mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving (S101) a depth map at a location in a path network; retrieving or obtaining (S103) feature geometries of a fingerprint from a fingerprint database, the fingerprint being in proximity to the location in the path network; orienting (S105), using a processor, the depth map with the feature geometries of the fingerprint; comparing (S107) control points of an extracted, oriented feature geometry from the depth map with control points within the fingerprint; and calculating (S109) an individual match rate for the oriented feature geometry based on an average deviation in distance between each control point of the oriented feature geometry from the depth map and respective control points in the fingerprint. receiving (S101) a depth map at a location in a path network; retrieving or obtaining (S103) feature geometries of a fingerprint from a fingerprint database, the fingerprint being in proximity to the location in the path network; orienting (S105), using a processor, the depth map with the feature geometries of the fingerprint; comparing (S107) control points of an extracted, oriented feature geometry from the depth map with control points within the fingerprint; and calculating (S109) an individual match rate for the oriented feature geometry based on an average deviation in distance between each control point of the oriented feature geometry from the depth map and respective control points in the fingerprint.
An apparatus for generating an output specifying locations for electrode arrays providing sets of electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) for applying alternating electric fields to a target volume in a subject's body, characterized by the apparatus comprising a processor programmed to: sequentially measure, during a first window of time and using a first set of at least four electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) positioned on or in the subject's body on a first side of the target volume and a second set of at least four electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) positioned on or in the subject's body on a second side of the target volume that is opposite to the first side, an impedance or conductance of each of respective paths between each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the first set and each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the second set; calculate, based on the measured impedances or conductances of each of the respective paths between each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the first set and each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the second set, a first impedance or conductance at each of at least 27 voxels that correspond to the target volume; and generate a first output specifying locations for one or more of the electrode arrays , based on the first impedances or conductances of the voxels, for applying alternating electric fields to a first target in the target volume. sequentially measure, during a first window of time and using a first set of at least four electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) positioned on or in the subject's body on a first side of the target volume and a second set of at least four electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) positioned on or in the subject's body on a second side of the target volume that is opposite to the first side, an impedance or conductance of each of respective paths between each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the first set and each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the second set; calculate, based on the measured impedances or conductances of each of the respective paths between each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the first set and each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the second set, a first impedance or conductance at each of at least 27 voxels that correspond to the target volume; and generate a first output specifying locations for one or more of the electrode arrays , based on the first impedances or conductances of the voxels, for applying alternating electric fields to a first target in the target volume.
A method performed by an Integrated Access and Backhaul, IAB, user equipment, UE, in a wireless communication system, the method characterized by : receiving, from a next generation Node B, gNB, random access channel, RACH, configuration information for a UE, the RACH configuration information indicating a physical random access channel, PRACH, configuration period of the UE and a time-frequency resource for a random access occasion, RO, of the UE within the PRACH configuration period; receiving, from the gNB, RACH configuration information for the IAB UE, the RACH configuration information for the IAB UE comprising a scaling factor associated with a PRACH configuration period of the IAB UE and a time offset associated with a time-frequency resource for an RO of the IAB UE; determining the PRACH configuration period of the IAB UE based on the PRACH configuration period of the UE and the scaling factor; determining the time-frequency resource for the RO of the IAB UE based on the time-frequency resource for the RO of the UE, the time offset and the determined PRACH configuration period of the IAB UE; and transmitting, to the gNB, a preamble for random access using the determined PRACH configuration period of the IAB UE and the determined time-frequency resource for the RO of the IAB UE. receiving, from a next generation Node B, gNB, random access channel, RACH, configuration information for a UE, the RACH configuration information indicating a physical random access channel, PRACH, configuration period of the UE and a time-frequency resource for a random access occasion, RO, of the UE within the PRACH configuration period; receiving, from the gNB, RACH configuration information for the IAB UE, the RACH configuration information for the IAB UE comprising a scaling factor associated with a PRACH configuration period of the IAB UE and a time offset associated with a time-frequency resource for an RO of the IAB UE; determining the PRACH configuration period of the IAB UE based on the PRACH configuration period of the UE and the scaling factor; determining the time-frequency resource for the RO of the IAB UE based on the time-frequency resource for the RO of the UE, the time offset and the determined PRACH configuration period of the IAB UE; and transmitting, to the gNB, a preamble for random access using the determined PRACH configuration period of the IAB UE and the determined time-frequency resource for the RO of the IAB UE.
