A dispensing system for heating and dispensing a food substance in a liquid state includes a portable dispensing unit including housing comprising a reservoir for holding a food substance, a heater operable to heat the substance to an operating temperature for producing a liquid, and a pump for dispensing the liquid via a dispensing tube and spray nozzle. A manually activated actuator operates to initiate the dispensing cycle. Control circuitry associated with the dispensing unit monitors the liquid temperature and controls operation of pump and unit. The dispensing unit may be powered by a rechargeable battery. A charging base provides a dock for recharging the battery of the dispensing unit. The pump may include an auto-reverse feature to draw the liquid back into reservoir when not dispensing the liquid for preventing clogs in the dispensing system.

The present disclosure relates to a soot blower including: a lance tube which includes one end that reciprocally moves in one direction on a surface of an inlet port of a flow path of the tubular heat exchanger; a drive unit which is connected to the lance tube and reciprocally moves and rotates the lance tube in the one direction; a first nozzle which is connected to the one end of the lance tube and discharges steam to the inlet port; and a second nozzle which is disposed adjacent to the first nozzle and connected to the one end of the lance tube and discharges solid particles to the inlet port, and the present disclosure relates to a method of cleaning a tubular heat exchanger by using the soot blower.

A dispensing system for heating and dispensing a food substance in a liquid state includes a portable dispensing unit including housing including a reservoir for holding a food substance, a heater operable to heat the substance to an operating temperature for producing a liquid, and a pump for dispensing the liquid via a dispensing tube and spray nozzle. A manually activated actuator operates to initiate the dispensing cycle. Control circuitry associated with the dispensing unit monitors the liquid temperature and controls operation of pump and unit. The dispensing unit may be powered by a rechargeable battery. A charging base provides a dock for recharging the battery of the dispensing unit. The pump may include an auto-reverse feature to draw the liquid back into reservoir when not dispensing the liquid for preventing clogs in the dispensing system.

A dispensing system for heating and dispensing a food substance in a liquid state includes a portable dispensing unit including housing comprising a reservoir for holding a food substance, a heater operable to heat the substance to an operating temperature for producing a liquid, and a pump for dispensing the liquid via a dispensing tube and spray nozzle. A manually activated actuator operates to initiate the dispensing cycle. Control circuitry associated with the dispensing unit monitors the liquid temperature and controls operation of pump and unit. The dispensing unit may be powered by a rechargeable battery. A charging base provides a dock for recharging the battery of the dispensing unit. The pump may include an auto-reverse feature to draw the liquid back into reservoir when not dispensing the liquid for preventing clogs in the dispensing system.

A nose-to-brain drug delivery device is provided. The nose-to-brain drug delivery device includes a freeze-dried drug container for storing a freeze-dried drug, a restoring solvent container for storing a solvent for thawing the freeze-dried drug, a membrane for preventing the freeze-dried drug from being mixed with the solvent, and a compressor for providing a driving force. The membrane is opened by the driving force of the compressor to mix the freeze-dried drug with the solvent, thereby thawing the freeze-dried drug, and the thawed drug is sprayed by the driving force of the compressor.

Some pressure washers include units for introduction of detergents and other chemicals into the water stream; however, it is desirable to obtain sterilized cleaning water without them, such that use in, for instance, food preparation processes can be implemented. With a sufficiently high temperature super-heated water stream, all process equipment, including pipework, that comes into contact with sterile process materials, can be cleaned, de-greased and sterilized both with the spray jet using water alone whilst not contributing endotoxins, microbial contamination or particles. Merely raising the temperature of water in a conventional pressure washer could cause components to fail, if they were not designed to operate at such high temperatures. In the present invention, the pump (25) supplies a relatively low volume of water at a relatively high pressure to the boiler (13), allowing the boiler (13) to heat that volume of water to a relatively high temperature. In contrast, if a higher volume of water were desired over a given time period, the pump would have to supply it at a comparatively lower pressure (which is undesirable) and/or the boiler would only be able to heat it to a comparatively lower temperature over that same time period (which is also undesirable). Increased working temperatures on a hose (3) will reduce its maximum working pressure; however, by using a PTFE hose as in the present invention, the maximum working pressure at 170 degrees may be up to 17 MPa.

A cooling apparatus and a cooling method are proposed. The cooling device may spray a coolant received from a coolant reservoir toward a target region to cool the target region. The cooling device may include a spraying unit from which the coolant is sprayed, a valve configured to regulate a flow of the coolant, and a control unit configured to control opening and closing of the valve. When cooling starts. the control unit may control a first cooling mode in which a temperature of the target region is decreased and a second cooling mode in which the temperature of the target region is maintained in a predetermined temperature range to be sequentially performed.

The present invention relates to a dry cleaning technology for a cleaning a surface of an object to be cleaned by adiabatically expanding liquid carbon dioxide to generate sublimable dry ice particles and carrying the dry ice particles on high-speed carrier gas to be sprayed onto the surface of the object to be cleaned, wherein an end of a liquid carbon dioxide nozzle further protrudes to the outside relative to an end of a carrier gas nozzle to prevent a growth of dry ice particles in the carrier gas nozzle, a hydrophobic coating is formed on a surface of the liquid carbon dioxide nozzle to prevent a formation of water droplets and to prevent an occurrence of irregular dry ice particles, thereby effectively preventing damage to a surface of an object to be cleaned and being advantageous in an economical aspect by significantly reducing consumption of liquid carbon dioxide.

Aspects of the invention include a nozzle assembly having a housing configured for attachment to the wall of the vessel. The housing has a proximal end portion and a distal end portion spaced from the proximal end portion along a length of the housing. The housing defines a passageway extending from the proximal end portion to the distal end portion, which is delineated by an inner surface of the housing. The nozzle assembly further includes a nozzle that has a base portion adapted for coupling to the housing, a shaft portion that extends from the base portion, and a tip portion coupled to the shaft portion of the nozzle. The tip portion defines a plurality of orifices. The nozzle also has an outer surface extending along a length of the nozzle that is spaced from the inner surface of the housing to create a gap when the nozzle is coupled to the housing.

This application relates to a cooling device that sprays a coolant received from a coolant reservoir toward a target region to cool the target region. In one aspect, the cooling device includes a spraying unit from which the coolant is sprayed, a valve configured to regulate a flow of the coolant, and a control unit configured to control opening and closing of the valve, wherein, when cooling starts. The control unit controls a first cooling mode in which a temperature of the target region is decreased and a second cooling mode in which the temperature of the target region is maintained in a predetermined temperature range to be sequentially performed.