mhurhangee/ep-ind-claims huggingface dataset:
A printing apparatus comprising: a print section configured to perform printing on a medium; a supply path configured to supply the medium to the print section; a correction roller pair configured to enable the medium transported on the supply path to strike the correction roller pair to correct skewing of the medium; an adjusting mechanism for adjusting a nip load applied to the correction roller pair; and characterized by a controller configured to control the adjusting mechanism based on print job information; and a switchback mechanism for switching back the medium having a first side and a second side on which printing has been performed on the first side and for transporting the medium to the supply path, wherein, between a first transport operation in which the first side is on the print section side and a second transport operation in which the medium is switched back by the switchback mechanism and the second side is on the print section side, the controller is configured to reduce the nip load in the second transport operation compared to the nip load in the first transport operation. a print section configured to perform printing on a medium; a supply path configured to supply the medium to the print section; a correction roller pair configured to enable the medium transported on the supply path to strike the correction roller pair to correct skewing of the medium; an adjusting mechanism for adjusting a nip load applied to the correction roller pair; and characterized by a controller configured to control the adjusting mechanism based on print job information; and a switchback mechanism for switching back the medium having a first side and a second side on which printing has been performed on the first side and for transporting the medium to the supply path, wherein, between a first transport operation in which the first side is on the print section side and a second transport operation in which the medium is switched back by the switchback mechanism and the second side is on the print section side, the controller is configured to reduce the nip load in the second transport operation compared to the nip load in the first transport operation.
An XDM (XML Document Management) system for implementing an XDM forward function, the XDM system comprising: an XDM forward requesting client for transmitting a forward request message so as to forward a target XML document to an XDM forward receiving client; an XDM forward receiving client for providing authorization to accept the target XML document and for receiving the target XML document when authorization is given; and an XDMS forward processing engine for receiving the forward request message, performing requester authorisation, performing receiver authorisation and for storing the target XML document for the XDM forward receiving client, the forward request message recording a location where the target XML document is stored in the XDMS for use by the XDMS to retrieve the target XML document and recording the forward receiving client to which the target XML document is to be delivered; wherein the requester authorisation comprises determining if the XDM forward requesting client has been granted an authority to forward the requested target XML document; and wherein the receiver authorisation comprises determining if the XDM forward receiving client can accept the forwarded target XML document depending upon a response from the XDM forward receiving client to a request for receiver authorisation; and wherein the storing of the target XML document comprises, when the receiver authorisation has been successfully performed, confirming that the XDM forward receiving client owns the forwarded target XML document and storing the forwarded XML document in a client directory of the XDM forward receiving client. an XDM forward requesting client for transmitting a forward request message so as to forward a target XML document to an XDM forward receiving client; an XDM forward receiving client for providing authorization to accept the target XML document and for receiving the target XML document when authorization is given; and an XDMS forward processing engine for receiving the forward request message, performing requester authorisation, performing receiver authorisation and for storing the target XML document for the XDM forward receiving client, the forward request message recording a location where the target XML document is stored in the XDMS for use by the XDMS to retrieve the target XML document and recording the forward receiving client to which the target XML document is to be delivered; wherein the requester authorisation comprises determining if the XDM forward requesting client has been granted an authority to forward the requested target XML document; and wherein the receiver authorisation comprises determining if the XDM forward receiving client can accept the forwarded target XML document depending upon a response from the XDM forward receiving client to a request for receiver authorisation; and wherein the storing of the target XML document comprises, when the receiver authorisation has been successfully performed, confirming that the XDM forward receiving client owns the forwarded target XML document and storing the forwarded XML document in a client directory of the XDM forward receiving client.
