mhurhangee/patent-ind-claim-en huggingface dataset:
A container gripper that includes a gripper having a gripping part which is constituted of a pair of gripping pieces disposed to be openable and closable by relative movement, allows a head part of a container to move in and out of the gripper when being opened, and allows the head part to be constrained when being closed, and that alternately changes gripping from a first gripper to a second gripper to deliver the container, the container gripper comprising: an ascending/descending container platform capable of supporting a bottom surface of the container gripped by the gripper, wherein the gripping part of the first gripper includes a first gripping piece that grips at least half of the circumference of a neck part in a gripping shape adapted to the neck part provided at the head part, wherein the gripping part of the second gripper includes a second gripping piece that grips at least half of the circumference of a lower part in conformity with the lower part of the neck part, wherein when a bottle-shaped can is gripped by the second gripping piece, the second gripping piece grips the lower part of the neck part, and a bottom surface of the bottle-shaped can is supported by the container platform, characterised in that when a PET bottle is gripped by the second gripping piece, the second gripping piece comes into contact with an underside of a neck ring of the PET bottle, and grips a lower part of a neck part, and the container platform is withdrawn to a position where the container platform does not come into contact with a bottom surface of the PET bottle, and wherein the container gripper is configured to be capable of being used to hold both the bottle-shaped can and the PET bottle. an ascending/descending container platform capable of supporting a bottom surface of the container gripped by the gripper, wherein the gripping part of the first gripper includes a first gripping piece that grips at least half of the circumference of a neck part in a gripping shape adapted to the neck part provided at the head part, wherein the gripping part of the second gripper includes a second gripping piece that grips at least half of the circumference of a lower part in conformity with the lower part of the neck part, wherein when a bottle-shaped can is gripped by the second gripping piece, the second gripping piece grips the lower part of the neck part, and a bottom surface of the bottle-shaped can is supported by the container platform, characterised in that when a PET bottle is gripped by the second gripping piece, the second gripping piece comes into contact with an underside of a neck ring of the PET bottle, and grips a lower part of a neck part, and the container platform is withdrawn to a position where the container platform does not come into contact with a bottom surface of the PET bottle, and wherein the container gripper is configured to be capable of being used to hold both the bottle-shaped can and the PET bottle.
A modular rail fastening system comprising two side pieces joined to both sides of a central support , where each side piece comprises a cast base and an elastic component bonded to said cast base , forming a compact bonded body , the system comprising a special non-standard rail bearing plate that covers the entirety of an elastic plate placed on the central support charaterized in that the bearing plate partially covers each one of the side pieces , and the system further comprises an insulation and adjustment sheet under the plate for separating it from the concrete and levelling the track, when the system is in use, wherein each side piece has elevated areas coated with the elastic bonded component that act as perimeter stop ends, partially surrounding the area of the special bearing plate , and in which the ends of the special bearing plate fit, elastically limiting the longitudinal and sideways movements of the track.
A method for cutting fibre mats , preferably from a roll, where the cutting is effected by a mechanical automatic tool , wherein cutting of the fibre mat is effected so that the cut surface on the fibre mat can be varied from an angle greater than 0° to an angle less than 180° in relation to both surfaces on the fibre mat , wherein it is the variable position of the fibre mat relative to the direction of movement and cutting of the cutting tool that determines the angle of the cut, wherein the method at least includes steps where a fibre mat is passed in between a first set of fixing means and onwards between a second set of fixing means , where the cutting tool is activated after fixing the fibre mat , and wherein the method includes a step where further positioning of the fibre mat is effected by activating at least one pressing beam acting on the angle of the fibre mat relative to the cutting tool , whereby the position of the fibre mat in relation to a cutting tool assumes a predetermined angle, wherein the second set of fixing means comprises a fixing beam disposed in immediate vicinity of at least one cutting tool , wherein the cutting tool is moved crosswise of the fibre mat along said fixing beam .
