mhurhangee/patent-ind-claim-en huggingface dataset:
A material-handling system , comprising: a first processing station having a first article input and a first article output ; a transfer system between at least said first article input and said first article output , said transfer system comprising a track, a plurality of transfer units travelling along said track, each of said transfer units having an article support surface that is configured to support articles and a transfer to transfer articles to and from that article support surface transversely of said track; and a control , said control controlling said transfers to selectively receive an article from said first article output and to discharge an article to said first article input as the transfer units pass said output and said input in order to sequence articles, comprising a propulsion system driving said transfer units reciprocatingly along said track past said input and output characterized in that said transfer units are interconnected in a train that travels in a continuous motion between opposite ends of said track. a first processing station having a first article input and a first article output ; a transfer system between at least said first article input and said first article output , said transfer system comprising a track, a plurality of transfer units travelling along said track, each of said transfer units having an article support surface that is configured to support articles and a transfer to transfer articles to and from that article support surface transversely of said track; and a control , said control controlling said transfers to selectively receive an article from said first article output and to discharge an article to said first article input as the transfer units pass said output and said input in order to sequence articles, comprising a propulsion system driving said transfer units reciprocatingly along said track past said input and output characterized in that said transfer units are interconnected in a train that travels in a continuous motion between opposite ends of said track.
A method for determining a coefficient of friction at a test site on a surface of a contact lens , in particular a soft contact lens, the method comprising the following steps: attaching the contact lens to a lens holder ; applying a lubricating liquid to the contact lens attached to the lens holder such that the test site is completely covered by the lubricating liquid ; contacting the test site with a counter surface made of lapped aluminum; applying a predetermined normal load (Fn) between the counter surface and the test site ; generating a sliding movement between the counter surface and the contact lens in a direction (S) located in a plane perpendicular to the normal load (Fn); measuring a tangential frictional force (Ft) between the test site and the counter surface along the direction (S) of the sliding movement; determining the coefficient of friction from the ratio of the measured tangential frictional force (Ft) to the applied normal load (Fn). attaching the contact lens to a lens holder ; applying a lubricating liquid to the contact lens attached to the lens holder such that the test site is completely covered by the lubricating liquid ; contacting the test site with a counter surface made of lapped aluminum; applying a predetermined normal load (Fn) between the counter surface and the test site ; generating a sliding movement between the counter surface and the contact lens in a direction (S) located in a plane perpendicular to the normal load (Fn); measuring a tangential frictional force (Ft) between the test site and the counter surface along the direction (S) of the sliding movement; determining the coefficient of friction from the ratio of the measured tangential frictional force (Ft) to the applied normal load (Fn).
A process for repairing a coating film comprising: applying an adhesion primer directly to a substrate; forming a polymer film from the applied adhesion primer to obtain an adhesion-promoting layer; applying a further layer of coating composition to the adhesion-promoting layer; and subsequently allowing the further layer of coating composition to cure to form a further coating layer, wherein the substrate is a substrate body with an original coating that has defects, wherein the adhesion primer comprises components (A) and (B), wherein component (A) is a binder component comprising: (A1) a hydroxy-functional (meth)acrylate resin; and (A2) a hydroxy-functional epoxy resin, and component (B) is a curing component comprising: (B1) a polyisocyanate; and (B2) an epoxy-functional organosilane. applying an adhesion primer directly to a substrate; forming a polymer film from the applied adhesion primer to obtain an adhesion-promoting layer; applying a further layer of coating composition to the adhesion-promoting layer; and subsequently allowing the further layer of coating composition to cure to form a further coating layer, wherein the substrate is a substrate body with an original coating that has defects, wherein the adhesion primer comprises components (A) and (B), wherein component (A) is a binder component comprising: (A1) a hydroxy-functional (meth)acrylate resin; and (A2) a hydroxy-functional epoxy resin, and component (B) is a curing component comprising: (B1) a polyisocyanate; and (B2) an epoxy-functional organosilane. (A1) a hydroxy-functional (meth)acrylate resin; and (A2) a hydroxy-functional epoxy resin, (B1) a polyisocyanate; and (B2) an epoxy-functional organosilane.
