mhurhangee/ep-ind-claims huggingface dataset:
A digital printing system, comprising: a flexible intermediate transfer member ITM, which is configured to receive ink droplets from an ink supply system to form an image thereon, and to transfer the image to a target substrate; and a dancer assembly, characterised in that the dancer assembly comprises a fluid chamber and a rotatable element fitted in the fluid chamber, the fluid chamber comprising an inlet configured to receive pressurized fluid into the fluid chamber, wherein the pressurized fluid causes the rotatable element to move relative to the fluid chamber and to apply tension to the ITM while being rotated by the ITM, further comprising an opening, which is sized and shaped to fit snugly over the rotatable element, wherein the pressurized fluid causes the rotatable element to protrude from the fluid chamber via the opening. a flexible intermediate transfer member ITM, which is configured to receive ink droplets from an ink supply system to form an image thereon, and to transfer the image to a target substrate; and a dancer assembly,
An optical sensing system, comprising a source generator configured to generate a set of n time-aligned optical probe pulses, each pulse being at a distinct optical frequency selected from f 1, f 2,... f n, where n is the number of pulses and n is equal to 2 or more, each optical frequency being spaced from its neighbour by Δf, the source generator being configured to transmit the optical probe pulses into a sensing optical fibre, wherein the optical probe pulses are backscattered by the optical sensing fibre, at least part of the backscattered light being captured by the optical fibre in a reverse direction to the optical probe pulse propagation, an optical receiver system configured to receive the backscattered light from the optical sensing fibre, wherein the optical receiver system is configured to mix a delayed version of the backscattered light with at least one frequency-shifted version of the backscattered light, wherein the frequency is shifted by -(Δf+f m), where f m is a predetermined frequency and f m is less than Δf. a source generator configured to generate a set of n time-aligned optical probe pulses, each pulse being at a distinct optical frequency selected from f 1, f 2,... f n, where n is the number of pulses and n is equal to 2 or more, each optical frequency being spaced from its neighbour by Δf, the source generator being configured to transmit the optical probe pulses into a sensing optical fibre, wherein the optical probe pulses are backscattered by the optical sensing fibre, at least part of the backscattered light being captured by the optical fibre in a reverse direction to the optical probe pulse propagation, a set of n time-aligned optical probe pulses, each pulse being at a distinct optical frequency selected from f 1, f 2,... f n, where n is the number of pulses and n is equal to 2 or more, each optical frequency being spaced from its neighbour by Δf, the source generator being configured to transmit the optical probe pulses into a sensing optical fibre, wherein the optical probe pulses are backscattered by the optical sensing fibre, at least part of the backscattered light being captured by the optical fibre in a reverse direction to the optical probe pulse propagation, an optical receiver system configured to receive the backscattered light from the optical sensing fibre, wherein the optical receiver system is configured to mix a delayed version of the backscattered light with at least one frequency-shifted version of the backscattered light, wherein the frequency is shifted by -(Δf+f m), where f m is a predetermined frequency and f m is less than Δf.
A spool for winding or unwinding films formed of a thermoplastic, namely films made of polyethylene terephthalate, comprising a spool core having an inner wall and an outer wall, wherein the inner wall is adapted to be received by a tensioning device or a bearing pin, wherein the outer wall of the spool core is only partially covered with an adhesive layer, which extends only partially across the width of the spool core and is arranged in the middle or centrally with respect to the spool core in a recess, characterized in that the spool core includes the recess, in that the adhesive layer is formed partly or entirely of silicone, and in that the adhesive layer is formed as an adhesive tube which is applied stretched to the spool core so that the adhesive tube is securely fixed to the spool core by its own restoring force.
A coupling device comprising a first connector part and a second connector part, each connector part (11, 10) comprising at least two connecting portions (16a, 16b, 13, 14) for engagement with at least one corresponding connecting portions (16a, 16b, 13, 14) of the other connector part (11, 10), and a disengagement means for at least assisting in disengaging the engagement between said connecting portions (13, 14, 16a, 16b) and each connector part (11, 10), the disengagement means being connected with the first connector part and comprising engagement means for engagement with corresponding engagement means on the second connector part, the second connector part comprising a disk including a through-going hole (26, 27) in connection with each corresponding connecting portion (16a, 16b), the engagement means of the disengagement means comprising internal threads and the engagement means of the second connector part comprising external threads, and wherein the holes (26, 27) in the disk of the second connector part are arranged with a small spacing, the external threads comprising at least one recess, characterised in that at least one of the through-going holes (26, 27) is extending into the recess.
