An endoscope reprocessor includes: a connector to which an endoscope is connected; a fluid supplying section that supplies fluid to the connector; an electromagnet arranged at the connector and including a magnetic material and a coil wound around the magnetic material; a current supplying section; a magnetic force switching portion configured to switch a strength of a magnetic force to at least one of a first strength and a second strength weaker than the first strength; and a control section configured to switch the strength of the magnetic force by controlling the magnetic force switching portion while driving the fluid supplying section.

A system and method for cleaning, protecting and lubricating hyperbolic rollers and bearings for bending, using air and oil, placed in a rotating rotor (1) that contains rollers (32) placed on bearings (34) and shafts (33) inside roller housings (30), where rollers (32) are positioned at an angle with respect to the bending axis and, as bending occurs they cause bending and also as rotor (1) rotates around the item being bent it straightens and feeds the item. Rollers (32) are placed on bearings (34) and are protected through rotational seals (35). The bearings' (34) area of rollers (32) inside the rotational seal (35) is supplied with air at pressure higher than the atmospheric, so that inflow of contaminants are inhibited, or is supplied with air enriched with oil so that bearings (34) are lubricated, and rotational seals (35) located next to bearings (34) of the rollers (32) allow the air flow from the area between the bearings towards the surrounding area.

The present invention comprises a method and system for the in-situ cleaning of a heat exchanger tube bundle of carbonaceous deposits. Using the method and system, an organic solvent is brought into fluid communication with one or more heat exchanger tube bundles in a closed system. The closed system is formed at the site of operation of the heat exchanger tube bundles and without having to remove the heat exchanger tube bundles from their shells or other associated equipment. Once the closed system is formed, the organic solvent is brought to a temperature at which it is effective to remove carbonaceous deposits from the heat exchanger tube bundle and flowed through the equipment associated with the heat exchanger tube bundles so as to contact the heat exchanger tube bundles and remove carbonaceous deposits that have formed therein. In some embodiments, the spent organic solvent may be recovered, such as through the removal of suspended hydrocarbons, and reused in the method and system for cleaning heat exchanger tube bundles.

A system is disclosed for cleaning the interiors of tubes in heat exchangers such as condensers and other devices having numerous substantially parallel tubes which periodically become fouled, scaled, or otherwise encumbered with deposits. An air-actuated seal resides on the end of a nozzle which is projected into the open end of a condenser tube or other heat exchanger tube to be cleaned. An air cylinder and piston retract the end of the nozzle on actuation of a single trigger valve on a manually operated water gun, which both begins high pressure water flow and operates the piston. On actuation of the trigger valve, the segment of the nozzle which has been inserted is retracted a short distance, crimping a flexible sleeve which surrounds it into a tight seal on the inner surface of the tube, thus preventing backflow or back spray. The system may employ projectiles designed to pass through the tubes under pressurized water, released by the gun, in close proximity to the interior surfaces of the tubes so that they may remove the deposits with a scraping or abrading action. The air-actuated sealing nozzle relieves the operator from arduous, repeated forcing of the nozzle into the tubes to maintain sealing contact with the interiors of the tubes. The system is readily adaptable to, and includes, a multi-nozzle arrangement actuated by a single trigger.

The present disclosure provides a cleaning system, including a first sub-chamber, a second sub-chamber adjacent to the first sub-chamber, and a third sub-chamber adjacent to the second sub-chamber. A first divider is positioned between the first and the second sub-chambers. A second divider is positioned between the second and the third sub-chambers. A vacuum system is coupled to the third sub-chamber to generate a vacuum pressure in the third sub-chamber that is less than a pressure of the first sub-chamber to create a pressure differential to induce a pressurized flow of a first cleaning media from the first sub-chamber to the third sub-chamber through an internal passage of a component positioned in the second sub-chamber. A filtering system is coupled to the first sub-chamber and the third sub-chamber to remove and filter the first cleaning media from the third sub-chamber and return the first cleaning media to the first sub-chamber.

A drain line cleaning system including a housing, a pump carried by the housing, a line cleaning agent carrying tube in communication with the pump, a controller in communication with the pump, and a power supply carried by the housing and connected to the pump and the controller. The line cleaning agent carrying tube includes an intake that is connectable to a reservoir that carries line cleaning agent and an output that is connectable to a drain line. The controller controls the pump to function to withdraw the line cleaning agent from the reservoir and causes the line cleaning agent to be expelled through the output.

A system for cleaning filter cartridges having a cylindrically configured filter media. The cleaning system includes a tank for containing a cleaning liquid, and an open-sided cage for removably receiving and containing one of the filter cartridges to be cleaned. The cage is supported on a drive shaft of a motorized drive that is positionable for disposing the open-sided cage and filter cartridge contained therein in cleaning liquid in the tank and is selectively operable for rotating the open-sided cage and filter cartridge contained therein during a cleaning cycle for cleaning the filter media of the contained filter cartridge.

A cleaning device (100) for cleaning an interior of a device to be cleaned (102), wherein the cleaning device (100) comprises an adapter (104) for mounting the device to be cleaned (102), a cleaning medium reception chamber (106) for receiving cleaning medium driven through the device to be cleaned (102) when mounted on the adapter (104), and a drive unit (108) for driving cleaning medium from a cleaning medium reservoir (110) through the device to be cleaned (102), when mounted on the adapter (104), and into the cleaning medium reception chamber (106).

A method of cleaning a jet pump assembly of a nuclear reactor may comprise evacuating an interior of the jet pump assembly that is filled with a first liquid by injecting a gas to purge the first liquid from the interior to provide an evacuated surface. In addition, the method may comprise directing a jet of a second liquid onto the evacuated surface.

A cleaning system and method includes suspending and exploding, adjacent a bank of HRSG finned-tubing, a plurality of generally uniformly spaced detonation cords. Each detonation cord has an explosive grain loading of 18-50 grains per foot. A detonation delay assembly attached to each of the plurality of detonation cords creates a predetermined delay between each detonation cord explosion. After the detonation cords are exploded, a suspended elongated beam, having a transport assembly and a pressurized air blower assembly directs pressurized air towards an adjacent the bank of HRSG finned-tubing as the pressurized air blower assembly is moved along a portion of the beam. A suspension assembly moves the beam, the transport assembly, and the pressurized air blower assembly up or down so that a next portion of the bank of HRSG finned-tubing may be cleaned by the pressurized air.