A compound selected from the group consisting of or a stereoisomer thereof, or a pharmaceutically acceptable salt or ester thereof.
A device in the form of a photonic integrated circuit for optical implementation of a Finite Impulse Response (FIR) filter with adjustable number of filter taps and flexibility in the selection of the time delay of each tap, comprising: An input waveguide for the entry of the optical signal. A set of tunable optical couplers for selecting the number of the taps and for splitting the input optical signal among the taps. A set of micro-ring resonators (MRRs) with a Mach Zehnder Interferometer (MZI) as a tunable coupler to their bus waveguide, for adjusting the time delay of the taps, comprising a subset of analog MRRs with free selection of their coupling factor to the bus waveguide and a subset of digital MRRs with coupling factor either zero or one. A set of optical phase shifters for adjusting the optical phase of the signals at the output of each tap. An additional set of tunable optical couplers at the final stage of the circuit for recombining the signals from each tap and forming the output signal. An output waveguide for the exit of the optical signal from the device. An input waveguide for the entry of the optical signal. A set of tunable optical couplers for selecting the number of the taps and for splitting the input optical signal among the taps. A set of micro-ring resonators (MRRs) with a Mach Zehnder Interferometer (MZI) as a tunable coupler to their bus waveguide, for adjusting the time delay of the taps, comprising a subset of analog MRRs with free selection of their coupling factor to the bus waveguide and a subset of digital MRRs with coupling factor either zero or one. A set of optical phase shifters for adjusting the optical phase of the signals at the output of each tap. An additional set of tunable optical couplers at the final stage of the circuit for recombining the signals from each tap and forming the output signal. An output waveguide for the exit of the optical signal from the device.
A method for adjusting a channel quality indicator, CQI, feedback period, the method comprising: receiving, by a wireless transmit/receive unit, WTRU, a radio resource control, RRC, message including a first CQI configuration information; wherein the first CQI configuration information is associated with a first CQI-feedback period between CQI transmissions; transmitting CQI information according to the first CQI configuration information; monitoring, by the WTRU, a physical layer downlink control channel and in response to information on the physical layer downlink control channel indicating a CQI command and including a cyclic redundancy check (CRC) masked with a WTRU identity associated with the WTRU: changing the CQI-feedback period of the WTRU according to the CQI command, and sending CQI information according to the CQI feedback period associated with the CQI command received on the physical layer downlink control channel instead of the CQI feedback period associated with the first CQI configuration information. receiving, by a wireless transmit/receive unit, WTRU, a radio resource control, RRC, message including a first CQI configuration information; wherein the first CQI configuration information is associated with a first CQI-feedback period between CQI transmissions; transmitting CQI information according to the first CQI configuration information; monitoring, by the WTRU, a physical layer downlink control channel and in response to information on the physical layer downlink control channel indicating a CQI command and including a cyclic redundancy check (CRC) masked with a WTRU identity associated with the WTRU: changing the CQI-feedback period of the WTRU according to the CQI command, and sending CQI information according to the CQI feedback period associated with the CQI command received on the physical layer downlink control channel instead of the CQI feedback period associated with the first CQI configuration information.