An error correcting device in an optical communication system that transmits a transmission frame formed by adding an overhead and an error correction code to information data, the error correcting device comprising: an outer-code forward error correction -coding unit that performs FEC coding with an outer code for the transmission frame by using a concatenated code or an iterated code of at least two error correction codes as the outer code; an inner-code FEC-coding unit that performs FEC coding with an inner code for the transmission frame by using an error correction code for soft-decision decoding as the inner code; an inner-code FEC-decoding unit that performs soft-decision.FEC decoding with the inner code for the transmission frame received; and an outer-code FEC-decoding unit that performs hard-decision FEC decoding with the outer code for the transmission frame subjected to the soft-decision FEC decoding by the inner-code FEC-decoding unit. an outer-code forward error correction -coding unit that performs FEC coding with an outer code for the transmission frame by using a concatenated code or an iterated code of at least two error correction codes as the outer code; an inner-code FEC-coding unit that performs FEC coding with an inner code for the transmission frame by using an error correction code for soft-decision decoding as the inner code; an inner-code FEC-decoding unit that performs soft-decision.FEC decoding with the inner code for the transmission frame received; and an outer-code FEC-decoding unit that performs hard-decision FEC decoding with the outer code for the transmission frame subjected to the soft-decision FEC decoding by the inner-code FEC-decoding unit.
Sliding support arrangement in a closure of a roof assembly for a vehicle, the roof assembly comprising at least a guide rail extending substantially in an X-direction, and a slidable element (6; 8, 17; 21) movable relative to the guide rail, the sliding support arrangement comprising a slide shoe engaging the guide rail and supporting the slidable element at least in Z-direction perpendicular to the X- and a Y-direction, the slide shoe including a first part fixed to the slidable element (6; 8, 17; 21) and a relatively movable second part, the second part being supported by the first part at least in part through a spring urging the first and second parts (16a, 16b) of the slide shoe in engagement with walls (12-15;12,14a,14b;12a,12b,14;12,14,15) of the guide rail, characterized in that the spring exerts a force which is directed at an non-perpendicular angle to at least one (12-15;14a,14b;12a,12b;12) of said walls of the guide rail.
A patient support apparatus comprising: a patient support deck adapted to support a patient thereon; a controller adapted to control at least one aspect of said patient support apparatus; a near field communication transceiver adapted to communicate with a device (72, 78) using a first communication protocol having a first data transfer rate; a far field communication transceiver adapted to communicate with said device (72, 78) using a second communication protocol having a second data transfer rate that is higher than said first data transfer rate; and a network transceiver adapted to communicate with a healthcare network characterized by said controller initially communicating with said device using the first communication protocol, subsequently communicating with said device using the second communication protocol, repetitively communicating with said device using the first communication protocol in order to verify the continued nearby physical presence of the device, and terminating communication with said device via the second communication protocol if the controller is no longer able to communicate with said device using the first communication protocol. a patient support deck adapted to support a patient thereon; a controller adapted to control at least one aspect of said patient support apparatus; a near field communication transceiver adapted to communicate with a device (72, 78) using a first communication protocol having a first data transfer rate; a far field communication transceiver adapted to communicate with said device (72, 78) using a second communication protocol having a second data transfer rate that is higher than said first data transfer rate; and a network transceiver adapted to communicate with a healthcare network characterized by said controller initially communicating with said device using the first communication protocol, subsequently communicating with said device using the second communication protocol, repetitively communicating with said device using the first communication protocol in order to verify the continued nearby physical presence of the device, and terminating communication with said device via the second communication protocol if the controller is no longer able to communicate with said device using the first communication protocol.
