mhurhangee/patent-ind-claim-en huggingface dataset:
A drill guide system, comprising: a bone plate including a plurality of bone screw openings sized to receive bone screws ; a guide block including at least two drill guide passages extending therethrough, the guide block selectively and removably engaged with the bone plate wherein the drill guide passages are substantially aligned with corresponding ones of the bone screw openings in the bone plate , each of the drill guide passages having a conically-shaped inner guide surface ; a fixed angle drill guide including a distal portion selectively positioned within a selected one of the drill guide passages in the guide block and having a conically-shaped outer guide surface matingly engaged with the conically-shaped inner guide surface of a selected drill guide passage to maintain orientation of the fixed angle drill guide at a predetermined fixed angular orientation relative to the guide block and the bone plate ; and a variable angle drill guide including a distal portion selectively positioned within a selected one of the drill guide passages in the guide block and having an outer guide surface sized smaller than the conically-shaped inner guide surface of a selected drill guide passage to permit orientation of the variable angle drill guide at a variable angular orientation relative to the guide block and the bone plate . a bone plate including a plurality of bone screw openings sized to receive bone screws ; a guide block including at least two drill guide passages extending therethrough, the guide block selectively and removably engaged with the bone plate wherein the drill guide passages are substantially aligned with corresponding ones of the bone screw openings in the bone plate , each of the drill guide passages having a conically-shaped inner guide surface ; a fixed angle drill guide including a distal portion selectively positioned within a selected one of the drill guide passages in the guide block and having a conically-shaped outer guide surface matingly engaged with the conically-shaped inner guide surface of a selected drill guide passage to maintain orientation of the fixed angle drill guide at a predetermined fixed angular orientation relative to the guide block and the bone plate ; and a variable angle drill guide including a distal portion selectively positioned within a selected one of the drill guide passages in the guide block and having an outer guide surface sized smaller than the conically-shaped inner guide surface of a selected drill guide passage to permit orientation of the variable angle drill guide at a variable angular orientation relative to the guide block and the bone plate .
A lens moving apparatus comprising: a housing ; a bobbin disposed in the housing; a magnet disposed at the housing; a first coil disposed at the bobbin, the first coil being moved in an optical-axis direction via interaction with the magnet; an elastic member coupled both to the bobbin and to the housing; a second coil , to which a first drive signal is applied, the second coil moving the housing in a direction perpendicular to the optical-axis direction via the interaction with the magnet ; a position sensor for detecting an intensity of a magnetic field of the magnet depending on movement of the housing ; and a third coil , to which a second drive signal is applied and which is disposed so as to correspond to the position sensor, characterized in that a part of the position sensor overlaps with the second coil in the optical-axis direction, and in that at least part of the third coil overlaps the position sensor in the optical-axis direction and at least part of the third coil overlaps the second coil in the optical-axis direction, and in that a first magnetic field of the second coil , which is generated in response to the first drive signal, and a second magnetic field of the third coil , which is generated in response to the second drive signal, are directed so as to counteract each other. a housing ; a bobbin disposed in the housing; a magnet disposed at the housing; a first coil disposed at the bobbin, the first coil being moved in an optical-axis direction via interaction with the magnet; an elastic member coupled both to the bobbin and to the housing; a second coil , to which a first drive signal is applied, the second coil moving the housing in a direction perpendicular to the optical-axis direction via the interaction with the magnet ; a position sensor for detecting an intensity of a magnetic field of the magnet depending on movement of the housing ; and a third coil , to which a second drive signal is applied and which is disposed so as to correspond to the position sensor, characterized in that a part of the position sensor overlaps with the second coil in the optical-axis direction, and in that at least part of the third coil overlaps the position sensor in the optical-axis direction and at least part of the third coil overlaps the second coil in the optical-axis direction, and in that a first magnetic field of the second coil , which is generated in response to the first drive signal, and a second magnetic field of the third coil , which is generated in response to the second drive signal, are directed so as to counteract each other. characterized in that a part of the position sensor overlaps with the second coil in the optical-axis direction, and in that at least part of the third coil overlaps the position sensor in the optical-axis direction and at least part of the third coil overlaps the second coil in the optical-axis direction, and in that a first magnetic field of the second coil , which is generated in response to the first drive signal, and a second magnetic field of the third coil , which is generated in response to the second drive signal, are directed so as to counteract each other.