Power system for an aircraft, containing: - an electric motor-generator-starter connected to a gearbox , with any drive ratio, through a first clutch - a battery - a combustion engine , connected to the gearbox through a second clutch , where the electric motor-generator-starter is arranged to be driven by the combustion engine to generate electricity, which is stored in the battery - a control system for charging and discharging of the battery - an electronic control system - a display and control system in the cabin - a propeller connected to the gearbox - an electric motor-generator-starter connected to a gearbox , with any drive ratio, through a first clutch - a battery - a combustion engine , connected to the gearbox through a second clutch , where the electric motor-generator-starter is arranged to be driven by the combustion engine to generate electricity, which is stored in the battery - a control system for charging and discharging of the battery - an electronic control system - a display and control system in the cabin - a propeller connected to the gearbox
An electronic device , comprising: a memory ; a communication module ; and a processor configured to: identify application information comprising at least one of an application identifier, an application type or an application file, stored in the memory , monitor network status using the communication module , and control a packet data unit, PDU, session based on the application information and the network status by: establishing the PDU session based on the application information and the network status and executing an application corresponding to the established PDU session, wherein the network status comprises information on whether the network status allows the PDU session establishment. a memory ; a communication module ; and a processor configured to: identify application information comprising at least one of an application identifier, an application type or an application file, stored in the memory , monitor network status using the communication module , and control a packet data unit, PDU, session based on the application information and the network status by: establishing the PDU session based on the application information and the network status and executing an application corresponding to the established PDU session, wherein the network status comprises information on whether the network status allows the PDU session establishment. identify application information comprising at least one of an application identifier, an application type or an application file, stored in the memory , monitor network status using the communication module , and control a packet data unit, PDU, session based on the application information and the network status by: establishing the PDU session based on the application information and the network status and executing an application corresponding to the established PDU session, wherein the network status comprises information on whether the network status allows the PDU session establishment.
A multifocal optical article comprising: (a) a rigid optical substrate adapted to possess at least one light influencing property, and (b) a multifocal layer of an optical quality resin comprising dendritic polyester (meth)acrylate on said substrate, wherein the light influencing property is photochromism. (a) a rigid optical substrate adapted to possess at least one light influencing property, and (b) a multifocal layer of an optical quality resin comprising dendritic polyester (meth)acrylate on said substrate,
A method of decoding video data, the method comprising:decoding at least one residual block of video data, using transform skip mode in a lossy coding mode, wherein, in the lossy coding mode using transform skip mode, transform is not applied for residual blocks having a block size up to a maximum block size; and decoding at least one residual block of video data in a lossless coding mode, wherein, in the lossless coding mode, transform and quantization are not applied to the residual block; and for the at least one residual block decoded using the transform skip mode in the lossy coding mode, and for the at least one residual block decoded in the lossless coding mode, prior to reconstructing a video block from residual data of the residual block, determining whether to reposition the residual data of the residual block based on a prediction mode of the residual block and based on a size of the residual block, wherein repositioning the residual data comprises one of rotating or flipping the residual data of the residual block, wherein a determination is made to reposition the residual data of the residual block when the prediction mode of the residual block is an intra mode and the size of the residual block is less than or equal to a threshold size that is less than or equal to the maximum block size for which transform is not applied in the lossy coding mode, and wherein the maximum block size for which transform is not applied in the lossy coding mode is indicated in one of a sequence parameter set (SPS) or a picture parameter set (PPS) associated with the video data.
A method comprising: receiving , at a service capability exposure function , from an application server , a first message including a short message service message addressed to a user equipment using an external identifier of the user equipment ; identifying , at the service capability exposure function , a destination for the short message service message on the basis of a mapping between a unique identifier of the user equipment and the external identifier of the user equipment , wherein identifying the destination for the short message service message comprises mapping the external identifier included in the short message service message to the unique identifier of the user equipment ; identifying a mobility management entity that is serving the user equipment on the basis of the unique identifier of the user equipment ; encapsulating , by the service capability exposure function , the short message service message in a non-access stratum container; and transmitting , from the service capability exposure function , a second message including the encapsulated short message service message to the mobility management entity , wherein the second message is addressed to the user equipment using the unique identifier of the user equipment . receiving , at a service capability exposure function , from an application server , a first message including a short message service message addressed to a user equipment using an external identifier of the user equipment ; identifying , at the service capability exposure function , a destination for the short message service message on the basis of a mapping between a unique identifier of the user equipment and the external identifier of the user equipment , wherein identifying the destination for the short message service message comprises mapping the external identifier included in the short message service message to the unique identifier of the user equipment ; identifying a mobility management entity that is serving the user equipment on the basis of the unique identifier of the user equipment ; encapsulating , by the service capability exposure function , the short message service message in a non-access stratum container; and transmitting , from the service capability exposure function , a second message including the encapsulated short message service message to the mobility management entity , wherein the second message is addressed to the user equipment using the unique identifier of the user equipment .
