mhurhangee/patent-ind-claim-en huggingface dataset:
Tool comprising a sealing portion for downhole sealing a through hole of a coiled tubing logging plug and a retrieving portion for retrieving the coiled tubing logging plug from the downhole wherein the retrieving portion is connected with the sealing portion and wherein the sealing portion and the retrieving portion are configured and formed to be insertable into the through hole of the coiled tubing logging plug , wherein the retrieving portion comprises an other tool body and a retrieving element that is movable relative to the other tool body , wherein the retrieving element comprises an element body and a collapsible portion that is movable relative to the element body and is arranged in a retrieving position when the tool retrieves the coiled tubing logging plug wherein the retrieving element seats on the other tool body when the retrieving element is in the retrieving position.
A mobile device for handling objects each being provided with an object-specific radio frequency identifier (105-107), the mobile device comprising a radio frequency identifier reader configured to receive radiation emitted by the object-specific radio frequency identifiers and radiation emitted by fixed radio frequency identifiers attached to one or more fixed structures located in an operating environment of the mobile device, characterized in that the mobile device further comprises a processing system configured to: - compute a speed estimate for the mobile device based on a distance (s) between first and second ones of the fixed radio frequency identifiers and a time-difference (t 2 - t 1 ) between receptions of radiation from the first and second ones of the fixed radio frequency identifiers, - determine, based on radiation received from each of the object-specific radio frequency identifiers, a movement indicator indicative of movement of the mobile device with respect to the object provided with the object-specific radio frequency identifier under consideration, and - classify a first one of the objects to be an object belonging to a load of the mobile device and a second one of the objects to be an object non-belonging to the load of the mobile device in response to a situation in which i) the computed speed estimate exceeds a threshold and ii) the movement indicator related to the second one of the objects is indicative of a greater movement speed than the movement indicator related to the first one of the objects. - compute a speed estimate for the mobile device based on a distance (s) between first and second ones of the fixed radio frequency identifiers and a time-difference (t 2 - t 1 ) between receptions of radiation from the first and second ones of the fixed radio frequency identifiers, - determine, based on radiation received from each of the object-specific radio frequency identifiers, a movement indicator indicative of movement of the mobile device with respect to the object provided with the object-specific radio frequency identifier under consideration, and - classify a first one of the objects to be an object belonging to a load of the mobile device and a second one of the objects to be an object non-belonging to the load of the mobile device in response to a situation in which i) the computed speed estimate exceeds a threshold and ii) the movement indicator related to the second one of the objects is indicative of a greater movement speed than the movement indicator related to the first one of the objects.
An array substrate, comprising a flexible substrate divided into a display region and a periphery region , the periphery region surrounding the display region ; wherein, the array substrate further comprises: an array layer and a first film layer sequentially formed in the display region on the flexible substrate ; a plurality of integrate circuits and a flexible printed circuit board interface formed in the periphery region on the flexible substrate ; and a flexible protective film layer formed at a junction of the periphery region and the first film layer and in a region of the periphery region other than the integrate circuits and the flexible printed circuit board interface on the flexible substrate; wherein the flexible protective film layer has a material of epoxy resin adhesive, silicone adhesive or UV-curable adhesive; characterized in that a viscosity range of the flexible protective film layer is 40-50 Pa·s; a shear strength of the flexible protective film layer after curing is 25-35 MPa; and a peeling strength of the flexible protective film layer after curing is 9-12 KN/m. an array layer and a first film layer sequentially formed in the display region on the flexible substrate ; a plurality of integrate circuits and a flexible printed circuit board interface formed in the periphery region on the flexible substrate ; and a flexible protective film layer formed at a junction of the periphery region and the first film layer and in a region of the periphery region other than the integrate circuits and the flexible printed circuit board interface on the flexible substrate; wherein the flexible protective film layer has a material of epoxy resin adhesive, silicone adhesive or UV-curable adhesive; characterized in that a viscosity range of the flexible protective film layer is 40-50 Pa·s; a shear strength of the flexible protective film layer after curing is 25-35 MPa; and a peeling strength of the flexible protective film layer after curing is 9-12 KN/m.
