F22B37/60

Method of steam generation by spraying water onto a duct within a chamber having divider walls
09945554 · 2018-04-17 · ·

Liquid is flash evaporated in a series of cells along and surrounding an exhaust duct to generate a pressurized vapor where at least one of the surfaces is in communication with the source of heat sufficient to maintain the surface at a temperature such that the liquid injected into the chamber is substantially instantly converted to a superheated vapor with no liquid pooling within the chamber. The liquid is introduced by controlled injectors operating at a required rate. Each of the cells is periodically discharged by a pressure controlled relief valve and the vapor from the cells combined to form a continuous stream feeding a turbine or other energy conversion device. The outer wall of the cell is offset so that it contacts the inner wall at one point around the periphery. Heat transfer ribs and bars can be provided in the duct to provide increased heat transfer where necessary.

Method of steam generation by spraying water onto a duct within a chamber having divider walls
09945554 · 2018-04-17 · ·

Liquid is flash evaporated in a series of cells along and surrounding an exhaust duct to generate a pressurized vapor where at least one of the surfaces is in communication with the source of heat sufficient to maintain the surface at a temperature such that the liquid injected into the chamber is substantially instantly converted to a superheated vapor with no liquid pooling within the chamber. The liquid is introduced by controlled injectors operating at a required rate. Each of the cells is periodically discharged by a pressure controlled relief valve and the vapor from the cells combined to form a continuous stream feeding a turbine or other energy conversion device. The outer wall of the cell is offset so that it contacts the inner wall at one point around the periphery. Heat transfer ribs and bars can be provided in the duct to provide increased heat transfer where necessary.

Vapor source system based on vapor-liquid ejector supercharging combined with flash vaporization technology

A vapor source system based on vapor-liquid ejector supercharging combined with flash vaporization technology belongs to the technical fields of waste heat utilization and steam generation. The system comprises a vapor-liquid ejector, a flash vaporization tank and a intermediate heat exchanger, wherein the vapor-liquid ejector uses high-pressure steam to raise temperature and pressure of low-pressure water absorbed from the flash vaporization tank; the pressure-increased water is flashed into low-pressure saturated steam after entering the flash vaporization tank; the saturated water which is not flashed is collected at the bottom of the flash vaporization tank. The system generates multiple low-pressure flash vaporization saturated steam with a small portion of high-pressure steam, and realizes the recovery and utilization of waste heat such as flue gas of boiler, improves the economy of thermal process, and provides a flexible and adjustable vapor source for heavy oil thermal recovery, seawater desalination or sewage treatment equipment.

Vapor source system based on vapor-liquid ejector supercharging combined with flash vaporization technology

A vapor source system based on vapor-liquid ejector supercharging combined with flash vaporization technology belongs to the technical fields of waste heat utilization and steam generation. The system comprises a vapor-liquid ejector, a flash vaporization tank and a intermediate heat exchanger, wherein the vapor-liquid ejector uses high-pressure steam to raise temperature and pressure of low-pressure water absorbed from the flash vaporization tank; the pressure-increased water is flashed into low-pressure saturated steam after entering the flash vaporization tank; the saturated water which is not flashed is collected at the bottom of the flash vaporization tank. The system generates multiple low-pressure flash vaporization saturated steam with a small portion of high-pressure steam, and realizes the recovery and utilization of waste heat such as flue gas of boiler, improves the economy of thermal process, and provides a flexible and adjustable vapor source for heavy oil thermal recovery, seawater desalination or sewage treatment equipment.

Steam oven with check valve at water inlet for steam backflow prevention

An oven includes a cooking chamber, a cabinet at least partially surrounding the cooking chamber, and a water reservoir having a reservoir inlet and a reservoir outlet. The oven further includes a water fill assembly including an opening, a water-receiving cavity and a fill outlet from the water-receiving cavity, the water fill assembly defining a fluid flow path in from the opening and out through the fill outlet, a check valve in fluid communication with the fill outlet downstream of the fluid flow path defined by the water fill assembly, the check valve configured in a closed state under a force of gravity on at least a portion thereof and opening by a flow force of fluid out of the fill outlet and through the check valve, and a conduit connecting the check valve with the water reservoir inlet downstream of the fill outlet.

Steam oven with check valve at water inlet for steam backflow prevention

An oven includes a cooking chamber, a cabinet at least partially surrounding the cooking chamber, and a water reservoir having a reservoir inlet and a reservoir outlet. The oven further includes a water fill assembly including an opening, a water-receiving cavity and a fill outlet from the water-receiving cavity, the water fill assembly defining a fluid flow path in from the opening and out through the fill outlet, a check valve in fluid communication with the fill outlet downstream of the fluid flow path defined by the water fill assembly, the check valve configured in a closed state under a force of gravity on at least a portion thereof and opening by a flow force of fluid out of the fill outlet and through the check valve, and a conduit connecting the check valve with the water reservoir inlet downstream of the fill outlet.

Oven with steam cooking functionality and desiccant to reduce steam backflow out of the oven

An oven includes (a) a cooking chamber; (b) a steam generator in fluid communication with the cooking chamber, the steam generator configured to transform water into steam for delivery to the cooking chamber; (c) a water reservoir in fluid communication with the steam generator, the steam generator further configured to draw the water from the water reservoir to be transformed into the steam; (d) a water fill assembly in fluid communication with the water reservoir and configured to accept water from a source external to the oven that is subsequently deposited into the water reservoir; and (e) desiccant disposed in fluid communication between the water reservoir and the water fill assembly. The oven can include a filter assembly disposed in fluid communication between the water reservoir and the water fill assembly. The desiccant can be disposed within the filter assembly.

Oven with steam cooking functionality and desiccant to reduce steam backflow out of the oven

An oven includes (a) a cooking chamber; (b) a steam generator in fluid communication with the cooking chamber, the steam generator configured to transform water into steam for delivery to the cooking chamber; (c) a water reservoir in fluid communication with the steam generator, the steam generator further configured to draw the water from the water reservoir to be transformed into the steam; (d) a water fill assembly in fluid communication with the water reservoir and configured to accept water from a source external to the oven that is subsequently deposited into the water reservoir; and (e) desiccant disposed in fluid communication between the water reservoir and the water fill assembly. The oven can include a filter assembly disposed in fluid communication between the water reservoir and the water fill assembly. The desiccant can be disposed within the filter assembly.