mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detection of a bypass (134; 734; 834) of an interconnect (133; 733; 833) to a telecommunication network (130; 730; 830), of an operator of a real subscriber, comprising: - generating a test call (263; 367; 467; 567; 663) to or through a real subscriber number of a real subscriber (131; 231; 331; 431; 531; 631; 731; 831) active in said telecommunication network; - obtaining call data including received calling line identifiers and time information for calls terminating to said real subscriber number from the operator of said real subscriber (131; 231; 331; 431; 531; 631; 731; 831); - extracting a received calling line identifier for said test call (263; 367; 467; 567; 663) from said call data (154, 153; 265; 372; 472; 572; 665; 753; 853) comprising matching said time information received from said operator with timing of said test call (263; 367; 467; 567; 663); and - detecting presence of a bypass (134; 734; 834) by analysis of said received calling line identifier, by verifying if said received calling line identifier belongs to the numbering plan of said telecommunication network (130; 730; 830) wherein said test call (263; 367; 467; 567; 663) is received, or by verifying the country code, or by establishing that said received calling line identifier does not correspond to the calling line identifier of an origin of said test call (263; 367; 467; 567; 663). - generating a test call (263; 367; 467; 567; 663) to or through a real subscriber number of a real subscriber (131; 231; 331; 431; 531; 631; 731; 831) active in said telecommunication network; - obtaining call data including received calling line identifiers and time information for calls terminating to said real subscriber number from the operator of said real subscriber (131; 231; 331; 431; 531; 631; 731; 831); - extracting a received calling line identifier for said test call (263; 367; 467; 567; 663) from said call data (154, 153; 265; 372; 472; 572; 665; 753; 853) comprising matching said time information received from said operator with timing of said test call (263; 367; 467; 567; 663); and - detecting presence of a bypass (134; 734; 834) by analysis of said received calling line identifier, by verifying if said received calling line identifier belongs to the numbering plan of said telecommunication network (130; 730; 830) wherein said test call (263; 367; 467; 567; 663) is received, or by verifying the country code, or by establishing that said received calling line identifier does not correspond to the calling line identifier of an origin of said test call (263; 367; 467; 567; 663).
A thermal reduction system for an autonomous vehicle (AV) comprising: a cooling rack housing a data processing system of the AV; a fluid pump to pump cooling fluid through the cooling rack to cool the data processing system ; a primary cooling unit comprising a cabin radiator to receive the cooling fluid and an air pump configured to force cabin air from an interior passenger cabin of the AV through the cabin radiator to cool the cooling fluid ; and one or more processors; and one or more memory devices storing instructions that when executed by the one or more processors cause the one or more processors to: identify one or more situational changes in connection with the AV ;and proactively adjust, based at least in part on the one or more situational changes in connection with the AV , an airflow rate of the primary cooling unit , or a fluid flow rate of the fluid pump . a cooling rack housing a data processing system of the AV; a fluid pump to pump cooling fluid through the cooling rack to cool the data processing system ; a primary cooling unit comprising a cabin radiator to receive the cooling fluid and an air pump configured to force cabin air from an interior passenger cabin of the AV through the cabin radiator to cool the cooling fluid ; and one or more processors; and one or more memory devices storing instructions that when executed by the one or more processors cause the one or more processors to: identify one or more situational changes in connection with the AV ;and proactively adjust, based at least in part on the one or more situational changes in connection with the AV , an airflow rate of the primary cooling unit , or a fluid flow rate of the fluid pump . identify one or more situational changes in connection with the AV ;and proactively adjust, based at least in part on the one or more situational changes in connection with the AV , an airflow rate of the primary cooling unit , or a fluid flow rate of the fluid pump .
A converter for converting input object data representing a model of a three-dimensional object into a compressed form comprising: a data receiving module to receive data representing object properties of a three-dimensional object to be generated by additive manufacturing apparatus; a categorising module; and an object data module to represent the continuous region as the set of sub-regions; wherein the categorising module comprises: - a data identifying module to identify data representing a continuous region of the object with a common property specification; and - a sub-region defining module to determine, within the data representing the continuous region, a set of contiguous sub-regions as a set of polytopes, wherein the polytopes of the set are scale representations of a predetermined polytope form, and the set of polytopes may be tessellated to provide a representation of the continuous region. a data receiving module to receive data representing object properties of a three-dimensional object to be generated by additive manufacturing apparatus; a categorising module; and an object data module to represent the continuous region as the set of sub-regions; wherein the categorising module comprises: - a data identifying module to identify data representing a continuous region of the object with a common property specification; and - a sub-region defining module to determine, within the data representing the continuous region, a set of contiguous sub-regions as a set of polytopes, wherein the polytopes of the set are scale representations of a predetermined polytope form, and the set of polytopes may be tessellated to provide a representation of the continuous region. - a data identifying module to identify data representing a continuous region of the object with a common property specification; and - a sub-region defining module to determine, within the data representing the continuous region, a set of contiguous sub-regions as a set of polytopes, wherein the polytopes of the set are scale representations of a predetermined polytope form, and the set of polytopes may be tessellated to provide a representation of the continuous region.
