mhurhangee/patent-ind-claim-en huggingface dataset:
A control system of a teleoperated system comprising: a hand tracking controller configured to: receive, from a hand tracking unit of a teleoperated system , hand location data of a person using a master tool grip of the teleoperated system ; generate a hand position using the hand location data, the hand position representing a position of at least part of a human hand of the person intending to use the master tool grip ; determine, based on the hand position and a position of the master tool grip , whether the hand position is within a threshold distance from a position of the master tool grip ; and a system controller configured to: permit motion of a teleoperated slave instrument of the teleoperated system if the hand position is within the threshold distance from the position of the master tool grip , the motion of the teleoperated slave instrument being based on motion of the master tool grip ; and inhibit motion of the teleoperated slave instrument if the hand position is not within the threshold distance from the position of the master tool grip . a hand tracking controller configured to: receive, from a hand tracking unit of a teleoperated system , hand location data of a person using a master tool grip of the teleoperated system ; generate a hand position using the hand location data, the hand position representing a position of at least part of a human hand of the person intending to use the master tool grip ; determine, based on the hand position and a position of the master tool grip , whether the hand position is within a threshold distance from a position of the master tool grip ; and receive, from a hand tracking unit of a teleoperated system , hand location data of a person using a master tool grip of the teleoperated system ; generate a hand position using the hand location data, the hand position representing a position of at least part of a human hand of the person intending to use the master tool grip ; determine, based on the hand position and a position of the master tool grip , whether the hand position is within a threshold distance from a position of the master tool grip ; and a system controller configured to: permit motion of a teleoperated slave instrument of the teleoperated system if the hand position is within the threshold distance from the position of the master tool grip , the motion of the teleoperated slave instrument being based on motion of the master tool grip ; and inhibit motion of the teleoperated slave instrument if the hand position is not within the threshold distance from the position of the master tool grip . permit motion of a teleoperated slave instrument of the teleoperated system if the hand position is within the threshold distance from the position of the master tool grip , the motion of the teleoperated slave instrument being based on motion of the master tool grip ; and inhibit motion of the teleoperated slave instrument if the hand position is not within the threshold distance from the position of the master tool grip .
Driver device (30") arranged to be connected to a leading edge dimmer device comprising a triac and for driving an LED load having one or more LEDs, the driver device (30") comprising: - input terminals for receiving an input voltage (V14) from an external power source for powering the load , - a current path including a controllable switch for connecting the input terminals to each other, - a measurement path (48") including at least one resistor connecting the input terminals to each other for providing an alternating voltage (V15) corresponding to the input voltage (V14) and including a measuring device for measuring the alternating voltage (V15) at the measurement path (48"), and - a controller for controlling the controllable switch on the basis of the measured alternating voltage (V15), wherein the measuring device is configured to detect a zero crossing (t z ) of the input voltage (V14), wherein the measuring device comprises a sampling unit for sampling the alternating voltage and characterized in that the controller is provided for activating the current path when the zero crossing (t z ) is detected. - input terminals for receiving an input voltage (V14) from an external power source for powering the load , - a current path including a controllable switch for connecting the input terminals to each other, - a measurement path (48") including at least one resistor connecting the input terminals to each other for providing an alternating voltage (V15) corresponding to the input voltage (V14) and including a measuring device for measuring the alternating voltage (V15) at the measurement path (48"), and - a controller for controlling the controllable switch on the basis of the measured alternating voltage (V15),
An uplink transmission method performed by a wireless device and comprising: applying a codeword cover to a signal that is to be transmitted in a narrowband physical uplink shared channel, NPUSCH, wherein the signal to be transmitted in the NPUSCH is a hybrid automatic repeat and request, HARQ acknowledgement/negative acknowledgement, ACK/NACK, information signal, and transmitting the signal to which the codeword cover is applied in the NPUSCH, wherein the codeword cover to be applied is determined between a first codeword and a second codeword, based on whether a scheduling request, SR, is to be transmitted with the signal in the NPUSCH using a NPUSCH format 2, wherein the first codeword is generated in the form of [1 -1 1 -1] and is applied when the SR needs to be transmitted with the signal in the NPUSCH, and wherein the second codeword is generated in the form of [1 1 1 1] and is applied when the SR does not need to be transmitted. applying a codeword cover to a signal that is to be transmitted in a narrowband physical uplink shared channel, NPUSCH, wherein the signal to be transmitted in the NPUSCH is a hybrid automatic repeat and request, HARQ acknowledgement/negative acknowledgement, ACK/NACK, information signal, and transmitting the signal to which the codeword cover is applied in the NPUSCH, wherein the codeword cover to be applied is determined between a first codeword and a second codeword, based on whether a scheduling request, SR, is to be transmitted with the signal in the NPUSCH using a NPUSCH format 2, wherein the first codeword is generated in the form of [1 -1 1 -1] and is applied when the SR needs to be transmitted with the signal in the NPUSCH, and wherein the second codeword is generated in the form of [1 1 1 1] and is applied when the SR does not need to be transmitted.