A WiGig Display Extension, WDE, capable device operating as a WiFi Direct Services, WFDS, service seeker , comprising: a memory; and logic, at least a portion of which is implemented in baseband circuitry coupled to the memory, the logic adapted to: determine an advertisement identifier 'ID' associated with a WDE service advertised by a WDE device ; generate a Peer-to-Peer 'P2P' Provision Discovery Request frame for transmission to the WDE device to initiate a procedure for establishing a P2P connection with the WDE device ; generate an Application Service Platform 'ASP' REQUEST_SESSION message for transmission to the WDE device to initiate a procedure for creating an ASP session with the WDE device , the ASP REQUEST_SESSION message to comprise the advertisement ID associated with the WDE service; and following a determination that the ASP session is open, exchange WDE protocol data with the WDE device via the P2P connection. a memory; and logic, at least a portion of which is implemented in baseband circuitry coupled to the memory, the logic adapted to: determine an advertisement identifier 'ID' associated with a WDE service advertised by a WDE device ; generate a Peer-to-Peer 'P2P' Provision Discovery Request frame for transmission to the WDE device to initiate a procedure for establishing a P2P connection with the WDE device ; generate an Application Service Platform 'ASP' REQUEST_SESSION message for transmission to the WDE device to initiate a procedure for creating an ASP session with the WDE device , the ASP REQUEST_SESSION message to comprise the advertisement ID associated with the WDE service; and following a determination that the ASP session is open, exchange WDE protocol data with the WDE device via the P2P connection. determine an advertisement identifier 'ID' associated with a WDE service advertised by a WDE device ; generate a Peer-to-Peer 'P2P' Provision Discovery Request frame for transmission to the WDE device to initiate a procedure for establishing a P2P connection with the WDE device ; generate an Application Service Platform 'ASP' REQUEST_SESSION message for transmission to the WDE device to initiate a procedure for creating an ASP session with the WDE device , the ASP REQUEST_SESSION message to comprise the advertisement ID associated with the WDE service; and following a determination that the ASP session is open, exchange WDE protocol data with the WDE device via the P2P connection.
A connecting device for control terminals in a withdrawable type circuit breaker, the device comprising a cradle-side control terminal module configured to be horizontally installed on a cradle to be slidable thereon, a main body-side control terminal module configured to be provided on a breaker main body to be contactable with or separated from the cradle-side control terminal module , and a blocking unit restricting or allowing a motion of the cradle-side control terminal module , characterized in that the blocking unit comprises: a latch release plate configured to be fixed to a side surface of the breaker main body and provided with a contact surface on one surface thereof, the contact surface having a flat portion and an inclined portion ; and a latch configured to be rotatably disposed on a side surface of the cradle and performing a sliding or rotational motion while moving along the contact surface , wherein the latch comprises a restricting portion formed on one end thereof and brought into contact with the cradle-side control terminal module to restrict the movement of the cradle-side control terminal module , and a contact portion formed on another end thereof and moving along an upper surface of the contact surface . a latch release plate configured to be fixed to a side surface of the breaker main body and provided with a contact surface on one surface thereof, the contact surface having a flat portion and an inclined portion ; and a latch configured to be rotatably disposed on a side surface of the cradle and performing a sliding or rotational motion while moving along the contact surface , wherein the latch comprises a restricting portion formed on one end thereof and brought into contact with the cradle-side control terminal module to restrict the movement of the cradle-side control terminal module , and a contact portion formed on another end thereof and moving along an upper surface of the contact surface .
A filter assembly for use in an insufflation system , said filter assembly being positioned in use between a humidification apparatus and a patient , said filter assembly comprising: a filter medium operative to filter humidified gases; a housing comprising an inlet, an outlet and said filter medium , said housing defining a gases flow path through said filter medium between said inlet and said outlet; and at least one heating element being positioned in said housing and being configured to heat said humidified gases flowing through said gases flow path; wherein, said at least one heating element is positioned in said gases flow path downstream from said filter medium . a filter medium operative to filter humidified gases; a housing comprising an inlet, an outlet and said filter medium , said housing defining a gases flow path through said filter medium between said inlet and said outlet; and at least one heating element being positioned in said housing and being configured to heat said humidified gases flowing through said gases flow path; wherein, said at least one heating element is positioned in said gases flow path downstream from said filter medium .
A dishwashing detergent, characterized in that it contains at least one cyclic compound having at least two carboxylate groups, and at least one phosphorus-free builder and from 0.5 to 20 wt.% phosphonate(s), the phosphorus-free builder being selected from the group consisting of citrate, (hydrogen) carbonate, MGDA (methyl glycine diacetic acid), GLDA (glutamic acid diacetate), ASDA (aspartic acid diacetate), HEIDA (hydroxyethyliminodiacetate), IDS (iminodisuccinate) and EDDS (ethylenediamine disuccinate), and mixtures thereof.
