mhurhangee/patent-ind-claim-en huggingface dataset:
A film-packaged tissue in which a pop-up type bundle of tissue paper is packaged by a flexible resin packaging film , wherein a thickness of the packaging film is 20 to 60 μm, and the packaging is selected from the group consisting of three-way closing packaging, four-way closing packaging, gusset packaging, pillow packaging, caramel packaging, and gusset pillow packaging, wherein perforations for forming an outlet in the resin packaging film are formed annularly along the longitudinal direction of the bundle at a position of the packaging film which faces the upper most tissue paper of the bundle , and an edge of the outlet formed by tearing of the perforations for forming the outlet has a guiding edge for moving each side edge portion in a bundle longitudinal direction of the tissue paper toward the short direction of the bundle , and support portions which support edges of the tissue paper in the bundle longitudinal direction , characterized in that the guiding edge comprises a pair of bulging edges in which one of the longitudinal edges of the outlet extending from the longitudinal center (C) to both ends bulges toward the longitudinal edges facing in the bundle short direction , wherein the support portions include corner portions located at both ends in the bundle longitudinal direction of the outlet and formed of the ends of the bulging edges. wherein a thickness of the packaging film is 20 to 60 μm, and the packaging is selected from the group consisting of three-way closing packaging, four-way closing packaging, gusset packaging, pillow packaging, caramel packaging, and gusset pillow packaging, wherein perforations for forming an outlet in the resin packaging film are formed annularly along the longitudinal direction of the bundle at a position of the packaging film which faces the upper most tissue paper of the bundle , and an edge of the outlet formed by tearing of the perforations for forming the outlet has a guiding edge for moving each side edge portion in a bundle longitudinal direction of the tissue paper toward the short direction of the bundle , and support portions which support edges of the tissue paper in the bundle longitudinal direction , characterized in that the guiding edge comprises a pair of bulging edges in which one of the longitudinal edges of the outlet extending from the longitudinal center (C) to both ends bulges toward the longitudinal edges facing in the bundle short direction , wherein the support portions include corner portions located at both ends in the bundle longitudinal direction of the outlet and formed of the ends of the bulging edges.
Guiding barrel for a cutting tool such as a drill, having a rear end , provided with a conical outer surface to be press-fitted in a barrel support of a drilling machine , comprising: - a main body having a front end and the rear end provided with the conical outer surface, and - an insert for guiding the cutting tool , characterised in that the insert is designed to be screwed to the front end of the main body and in that the main body has an outer shoulder oriented frontwards, intended to bear against a grille . - a main body having a front end and the rear end provided with the conical outer surface, and - an insert for guiding the cutting tool ,
A precipitation hardened martensitic stainless steel, comprising: between 0.08 % and 0.18 % by weight carbon; between 10.50 % and 14.00 % by weight chromium; between 0.65 % and 1.15 % by weight nickel; between 0.85 % and 1.30 % by weight copper; between 0.40 % and 0.60 % by weight molybdenum; between 0.30 % and 1.00 % by weight manganese; between 0.15 % and 0.65 % by weight silicon; between 0.01 % and 0.09 % by weight aluminum; optionally further comprising between 0 % and 0.040 % by weight phosphorus; optionally further comprising between 0 % and 0.100 % by weight sulfur; optionally further comprising between 0 % and 0.15 % by weight vanadium; optionally further comprising between 0 % and 0.15 % by weight niobium, and balance iron; wherein the precipitation hardened martensitic stainless steel has a yield strength ranging between 655 MPa and 896 MPa, and an ultimate tensile strength ranging between 758 MPa and 972 MPa. between 0.08 % and 0.18 % by weight carbon; between 10.50 % and 14.00 % by weight chromium; between 0.65 % and 1.15 % by weight nickel; between 0.85 % and 1.30 % by weight copper; between 0.40 % and 0.60 % by weight molybdenum; between 0.30 % and 1.00 % by weight manganese; between 0.15 % and 0.65 % by weight silicon; between 0.01 % and 0.09 % by weight aluminum; optionally further comprising between 0 % and 0.040 % by weight phosphorus; optionally further comprising between 0 % and 0.100 % by weight sulfur; optionally further comprising between 0 % and 0.15 % by weight vanadium; optionally further comprising between 0 % and 0.15 % by weight niobium, and balance iron;
Housing , having a housing base body , wherein an opening is formed on at least one side surface of the housing base body , having a seal element which is placed on the side surface comprising the opening in such a way that the seal element borders the opening , having a frame element which is placed on the side surface comprising the opening in such a way that the frame element borders the seal element , and having a cover element which is intended to close the opening and which, in a closed state of the opening , is placed areally on the frame element and the seal element , wherein the cover element can be fastened to the housing base body by way of fastening means , characterized in that , in the closed state, the fastening means are guided through the cover element and the seal element .
