exchanger to heat living quarters.

A method of evaporation comprises cooling a prime mover using a coolant. The cooling comprising pumping the coolant from the prime mover through a heat exchanger and back to the prime mover in a cooling circuit. A process fluid is circulated in an evaporator loop comprising the heat exchanger and a flash tank, the process fluid being circulated from the flash tank, through the heat exchanger and to a flash nozzle positioned in the flash tank. A pressure of the process fluid is reduced across the flash nozzle from a first pressure upstream of the flash nozzle to a second pressure in the flash tank, wherein heat from the coolant provides sufficient thermal energy to the process fluid in the heat exchanger so that a percentage of the process fluid changes phase from liquid to steam when the pressure of the process fluid is reduced across the flash nozzle. Steam is ejected from the flash tank to separate the steam from the process fluid.

A method of evaporation comprises cooling a prime mover using a coolant. The cooling comprising pumping the coolant from the prime mover through a heat exchanger and back to the prime mover in a cooling circuit. A process fluid is circulated in an evaporator loop comprising the heat exchanger and a flash tank, the process fluid being circulated from the flash tank, through the heat exchanger and to a flash nozzle positioned in the flash tank. A pressure of the process fluid is reduced across the flash nozzle from a first pressure upstream of the flash nozzle to a second pressure in the flash tank, wherein heat from the coolant provides sufficient thermal energy to the process fluid in the heat exchanger so that a percentage of the process fluid changes phase from liquid to steam when the pressure of the process fluid is reduced across the flash nozzle. Steam is ejected from the flash tank to separate the steam from the process fluid.

A steam injector assembly for handling steam in a subterranean well includes a steam separation system, the steam separation system directing an initial high quality steam to a subterranean formation and directing low quality fluid mix to a heating system. The heating system includes a ceramic-containing member located in a travel path of the low quality fluid mix and an electromagnetic antenna positioned to heat the ceramic-containing member with electromagnetic waves. A relief valve is movable to an open position when an improved high quality steam within a heating chamber of the heating system reaches an injection pressure, wherein in the open position, the relief valve provides a fluid flow path out of the heating chamber.

A steam injector assembly for handling steam in a subterranean well includes a steam separation system, the steam separation system directing an initial high quality steam to a subterranean formation and directing low quality fluid mix to a heating system. The heating system includes a ceramic-containing member located in a travel path of the low quality fluid mix and an electromagnetic antenna positioned to heat the ceramic-containing member with electromagnetic waves. A relief valve is movable to an open position when an improved high quality steam within a heating chamber of the heating system reaches an injection pressure, wherein in the open position, the relief valve provides a fluid flow path out of the heating chamber.

A heating tool (100) according to the present invention includes a steam generator (10) that a heat generating layer (11) which contains an oxidizable metal, a carbon component, a water absorbent polymer, and water, and a water absorbent sheet (102) which carries water are laminated, and a bag (20) at least a portion of which has an air permeability and accommodates the steam generator (10), in which a mass ratio of the water absorbent sheet (102) is equal to or greater than 0.9 and equal to or less than 15 with respect to the water absorbent polymer contained in the heat generating layer (11).

A heating tool (100) according to the present invention includes a steam generator (10) that a heat generating layer (11) which contains an oxidizable metal, a carbon component, a water absorbent polymer, and water, and a water absorbent sheet (102) which carries water are laminated, and a bag (20) at least a portion of which has an air permeability and accommodates the steam generator (10), in which a mass ratio of the water absorbent sheet (102) is equal to or greater than 0.9 and equal to or less than 15 with respect to the water absorbent polymer contained in the heat generating layer (11).