A delivery device for loading, delivering and deploying an implant, wherein the delivery device comprises a handle , an inner tubular core , a sheath tube , a guide tip , an inner tube , an anchor , a transition member , and a bending controllable tube , wherein the inner tubular core is coupled, at a proximal end thereof, to an inner tubular core actuation member arranged in the handle , wherein the guide tip is disposed at a distal end of the inner tubular core and fixedly connected to a distal end of the sheath tube , and wherein the sheath tube is configured to press and retain the implant, and is sleeved over the inner tubular core ; wherein the inner tube is disposed between the inner tubular core and the sheath tube , and the inner tube is fixed, at a proximal end thereof, to an inner tube fastener arranged in the handle ; wherein the anchor is in fixed connection with a distal end of the inner tube and is configured to retain the implant; wherein the transition member is configured as a tubular structure sleeved over the inner tube ; the transition member is disposed within the sheath tube ; and the transition member and the sheath tube are partially fitted against each other; wherein the transition member comprises a transition section , wherein the transition section is configured as a hollow protrusion, and the transition section is smoothly and detachably coupled, at a distal end thereof, to the proximal end of the sheath tube ; wherein the bending controllable tube is fixed, at a distal end thereof, to a proximal end of the transition section ; the bending controllable tube is coupled, at a proximal end thereof, to a bending controllable tube actuation member arranged in the handle ; and the bending controllable tube comprises a bending control mechanism adapted to adjust an angle of deflection from an axial direction of the bending controllable tube . wherein the inner tube is disposed between the inner tubular core and the sheath tube , and the inner tube is fixed, at a proximal end thereof, to an inner tube fastener arranged in the handle ; wherein the anchor is in fixed connection with a distal end of the inner tube and is configured to retain the implant; wherein the transition member is configured as a tubular structure sleeved over the inner tube ; the transition member is disposed within the sheath tube ; and the transition member and the sheath tube are partially fitted against each other; wherein the transition member comprises a transition section , wherein the transition section is configured as a hollow protrusion, and the transition section is smoothly and detachably coupled, at a distal end thereof, to the proximal end of the sheath tube ; wherein the bending controllable tube is fixed, at a distal end thereof, to a proximal end of the transition section ; the bending controllable tube is coupled, at a proximal end thereof, to a bending controllable tube actuation member arranged in the handle ; and the bending controllable tube comprises a bending control mechanism adapted to adjust an angle of deflection from an axial direction of the bending controllable tube .
A respiratory information acquisition device configured to acquire respiratory information of a patient used in an oxygen concentrator comprising an oxygen generation unit which has adsorption columns having therein an adsorbent configured to adsorb at least nitrogen gas in air and configured to use a pressure swing adsorption method to concentrate oxygen in air by periodically repeating pressurization and depressurization in the adsorption columns, and an oxygen supply unit configured to supply concentrated oxygen gas which has been concentrated by the oxygen generation unit to the patient, which is a user, wherein the oxygen supply unit has at least a conduit for delivering the concentrated oxygen gas to the patient, the respiratory information acquisition device comprises a pressure detection unit configured to detect pressure in the conduit and/or a flow rate detection unit configured to detect a gas flow rate in the conduit, as well as a calculation unit configured to extract oxygen respiratory information from detected pressure data and/or flow rate data, and the calculation unit is configured to estimate a fluctuation component which does not depend on the respiration of the patient based on the detected pressure data and/or flow rate data and information related to an operation state of the oxygen concentrator obtained from the oxygen concentrator, and to extract respiratory information by removing the estimated fluctuation component from the detected pressure data and/or flow rate data. the oxygen supply unit has at least a conduit for delivering the concentrated oxygen gas to the patient, the respiratory information acquisition device comprises a pressure detection unit configured to detect pressure in the conduit and/or a flow rate detection unit configured to detect a gas flow rate in the conduit, as well as a calculation unit configured to extract oxygen respiratory information from detected pressure data and/or flow rate data, and the calculation unit is configured to estimate a fluctuation component which does not depend on the respiration of the patient based on the detected pressure data and/or flow rate data and information related to an operation state of the oxygen concentrator obtained from the oxygen concentrator, and to extract respiratory information by removing the estimated fluctuation component from the detected pressure data and/or flow rate data.
A method of identifying subject specific T cell receptor (TCR) pairs suitable for subject specific cancer therapy, the method comprising: (a) determining by single cell sequencing the sequences encoding the TCR pairs on individual cells in a population of T cells isolated from a human subject; (b) transfecting or transducing T cells with the sequences encoding individual TCR pairs determined in (a); and (c) using the T cells from (b) to assay binding of the subject specific TCR pairs to subject specific neoepitopes and selecting the TCR pairs that bind to subject specific neoepitopes. (a) determining by single cell sequencing the sequences encoding the TCR pairs on individual cells in a population of T cells isolated from a human subject; (b) transfecting or transducing T cells with the sequences encoding individual TCR pairs determined in (a); and (c) using the T cells from (b) to assay binding of the subject specific TCR pairs to subject specific neoepitopes and selecting the TCR pairs that bind to subject specific neoepitopes.