A dipole antenna (DP, 10, 20) comprising: a first antenna element (E1, 11, 21); and a second antenna element (E2, 12, 22), the first antenna element including: a first linear section(E1a, 11a, 21a) extending in a first direction; and a second linear section (E1b, 11b, 21b) being connected to one of ends of the first linear section via a first bending section (E1c, 11c, 21c), the second linear section extending from the first bending section in a direction opposite to the first direction, the second antenna element including: a third linear section (E2a, 12a, 22a) extending in the direction opposite to the first direction; and a fourth linear section (E2b, 12b, 22b) being connected to one of ends of the third linear section via a second bending section (E2c, 12c, 22c), the fourth linear section extending from the second bending section in the first direction, the first antenna element (E1, 11, 21) and the second antenna element (E2, 12, 22) being arranged on a single plane, a sum of (i) a length of the first antenna element (E1, 11, 21) and (ii) a length of the second antenna element (E2, 12, 22) being approximately λ/2, where λ is a wavelength corresponding to a first resonance frequency of the dipole antenna, characterized in that: a first feed point (F1, 11e, 21e) is provided on an intermediate part of the first linear section (E1a, 11a, 21a); and a second feed point (F2, 12e, 22e) is provided on an intermediate part of the third linear section (E2a, 12a, 22a). a first antenna element (E1, 11, 21); and a second antenna element (E2, 12, 22), a first linear section(E1a, 11a, 21a) extending in a first direction; and a second linear section (E1b, 11b, 21b) being connected to one of ends of the first linear section via a first bending section (E1c, 11c, 21c), the second linear section extending from the first bending section in a direction opposite to the first direction, a third linear section (E2a, 12a, 22a) extending in the direction opposite to the first direction; and a fourth linear section (E2b, 12b, 22b) being connected to one of ends of the third linear section via a second bending section (E2c, 12c, 22c), the fourth linear section extending from the second bending section in the first direction,
A method for reducing a computational load in high efficiency video coding, comprising: generating a full rate distortion calculation list of selected intra coding modes, the intra coding modes including intra prediction modes and depth modeling modes; determining a rate distortion cost for each intra prediction mode in the full rate distortion calculation list and selecting n smallest rate distortion cost intra prediction modes having n smallest rate distortion costs, wherein n is a positive integer, and wherein a segment-wise depth coding mode is disabled for each intra prediction mode in the determination; performing a full rate distortion cost calculation with the segment-wise depth coding mode being enabled on the selected n smallest rate distortion cost intra prediction modes and the depth modeling modes; identifying a particular intra prediction mode with the smallest rate distortion cost with the segment-wise depth coding mode being enabled; comparing the rate distortion cost of the particular intra prediction mode obtained for the segment-wise depth coding mode being enabled and the rate distortion cost of the smallest rate distortion cost intra prediction mode obtained for the segment-wise depth coding mode being disabled; and applying (514, 516) one of the particular intra prediction mode and the smallest rate distortion cost intra prediction mode having the smallest rate distortion cost to a prediction unit. generating a full rate distortion calculation list of selected intra coding modes, the intra coding modes including intra prediction modes and depth modeling modes; determining a rate distortion cost for each intra prediction mode in the full rate distortion calculation list and selecting n smallest rate distortion cost intra prediction modes having n smallest rate distortion costs, wherein n is a positive integer, and wherein a segment-wise depth coding mode is disabled for each intra prediction mode in the determination; performing a full rate distortion cost calculation with the segment-wise depth coding mode being enabled on the selected n smallest rate distortion cost intra prediction modes and the depth modeling modes; identifying a particular intra prediction mode with the smallest rate distortion cost with the segment-wise depth coding mode being enabled; comparing the rate distortion cost of the particular intra prediction mode obtained for the segment-wise depth coding mode being enabled and the rate distortion cost of the smallest rate distortion cost intra prediction mode obtained for the segment-wise depth coding mode being disabled; and applying (514, 516) one of the particular intra prediction mode and the smallest rate distortion cost intra prediction mode having the smallest rate distortion cost to a prediction unit.
Plug-in contact for connecting a conductor to a printed circuit board which has a contact hole for receiving the plug-in contact, - having a conductor connection section, to which the conductor can be connected, - having a plug-in section which can be inserted into the contact hole, - having a first coupling section which connects the plug-in section and the conductor connection section to one another, wherein - the plug-in section has at least two spring-return flexible contact fingers which issue from a common origin, characterised in that - the first coupling section is part of a mounting frame which bounds a channel that is continuous in the insertion direction. - having a conductor connection section, to which the conductor can be connected, - having a plug-in section which can be inserted into the contact hole, - having a first coupling section which connects the plug-in section and the conductor connection section to one another, wherein - the plug-in section has at least two spring-return flexible contact fingers which issue from a common origin, - the first coupling section is part of a mounting frame which bounds a channel that is continuous in the insertion direction.