A method for presenting alerts of malicious activity, comprising: detecting malicious activity on a first user device connected to a router ; identifying a group of user devices connected to the router ; selecting a second user device of the group of user devices with which to present an alert of the malicious activity based on a likelihood that a user of the second user device is within a predetermined range of the second user device ; determining a characteristic of the alert based on a capability of the second user device ; and causing the alert of the malicious activity to be presented by the second user device in the determined characteristic of the alert. detecting malicious activity on a first user device connected to a router ; identifying a group of user devices connected to the router ; selecting a second user device of the group of user devices with which to present an alert of the malicious activity based on a likelihood that a user of the second user device is within a predetermined range of the second user device ; determining a characteristic of the alert based on a capability of the second user device ; and causing the alert of the malicious activity to be presented by the second user device in the determined characteristic of the alert.
A method of detecting vibration, the method comprising: sending , via an optical transmitter , an optical signal that is modified by a vibration sensor (108-118, 222, 306, 400, 500); and receiving , via an optical receiver , the optical signal from the vibration sensor, the received optical signal comprising fluctuations responsive to a vibration of the vibration sensor; wherein the optical signal includes a radio frequency 'RF' signal; wherein underground vibrations are detected with an optical assembly which comprises the vibration sensor; characterized in that the vibration sensor comprises two optical fibers having two free standing fiber ends which are free to move and vibrate, the two free standing fiber ends separated by a distance , whereby the vibration of the vibration sensor causes misalignments of the two free standing fiber ends, causing the fluctuations of the optical signal. sending , via an optical transmitter , an optical signal that is modified by a vibration sensor (108-118, 222, 306, 400, 500); and receiving , via an optical receiver , the optical signal from the vibration sensor, the received optical signal comprising fluctuations responsive to a vibration of the vibration sensor; wherein the optical signal includes a radio frequency 'RF' signal; wherein underground vibrations are detected with an optical assembly which comprises the vibration sensor; characterized in that the vibration sensor comprises two optical fibers having two free standing fiber ends which are free to move and vibrate, the two free standing fiber ends separated by a distance , whereby the vibration of the vibration sensor causes misalignments of the two free standing fiber ends, causing the fluctuations of the optical signal.
An adhesion strength measurement system for a wet electrode specimen, the adhesion strength measurement system comprising: an electrode specimen having a metal current collector and an electrode mixture layer on one or both sides of the metal current collector, the electrode specimen comprising a self-standing region ; an adhesion strength measurement unit comprising a grip part configured to grip the self-standing region of the electrode specimen , being the self-standing region the region of the electrode specimen configured to be gripped by the grip part of the adhesion strength measurement unit ; a test substrate configured to attach a surface of the mixture layer of the electrode specimen , said surface being a region other than the self-standing region ; an electrolyte solution; a fixing jig having one surface in which a recessed portion of a structure recessed to hold the electrolyte solution is formed, wherein the fixing jig is configured to fix the test substrate so that a region other than the self-standing region of the electrode specimen attached to the test substrate is immersed in the electrolyte solution, while the self-standing region is not impregnated with the electrolyte solution; and the adhesion strength measurement unit being configured to measure a force at which the mixture layer of the electrode specimen is peeled off by applying a tensile force to the gripped self-standing region of the electrode specimen ; wherein the adhesion strength measurement unit further comprises an output unit configured to output the force at which the mixture layer of the electrode specimen is peeled off an electrode specimen having a metal current collector and an electrode mixture layer on one or both sides of the metal current collector, the electrode specimen comprising a self-standing region ; an adhesion strength measurement unit comprising a grip part configured to grip the self-standing region of the electrode specimen , being the self-standing region the region of the electrode specimen configured to be gripped by the grip part of the adhesion strength measurement unit ; a test substrate configured to attach a surface of the mixture layer of the electrode specimen , said surface being a region other than the self-standing region ; an electrolyte solution; a fixing jig having one surface in which a recessed portion of a structure recessed to hold the electrolyte solution is formed, wherein the fixing jig is configured to fix the test substrate so that a region other than the self-standing region of the electrode specimen attached to the test substrate is immersed in the electrolyte solution, while the self-standing region is not impregnated with the electrolyte solution; and the adhesion strength measurement unit being configured to measure a force at which the mixture layer of the electrode specimen is peeled off by applying a tensile force to the gripped self-standing region of the electrode specimen ; wherein the adhesion strength measurement unit further comprises an output unit configured to output the force at which the mixture layer of the electrode specimen is peeled off
A medical apparatus comprising: an acquirer configured to acquire a fluoroscopic image of an object from an imager which performs imaging by irradiating the object with an electromagnetic wave to generate the fluoroscopic image; an identifier configured to identify a target position of the object in the fluoroscopic image; and a controller configured to output an irradiation permission signal to a therapeutic device which irradiates the object with a therapeutic beam in a case where the target position identified by the identifier is settled within an irradiation permission range, wherein the controller is configured to cause the therapeutic device to end a state of being capable of performing irradiation of the electromagnetic wave, in a case where a first switch is operated, and the controller is configured to cause the therapeutic device to maintain the state of being capable of performing irradiation of the electromagnetic wave and to stop irradiation of the electromagnetic wave, in a case where a second switch is operated. an acquirer configured to acquire a fluoroscopic image of an object from an imager which performs imaging by irradiating the object with an electromagnetic wave to generate the fluoroscopic image; an identifier configured to identify a target position of the object in the fluoroscopic image; and a controller configured to output an irradiation permission signal to a therapeutic device which irradiates the object with a therapeutic beam in a case where the target position identified by the identifier is settled within an irradiation permission range, wherein the controller is configured to cause the therapeutic device to end a state of being capable of performing irradiation of the electromagnetic wave, in a case where a first switch is operated, and the controller is configured to cause the therapeutic device to maintain the state of being capable of performing irradiation of the electromagnetic wave and to stop irradiation of the electromagnetic wave, in a case where a second switch is operated.