A system comprising: an optical ring cavity comprising a plurality of components forming an optical path for an optical beam; a first rigid structure holding reflective and non-heat-generating components of the plurality of components in relative position to form a first portion of the optical path with a primary optical plane: a second rigid structure including a heatsink supporting a heat-generating refractive component forming a refractive portion of the optical path, the refractive component configured for producing gain, whereby the refractive component is heat generating; and at least one flexible support connecting the first rigid structure to the second rigid structure for mechanically and thermally isolating the first rigid structure and the primary optical plane of the optical ring cavity from the second rigid structure, the first rigid structure being connected to the second rigid structure in relative position to the heat-generating refractive component to form the optical path through the heat-generating refractive component. an optical ring cavity comprising a plurality of components forming an optical path for an optical beam; a first rigid structure holding reflective and non-heat-generating components of the plurality of components in relative position to form a first portion of the optical path with a primary optical plane: a second rigid structure including a heatsink supporting a heat-generating refractive component forming a refractive portion of the optical path, the refractive component configured for producing gain, whereby the refractive component is heat generating; and at least one flexible support connecting the first rigid structure to the second rigid structure for mechanically and thermally isolating the first rigid structure and the primary optical plane of the optical ring cavity from the second rigid structure, the first rigid structure being connected to the second rigid structure in relative position to the heat-generating refractive component to form the optical path through the heat-generating refractive component.
A method of receiving, by a terminal, a physical downlink shared channel, PDSCH, in a wireless communication system, the method comprising: transmitting, to a base station, capability information representing whether the terminal supports demodulation reference signal, DMRS, sharing in subslots over a plurality of consecutive subframes for the PDSCH; receiving, from the base station, downlink control information, DCI, for scheduling the PDSCH, wherein the DCI represents whether a DMRS for the PDSCH is located in a first subslot; and determining, based on (i) the capability information representing that the terminal does not support DMRS sharing in subslots over the plurality of consecutive subframes for the PDSCH, and (ii) the DCI representing an absence of the DMRS for the PDSCH in the first subslot, that the PDSCH is not to be received in the first subslot. transmitting, to a base station, capability information representing whether the terminal supports demodulation reference signal, DMRS, sharing in subslots over a plurality of consecutive subframes for the PDSCH; receiving, from the base station, downlink control information, DCI, for scheduling the PDSCH, wherein the DCI represents whether a DMRS for the PDSCH is located in a first subslot; and determining, based on (i) the capability information representing that the terminal does not support DMRS sharing in subslots over the plurality of consecutive subframes for the PDSCH, and (ii) the DCI representing an absence of the DMRS for the PDSCH in the first subslot, that the PDSCH is not to be received in the first subslot.
A spray device comprising: a body portion having a fluid passageway therein; a spray nozzle affixed to the body portion having a discharge orifice for directing fluid from the fluid passageway in the body portion in a predetermined spray pattern; a valve needle supported in the body portion and spray nozzle for movement in an axial direction between an open position for permitting fluid discharge through the discharge orifice and a closed position for preventing fluid discharge through the discharge orifice; a control piston assembly for controlling movement of the valve needle, said control piston assembly being movably supported in the body portion and being non-mechanically coupled to the valve needle by magnetic attraction, said control piston assembly including a movable carriage having a first magnet, a second magnet being affixed to the valve needle, and said first and second magnets (64, 66) being arranged so as to produce the magnetic attraction therebetween such that movement of said carriage simultaneously moves said valve needle, said carriage being disposed in a control fluid chamber and being actuated by compressed fluid to move the carriage and valve needle to said open position characterized by; a third magnet affixed to the body portion that interacts with said first magnet by magnetic repulsion for moving said carriage and valve needle to said closed position. a body portion having a fluid passageway therein; a spray nozzle affixed to the body portion having a discharge orifice for directing fluid from the fluid passageway in the body portion in a predetermined spray pattern; a valve needle supported in the body portion and spray nozzle for movement in an axial direction between an open position for permitting fluid discharge through the discharge orifice and a closed position for preventing fluid discharge through the discharge orifice; a control piston assembly for controlling movement of the valve needle, said control piston assembly being movably supported in the body portion and being non-mechanically coupled to the valve needle by magnetic attraction, said control piston assembly including a movable carriage having a first magnet, a second magnet being affixed to the valve needle, and said first and second magnets (64, 66) being arranged so as to produce the magnetic attraction therebetween such that movement of said carriage simultaneously moves said valve needle, said carriage being disposed in a control fluid chamber and being actuated by compressed fluid to move the carriage and valve needle to said open position characterized by; a third magnet affixed to the body portion that interacts with said first magnet by magnetic repulsion for moving said carriage and valve needle to said closed position.
A carrier material for use as a lost core or a lost mould for structuring workpieces having at least one clearance, consisting of a corrodible material, wherein the corrodible material is a mixture or an alloy of magnesium and at least one further metal component, the standard potential of which, under reaction conditions, is greater than that of magnesium, wherein the material has been compacted with a mechanically stressing method, wherein the clearance is a cavity, an opening, a recess, an undercut or a void.