A User Equipment , UE, comprising a transmission and/or reception unit and a control unit , wherein the transmission and/or reception unit is configured to: in a registration procedure, transmit a Registration request message including Single Network Slice Selection Assistance information, S-NSSAI, to an Access and Mobility Management Function , AMF; and receive a response message to the Registration request message, the response message including first identification information or second identification information from the AMF , the control unit is configured to: add the S-NSSAI in a prohibition list in a case that the first identification information or the second identification information is received, wherein: the first identification information indicates that the S-NSSAI is prohibited in a current Public Land Mobile Network, PLMN, and the second identification information indicates that the S-NSSAI is prohibited in a current registration area. in a registration procedure, transmit a Registration request message including Single Network Slice Selection Assistance information, S-NSSAI, to an Access and Mobility Management Function , AMF; and receive a response message to the Registration request message, the response message including first identification information or second identification information from the AMF , transmit a Registration request message including Single Network Slice Selection Assistance information, S-NSSAI, to an Access and Mobility Management Function , AMF; and receive a response message to the Registration request message, the response message including first identification information or second identification information from the AMF , the control unit is configured to: add the S-NSSAI in a prohibition list in a case that the first identification information or the second identification information is received, wherein: the first identification information indicates that the S-NSSAI is prohibited in a current Public Land Mobile Network, PLMN, and the second identification information indicates that the S-NSSAI is prohibited in a current registration area. the first identification information indicates that the S-NSSAI is prohibited in a current Public Land Mobile Network, PLMN, and the second identification information indicates that the S-NSSAI is prohibited in a current registration area.
A method for wireless communications by a user equipment, UE, comprising: determining a frequency location of a channel, located in a narrowband region of a wider system bandwidth, a number of antenna ports, and a deployment mode for narrowband communications with a base station of a cell , wherein the determining the frequency location of the channel comprises: receiving a master information block, MIB, the MIB comprising a first field and the number of antenna ports; based on the number of antenna ports, determining the deployment mode and determining that the first field signals a physical resource block, PRB, position with respect to a center frequency of a wideband cell that uses the wider system bandwidth, wherein a cell identifier, ID, for the cell is the same as a cell ID for the wideband cell; and determining, based on the first field, the PRB position, and determining the frequency location of the one channel based at least in part on the PRB position, and communicating with the base station , based at least in part on the cell ID, the frequency location of the channel, the number of antenna ports, and the deployment mode. determining a frequency location of a channel, located in a narrowband region of a wider system bandwidth, a number of antenna ports, and a deployment mode for narrowband communications with a base station of a cell , wherein the determining the frequency location of the channel comprises: receiving a master information block, MIB, the MIB comprising a first field and the number of antenna ports; based on the number of antenna ports, determining the deployment mode and determining that the first field signals a physical resource block, PRB, position with respect to a center frequency of a wideband cell that uses the wider system bandwidth, wherein a cell identifier, ID, for the cell is the same as a cell ID for the wideband cell; and determining, based on the first field, the PRB position, and determining the frequency location of the one channel based at least in part on the PRB position, and receiving a master information block, MIB, the MIB comprising a first field and the number of antenna ports; based on the number of antenna ports, determining the deployment mode and determining that the first field signals a physical resource block, PRB, position with respect to a center frequency of a wideband cell that uses the wider system bandwidth, wherein a cell identifier, ID, for the cell is the same as a cell ID for the wideband cell; and determining, based on the first field, the PRB position, and determining the frequency location of the one channel based at least in part on the PRB position, and communicating with the base station , based at least in part on the cell ID, the frequency location of the channel, the number of antenna ports, and the deployment mode.
