990results about "Liquid processing" patented technology

A robotic surface treating device that can perform carpet sweeping, hard-surface dry sweeping/wiping, and hard-surface sweeping/mopping is disclosed. The robotic surface treating device includes a sweeper brush, a dust bin for collecting debris from the brush, a reel-to-reel sheet of cleaning material, and a fluid delivery system for delivering fluid from a fluid reservoir onto the sheet of cleaning material and/or onto the surface to be treated. The dust bin, reel-to-reel sheet of cleaning material, and the fluid reservoir are separately installed from the top of the device, and may be separately removed for replacement.

A photoresist coating and developing apparatus 1 includes a photoresist film forming unit that forms a photoresist film on a substrate; a heat treatment unit that heats the substrate on which the photoresist film is formed by the photoresist film forming unit; a cooling unit that cools the substrate, on which the photoresist film is formed and which is heated by the heat treatment unit, to normal temperature; a heating unit 61 that heats the substrate, which is cooled to normal temperature by the cooling unit, to a predetermined temperature; a load-lock chamber L1 that unloads the substrate under depressurized atmosphere to expose the photoresist film; and a transfer device 62 that transfers the substrate from the heating unit 61 to the load-lock chamber L1.

Multi-directional wiping elements are disclosed. The wiping elements comprise intersecting squeegee segments that provide top wiping squeegee edges and side wiping squeegee edges. Devices utilizing the multi-directional wiping elements of the present invention can include bristles that are configured to simultaneously wipe a working surface with the wiping elements. In accordance with the embodiments of the invention, the multi-directional wiping elements are utilized in a toothbrush cleaning head that is configured to be operated manually or, alternatively, is motorized and is configured to rotate, oscillate, vibrate and/or move according to a combination thereof.

A system includes a UV light source and an optical medium coupled to receive UV light from the UV light source. The optical medium is configured to emit UV light proximate to a surface from which biofouling is to be removed once the biofouling has adhered to the protected surface. A method corresponds to the system.

An upright bare floor cleaner with a handle assembly pivotally mounted to a base assembly. The base assembly has a sweeper that includes a rotatably driven brush adapted to sweep dust and dirt particles into a removable dirt receptacle. The handle includes a water tank to store a quantity of water and a fluid distribution system that includes a heater and a spray nozzle. Steam is generated by the heater and is distributed to a removable mop cloth that applies the steam to the surface to be cleaned.

An optical connector clearing tool (1) includes a holder (2), cleaner (5), and cap (6). The holder (2) includes, e.g., a cylindrical slider (10), a cylindrical body (12) installed to be rotatable and movable in the axial direction with respect to the slider (10), and a slider return spring (13) which biases the body (12) forward to return the slider (10) to the initial position. The slider (10) has a pair of elastic pieces (16) having guide projections (17). In the outer circumferential surface of the body (12), spiral grooves (25, 26) with which the guide projections (17) engage are formed within the angular range of 360°. When the slider (10) moves forward, the body (12) rotates by the cam action of the guide projections (17) and spiral grooves (25, 26). The cleaner (5) includes, e.g., a cleaning thread (41) accommodated in a rotary pod (40), a supply reel (42), a take-up reel (43), and a cleaning pin (44), and is connected to the body (12). The rotary pod (40) and cleaning pin (44) rotate together with the body (12), and the cleaning thread (41) supplied to the distal end face of the cleaning pin (44) cleans the connection surface of an optical connector. The cleaning thread (41) is supplied from the supply reel (42) and taken up to the take-up reel (43) by being given tension by the rotation of the cleaner (5).

A cleaning apparatus includes a housing to be moved along a surface to be cleaned. Within the housing, a cleaning ribbon is disposed between a supply reel and a take-up reel. A portion of the cleaning ribbon is held parallel to, and in substantial contact with, the surface to be cleaned, for attracting and retaining smaller debris. Another portion of the cleaning ribbon is configured to create a particle trap. A rotatable brush, also disposed within the housing, sweeps larger debris into the particle trap. The supply reel, the take-up reel, the cleaning ribbon, and/or the rotatable brush are alternatively included in a cartridge which is detachably secured within the housing.

A cleaning substrate for use in the cleaning operation for a substrate stage in an exposure unit compatible with immersion exposure and a dummy substrate for use during the adjustment of an exposure position of a pattern image in the exposure unit are held in a cleaning substrate housing part and a dummy substrate housing part, respectively, which are provided in a substrate processing apparatus. For the cleaning operation for the substrate stage or an alignment operation in the exposure unit, the cleaning substrate or the dummy substrate is transferred from the substrate processing apparatus to the exposure unit. A back surface cleaning process on the cleaning substrate or the dummy substrate is performed in a back surface cleaning unit of the substrate processing apparatus immediately before or immediately after the cleaning operation for the substrate stage or the alignment operation.

The invention relates generally to the conditioning of bowling lanes, and, more particularly to an apparatus and method for automatically applying a predetermined pattern of dressing fluid along the transverse and longitudinal dimensions of a bowling lane.

A floor cleaning machine is provided with at least two movable squeegees to provide coverage of the liquid applied to the floor in a path with the squeegees extending beyond the outer perimeter sides of the liquid path both during straight ahead movement and during turning maneuvers. The squeegee assemblies are carried by a chassis. A floor scrubbing device is provided to apply liquid to the floor and to mix dirt on the floor with the applied liquid. A liquid pickup device is also provided to remove the applied liquid from the floor at a position adjacent to each of the squeegee assemblies.

A developer nozzle is moved from a periphery of a wafer toward the central portion while an exposed substrate held at a spin chuck is being rotated about a vertical axis and while a developing solution is being discharged from the developer nozzle, and this way the developing solution is supplied to the surface of the wafer, the developer nozzle having a slit-like ejection port whose longitudinal direction is oriented to the direction perpendicular to the radial direction of the wafer. The movement speed of the nozzle is higher than a case where a nozzle with a small-diameter circular nozzle is used, and this enables a development time to be reduced. Further, the thickness of a developing solution on a substrate can be reduced, so that the developing solution can be saved.