An amusement park surveying system, comprising: an amusement park feature comprising a retro-reflective marker covered by a surface treatment of the amusement park feature; an emitter configured to emit electromagnetic radiation toward the retro-reflective marker; a detector configured to detect retro-reflection of the electromagnetic radiation from the retro-reflective marker while filtering non-retro-reflected electromagnetic radiation; and a control system communicatively coupled to the detector and comprising processing circuitry configured to: monitor the retro-reflection of the electromagnetic radiation from the retro-reflective marker ; determine an intensity of the retro-reflection of the electromagnetic radiation from the retro-reflective marker ; compare the intensity of the retro-reflection of the electromagnetic radiation from the retro-reflective marker to a stored intensity in the control system; and evaluate a degree of degradation of the surface treatment of the amusement park feature by comparing the intensity and the stored intensity. an amusement park feature comprising a retro-reflective marker covered by a surface treatment of the amusement park feature; an emitter configured to emit electromagnetic radiation toward the retro-reflective marker; a detector configured to detect retro-reflection of the electromagnetic radiation from the retro-reflective marker while filtering non-retro-reflected electromagnetic radiation; and a control system communicatively coupled to the detector and comprising processing circuitry configured to: monitor the retro-reflection of the electromagnetic radiation from the retro-reflective marker ; determine an intensity of the retro-reflection of the electromagnetic radiation from the retro-reflective marker ; compare the intensity of the retro-reflection of the electromagnetic radiation from the retro-reflective marker to a stored intensity in the control system; and evaluate a degree of degradation of the surface treatment of the amusement park feature by comparing the intensity and the stored intensity. monitor the retro-reflection of the electromagnetic radiation from the retro-reflective marker ; determine an intensity of the retro-reflection of the electromagnetic radiation from the retro-reflective marker ; compare the intensity of the retro-reflection of the electromagnetic radiation from the retro-reflective marker to a stored intensity in the control system; and evaluate a degree of degradation of the surface treatment of the amusement park feature by comparing the intensity and the stored intensity.
A magnetic circuit assembly of a bone conduction speaker, wherein the magnetic circuit assembly generates a first magnetic field, and the magnetic circuit assembly includes: a first magnetic element generating a second magnetic field a first magnetic guide element ; at least one second magnetic element configured to surround the first magnetic element, a magnetic gap being configured between the at least one second magnetic element and the first magnetic element, wherein a magnetic field strength of the first magnetic field within the magnetic gap exceeds a magnetic field strength of the second magnetic field within the magnetic gap; characterized by further comprising: a second magnetic guide element ; and at least one third magnetic element connected with the second magnetic guide element and the at least one second magnetic element. a first magnetic element generating a second magnetic field a first magnetic guide element ; at least one second magnetic element configured to surround the first magnetic element, a magnetic gap being configured between the at least one second magnetic element and the first magnetic element, wherein a magnetic field strength of the first magnetic field within the magnetic gap exceeds a magnetic field strength of the second magnetic field within the magnetic gap; characterized by further comprising: a second magnetic guide element ; and at least one third magnetic element connected with the second magnetic guide element and the at least one second magnetic element. a second magnetic guide element ; and at least one third magnetic element connected with the second magnetic guide element and the at least one second magnetic element.
Hydrostatic valve arrangement for the pressure medium supply of a hydrostatic consumer (2; 2, 2a, 2b), in particular of a lifting device (1; 101), and for shutting it off in the case of leakage or fracture, with a first working flow path from a first pressure connector (a) via a first shut-off valve towards a first consumer connector (A), it being possible for a valve body of the first shut-off valve to be loaded with a closing pressure in the closing direction, a pressurized first flow path being provided via a throttle point towards the first consumer connector (A), and it being possible for the closing pressure to be increased in a manner which is dependent on a pressure downstream of the throttle point , characterized by a second working flow path from a second pressure connector (b) via a second shut-off valve towards a second consumer connector (B), it being possible for a valve body of the second shut-off valve to be loaded with the closing pressure in the closing direction, and a pressurized second flow path being provided via the throttle point towards the second consumer connector (B).