A binding molecule binding to L1, wherein the binding molecule (i) is: (a) an anti-L1 monoclonal antibody or an antigen-binding fragment thereof selected from the group consisting of Fv, Fab, F(ab') 2 , Fab', dsFv, scFv, (scFv) 2 , a diabody, a triabody, a tetrabody and a minibody, or (b) selected from the group consisting of a single chain antibody, an scFv and a multimer of scFv, a diabody, triabody or tetrabody, an antibody fragment selected from a Fab, a tandab, a flexibody and a bispecific antibody, and/or (c) a chimeric antibody, a humanized antibody, or a human antibody or an antigen-binding, and (ii) comprises the complementarity determining regions (CDRs) KASQNVGTNVA (LCDR1; SEQ ID No: 5), STSYRYS (LCDR2; SEQ ID No: 6), QQYNTYPYT (LCDR3; SEQ ID No: 7), FNIKDYYMQ (HCDR1; SEQ ID No: 8), WIDPENGKTVFDPKFRG (HCDR2; SEQ ID No: 9), and WNPLAF (HCDR3; SEQ ID No: 10), and (iii) is internalized by a SKOV3ip cell expressing L1. (i) is: (a) an anti-L1 monoclonal antibody or an antigen-binding fragment thereof selected from the group consisting of Fv, Fab, F(ab') 2 , Fab', dsFv, scFv, (scFv) 2 , a diabody, a triabody, a tetrabody and a minibody, or (b) selected from the group consisting of a single chain antibody, an scFv and a multimer of scFv, a diabody, triabody or tetrabody, an antibody fragment selected from a Fab, a tandab, a flexibody and a bispecific antibody, and/or (c) a chimeric antibody, a humanized antibody, or a human antibody or an antigen-binding, and (a) an anti-L1 monoclonal antibody or an antigen-binding fragment thereof selected from the group consisting of Fv, Fab, F(ab') 2 , Fab', dsFv, scFv, (scFv) 2 , a diabody, a triabody, a tetrabody and a minibody, or (b) selected from the group consisting of a single chain antibody, an scFv and a multimer of scFv, a diabody, triabody or tetrabody, an antibody fragment selected from a Fab, a tandab, a flexibody and a bispecific antibody, and/or (c) a chimeric antibody, a humanized antibody, or a human antibody or an antigen-binding, and (ii) comprises the complementarity determining regions (CDRs) KASQNVGTNVA (LCDR1; SEQ ID No: 5), STSYRYS (LCDR2; SEQ ID No: 6), QQYNTYPYT (LCDR3; SEQ ID No: 7), FNIKDYYMQ (HCDR1; SEQ ID No: 8), WIDPENGKTVFDPKFRG (HCDR2; SEQ ID No: 9), and WNPLAF (HCDR3; SEQ ID No: 10), and (iii) is internalized by a SKOV3ip cell expressing L1.
A composition comprising an isolated extract from Actinia equina as an active agent, wherein said composition prevents or reduces adhesion of bacteria to a surface or to each other, said composition being devoid of cytotoxic or cytostatic activity.