A Roman shade comprising: - a head bar ; - a length of cloth suspended from the head bar ; - at least one pull cord arranged with one end at the bottom end of the length of cloth and extending along one side of the length of cloth through a number of eyes arranged at discrete positions along the height of the length of cloth and up to the head bar wherein the length of cloth is composed out of rectangular cloth parts , each having a front side and a back side , the cloth parts extending with their length parallel to the head bar , wherein adjacent cloth parts are connected to each other along a fold line extending parallel to the head bar and wherein an eye of the number of eyes is arranged at every second fold line , characterized in that adjacent cloth parts are alternatingly folded with both front sides or both back sides together and wherein the respective fold line is formed by a seam arranged in the edge zone where the two adjacent cloth parts are connected to each other. - a head bar ; - a length of cloth suspended from the head bar ; - at least one pull cord arranged with one end at the bottom end of the length of cloth and extending along one side of the length of cloth through a number of eyes arranged at discrete positions along the height of the length of cloth and up to the head bar wherein the length of cloth is composed out of rectangular cloth parts , each having a front side and a back side , the cloth parts extending with their length parallel to the head bar , wherein adjacent cloth parts are connected to each other along a fold line extending parallel to the head bar and wherein an eye of the number of eyes is arranged at every second fold line , characterized in that adjacent cloth parts are alternatingly folded with both front sides or both back sides together and wherein the respective fold line is formed by a seam arranged in the edge zone where the two adjacent cloth parts are connected to each other.
A method of making a hemostatic composition comprising the steps of: a) reducing a size of a cellulose-based material to form long fibers and fine fibers, wherein the cellulose-based fibers are oxidized cellulose and/or oxidized regenerated cellulose (ORC) fibers, wherein the size distribution of the long fibers is: D90 of more than 177 μm and D50 of more than 95 μm, and wherein the size distribution of the fine fibers is: D90 of less than 177 μm, and D50 of less than 95 μm; and mixing the long and fine fibers at a ratio in the range of 5%-25% w/w and 95%-75% w/w, respectively, thereby obtaining a hemostatic fibers composition, b) optionally the hemostatic fibers composition obtained in step a) is subjected to further steps to obtain a hemostatic composition in the form of aggregates, the steps comprising: i) compacting the hemostatic fibers composition to obtain compacted hemostatic fibers composition; and optionally ii) reducing the compacted composition size. a) reducing a size of a cellulose-based material to form long fibers and fine fibers, wherein the cellulose-based fibers are oxidized cellulose and/or oxidized regenerated cellulose (ORC) fibers, wherein the size distribution of the long fibers is: D90 of more than 177 μm and D50 of more than 95 μm, and wherein the size distribution of the fine fibers is: D90 of less than 177 μm, and D50 of less than 95 μm; and mixing the long and fine fibers at a ratio in the range of 5%-25% w/w and 95%-75% w/w, respectively, thereby obtaining a hemostatic fibers composition, b) optionally the hemostatic fibers composition obtained in step a) is subjected to further steps to obtain a hemostatic composition in the form of aggregates, the steps comprising: i) compacting the hemostatic fibers composition to obtain compacted hemostatic fibers composition; and optionally ii) reducing the compacted composition size.
A method comprising, by one or more computer systems: building a profile for an end user based on one or more learned preferences of the end user; receiving a query, from the end user, for particular sensor data among a plurality of sensor data from a plurality of sensors, the received query comprising a unique resource locator that uniquely identifies a particular one of the plurality of sensors, the plurality of sensor data being indexed according to a multidimensional array, one or more first ones of the dimensions comprising time and one or more second ones of the dimensions comprising one or more pre-determined sensor-data attributes; translating the query to correspond to the indexing of the plurality of sensor data, the translated query comprising one or more values for one or more of the dimensions of the multidimensional array; appending , the unique resource locator to the translated query; communicating the translated query to search among the plurality of sensor data according to the indexing of the plurality of sensor data to identify sensor data associated with the particular one of the plurality of sensors, wherein one or more of the plurality of sensor data is cached, and weighting of the cached sensor data is adjusted according to the query and user profile; receiving a set of matching sensor data; and tailoring ordering of the set of matching sensor data based on the user profile of the end user to provide a representation expected by the end user. building a profile for an end user based on one or more learned preferences of the end user; receiving a query, from the end user, for particular sensor data among a plurality of sensor data from a plurality of sensors, the received query comprising a unique resource locator that uniquely identifies a particular one of the plurality of sensors, the plurality of sensor data being indexed according to a multidimensional array, one or more first ones of the dimensions comprising time and one or more second ones of the dimensions comprising one or more pre-determined sensor-data attributes; translating the query to correspond to the indexing of the plurality of sensor data, the translated query comprising one or more values for one or more of the dimensions of the multidimensional array; appending , the unique resource locator to the translated query; communicating the translated query to search among the plurality of sensor data according to the indexing of the plurality of sensor data to identify sensor data associated with the particular one of the plurality of sensors, wherein one or more of the plurality of sensor data is cached, and weighting of the cached sensor data is adjusted according to the query and user profile; receiving a set of matching sensor data; and
A system comprising a trailer attachable to an autonomous driven vehicle and a single autonomous driven vehicle , the system comprising a control system configured for autonomous driving of the vehicle , comprising a first environment sensor attached at a specific location of the vehicle configured to observe a specific portion of environments of the vehicle , and at least one second environment sensor attached at any specific location of the vehicle being configured to observe at least a portion of the specific portion of environments of the vehicle simultaneously to an observation of the first environment sensor, characterized by further comprising a side radar device attached at a lateral side of the trailer of the system such that it looks laterally of the system for observing a further specific portion of the environments of the system and another device for observing the further specific portion of the environments of the system. a first environment sensor attached at a specific location of the vehicle configured to observe a specific portion of environments of the vehicle , and at least one second environment sensor attached at any specific location of the vehicle being configured to observe at least a portion of the specific portion of environments of the vehicle simultaneously to an observation of the first environment sensor, characterized by further comprising a side radar device attached at a lateral side of the trailer of the system such that it looks laterally of the system for observing a further specific portion of the environments of the system and another device for observing the further specific portion of the environments of the system.