Director mount arrangement for automatic alignment of a subsystem relative to a platform , wherein said director mount arrangement is arranged mountable to the platform and to pivotably support the subsystem, said director mount arrangement comprising: - a pivot frame arrangement for pivotably supporting the subsystem, and - a control system for controllably orienting and stabilizing the subsystem, wherein said control system comprises: - servomotors arranged to control the orientation of and stabilize the subsystem, and - a control unit arranged to generate control signals, for the servomotors, based on angular rate information, indicative of the angular rate of the subsystem, received from one or more angular rate sensors arranged in connection to the subsystem, and based on orientation operating command information, indicative of a desired orientation of the subsystem, provided from an operator of the subsystem, characterized in that the control unit is arranged connectable to a main gyro of the platform in order to receive platform orientation information, indicative of the orientation of the platform, wherein the control unit is further arranged to generate estimates of the control signals based on the platform orientation information and determine a difference between the control signals and the estimated control signals, said difference being indicative of mechanical misalignments (dP, dR) of the subsystem relative to the platform, said control unit is further arranged to generate alignment corrections based on the determined difference, wherein said alignment corrections compensate for the mechanical misalignments so as to automatically align the subsystem relative to the platform. - a pivot frame arrangement for pivotably supporting the subsystem, and - a control system for controllably orienting and stabilizing the subsystem, wherein said control system comprises: - servomotors arranged to control the orientation of and stabilize the subsystem, and - a control unit arranged to generate control signals, for the servomotors, based on angular rate information, indicative of the angular rate of the subsystem, received from one or more angular rate sensors arranged in connection to the subsystem, and based on orientation operating command information, indicative of a desired orientation of the subsystem, provided from an operator of the subsystem, - servomotors arranged to control the orientation of and stabilize the subsystem, and - a control unit arranged to generate control signals, for the servomotors, based on angular rate information, indicative of the angular rate of the subsystem, received from one or more angular rate sensors arranged in connection to the subsystem, and based on orientation operating command information, indicative of a desired orientation of the subsystem, provided from an operator of the subsystem,
A method for providing a data link between a small cell node and a user equipment, UE, in a heterogeneous wireless network, the method being executed by the small cell node, the method comprising: • sending reference signals in downlink to the UE, each reference signal being allocated to a different beam (step 108); • receiving an assignment from a macro cell node for monitoring an access signal, wherein the assignment for monitoring the access signal comprises an assignment for monitoring a reception of the access signal in a designated beam among the different beams and in a designated time slot (step 112); • monitoring the reception of the access signal in the designated time slot and in the designated beam, and detecting the reception of the access signal from the UE in the designated time slot and in the designated beam (step 116); characterized by the method further comprising: • receiving an instruction from the macro cell node, wherein the instruction indicates that the small cell node is to stop sending a reference signal on the designated beam as long as the designated beam is occupied by the UE to avoid access requests received at the small cell node from new UEs on the designated beam, • stopping sending the reference signal of the designated beam to avoid access requests from the new UEs on the designated beam as long as the UE occupies the designated beam. • sending reference signals in downlink to the UE, each reference signal being allocated to a different beam (step 108); • receiving an assignment from a macro cell node for monitoring an access signal, wherein the assignment for monitoring the access signal comprises an assignment for monitoring a reception of the access signal in a designated beam among the different beams and in a designated time slot (step 112); • monitoring the reception of the access signal in the designated time slot and in the designated beam, and detecting the reception of the access signal from the UE in the designated time slot and in the designated beam (step 116); characterized by the method further comprising: • receiving an instruction from the macro cell node, wherein the instruction indicates that the small cell node is to stop sending a reference signal on the designated beam as long as the designated beam is occupied by the UE to avoid access requests received at the small cell node from new UEs on the designated beam, • stopping sending the reference signal of the designated beam to avoid access requests from the new UEs on the designated beam as long as the UE occupies the designated beam. • receiving an instruction from the macro cell node, wherein the instruction indicates that the small cell node is to stop sending a reference signal on the designated beam as long as the designated beam is occupied by the UE to avoid access requests received at the small cell node from new UEs on the designated beam, • stopping sending the reference signal of the designated beam to avoid access requests from the new UEs on the designated beam as long as the UE occupies the designated beam.