mhurhangee/patent-ind-claim-en huggingface dataset:
A battery that can supply electrical power to an electric motor for a saddle-type electric vehicle , and can be attached to, and detached from, a vehicle body, the battery comprising: a housing ; a connector for fitting engagement with a connector of a battery case of the vehicle body; battery cells disposed inside the housing ; wherein the battery is chargeable in a state where the battery is detached from the vehicle body; and a controller disposed inside the housing to manage the battery cells , to control the charging and discharging of the battery and to communicate with a motor control unit which is provided in the vehicle body and drives the electric motor ; wherein the housing includes a right housing half body (31 R) and a left housing half body (31 L) which form right and left portions of the housing , respectively, and are assembled together in a lateral direction of the housing , the housing has a lateral width less than a length of the housing in the front-rear direction and vertical length of the housing , wherein the connector being disposed on the housing , characterized in that the controller is disposed either in front of or behind the battery cells in a front-rear direction of the housing , and the controller has a plurality of switching elements for controlling the charging and discharging of the battery , wherein an opening is formed in only one housing half body of the right housing half body and the left housing half body , and a heat radiating member is fitted into the opening of the housing to be thermally exposed and the heat radiating member extends along the plurality of switching elements . a housing ; a connector for fitting engagement with a connector of a battery case of the vehicle body; battery cells disposed inside the housing ; wherein the battery is chargeable in a state where the battery is detached from the vehicle body; and a controller disposed inside the housing to manage the battery cells , to control the charging and discharging of the battery and to communicate with a motor control unit which is provided in the vehicle body and drives the electric motor ; wherein the housing includes a right housing half body (31 R) and a left housing half body (31 L) which form right and left portions of the housing , respectively, and are assembled together in a lateral direction of the housing , the housing has a lateral width less than a length of the housing in the front-rear direction and vertical length of the housing , wherein the connector being disposed on the housing , characterized in that the controller is disposed either in front of or behind the battery cells in a front-rear direction of the housing , and the controller has a plurality of switching elements for controlling the charging and discharging of the battery , wherein an opening is formed in only one housing half body of the right housing half body and the left housing half body , and a heat radiating member is fitted into the opening of the housing to be thermally exposed and the heat radiating member extends along the plurality of switching elements .
A method for performing a network entry procedure by a mobile station, MS, 5 in a cloud cell communication system in which a plurality of base stations, BSs, provide a service to the MS by cooperating with one another, the method comprising: selecting a master BS of which signal strength of a downlink synchronization signal is equal to or greater than a threshold signal strength and which has the maximum signal strength of the downlink synchronization signal, among 10 downlink synchronization signals of candidate BSs, wherein the candidate BSs are BSs from which the MS measures the signal strength of the downlink synchronization signal; determining a final candidate BS which will perform a cooperative communication with a master BS, wherein difference between signal strength of the 15 final candidate BS and the signal strength of the master BS is below a threshold signal strength difference value; transmitting , to the master BS, an access request message including first information related to the final candidate BS; and receiving from the master BS, an access response message including 20 second information related to the final candidate BS, performing , with the final candidate BS, an uplink synchronization acquisition procedure and beam acquisition procedure based on the second information; and performing remaining network entry procedure with the master BS and the 25 final candidate BS. selecting a master BS of which signal strength of a downlink synchronization signal is equal to or greater than a threshold signal strength and which has the maximum signal strength of the downlink synchronization signal, among 10 downlink synchronization signals of candidate BSs, wherein the candidate BSs are BSs from which the MS measures the signal strength of the downlink synchronization signal; determining a final candidate BS which will perform a cooperative communication with a master BS, wherein difference between signal strength of the 15 final candidate BS and the signal strength of the master BS is below a threshold signal strength difference value; transmitting , to the master BS, an access request message including first information related to the final candidate BS; and receiving from the master BS, an access response message including 20 second information related to the final candidate BS, performing , with the final candidate BS, an uplink synchronization acquisition procedure and beam acquisition procedure based on the second information; and performing remaining network entry procedure with the master BS and the 25 final candidate BS.