An inkjet printing apparatus for printing on a printing medium (WP) by feeding ink to an inkjet head having a plurality of nozzles and dispensing the ink from the inkjet head to the printing medium (WP), the apparatus comprising: a tank for storing the ink; a supply pipe communicatively connecting the tank and the inkjet head ; a pump mounted on the supply pipe for feeding the ink stored in the tank to the inkjet head ; a filter disposed on a path of the supply pipe ; a controller for operating the pump and controlling feeding of the ink; wherein the controller is configured to operate the pump to engage in forward drive for feeding the ink from the tank toward the inkjet head in time of printing operation that causes the inkjet head to dispense the ink fed from the tank , and to operate the pump to engage in backward drive for feeding the ink from a position downstream of the pump back to the tank in time of functional recovery operation for improving choking of the filter ; wherein the apparatus further comprises a degassing filter mounted on the supply pipe between the pump and the inkjet head and downstream of the filter for removing bubbles from the ink; wherein the controller is further configured to operate the pump to engage in the backward drive, in time of functional recovery operation, until an interface between the ink and gas in a portion of the supply pipe adjacent the inkjet head is located on a side of the degassing filter adjacent the inkjet head . a tank for storing the ink; a supply pipe communicatively connecting the tank and the inkjet head ; a pump mounted on the supply pipe for feeding the ink stored in the tank to the inkjet head ; a filter disposed on a path of the supply pipe ; a controller for operating the pump and controlling feeding of the ink; wherein the controller is configured to operate the pump to engage in forward drive for feeding the ink from the tank toward the inkjet head in time of printing operation that causes the inkjet head to dispense the ink fed from the tank , and to operate the pump to engage in backward drive for feeding the ink from a position downstream of the pump back to the tank in time of functional recovery operation for improving choking of the filter ; wherein the apparatus further comprises a degassing filter mounted on the supply pipe between the pump and the inkjet head and downstream of the filter for removing bubbles from the ink; wherein the controller is further configured to operate the pump to engage in the backward drive, in time of functional recovery operation, until an interface between the ink and gas in a portion of the supply pipe adjacent the inkjet head is located on a side of the degassing filter adjacent the inkjet head .
An industrial vehicle remote operation system comprising: an industrial vehicle that includes a vehicle communication unit ; a remote operation device that includes a remote communication unit performing wireless communication with the vehicle communication unit , and is used for remotely operating the industrial vehicle ; and a forced stop control unit configured to decelerate and forcibly stop traveling of the industrial vehicle while maintaining a steering angle (Dθ) of the industrial vehicle formed when a forced stop condition is met, in a case where the forced stop condition is met during a remote operation of traveling of the industrial vehicle using the remote operation device , characterized in that the forced stop control unit is provided on the remote operation device , and transmits, to the vehicle communication unit using the remote communication unit , a forced stop remote operation signal (SG13) that includes settings of at least either a forced stop speed or a forced stop deceleration, and the steering angle (Dθ) of the industrial vehicle formed when the forced stop condition is met, and when the vehicle communication unit receives the forced stop remote operation signal (SG13), the industrial vehicle is forcibly stopped based on the settings of at least either the forced stop speed or the forced stop deceleration included in the forced stop remote operation signal (SG13), and on the steering angle (Dθ). an industrial vehicle that includes a vehicle communication unit ; a remote operation device that includes a remote communication unit performing wireless communication with the vehicle communication unit , and is used for remotely operating the industrial vehicle ; and a forced stop control unit configured to decelerate and forcibly stop traveling of the industrial vehicle while maintaining a steering angle (Dθ) of the industrial vehicle formed when a forced stop condition is met, in a case where the forced stop condition is met during a remote operation of traveling of the industrial vehicle using the remote operation device , characterized in that the forced stop control unit is provided on the remote operation device , and transmits, to the vehicle communication unit using the remote communication unit , a forced stop remote operation signal (SG13) that includes settings of at least either a forced stop speed or a forced stop deceleration, and the steering angle (Dθ) of the industrial vehicle formed when the forced stop condition is met, and when the vehicle communication unit receives the forced stop remote operation signal (SG13), the industrial vehicle is forcibly stopped based on the settings of at least either the forced stop speed or the forced stop deceleration included in the forced stop remote operation signal (SG13), and on the steering angle (Dθ).