Flexible bag having an inner compartment for receiving a hot and/or burning object , wherein the bag is capable of being rolled and/or folded, and wherein the bag has an opening for the introduction of the object into the inner compartment of the bag, wherein an externally accessible outer compartment is provided on that third of the bag which is opposite to the opening , a fire extinguisher for receiving and dispensing a fire-extinguishing agent being accommodated in said outer compartment, characterized in that that part of the bag on which the outer compartment is provided is connected to the rest of the bag in a releasable manner, in particular by means of a hook-and-loop connection .
A reflector lamp comprising: a light source for generating a light beam, a reflector having a reflective inner surface to define a cavity, and an opening formed by an edge of the reflective inner surface, wherein the light source is disposed in the cavity, and a lens arranged coaxially with and being spaced apart from the light source , wherein the reflector lamp further comprises a push-push adjustment assembly for varying a beam angle of the light beam in a push manner, the push-push adjustment assembly comprising; a frame coupled fixedly to the lamp; an actuator in operative connection with the lens or the reflector , wherein the actuator movably rests in the frame so that the movement of the actuator enables the lens or the reflector to slide relative to the light source thereby to provide variable axial spacing between the lens or the reflector and the light source ; and a push-push latch mechanism coupled to the actuator and/or the frame to move and to latch the actuator in the frame . a light source for generating a light beam, a reflector having a reflective inner surface to define a cavity, and an opening formed by an edge of the reflective inner surface, wherein the light source is disposed in the cavity, and a lens arranged coaxially with and being spaced apart from the light source , wherein the reflector lamp further comprises a push-push adjustment assembly for varying a beam angle of the light beam in a push manner, the push-push adjustment assembly comprising; a frame coupled fixedly to the lamp; an actuator in operative connection with the lens or the reflector , wherein the actuator movably rests in the frame so that the movement of the actuator enables the lens or the reflector to slide relative to the light source thereby to provide variable axial spacing between the lens or the reflector and the light source ; and a push-push latch mechanism coupled to the actuator and/or the frame to move and to latch the actuator in the frame .
A core shell microcapsule having a liquid core and an outer shell, in which the liquid core comprises solvent and a dissolved piroctone compound and the shell comprises polyurea comprising amino sulphonic acid.
An isolated, therapeutic human antibody or antigen-binding portion thereof, comprising a heavy chain variable region (V H ) according to SEQ ID NO: 12, and a light chain variable region (V L ) according to i) SEQ ID NO: 53, ii) SEQ ID NO: 35, or (iii) SEQ ID NO: 25, and wherein said antibody or antigen-binding portion thereof specifically binds to homodimeric IL-17A and heterodimeric IL-17AF, but does not specifically bind to homodimeric IL-17F.
device according to the riser tube principle for the preparation of a hot beverage, in particular coffee and/or tea, comprising - a lower housing section which is designed such that heated liquid can be fed into it and/or liquid located therein can be heated by means of an external heat source ; - an upper housing section for discharging liquid that has flowed through the insert from the lower housing section ; - an insert with a riser pipe for guiding the heated liquid from the lower housing section into the upper housing section and for receiving the coffee or tea to be flowed through by heated liquid , - wherein the device is designed in such a way that the lower housing section can be sealed with the upper housing section in a pressure-tight manner towards the environment in both the cold and hot state, so that an excess pressure can be produced in the lower housing section by the heating of liquid, by means of which excess pressure liquid can be forced out of the lower housing section first through the insert , then through the flow volume and finally through an outlet region . - wherein a thermally insulated grip is provided on the insert, which can be reached from outside the housing sections and with which the insert can be removed from the lower housing section . characterised in that the thermally insulated grip option is guided from the insert by one or more guides through threaded closures of the lower housing section . - a lower housing section which is designed such that heated liquid can be fed into it and/or liquid located therein can be heated by means of an external heat source ; - an upper housing section for discharging liquid that has flowed through the insert from the lower housing section ; - an insert with a riser pipe for guiding the heated liquid from the lower housing section into the upper housing section and for receiving the coffee or tea to be flowed through by heated liquid , - wherein the device is designed in such a way that the lower housing section can be sealed with the upper housing section in a pressure-tight manner towards the environment in both the cold and hot state, so that an excess pressure can be produced in the lower housing section by the heating of liquid, by means of which excess pressure liquid can be forced out of the lower housing section first through the insert , then through the flow volume and finally through an outlet region . - wherein a thermally insulated grip is provided on the insert, which can be reached from outside the housing sections and with which the insert can be removed from the lower housing section .