A payment processing device in a merchant location for processing payment from a consumer at the merchant location using a user device, the device comprising: a presence detection module configured to detect presence of the user device at the merchant location using wireless signals from the user device, wherein the wireless signals from the user device include information specific to the user device, wherein a backend system is arranged to send payment information to the user device after the user device is detected; a point-of-sale interface connected to a merchant POS system; and a checkout module configured to communicate with the backend system to verify an identity of the user device using the information gathered from the user device by the presence detection module, to receive the payment information from the user device, and to transmit the payment information to the merchant POS system using the POS interface. a presence detection module configured to detect presence of the user device at the merchant location using wireless signals from the user device, wherein the wireless signals from the user device include information specific to the user device, wherein a backend system is arranged to send payment information to the user device after the user device is detected; a point-of-sale interface connected to a merchant POS system; and a checkout module configured to communicate with the backend system to verify an identity of the user device using the information gathered from the user device by the presence detection module, to receive the payment information from the user device, and to transmit the payment information to the merchant POS system using the POS interface.
Tube filling machine having a tube body separating device, which has a shaft with at least one side wall and a shaft bottom, wherein a multiplicity of tube bodies can be accommodated in the shaft, lying beside one another and one above another in a horizontal alignment, wherein a transport device is arranged in the bottom region of the shaft, by means of which the tube bodies can be transported out of the shaft in a transport direction (S 2) individually and one after another through an outlet opening in the side wall, which outlet opening is arranged close to the shaft bottom, and wherein the shaft bottom is at least partly formed by an adjustably mounted bottom part, which can be moved in oscillation by means of a drive device, characterized in that the shaft bottom in the region between the adjustably mounted bottom part and the outlet opening is at least partly formed by a section of a conveyor belt which forms the transport device and is driven in the transport direction (S 2).
An assembly device for an optical assembly, characterized in that it comprises: a grasping mechanism, configured to grasp a first sub-lens to be assembled, and to move the grasped first sub-lens in multiple degrees of freedom; a first fixing mechanism, configured to fix a second sub-lens to be assembled, wherein the grasping mechanism is movable relative to the first fixing mechanism, so that the first sub-lens and the second sub-lens form an optical system capable of imaging; a second fixing mechanism, configured to fix a photosensitive assembly; a data acquiring assembly, configured to be electrically connected to the photosensitive assembly fixed by the fixing mechanism and acquire image data output by the photosensitive assembly; and a material connecting assembly, configured to fix the first and second sub-lenses together; wherein the grasping mechanism includes a force feedback clamping jaw, the pressure of which is controllable in real time, so that the force feedback clamping jaw can grip the first sub-lens with a first pressure when the first sub-lens is moved with the grasping mechanism, and the force feedback clamping jaw can grip the first sub-lens with a second pressure when the material connecting assembly is utilized to fix the first and second sub-lenses together, wherein the second pressure is greater than the first pressure. a grasping mechanism, configured to grasp a first sub-lens to be assembled, and to move the grasped first sub-lens in multiple degrees of freedom; a first fixing mechanism, configured to fix a second sub-lens to be assembled, wherein the grasping mechanism is movable relative to the first fixing mechanism, so that the first sub-lens and the second sub-lens form an optical system capable of imaging; a second fixing mechanism, configured to fix a photosensitive assembly; a data acquiring assembly, configured to be electrically connected to the photosensitive assembly fixed by the fixing mechanism and acquire image data output by the photosensitive assembly; and a material connecting assembly, configured to fix the first and second sub-lenses together; wherein the grasping mechanism includes a force feedback clamping jaw, the pressure of which is controllable in real time, so that the force feedback clamping jaw can grip the first sub-lens with a first pressure when the first sub-lens is moved with the grasping mechanism, and the force feedback clamping jaw can grip the first sub-lens with a second pressure when the material connecting assembly is utilized to fix the first and second sub-lenses together, wherein the second pressure is greater than the first pressure.
A soy protein product obtained from a high oleic acid soybean which has an oleic acid content of at least 60% wherein said product has at least one characteristic selected from the group consisting of improved whiteness, reduced gel strength and reduced viscosity when compared to a soy protein product obtained from a commodity soybean using the same process as that to obtain the soy protein product from a high oleic soybean.