A method executed at least in part in a computing device for managing a call forwarding profile, the method comprising: enabling a user to set up call forwarding profiles, wherein each call forwarding profile includes at least one call forwarding rule corresponding to one or more call forwarding settings; monitoring a state of the user; determining at least two applicable call forwarding profiles based on a current state of the user; activating the at least two applicable call forwarding profiles based on the current state of the user, wherein the at least two call forwarding profiles are active at the same time; receiving an incoming call intended for the user; and forwarding the incoming call applying at least one call forwarding rule in the applicable call forwarding profiles, wherein a pre-defined order is implemented by which each active call forwarding profile is applied to the incoming call. enabling a user to set up call forwarding profiles, wherein each call forwarding profile includes at least one call forwarding rule corresponding to one or more call forwarding settings; monitoring a state of the user; determining at least two applicable call forwarding profiles based on a current state of the user; activating the at least two applicable call forwarding profiles based on the current state of the user, wherein the at least two call forwarding profiles are active at the same time; receiving an incoming call intended for the user; and forwarding the incoming call applying at least one call forwarding rule in the applicable call forwarding profiles, wherein a pre-defined order is implemented by which each active call forwarding profile is applied to the incoming call.
A method of detecting patient movement when generating radiation images of an elongated body, each of said radiation images generated by subjecting the same set of partial radiation images to a different computer-implemented stitching method, each of said partial radiation images comprising part of the radiation image of said body and being generated by multiple shot irradiation and read out of a direct radiography detector, wherein - one of said stitching methods is based on the reconstruction of the radiation image of an object of known geometry, such as a grid, which is irradiated together said body so that each of said partial images comprises part of the radiation image of said body and part of the radiation image of said object of known geometry and - another of said stitching methods is performed on the basis of theoretical stitching parameters, for example positioning, distance and angle, originating from the set-up used for said multiple shot irradiation,and - wherein at least one value indicative of a deviation between the radiation images resulting from application of said different stitching methods to the same set of partial images is determined and a computer-controlled warning is generated if said value(s) exceeds a preset acceptance value(s), said warning indicating body movement. - one of said stitching methods is based on the reconstruction of the radiation image of an object of known geometry, such as a grid, which is irradiated together said body so that each of said partial images comprises part of the radiation image of said body and part of the radiation image of said object of known geometry and - another of said stitching methods is performed on the basis of theoretical stitching parameters, for example positioning, distance and angle, originating from the set-up used for said multiple shot irradiation,and - wherein at least one value indicative of a deviation between the radiation images resulting from application of said different stitching methods to the same set of partial images is determined and a computer-controlled warning is generated if said value(s) exceeds a preset acceptance value(s), said warning indicating body movement.
A module (100, 300) including a casing provided with two parallel side main faces via one of which it is adapted to adjoin another module, the casing housing state-indicator elements and a peg that is connected to one of these elements, the module being characterized in that said peg is adapted to be moved in translation along an axis that is perpendicular to one of the side main faces, between a retracted position in which said peg is positioned inside the casing, set back from said side main face, and an extended position in which said peg passes through an opening provided in said side main face so as to extend outside said casing, projecting from said side main face.
A network service template management method applied to a network function virtualization platform, comprising: a network service template manager setting a service status for a network service template; wherein, the network service template is a template provided to users for creating network services; and being characterised by when the network service template manager receives a request for deleting a network service template whose service status is OutOfService while there is still a network service instance using the network service template, the network service template manager setting the service status of the network service template to deleting-pending; when releasing a network service instance, if the network service template manager checks that there is no network service instance using the network service template whose service status is deleting-pending, the network service template manager deleting the network service template; wherein the network service instance is a network service created by a network service template user through the network service template. a network service template manager setting a service status for a network service template; wherein, the network service template is a template provided to users for creating network services; and being characterised by when the network service template manager receives a request for deleting a network service template whose service status is OutOfService while there is still a network service instance using the network service template, the network service template manager setting the service status of the network service template to deleting-pending; when releasing a network service instance, if the network service template manager checks that there is no network service instance using the network service template whose service status is deleting-pending, the network service template manager deleting the network service template; wherein the network service instance is a network service created by a network service template user through the network service template.