A graphics processing system for generating a shadow map texture for use in a subsequent render comprising: a tiling unit configured to tile a first view of a scene into a plurality of tiles, the first view being a point of view of a light source; a processing unit configured to identify a first subset of the tiles that are associated with a region of the scene that is viewable in a second view, the second view being a point of view of the subsequent render, and wherein: the region of the scene that is viewable in the second view is a view frustum of the second view; and the first subset of tiles are identified in dependence on determining the position of the view frustum of the second view from the first view; and a rendering unit configured to render to a shadow map texture each of the identified tiles . a tiling unit configured to tile a first view of a scene into a plurality of tiles, the first view being a point of view of a light source; a processing unit configured to identify a first subset of the tiles that are associated with a region of the scene that is viewable in a second view, the second view being a point of view of the subsequent render, and wherein: the region of the scene that is viewable in the second view is a view frustum of the second view; and the first subset of tiles are identified in dependence on determining the position of the view frustum of the second view from the first view; and the region of the scene that is viewable in the second view is a view frustum of the second view; and the first subset of tiles are identified in dependence on determining the position of the view frustum of the second view from the first view; and a rendering unit configured to render to a shadow map texture each of the identified tiles .
Transfer system for transporting and for processing profiles (P), in particular door seal profiles for motor vehicles, having a transportation device for transporting the profile (P) on a transportation path , and having a first feed table which is displaceable relative, in particular perpendicularly, to the transportation path and/or to the profile (P) being displaced on the transportation path , and which has an injection device for producing an injection-moulded end, a further profile portion, a positioning pin, and/or for connecting the profile (P) to a further profile portion, wherein the transportation device is configured for positioning the profile (P) on the transportation path in a processing position for processing the profile by the injection device , wherein the injection device comprises a mould for receiving and mounting the profile (P) during the injection and for configuring the cavity to be filled during the injection, wherein the mould has at least two contour parts for enclosing the profile in the part to be injection-moulded during the injection and for configuring the cavity, and wherein the injection device has a closing unit for opening and closing the contour parts , wherein the closing unit when moving the first feed table relative to the profile is configured for keeping the contour parts open until the profile (P) is enclosed by the contour parts , and wherein the transportation device is configured for moving, preferably not rotating, the profile (P), in particular in the region of the processing position, exclusively parallel to the transportation path , wherein the closing unit and the injection device are assembled so as to be displaceable conjointly with the first feed table , and the first feed table in the direction of the transportation path and/or of the profile (P) is displaceable until the contour parts in the closed state can enclose the profile (P) in the part to be injection-moulded, wherein the contour parts are movable by way of a common drive device , characterized in that the drive device comprises at least one control ring which is connected in a rotationally fixed manner to at least one entrainment pin.
A hermetically sealable lid structure for a medical implant housing , the structure comprising: a substrate comprising a dielectric material, the substrate having a top surface and a bottom surface , the substrate including a conductive portion fabricated on at least one of the top or bottom surfaces or an interior of the substrate, the conductive portion configured to allow electrical components to be fabricated on or coupled to the top or bottom surface or the interior of the substrate ; a frame configured to at least partially surround a perimeter of the substrate , the frame hermetically sealed to the substrate and configured to be hermetically sealed to the implant housing ; a plurality of vias configured to project at least partially through the substrate ; and a plurality of conductive pins , at least one of the conductive pins configured to project through a via and hermetically sealed to the via . a substrate comprising a dielectric material, the substrate having a top surface and a bottom surface , the substrate including a conductive portion fabricated on at least one of the top or bottom surfaces or an interior of the substrate, the conductive portion configured to allow electrical components to be fabricated on or coupled to the top or bottom surface or the interior of the substrate ; a frame configured to at least partially surround a perimeter of the substrate , the frame hermetically sealed to the substrate and configured to be hermetically sealed to the implant housing ; a plurality of vias configured to project at least partially through the substrate ; and a plurality of conductive pins , at least one of the conductive pins configured to project through a via and hermetically sealed to the via .
A laser beam amplification device comprising: a laser medium unit ; an excitation light source configured to cause excitation light (EX) to enter the laser medium unit ; and a cooling medium flow path (F1) configured to be arranged around the laser medium unit , wherein the laser beam amplification device amplifies and outputs a laser beam input to the laser medium unit ; wherein the laser medium unit comprises: a plate-like first laser medium , a plate-like second laser medium , and a sealing material arranged between the first and the second laser media ; wherein the first and the second laser media are aligned along a thickness direction of the first and the second laser media ; and wherein a space between the first and the second laser media is a sealed space and is under a reduced pressure environment or is filled with gas and the cooling medium flow path (F1) is configured to cool the laser medium unit from outside. a laser medium unit ; an excitation light source configured to cause excitation light (EX) to enter the laser medium unit ; and a cooling medium flow path (F1) configured to be arranged around the laser medium unit , wherein the laser beam amplification device amplifies and outputs a laser beam input to the laser medium unit ; wherein the laser medium unit comprises: a plate-like first laser medium , a plate-like second laser medium , and a sealing material arranged between the first and the second laser media ; wherein the first and the second laser media are aligned along a thickness direction of the first and the second laser media ; and wherein a space between the first and the second laser media is a sealed space and is under a reduced pressure environment or is filled with gas and the cooling medium flow path (F1) is configured to cool the laser medium unit from outside. a plate-like first laser medium , a plate-like second laser medium , and a sealing material arranged between the first and the second laser media ; wherein the first and the second laser media are aligned along a thickness direction of the first and the second laser media ; and wherein a space between the first and the second laser media is a sealed space and is under a reduced pressure environment or is filled with gas and the cooling medium flow path (F1) is configured to cool the laser medium unit from outside.