An assembly workstation for manually assembling assemblies from a plurality of components, comprising a work surface on which the components can be assembled, and comprising a plurality of containers which each accommodate a number of components and are arranged one above the other and/or one next to the other in a reaching space , - the containers being arranged in at least one carousel (4, 4', 4") which is rotatable about a vertical axis of rotation , - a drive unit being provided to rotate the carousel (4, 4', 4"), - a control unit being provided to actuate the drive unit , the control unit influencing the drive unit in such a way that, at each assembly step, the container provided with the component necessary for assembly is accessible to an assembler standing at the work surface , - the carousel (4, 4', 4") having a number of dish-shaped extensions (7, 7', 7") arranged offset from one another in the direction of an axis of rotation of the carousel , the dish-shaped extension (7, 7', 7") having a number of containers arranged concentrically around the axis of rotation , characterized in that the dish-shaped extensions (7, 7', 7") have radially projecting rectangular receptacles which are distributed in the circumferential direction relative to the vertical axis of rotation , and in that the containers fastened to the dish-shaped extensions (7, 7', 7") in the direction of the axis of rotation are alternately arranged offset from one another by a radial offset angle (φ) in the circumferential direction such that the containers of one dish-shaped extension extending in a first horizontal plane are arranged in an intermediate space between containers of another dish-shaped extension (7") extending in a second horizontal plane, and vice versa. - the containers being arranged in at least one carousel (4, 4', 4") which is rotatable about a vertical axis of rotation , - a drive unit being provided to rotate the carousel (4, 4', 4"), - a control unit being provided to actuate the drive unit , the control unit influencing the drive unit in such a way that, at each assembly step, the container provided with the component necessary for assembly is accessible to an assembler standing at the work surface , - the carousel (4, 4', 4") having a number of dish-shaped extensions (7, 7', 7") arranged offset from one another in the direction of an axis of rotation of the carousel , the dish-shaped extension (7, 7', 7") having a number of containers arranged concentrically around the axis of rotation ,
A separation system for separating a liquid mixture comprising a centrifugal separator , wherein the centrifugal separator comprises a stationary frame , a rotatable assembly and a drive unit for rotating the rotatable assembly relative the frame around an axis of rotation (X); a feed inlet for receiving a liquid mixture to be separated, a first liquid outlet for discharge of a separated liquid light phase and a second liquid outlet for discharge of a liquid heavy phase having a density that is higher than said liquid light phase; wherein the rotatable assembly comprises a rotor casing enclosing a separation space in which a stack of separation discs is arranged to rotate around said axis of rotation (X), wherein the separation space is arranged for receiving liquid mixture from said feed inlet , the separation system being characterized by a container arranged downstream of said first and/or second liquid outlet of the centrifugal separator and arranged for receiving discharged liquid phase, and a scale for measuring a weight of discharged liquid phase contained in said container . a stationary frame , a rotatable assembly and a drive unit for rotating the rotatable assembly relative the frame around an axis of rotation (X); a feed inlet for receiving a liquid mixture to be separated, a first liquid outlet for discharge of a separated liquid light phase and a second liquid outlet for discharge of a liquid heavy phase having a density that is higher than said liquid light phase; wherein the rotatable assembly comprises a rotor casing enclosing a separation space in which a stack of separation discs is arranged to rotate around said axis of rotation (X), wherein the separation space is arranged for receiving liquid mixture from said feed inlet , the separation system being characterized by a container arranged downstream of said first and/or second liquid outlet of the centrifugal separator and arranged for receiving discharged liquid phase, and a scale for measuring a weight of discharged liquid phase contained in said container .