32results about How to "Efficiently wipe" patented technology

An improved cutting head assembly with an angled blade for slicing that can be used with a centrifugal-type slicer to provide an increased yield. The blade comprises a cutting edge that cuts a product, for example, a potato, in a cutting direction. A tangent to the cutting edge is at an angle away from the normal plane of a cutting direction for the blade. For example, if the cutting edge is a straight line and the cutting direction is horizontal, then the cutting edge is at an angle away from vertical.

An inkjet image forming apparatus includes an inkjet head including a nozzle portion having a length in a main scanning direction that is at least equal to a width of a sheet of paper, a platen to move between a printing position where the platen faces the nozzle portion and supports a rear surface of the paper, and a maintenance position spaced-apart from the printing position in a sub-scanning direction, a wiping unit including a wiper to clean the nozzle portion, and a link arm having a first end portion that is rotatably connected to the wiping unit, and a second end portion that is rotatably connected to the platen. A first angle formed by a first line that connects the wiper to the first end portion and a second line that connects the first end portion and the second end portion when the platen is located at the printing position is smaller than a second angle between the first line and the second line when the platen is located at the maintenance position.

A wiping device (20) for cleaning outer surfaces of at least one row of ejection nozzles in at least one print head (4a, 4b) of an ink jet printing module (2) of a franking machine when the module is moving above the wiping device in first and second directions (X, Y), comprising two wiping rollers (26, 28) located one behind the other in the first direction and adapted to rotate in opposite directions around respective fixed shafts (30, 32), the two wiping rollers being permanently dampened in contact with a cleaning fluid (24) contained inside a container (22); and the two wiping rollers are adapted via a one-way bearing (34, 36) to remain stationary alternatively, one during the moving of the module in the first direction and the other during the moving of the module in the second direction.

The present invention generally is a wiper for a container for dispensing and dispensing cosmetic or care products. More particularly, the invention relates to a wiper member that is novel and inventive by way of its construction such that it prevents air from getting pumped / entrapped inside the container during usage. There is provided a wiper member that helps in increasing the life of the product by allowing it to remain in its original fluid state and prevents drying out of the product. Further, the wiper member by virtue of its internal configuration results in efficient wiping of the applicator element and at the same time provides an anti-pumping action by allowing the air to pass through the air vents in it. Also disclosed is a wiper member that is able to regulate the amount of product retained on the applicator when a force is either applied or removed from its central axis.

Apparatus and a method are provided for isolating an electrostatic sprayer from an electrically grounded coating product distribution circuit connected thereto. The apparatus includes an electrostatic sprayer carried by a maneuverable robot arm, the sprayer capable of spraying an electrically conductive coating product such as water-based paint onto a workpiece passing in adjacent proximity thereby, on command. The coating product is supplied from a remote source of supply through at least one distribution circuit connected to the sprayer. The apparatus includes therein, carried by the robot arm, an electrically insulative storage tank for the coating product in valved fluid communication with the sprayer. The insulated storage tank is connected to and positioned downstream from a length of electrically insulative supply conduit connected to the distribution circuit and also carried by the robot arm. This conduit includes a cleaning mechanism for cleaning a portion, including all, of this length of supply conduit, in situ, after filling of the storage tank with coating product and before spraying. In this way, substantially all of the conductive coating product is removed from the portion of supply conduit, thereby completely isolating the sprayer electrically from the distribution circuit. The cleaning mechanism is preferably a chemically resistant plunger fitted in the conduit and adapted to reciprocally traverse the length of the conduit on command, effectively wiping it clean of coating product and thereby galvanically isolating the sprayer from the distribution circuit during the actual spraying operation.

A device has physical network interface port through which a user can monitor and configure the device. A backend process and a virtual machine (VM) execute on a host operating system (OS). A front end user interface process executes on the VM, and is therefore compartmentalized in the VM. There is no front end user interface executing on the host OS outside the VM. The only management access channel into the device is via a first communication path through the physical network interface port, to the VM, up the VM's stack, and to the front end process. If the backend process is to be instructed to take an action, then the front end process forwards an application layer instruction to the backend process via a second communication path. The instruction passes down the VM stack, across a virtual secure network link, up the host stack, and to the backend process.