A prefabricated water control system comprising: a. a prefabricated element ; b. one or more gate members ; and c. two support units each adapted for slidingly supporting said prefabricated element ; characterized in that said prefabricated element has a shape in a side view perspective substantially corresponding to an I-form, an L-form, or an inverted T-form and having a substantially vertical wall component with a front side, a back side, a bottom section, and two side faces, said prefabricated element further comprising: i. a first opening in said wall component extending from said front side to said back side; and ii. at least one lifting anchor or coupler adapted for receiving a lifting anchor; wherein said one or more gate members are adapted to regulate the size of said first opening in said wall component , thereby regulating the waterflow therethrough; wherein said two support units each are adapted for slidingly supporting one of said side faces of said wall component and for being mounted into the bank of a water canal into which the water control system is positioned. a. a prefabricated element ; b. one or more gate members ; and c. two support units each adapted for slidingly supporting said prefabricated element ; characterized in that said prefabricated element has a shape in a side view perspective substantially corresponding to an I-form, an L-form, or an inverted T-form and having a substantially vertical wall component with a front side, a back side, a bottom section, and two side faces, said prefabricated element further comprising: i. a first opening in said wall component extending from said front side to said back side; and ii. at least one lifting anchor or coupler adapted for receiving a lifting anchor; i. a first opening in said wall component extending from said front side to said back side; and ii. at least one lifting anchor or coupler adapted for receiving a lifting anchor; wherein said one or more gate members are adapted to regulate the size of said first opening in said wall component , thereby regulating the waterflow therethrough; wherein said two support units each are adapted for slidingly supporting one of said side faces of said wall component and for being mounted into the bank of a water canal into which the water control system is positioned.
A waste sorting robot comprising: a frame , a manipulator for interacting with one or more waste objects to be sorted within a working area ; and wherein the manipulator is moveably mounted on the frame and the manipulator is moveable within the working area ; a conveyor for moving one or more waste objects to be sorted within the working area ; a chute for receiving sorted objects moved by the manipulator from the conveyor to a chute opening ; wherein the frame comprises a maintenance door for accessing the manipulator and / or the conveyor and the maintenance door is moveable to a position in which the maintenance door covers at least a portion of the chute opening and characterised in that the maintenance door covers the chute opening when the manipulator and / or the conveyor is accessible. a frame , a manipulator for interacting with one or more waste objects to be sorted within a working area ; and wherein the manipulator is moveably mounted on the frame and the manipulator is moveable within the working area ; a conveyor for moving one or more waste objects to be sorted within the working area ; a chute for receiving sorted objects moved by the manipulator from the conveyor to a chute opening ; wherein the frame comprises a maintenance door for accessing the manipulator and / or the conveyor and the maintenance door is moveable to a position in which the maintenance door covers at least a portion of the chute opening and characterised in that the maintenance door covers the chute opening when the manipulator and / or the conveyor is accessible.
A method for video decoding, comprising: determining whether a current block is in a lossless mode based on a first indication in the bitstream which indicates whether the current block is coded lossless; characterized by in response to determining that the current block is in the lossless mode, determining whether a first residual coding scheme or a second residual coding scheme is applied for the current block in the lossless mode further based on a second indication in the bitstream which indicates which residual coding scheme is used; wherein the first residual coding scheme is a residual coding scheme which is pre-defined for a non-transform skip block, and the second residual coding scheme is a residual coding scheme which is pre-defined for a transform-skip block. determining whether a current block is in a lossless mode based on a first indication in the bitstream which indicates whether the current block is coded lossless; characterized by in response to determining that the current block is in the lossless mode, determining whether a first residual coding scheme or a second residual coding scheme is applied for the current block in the lossless mode further based on a second indication in the bitstream which indicates which residual coding scheme is used; wherein the first residual coding scheme is a residual coding scheme which is pre-defined for a non-transform skip block, and the second residual coding scheme is a residual coding scheme which is pre-defined for a transform-skip block.