An adapter for interconnecting a surgical end effector to a surgical device, the adapter including: a drive shaft ; and a load sensing device disposed about the drive shaft , the load sensing device configured to measure strain imparted on the drive shaft, the load sensing device including a housing , characterized in that the housing comprises: a tubular portion having a first end and a second end and defining a cavity therebetween; a first end cap disposed at the first end, the first end cap having a frustoconical wall extending from a base to a tip portion thereof, a first opening being defined through the said tip portion ; and a second end cap disposed at the second end, the second end cap having a frustoconical wall extending from a base to a tip portion thereof, a second opening being defined through the said tip portion , wherein: the drive shaft passes through the first and second openings and the cavity ; the load sensing device is secured to the drive shaft such that a strain imparted on the drive shaft is imparted on the load sensing device; and the load sensing device further comprises a conductive element wrapped at least partially about the tubular portion . a drive shaft ; and a load sensing device disposed about the drive shaft , the load sensing device configured to measure strain imparted on the drive shaft, the load sensing device including a housing , a tubular portion having a first end and a second end and defining a cavity therebetween; a first end cap disposed at the first end, the first end cap having a frustoconical wall extending from a base to a tip portion thereof, a first opening being defined through the said tip portion ; and a second end cap disposed at the second end, the second end cap having a frustoconical wall extending from a base to a tip portion thereof, a second opening being defined through the said tip portion , the drive shaft passes through the first and second openings and the cavity ; the load sensing device is secured to the drive shaft such that a strain imparted on the drive shaft is imparted on the load sensing device; and the load sensing device further comprises a conductive element wrapped at least partially about the tubular portion .
A cold plate heat exchanger , comprising: - at least one a main body comprising at least one active surface suitable to the heat transfer with at least one device in thermal contact with the same; - at least one channel , in which a coolant flows, formed inside said main body and is arranged in proximity of said active surface and in thermal contact with the same; - at least two hydraulic interconnections which are integral with said main body and comprising the respective inlet and outlet ducts of said coolant which are hydraulically connected to the ends of said internal channel ; wherein said internal channel is at is at least partially filled with an ordered lattice structure in thermal contact with said coolant, said ordered lattice structure comprising a periodic repetition one or more elementary cells along at least one dimension; characterised in that: said main body further comprises at least one neutral surface not suitable to the heat transfer and separated from said internal channel by means of at least one interspace and/or a wall thickness of said main body corresponding to said neutral surface that is greater with respect to the wall thickness of said main body corresponding to said active surface . - at least one a main body comprising at least one active surface suitable to the heat transfer with at least one device in thermal contact with the same; - at least one channel , in which a coolant flows, formed inside said main body and is arranged in proximity of said active surface and in thermal contact with the same; - at least two hydraulic interconnections which are integral with said main body and comprising the respective inlet and outlet ducts of said coolant which are hydraulically connected to the ends of said internal channel ; wherein said internal channel is at is at least partially filled with an ordered lattice structure in thermal contact with said coolant, said ordered lattice structure comprising a periodic repetition one or more elementary cells along at least one dimension; characterised in that: said main body further comprises at least one neutral surface not suitable to the heat transfer and separated from said internal channel by means of at least one interspace and/or a wall thickness of said main body corresponding to said neutral surface that is greater with respect to the wall thickness of said main body corresponding to said active surface .