A compound harmonic drive , comprising: a flexible ring having an inner surface and an outer surface ; a first flexible gear disposed around the outer surface of the flexible ring and coaxial to the flexible ring ; a second flexible gear disposed around the outer surface of the flexible ring and coaxial to the flexible ring ; a first ring gear that meshes with the first flexible gear and is coaxial to the first flexible gear ; and a second ring gear that meshes with the second flexible gear and is coaxial to the second flexible gear ; characterized in that the first flexible gear and second flexible gear are fixedly attached to the outer surface of the flexible ring by a brazed joint , wherein the first flexible gear the second flexible gear , and the flexible ring are three separate components that are brazed together. a flexible ring having an inner surface and an outer surface ; a first flexible gear disposed around the outer surface of the flexible ring and coaxial to the flexible ring ; a second flexible gear disposed around the outer surface of the flexible ring and coaxial to the flexible ring ; a first ring gear that meshes with the first flexible gear and is coaxial to the first flexible gear ; and a second ring gear that meshes with the second flexible gear and is coaxial to the second flexible gear ; characterized in that the first flexible gear and second flexible gear are fixedly attached to the outer surface of the flexible ring by a brazed joint , wherein the first flexible gear the second flexible gear , and the flexible ring are three separate components that are brazed together.
Method for producing a rack for a steering gear of a motor vehicle, said rack having at least one toothed portion having a toothing , and at least one shaft portion having at least one threaded portion having a coaxial thread which has a thread length in the direction of a longitudinal axis (L), wherein separate segments comprising at least one in each case bar-shaped toothed segment and one shaft segment are provided, are aligned on a common longitudinal axis (L), and are connected to one another at a joint , characterized by the steps: - providing a shaft raw material piece having a piece length (G) of a multiple of the shaft segment length (Is); - generating a thread that is continuous in the longitudinal direction on the shaft raw material piece across a multiple of the thread length, in order for a threaded semi-finished product to be produced; - cutting-to-length a threaded segment from the threaded semi-finished product ; - providing a toothed segment ; - joining the threaded segment to the toothed segment . - providing a shaft raw material piece having a piece length (G) of a multiple of the shaft segment length (Is); - generating a thread that is continuous in the longitudinal direction on the shaft raw material piece across a multiple of the thread length, in order for a threaded semi-finished product to be produced; - cutting-to-length a threaded segment from the threaded semi-finished product ; - providing a toothed segment ; - joining the threaded segment to the toothed segment .
A security arrangement adapted to improve heat dissipation from circuit board components on a computer circuit board , wherein a plurality of said circuit components are embedded in a security shield formed by a potting on at least one surface of said circuit board and thermally connected to at least one heat exchanger device , wherein said heat exchanger device is located at a distance from said security shield , and that at least a plurality of said circuit components are thermally connected with said at least one heat exchanger device via at least one heat dissipating lead to enhance cooling of said circuit board components , wherein said at least one heat dissipating lead is formed as an elongated heat conducting member, having at least one part attached within said security shield and another part thermally connected to said heat exchanger device .
A transmission method, applied to a station, comprising: receiving, from an access point, a radio frame for triggering the station to perform uplink multi-user transmission; using indication information included in the radio frame to identify a frame type of the radio frame; upon identifying that the frame type corresponds to a trigger frame to multiple stations belonging to multiple basic service sets, BSSs, responding to the trigger frame by performing uplink multi-user transmission, wherein a receiving address of a response frame is set as a BSSID of the BSS to which the station belongs, and wherein a sending address of the radio frame includes 44 higher bits of a Media Access Control, MAC, address of the access point with lower 4 bits set to 0; and sending uplink multi-user data to the access point. receiving, from an access point, a radio frame for triggering the station to perform uplink multi-user transmission; using indication information included in the radio frame to identify a frame type of the radio frame; upon identifying that the frame type corresponds to a trigger frame to multiple stations belonging to multiple basic service sets, BSSs, responding to the trigger frame by performing uplink multi-user transmission, wherein a receiving address of a response frame is set as a BSSID of the BSS to which the station belongs, and wherein a sending address of the radio frame includes 44 higher bits of a Media Access Control, MAC, address of the access point with lower 4 bits set to 0; and sending uplink multi-user data to the access point.
A dye molecule having the structure: where: R 1 is constituted of an SO 3 - group bound with an ionic bond to a hydrogen H atom or to another atom or to an ammonium NH 4 group or to a lysine salt or to an arginine salt or to a different monovalent cation; and R 2 is constituted of an SO 3 - group. R 1 is constituted of an SO 3 - group bound with an ionic bond to a hydrogen H atom or to another atom or to an ammonium NH 4 group or to a lysine salt or to an arginine salt or to a different monovalent cation; and R 2 is constituted of an SO 3 - group.