A method for reducing reverberation signal artifacts in ultrasound images comprising: receiving ultrasound echo signals which contain reverberation signal artifacts; processing the received ultrasound echo signals by envelope detection; detecting the presence of reverberation signal components in the ultrasound echo signals from the amplitude of the envelope detected ultrasound signals; the method being characterised by estimating time delays and amplitudes for reverberation signal correction from a simulation of the transmission of reverberation signals to virtual point sources, wherein estimating time delays and amplitudes for reverberations signal correction further comprises estimating reverberation signal components from the received echo signals; combining a plurality of A-lines of the ultrasound echo signals using the estimated time delays and amplitudes to reduce reverberation signal components in the combined A-lines, wherein combining a plurality of A-lines of the ultrasound echo signals using the estimated time delays and amplitudes to reduce reverberation signal components further comprises subtracting estimated reverberation signal components from the received ultrasound echo signals; and forming an ultrasound image using the combined A-lines. receiving ultrasound echo signals which contain reverberation signal artifacts; processing the received ultrasound echo signals by envelope detection; detecting the presence of reverberation signal components in the ultrasound echo signals from the amplitude of the envelope detected ultrasound signals; the method being characterised by estimating time delays and amplitudes for reverberation signal correction from a simulation of the transmission of reverberation signals to virtual point sources, wherein estimating time delays and amplitudes for reverberations signal correction further comprises estimating reverberation signal components from the received echo signals; combining a plurality of A-lines of the ultrasound echo signals using the estimated time delays and amplitudes to reduce reverberation signal components in the combined A-lines, wherein combining a plurality of A-lines of the ultrasound echo signals using the estimated time delays and amplitudes to reduce reverberation signal components further comprises subtracting estimated reverberation signal components from the received ultrasound echo signals; and forming an ultrasound image using the combined A-lines.
A coating composition comprising a blend of at least two or more epoxy resins comprising (i) at least one 1,4-cyclohexanedimethanol (CHDM) epoxy resin having from 0.01 to 0.1 weight percent total chlorine content as measured by neutron activation; and (ii) at least one other epoxy resin other than the epoxy resin in component (i); wherein the amount of the at least one 1,4-cyclohexanedimethanol (CHDM) epoxy resin in the blend of at least two or more epoxy resins is from 30 weight percent to 70 weight percent based on the total weight of the blend of at least two or more epoxy resins.
A saddle riding vehicle comprising: a radiator ; and side covers configured to cover at least a portion of the radiator from sides thereof, wherein: each of the side covers comprises an inner cover and an outer cover configured to cover the inner cover from an outside in a vehicle width direction, air guide paths are formed between the inner covers and the outer covers, wings are installed in the air guide paths, enlarged wing sections constituted by at least portions of the inner covers and the wings and extending toward a front section of the radiator and inward in the vehicle width direction are provided, and the enlarged wing sections extend inward in the vehicle width direction from an outer end (P1) of a front surface of a core section of the radiator in the vehicle width direction such that front ends of the enlarged wing sections are disposed in front of outer end portions of the core section of the radiator. a radiator ; and side covers configured to cover at least a portion of the radiator from sides thereof, wherein: each of the side covers comprises an inner cover and an outer cover configured to cover the inner cover from an outside in a vehicle width direction, air guide paths are formed between the inner covers and the outer covers, wings are installed in the air guide paths, enlarged wing sections constituted by at least portions of the inner covers and the wings and extending toward a front section of the radiator and inward in the vehicle width direction are provided, and the enlarged wing sections extend inward in the vehicle width direction from an outer end (P1) of a front surface of a core section of the radiator in the vehicle width direction such that front ends of the enlarged wing sections are disposed in front of outer end portions of the core section of the radiator. each of the side covers comprises an inner cover and an outer cover configured to cover the inner cover from an outside in a vehicle width direction, air guide paths are formed between the inner covers and the outer covers, wings are installed in the air guide paths, enlarged wing sections constituted by at least portions of the inner covers and the wings and extending toward a front section of the radiator and inward in the vehicle width direction are provided, and the enlarged wing sections extend inward in the vehicle width direction from an outer end (P1) of a front surface of a core section of the radiator in the vehicle width direction such that front ends of the enlarged wing sections are disposed in front of outer end portions of the core section of the radiator.