Aggregating server , comprising: a remote node input interface , configured to receive node images representing nodes in a remote address space , wherein the node images are structured node data of the nodes in a remote address space ; an address space description interface , configured to import node description information comprising node descriptions of nodes in the remote address space to be aggregated and to provide the node description information to a node filter, wherein the address space description interface is a file interface; the node filter located between the remote node input interface and an aggregation module , configured to filter the node images received from the remote node input interface according to the imported node description information of nodes in the remote address space to be aggregated; wherein the node filter comprises filter information; wherein the filter information is the imported node description information related to a technical application for each of the nodes in the remote address space that are to be aggregated, and wherein the filter is configured to keep only those images, which are contained in the received node description information; and the aggregation module , configured to instantiate proxy nodes , wherein the proxy nodes represent filtered node images of nodes in the remote address space ; and wherein the proxy nodes are provided to an external client; wherein the aggregating server is an Open Platform Communications Unified Architecture - OPC UA- aggregation server. a remote node input interface , configured to receive node images representing nodes in a remote address space , wherein the node images are structured node data of the nodes in a remote address space ; an address space description interface , configured to import node description information comprising node descriptions of nodes in the remote address space to be aggregated and to provide the node description information to a node filter, wherein the address space description interface is a file interface; the node filter located between the remote node input interface and an aggregation module , configured to filter the node images received from the remote node input interface according to the imported node description information of nodes in the remote address space to be aggregated; wherein the node filter comprises filter information; wherein the filter information is the imported node description information related to a technical application for each of the nodes in the remote address space that are to be aggregated, and wherein the filter is configured to keep only those images, which are contained in the received node description information; and the aggregation module , configured to instantiate proxy nodes , wherein the proxy nodes represent filtered node images of nodes in the remote address space ; and wherein the proxy nodes are provided to an external client; wherein the aggregating server is an Open Platform Communications Unified Architecture - OPC UA- aggregation server.
Use of a thiosulfate as a retarder for a cement paste comprising a magnesium phosphate cement.
A transmission mode switching method, comprising: when a wireless terminal is in a connected state in which the wireless terminal is configured to: use a dedicated uplink-transmission resource allocated by a network-side device for use in an uplink scheduling-based transmission mode and when an uplink service volume of the wireless terminal within a first detection time is less than a first threshold, switching , by the wireless terminal, a state from the connected state to an ecology conservation optimization which is a connected-inactive state in which the wireless terminal is configured to: use an uplink contention-based transmission mode, wherein a transmission resource used in the uplink contention-based transmission mode is an uplink shared resource, wherein the uplink shared resource is usable by a plurality of wireless terminals in a cell, wherein the switching, by the wireless terminal, a state from the connected state to an ecology conservation optimization comprises: sending , by the wireless terminal, a first switching request message to the network-side device, wherein the first switching request message is used to request the network-side device to switch the state of the wireless terminal from the connected state to the ecology conservation optimization; receiving , by the wireless terminal, a first switching response message sent by the network-side device based on the first switching request message; and switching , by the wireless terminal based on the first switching response message, the state from the connected state to the ecology conservation optimization, wherein the first switching request message comprises information about the uplink service volume of the wireless terminal within the first detection time. sending , by the wireless terminal, a first switching request message to the network-side device, wherein the first switching request message is used to request the network-side device to switch the state of the wireless terminal from the connected state to the ecology conservation optimization; receiving , by the wireless terminal, a first switching response message sent by the network-side device based on the first switching request message; and switching , by the wireless terminal based on the first switching response message, the state from the connected state to the ecology conservation optimization, wherein the first switching request message comprises information about the uplink service volume of the wireless terminal within the first detection time.
A method for establishing a wireless local area network connection for a wireless communication device in communication with a wide area network, comprising: identifying any fingerprints stored at the wireless communication device, each fingerprint identifying a location within the wide area network and corresponding to a wireless local area network, wherein each fingerprint comprises any combination of the following attributes of the wide area network: pilot signal strength, pilot signal phase, pilot offset value or number of pilot signals available; generating a current fingerprint based on one or more reference signals from the wide area network; searching for a match between the current fingerprint and any stored fingerprints; and establishing a connection between the wireless communication device and a wireless local area network corresponding to a matching fingerprint. identifying any fingerprints stored at the wireless communication device, each fingerprint identifying a location within the wide area network and corresponding to a wireless local area network, wherein each fingerprint comprises any combination of the following attributes of the wide area network: pilot signal strength, pilot signal phase, pilot offset value or number of pilot signals available; generating a current fingerprint based on one or more reference signals from the wide area network; searching for a match between the current fingerprint and any stored fingerprints; and establishing a connection between the wireless communication device and a wireless local area network corresponding to a matching fingerprint.