Fiber optic sensor unit (1a; 1b; 1c) for detecting a mechanical force acting on a rail comprising: at least a first sensor fiber (2, 3; 10), a first elongated fiber optic strain sensor and a second elongated fiber optic strain sensor , wherein the first sensor fiber (2; 10) comprises the first strain sensor , wherein the fiber optic strain sensors are fiber Bragg gratings, wherein either both fiber Bragg gratings are inscribed in one sensor fiber or each of the fiber Bragg gratings is inscribed in a separate sensor fiber , characterized in that the at least one sensor fiber (2, 3; 10) is attached to a sensor plate , and that the first fiber strain sensor and the second strain sensor are arranged in an x-type or v-type geometry, wherein the first strain sensor and the second strain sensor are arranged in an angle of 60° to 120° , in particular of 90°, to each other, and that the sensor plate comprises a recess , wherein the at least one fiber spans the recess such that the strain sensors are positioned freely within the recess without contact to the sensor plate. at least a first sensor fiber (2, 3; 10), a first elongated fiber optic strain sensor and a second elongated fiber optic strain sensor , wherein the first sensor fiber (2; 10) comprises the first strain sensor , wherein the fiber optic strain sensors are fiber Bragg gratings, wherein either both fiber Bragg gratings are inscribed in one sensor fiber or each of the fiber Bragg gratings is inscribed in a separate sensor fiber , characterized in that the at least one sensor fiber (2, 3; 10) is attached to a sensor plate , and that the first fiber strain sensor and the second strain sensor are arranged in an x-type or v-type geometry, wherein the first strain sensor and the second strain sensor are arranged in an angle of 60° to 120° , in particular of 90°, to each other, and that the sensor plate comprises a recess , wherein the at least one fiber spans the recess such that the strain sensors are positioned freely within the recess without contact to the sensor plate. that the at least one sensor fiber (2, 3; 10) is attached to a sensor plate , and that the first fiber strain sensor and the second strain sensor are arranged in an x-type or v-type geometry, wherein the first strain sensor and the second strain sensor are arranged in an angle of 60° to 120° , in particular of 90°, to each other, and that the sensor plate comprises a recess , wherein the at least one fiber spans the recess such that the strain sensors are positioned freely within the recess without contact to the sensor plate.
An excrement-drying installation for livestock barns such as poultry barns, comprising an excrement transportation belt for conveying the excrement along a conveying direction (F), wherein the excrement transportation belt extends across a conveying length (L) and has an upper side for receiving the excrement (K), and a drying unit having at least one dispensing element which for drying the excrement (K) has at least one air nozzle or a multiplicity of air nozzles for spraying air onto the excrement (K) lying on the excrement transportation belt , wherein the upper side of the excrement transportation belt for receiving the excrement (K) is divided into a plurality of excrement transportation belt portions (TB1, TB2) which lie behind one another in the conveying direction (F), wherein each excrement transportation belt portion (TB1, TB2) occupies a sub-area of the total upper side ; and wherein the at least one dispensing element is disposed in such a manner that said dispensing element acts on an operative region which in terms of area corresponds to said sub-area, characterized in that the length (TL) of said excrement transportation belt portion (TB), when viewed in the conveying direction (F), is chosen in such a manner that in one complete revolution of the excrement transportation belt within 24 hours, at a dwell time of 1 to 6 hours, each excrement transportation belt portion comes to lie below the at least one dispensing element . a drying unit having at least one dispensing element which for drying the excrement (K) has at least one air nozzle or a multiplicity of air nozzles for spraying air onto the excrement (K) lying on the excrement transportation belt , wherein the upper side of the excrement transportation belt for receiving the excrement (K) is divided into a plurality of excrement transportation belt portions (TB1, TB2) which lie behind one another in the conveying direction (F), wherein each excrement transportation belt portion (TB1, TB2) occupies a sub-area of the total upper side ; and wherein the at least one dispensing element is disposed in such a manner that said dispensing element acts on an operative region which in terms of area corresponds to said sub-area, characterized in that the length (TL) of said excrement transportation belt portion (TB), when viewed in the conveying direction (F), is chosen in such a manner that in one complete revolution of the excrement transportation belt within 24 hours, at a dwell time of 1 to 6 hours, each excrement transportation belt portion comes to lie below the at least one dispensing element .