An ink-jet image forming apparatus includes an ink-jet head having a nozzle unit having a length in a main scanning direction corresponding to a width of a printing medium, a platen to face the nozzle unit, to support a rear side of the printing medium, and to form a paper conveying path, and a wiping unit to clean the nozzle unit. The platen has a printing location in which the paper conveying path is formed, a maintenance location different from the printing location, and a replacement location in which the wiping unit is replaced.

A lawn mower comprising a reel cutter type lawn mowing unit (A1) for neatly mowing a lawn by wiping droplets adhered to the lawn without damaging the lawn to increase the mowing rate of the lawn. A pair of right and left arms (21) are rotatably supported on the front part of the housing (12) of the lawn mowing unit (A1), and a roller (R1) for wiping droplets is rotatably supported at the free end parts of the pair of arms (21). Accordingly, the roller (R1) for wiping droplets is disposed at the front of the lawn mowing unit (A1) when used, and when not in use, allowed to retreat to a retreated position at the upper part of the lawn mowing unit (A1) positioned on the diagonal rear upper side of a use position.

A wet-type wiping apparatus of an inkjet printer to clean a print head of the inkjet printer includes a moisture storing portion, a moisture suction portion disposed on an upper side of the moisture storing portion and having a plurality of moisture suction holes, and a wiper portion inserted in the moisture storing portion and having a plurality of capillary tubes vertically penetrating therein. The moisture suction portion includes one of calcium chloride, a silica gel, and a high molecular weight substance, which are highly absorbent. The moisture storing portion includes a foam for containing moisture therein.

A device has physical network interface port through which a user can monitor and configure the device. A backend process and a virtual machine (VM) execute on a host operating system (OS). A front end user interface process executes on the VM, and is therefore compartmentalized in the VM. There is no front end user interface executing on the host OS outside the VM. The only management access channel into the device is via a first communication path through the physical network interface port, to the VM, up the VM's stack, and to the front end process. If the backend process is to be instructed to take an action, then the front end process forwards an application layer instruction to the backend process via a second communication path. The instruction passes down the VM stack, across a virtual secure network link, up the host stack, and to the backend process.

A liquid ejecting apparatus includes a liquid ejecting unit which includes a nozzle forming surface having nozzle openings for ejecting liquid formed thereon, a wiper which is contactably disposed on the nozzle forming surface, a movement unit which is able to relatively move the liquid ejecting unit and the wiper, and a control unit which controls the movement units such that an interference amount of the wiper and the nozzle forming surface in a position of the wiper which comes in contact with the liquid ejecting unit, is smaller than an interference amount of the wiper and the nozzle forming surface when the wiper is relatively moved through a nozzle region which is a region including the nozzle openings of the nozzle forming surface in a direction along the nozzle forming surface.

An inkjet recording apparatus to record an image by discharging ink includes a recording head, a processing-liquid transferring unit, a wiper, and a control unit. The recording head includes, at a discharge surface, a first discharge-port row configured to discharge a first ink and a second discharge-port row configured to discharge a second ink. The processing-liquid transferring unit provides processing liquid. The wiper wipes the discharge surface, wherein the wiper includes a first wiper segment positioned to wipe the first discharge-port row and a second wiper segment positioned to wipe the second discharge-port row. The control unit moves the wiper into and out of contact force engagement with the processing-liquid transferring unit, wherein the first wiper segment receives a quantity of processing liquid from the processing-liquid transferring unit that is greater than a quantity of processing liquid received by the second wiper segment from the processing-liquid transferring unit.

A wiping member to wipe a nozzle surface of a liquid discharging head includes a first layer configured to be brought into contact with the nozzle surface and one or more other layers, wherein the following relation is satisfied: t1<t2, where t1 represents the thickness of the first layer and t2 represents the thickness of the one or more other layers, wherein the porosity of the first layer is smaller than the porosity of at least one of the one or more other layers.

There is provided a liquid ejecting apparatus including a liquid ejecting unit that has a nozzle row configured to have a plurality of nozzles lined up along a first direction, and a wiping portion that moves in a second direction intersecting the first direction such that the liquid ejecting unit is wiped, in which the liquid ejecting unit includes a plurality of nozzle rows configured to have space therebetween in the second direction, a convex portion placed between the nozzle rows in the second direction, and flat portions placed at both sides of the convex portion in the first direction, and the wiping portion wipes at a first relative travel speed to collect liquid attached to the liquid ejecting unit to the flat portion, and then wipes at a second relative travel speed faster than the first relative travel speed to move liquid attached to the flat portion.