An apparatus for storing scooters, comprising - a base forming a ground level, - a storage conveyor having a transport direction and a set of carriers for holding the scooters , the carriers being configured to hold the scooters in a position wherein the steering column of the scooter is tilted from the upright position in relation to the ground level, characterized of - a reception point for receiving the scooter in an upright position wherein the steering column of the scooter extends upwards from the ground level, - a tilting gripper configured to grip and tilt the scooter so that the scooter (59 is turned so that the rear wheel of the scooter 85) is lifted upwards, and - a carrier configured to grip the scooter at the transfer conveyor on a position wherein the rear wheel of the scooter points upwards and the steering column is below the level of the rear wheel. - a base forming a ground level, - a storage conveyor having a transport direction and a set of carriers for holding the scooters , the carriers being configured to hold the scooters in a position wherein the steering column of the scooter is tilted from the upright position in relation to the ground level, characterized of - a reception point for receiving the scooter in an upright position wherein the steering column of the scooter extends upwards from the ground level, - a tilting gripper configured to grip and tilt the scooter so that the scooter (59 is turned so that the rear wheel of the scooter 85) is lifted upwards, and - a carrier configured to grip the scooter at the transfer conveyor on a position wherein the rear wheel of the scooter points upwards and the steering column is below the level of the rear wheel.
Device with one or more of a micro- or nanoscale mechanical structure, a micro- or nanoscale sensing element , an active and/or passive micro- or nanoscale electrical circuitry , integrated at a front side of a substrate , the device further comprising - a support arranged at a back side of the substrate for mounting the device to a carrier , wherein the support comprises a first member comprising contact pads for electrically connecting the device to the carrier , a second member in between the first member and the substrate , and a third member between the second member and the substrate , - one or more vias extending through the substrate for providing an electrical connection between the front side of the substrate and its back side, - an air or vacuum gap between the first member and the third member outside the second member , wherein the second member has a cross section area (A2) smaller than a cross section area.of the substrate and smaller than a cross section area (A1) of the first member , wherein the third member has a cross section area exceeding the cross section area (A2) of the second member . - a support arranged at a back side of the substrate for mounting the device to a carrier , wherein the support comprises a first member comprising contact pads for electrically connecting the device to the carrier , a second member in between the first member and the substrate , and a third member between the second member and the substrate , - one or more vias extending through the substrate for providing an electrical connection between the front side of the substrate and its back side, - an air or vacuum gap between the first member and the third member outside the second member ,
A method of calibrating a laser system with a treatment space, the method comprising: providing a mapping of sensor surface locations to a treatment space of the laser system, the sensor surface included within a camera of the laser system; scanning an electromagnetic radiation beam of the laser system to a series of scanning locations of a fluorescent material disposed in the treatment space by using a scanning system of the laser system to move the electromagnetic radiation beam relative to a propagation direction of the electromagnetic radiation beam, the scanning system comprising a z-scan device configured to vary a convergence depth of the electromagnetic radiation beam within the treatment space; calibrating the z-scan device of the scanning system by defining control parameters for the z-scan device for focusing the electromagnetic radiation beam of the laser system to a series of depth locations; capturing, using the camera or a confocal detector, an emitted light from the series of locations of the fluorescent material at the series of depth locations in response to the scanned electromagnetic radiation beam focusing; calibrating the scanning system with the treatment space in accordance with the captured series of locations and the mapping of the sensor surface locations to the treatment space; and mapping the treatment space to the control parameters of the z-scan device, thereby providing a calibrated laser system. providing a mapping of sensor surface locations to a treatment space of the laser system, the sensor surface included within a camera of the laser system; scanning an electromagnetic radiation beam of the laser system to a series of scanning locations of a fluorescent material disposed in the treatment space by using a scanning system of the laser system to move the electromagnetic radiation beam relative to a propagation direction of the electromagnetic radiation beam, the scanning system comprising a z-scan device configured to vary a convergence depth of the electromagnetic radiation beam within the treatment space; calibrating the z-scan device of the scanning system by defining control parameters for the z-scan device for focusing the electromagnetic radiation beam of the laser system to a series of depth locations; capturing, using the camera or a confocal detector, an emitted light from the series of locations of the fluorescent material at the series of depth locations in response to the scanned electromagnetic radiation beam focusing; calibrating the scanning system with the treatment space in accordance with the captured series of locations and the mapping of the sensor surface locations to the treatment space; and mapping the treatment space to the control parameters of the z-scan device, thereby providing a calibrated laser system.