A joining device for the laser beam-based joining of at least two components (B1, B2), having: a first laser radiation source comprising a predetermined power configuration, a first radiation guide , which is connected to the first laser radiation source , in order to couple first laser radiation (LS1) emitted by the first laser radiation source into the first radiation guide , a second laser radiation source comprising a predetermined power configuration, at least one second radiation guide , which is connected to the second laser radiation source , in order to couple second laser radiation (LS2) emitted by the second laser radiation source into the at least one second radiation guide , and focusing means , which are coupled to the first and second radiation guides and which are configured to focus the first laser radiation (LS1) and the second laser radiation (LS2) spaced apart from one another into a joining zone (FZ) of the two components (B1, B2), characterized in that the focusing means are configured to focus the first and the second laser radiation (LS1, LS2) via a common beam path, and that a coupling device is provided, which is connected on the input side to the first and second radiation guides and on the output side to the focusing means , and which is configured to couple the first and the second laser radiation (LS1, LS2) into the common beam path of the focusing means . a first laser radiation source comprising a predetermined power configuration, a first radiation guide , which is connected to the first laser radiation source , in order to couple first laser radiation (LS1) emitted by the first laser radiation source into the first radiation guide , a second laser radiation source comprising a predetermined power configuration, at least one second radiation guide , which is connected to the second laser radiation source , in order to couple second laser radiation (LS2) emitted by the second laser radiation source into the at least one second radiation guide , and focusing means , which are coupled to the first and second radiation guides and which are configured to focus the first laser radiation (LS1) and the second laser radiation (LS2) spaced apart from one another into a joining zone (FZ) of the two components (B1, B2), characterized in that the focusing means are configured to focus the first and the second laser radiation (LS1, LS2) via a common beam path, and that a coupling device is provided, which is connected on the input side to the first and second radiation guides and on the output side to the focusing means , and which is configured to couple the first and the second laser radiation (LS1, LS2) into the common beam path of the focusing means .
Process for creating a detachment region in a solid-state body , at least comprising the steps of: providing a solid-state body to be processed, wherein the solid-state body consists of a chemical compound, such as silicon carbide, wherein the chemical compound preferably includes one or more substances selected from the third, fourth and/or fifth main groups of the Periodic Table of the Elements and/or the 12th transition group of the Periodic Table of the Elements; providing a laser light source; exposing the solid-state body to laser rays from the laser light source, wherein the laser rays penetrate into the solid-state body via a main surface of the solid-state body , wherein the laser rays impinge in a defined manner on a defined fraction of the solid-state body within the solid-state body to form a detachment region or multiple partial detachment regions , wherein the laser exposure successively creates multiple modifications in a crystal lattice of the solid-state body , wherein the crystal lattice, as a result of the modifications , tears in a subcritical manner at least in a fraction in each case in regions that surround the modifications , wherein subcritical cracks propagate mainly in a plane which is parallel or in a defined alignment and essentially parallel with respect to the main surface , and the cracks in the region of the modifications define the detachment region or multiple partial detachment regions . providing a solid-state body to be processed, wherein the solid-state body consists of a chemical compound, such as silicon carbide, wherein the chemical compound preferably includes one or more substances selected from the third, fourth and/or fifth main groups of the Periodic Table of the Elements and/or the 12th transition group of the Periodic Table of the Elements; providing a laser light source; exposing the solid-state body to laser rays from the laser light source, wherein the laser rays penetrate into the solid-state body via a main surface of the solid-state body , wherein the laser rays impinge in a defined manner on a defined fraction of the solid-state body within the solid-state body to form a detachment region or multiple partial detachment regions , wherein the laser exposure successively creates multiple modifications in a crystal lattice of the solid-state body , wherein the crystal lattice, as a result of the modifications , tears in a subcritical manner at least in a fraction in each case in regions that surround the modifications , wherein subcritical cracks propagate mainly in a plane which is parallel or in a defined alignment and essentially parallel with respect to the main surface , and the cracks in the region of the modifications define the detachment region or multiple partial detachment regions .