An anti-GEP antibody and (a) natural killer cells, or (b) an agent that promotes NK cell activity selected from IL-15, IL-12, pectin, interferon, IFN-gamma, IL-2 or IL-21, for use in treating liver cancer in a subject.
A polyethylene yarn, wherein the polyethylene yarn includes a plurality of filaments each having a fineness of 1 to 5 g/9000m (denier), wherein the polyethylene yarn has a weight average molecular weight (Mw) of 50,000 to 99,000 g/mol and a polydispersity index of 5 to 9, wherein in a strength-elongation curve of the polyethylene yarn obtained by measuring at ambient temperature, (i) elongation at strength of 1 g/d is 0.5 to 3 %, (ii) elongation at strength of 3 g/d is 5.5 to 10 %, and (iii) a difference between elongation at strength of 4 g/d and elongation at maximum strength is 5.5 to 25 %, and wherein the polyethylene yarn has toughness of 55 to 120 J/m 3 at ambient temperature and a crystallinity of 60 to 85%. wherein the polyethylene yarn includes a plurality of filaments each having a fineness of 1 to 5 g/9000m (denier), wherein the polyethylene yarn has a weight average molecular weight (Mw) of 50,000 to 99,000 g/mol and a polydispersity index of 5 to 9, wherein in a strength-elongation curve of the polyethylene yarn obtained by measuring at ambient temperature, (i) elongation at strength of 1 g/d is 0.5 to 3 %, (ii) elongation at strength of 3 g/d is 5.5 to 10 %, and (iii) a difference between elongation at strength of 4 g/d and elongation at maximum strength is 5.5 to 25 %, and wherein the polyethylene yarn has toughness of 55 to 120 J/m 3 at ambient temperature and a crystallinity of 60 to 85%.
A method of late fruitlet thinning of apple trees characterized in that a composition comprising lecithin or lecithin and one or several polysorbates or one or several polysorbates as active ingredients in a water solution, wherein polysorbates are selected from polysorbate 20, polysorbate 60 and polysorbate 80 is applied on the apple trees at the time of king fruitlets diameter from 6 to 30 mm.
A method of washing fabric articles in a continuous batch tunnel washer, comprising the steps of: a) providing a continuous batch tunnel washer having an interior, an intake, a discharge, a plurality of modules, and a volume of liquid; b) moving the fabric articles from the intake to the modules and then to the discharge in sequence, wherein multiple of the modules define a dual use zone having modules that function as both wash and rinse modules; c) adding a washing chemical to the volume of liquid in the dual use zone; d) after a selected time period, counter flowing a rinsing liquid in the dual use zone along a flow path (121, 122, 123, 124, 125) that is generally opposite the direction of travel of the fabric articles in step "b" by using a first volume of water that is reuse water that was extracted from fabric articles followed by a second volume of water that is clean water; e) extracting water from the fabric articles after step "d" into an extracted water tank with an extractor that is downstream of the modules; f) discharging the extracted water of step "e" from the extracted water tank into a flow line by way of a pump, and transmitting the extracted water through the flow line to a reuse water tank; wherein the first volume of water in step "d" is pumped directly from the reuse water tank, and wherein the second volume of water in step "d" is pumped directly from a fresh water tank that is a different tank to the reuse water tank. a) providing a continuous batch tunnel washer having an interior, an intake, a discharge, a plurality of modules, and a volume of liquid; b) moving the fabric articles from the intake to the modules and then to the discharge in sequence, wherein multiple of the modules define a dual use zone having modules that function as both wash and rinse modules; c) adding a washing chemical to the volume of liquid in the dual use zone; d) after a selected time period, counter flowing a rinsing liquid in the dual use zone along a flow path (121, 122, 123, 124, 125) that is generally opposite the direction of travel of the fabric articles in step "b" by using a first volume of water that is reuse water that was extracted from fabric articles followed by a second volume of water that is clean water; e) extracting water from the fabric articles after step "d" into an extracted water tank with an extractor that is downstream of the modules; f) discharging the extracted water of step "e" from the extracted water tank into a flow line by way of a pump, and transmitting the extracted water through the flow line to a reuse water tank;