A manufacturing method for electrodes of a piezoelectric element, comprising the following steps: a) molding piezoelectric material according to specifications; b) coating, sputtering or evaporating conductive slurry on upper and lower surfaces of the molded piezoelectric material; c) polarizing the piezoelectric material coated with the conductive slurry; d) removing the coating of the conductive slurry on the surfaces of the piezoelectric material; e) spraying graphite on the surfaces of the piezoelectric material which has the coating removed to form electrodes, and adjusting the roughness of the sprayed surfaces; f) connecting electrode lead wires on the surfaces of the electrodes, to output a signal generated by piezoelectric effect thereof.
A computer-implemented method for evaluating stacked seismic trace data, the method comprising: isolating a portion of each of a plurality of seismic traces representing physical properties of a subsurface region by analyzing instantaneous frequency data for the seismic traces; the method being characterized in calculating simple sweet values for the seismic traces based on IA/(IF) 1/2 , where IF represents one or more instantaneous frequency attributes and IA represents one or more instantaneous amplitude attributes; blending the calculated simple sweet values with instantaneous phase information for the seismic traces; calculating simple tuned values for the seismic traces based on IA*IF; blending the calculated simple tuned values with instantaneous phase information for the seismic traces; and cross-plotting the blended simple sweet and instantaneous phase information with the blended simple tuned and instantaneous phase information to identify high probability zones that are likely to comprise hydrocarbon resources. isolating a portion of each of a plurality of seismic traces representing physical properties of a subsurface region by analyzing instantaneous frequency data for the seismic traces; the method being characterized in calculating simple sweet values for the seismic traces based on IA/(IF) 1/2 , where IF represents one or more instantaneous frequency attributes and IA represents one or more instantaneous amplitude attributes; blending the calculated simple sweet values with instantaneous phase information for the seismic traces; calculating simple tuned values for the seismic traces based on IA*IF; blending the calculated simple tuned values with instantaneous phase information for the seismic traces; and cross-plotting the blended simple sweet and instantaneous phase information with the blended simple tuned and instantaneous phase information to identify high probability zones that are likely to comprise hydrocarbon resources.
A hybrid currency banknote, comprising: a banknote comprising visible markings on a flexible substrate; one or more inorganic light-emitting diodes embedded in or on the flexible substrate; a controller embedded in or on the flexible substrate electrically connected to the one or more light-emitting diodes for controlling the one or more light-emitting diodes to emit viewable light; a power input connection electrically connected to the controller, or one or more light-emitting diodes, or both; and a power source embedded in or on the flexible substrate and connected to the power input connection, characterised in that (i) the one or more light-emitting diodes are very small, so as to be effectively invisible to the unaided human eye and (ii) the one or more light-emitting diodes and the controller each comprise at least a portion of a tether. a banknote comprising visible markings on a flexible substrate; one or more inorganic light-emitting diodes embedded in or on the flexible substrate; a controller embedded in or on the flexible substrate electrically connected to the one or more light-emitting diodes for controlling the one or more light-emitting diodes to emit viewable light; a power input connection electrically connected to the controller, or one or more light-emitting diodes, or both; and a power source embedded in or on the flexible substrate and connected to the power input connection, characterised in that (i) the one or more light-emitting diodes are very small, so as to be effectively invisible to the unaided human eye and (ii) the one or more light-emitting diodes and the controller each comprise at least a portion of a tether.
A photonic spectrometry device , comprising several identical sensors , each sensor being capable of detecting photons, at least two photon-emitting calibrating sources (S1, S2) having different reference spectral lines, each sensor statistically receiving substantially a same quantity of photons coming from each calibrating source (S1, S2) for a same time interval, and processing means capable of providing, for each sensor , a measurement spectrum corresponding to the measurements, made by each sensor , of the radiation from a product and each calibrating source (S1, S2) during a time interval and establishing, on the basis of each measurement spectrum, a net corrected spectrum by recalibrating each measurement spectrum so as to make, for each calibrating source (S1, S2), a characteristic spectral line measured by each sensor coincide with the reference spectral line of that calibrating source (S1, S2).