A method of processing cell-containing wells of a multi-well chip, the method comprising: a) dispensing a volume of cell suspension into the wells of the multi-well chip; T b) imaging the multi-well chip to acquire a plurality of images of the wells at multiple z-planes, each z-plane being defined by a z-distance along a z-axis perpendicular to the flat surface of the multi-well chip; and c) generating a map of the multi-well chip, based on the acquired plurality of images, that identifies empty wells and cell-containing wells of the multi-well chip wherein generating the map comprises combining the acquired plurality of images to produce a composite image with extended depth of focus that provides an in-focus image of all of the cells present in the wells characterized in that the method further comprises the step of: d) processing only the cells in the identified cell-containing wells of the multi-well chip. a) dispensing a volume of cell suspension into the wells of the multi-well chip; T b) imaging the multi-well chip to acquire a plurality of images of the wells at multiple z-planes, each z-plane being defined by a z-distance along a z-axis perpendicular to the flat surface of the multi-well chip; and c) generating a map of the multi-well chip, based on the acquired plurality of images, that identifies empty wells and cell-containing wells of the multi-well chip wherein generating the map comprises combining the acquired plurality of images to produce a composite image with extended depth of focus that provides an in-focus image of all of the cells present in the wells characterized in that the method further comprises the step of: d) processing only the cells in the identified cell-containing wells of the multi-well chip.
A method of well treatment comprising: introducing a fluid comprising hydraulic cement, water, and a traceable polymeric additive into a wellbore, wherein the traceable polymeric additive comprises a polymer and a tagging material, wherein the tagging material comprises a thermal neutron absorbing material; running a neutron log in the wellbore that can detect the location of the traceable polymeric additive, wherein running the neutron log comprises: lowering a neutron tool in the wellbore, wherein the neutron tool comprises: a neutron source for emitting fast neutrons into the wellbore; a long spacing thermal neutron detector; and a short spacing thermal neutron detector; emitting fast neutrons into the wellbore, whereby the fast neutrons interact with elements in the well and are thermalized thereby, wherein the thermal neutrons produced are backscattered in the well; detecting the backscattered thermal neutrons using the thermal neutron detectors in the tool; and generating a count representative of the detected thermal neutrons over one or more selected longitudinal subterranean intervals in the wellbore. introducing a fluid comprising hydraulic cement, water, and a traceable polymeric additive into a wellbore, wherein the traceable polymeric additive comprises a polymer and a tagging material, wherein the tagging material comprises a thermal neutron absorbing material; running a neutron log in the wellbore that can detect the location of the traceable polymeric additive, wherein running the neutron log comprises: lowering a neutron tool in the wellbore, wherein the neutron tool comprises: a neutron source for emitting fast neutrons into the wellbore; a long spacing thermal neutron detector; and a short spacing thermal neutron detector; emitting fast neutrons into the wellbore, whereby the fast neutrons interact with elements in the well and are thermalized thereby, wherein the thermal neutrons produced are backscattered in the well; detecting the backscattered thermal neutrons using the thermal neutron detectors in the tool; and generating a count representative of the detected thermal neutrons over one or more selected longitudinal subterranean intervals in the wellbore. lowering a neutron tool in the wellbore, wherein the neutron tool comprises: a neutron source for emitting fast neutrons into the wellbore; a long spacing thermal neutron detector; and a short spacing thermal neutron detector; a neutron source for emitting fast neutrons into the wellbore; a long spacing thermal neutron detector; and a short spacing thermal neutron detector; emitting fast neutrons into the wellbore, whereby the fast neutrons interact with elements in the well and are thermalized thereby, wherein the thermal neutrons produced are backscattered in the well; detecting the backscattered thermal neutrons using the thermal neutron detectors in the tool; and generating a count representative of the detected thermal neutrons over one or more selected longitudinal subterranean intervals in the wellbore.
A clot removal device , comprising: a shaft; and an expandable elongate clot engagement element having one end connected to the shaft and an open distal end remote from the end connected to the shaft , the expandable elongate clot engagement element comprising a coil having one or more windings having a constant pitch and radius, enabling the clot to be encircled from a proximal side of the clot location and drawn at least partly into the elongate clot engagement element , by rotation of the expandable elongate clot engagement element relative to the clot ; the shaft and expandable elongate clot engagement element having a principal longitudinal axis ; wherein the distal end comprises an end formation forming a curved contact surface at the distal end ; and wherein the end formation is displaced to one side of the principal longitudinal axis and comprises a J-shaped curved section of the engagement element. a shaft; and an expandable elongate clot engagement element having one end connected to the shaft and an open distal end remote from the end connected to the shaft , the expandable elongate clot engagement element comprising a coil having one or more windings having a constant pitch and radius, enabling the clot to be encircled from a proximal side of the clot location and drawn at least partly into the elongate clot engagement element , by rotation of the expandable elongate clot engagement element relative to the clot ; the shaft and expandable elongate clot engagement element having a principal longitudinal axis ; wherein the distal end comprises an end formation forming a curved contact surface at the distal end ; and wherein the end formation is displaced to one side of the principal longitudinal axis and comprises a J-shaped curved section of the engagement element.