A voice call method, comprising: obtaining a voice call state of a terminal system at a historical moment, the terminal system being provided with at least two audio acquisition devices (S101), wherein the voice call state at least comprises far-end single-talk, near-end single-talk, two-end talk, or no talk, wherein the far-end single-talk is a call state during a voice call when there is a far-end voice signal and there is no near-end voice signal, the near-end single-talk is a call state during a voice call when there is no far-end voice signal and there is a near-end voice signal, the two-end talk is a call state during a voice call when there is a far-end voice signal and there is a near-end voice signal, and the no talk is a call state during a voice call when there is no far-end voice signal and there is no near-end voice signal; obtaining first voice signals acquired by the audio acquisition devices at a current moment respectively, and determining a signal energy of each of the first voice signals (S102); and determining a target audio acquisition device at the current moment from the audio acquisition devices based on the voice call state at the historical moment and the signal energy of each of the first voice signals (S103). obtaining a voice call state of a terminal system at a historical moment, the terminal system being provided with at least two audio acquisition devices (S101), wherein the voice call state at least comprises far-end single-talk, near-end single-talk, two-end talk, or no talk, wherein the far-end single-talk is a call state during a voice call when there is a far-end voice signal and there is no near-end voice signal, the near-end single-talk is a call state during a voice call when there is no far-end voice signal and there is a near-end voice signal, the two-end talk is a call state during a voice call when there is a far-end voice signal and there is a near-end voice signal, and the no talk is a call state during a voice call when there is no far-end voice signal and there is no near-end voice signal; obtaining first voice signals acquired by the audio acquisition devices at a current moment respectively, and determining a signal energy of each of the first voice signals (S102); and determining a target audio acquisition device at the current moment from the audio acquisition devices based on the voice call state at the historical moment and the signal energy of each of the first voice signals (S103).
A window cover configured for covering a flexible display apparatus having a display panel to display an image, and configured to be bendable from a flat state to a folded state, wherein in the folded state, the cross-section of the window cover has a U-shape, characterized in that the window cover is formed of a plurality of transparent plastic materials, the window cover comprising: a base layer consisting of a first plastic material; a first protective layer consisting of a second plastic material different from the first material, the first protective layer having a first stiffness and being disposed on the base layer to be positioned at an inside of the base layer in a bending direction of the window cover ; and a second protective layer disposed on the base layer to be positioned at an outside of the base layer in the bending direction of the window cover and arranged to have a second stiffness less than the first stiffness, the second protective layer consisting of a third plastic material different from the first and second plastic materials, wherein the thickness of the base layer is arranged to be thicker than the thickness of the first protective layer and the thickness of the second protective layer , and the thickness of the first protective layer is arranged to be thicker than the thickness of the second protective layer such that a desired radius of curvature of the window cover can be obtained when the window cover is in the folded state. a base layer consisting of a first plastic material; a first protective layer consisting of a second plastic material different from the first material, the first protective layer having a first stiffness and being disposed on the base layer to be positioned at an inside of the base layer in a bending direction of the window cover ; and a second protective layer disposed on the base layer to be positioned at an outside of the base layer in the bending direction of the window cover and arranged to have a second stiffness less than the first stiffness, the second protective layer consisting of a third plastic material different from the first and second plastic materials, wherein the thickness of the base layer is arranged to be thicker than the thickness of the first protective layer and the thickness of the second protective layer , and the thickness of the first protective layer is arranged to be thicker than the thickness of the second protective layer such that a desired radius of curvature of the window cover can be obtained when the window cover is in the folded state.
An electric motor comprising: a casing having an interior and a socket formed in the casing and accessible from outside the casing, the socket having an inner surface ; an internal wiring network within the interior of the casing ; and a line replaceable unit, i.e. LRU, sensor system comprising: an LRU sensor having electrical conductors and internal sensor wiring that is electrically connected to the electrical conductors , wherein further electrical conductors on the inner surface of the socket are electrically connected to the internal wiring network within the interior of the casing so as to provide electrical power to the socket and a signal path for signals outputted by the LRU sensor , wherein the LRU sensor is removably positioned in the socket such that the electrical conductors of the LRU sensor contact and draw electrical power from particular electrical conductors on the inner surface of the socket and the LRU sensor provides sensor output signals to other electrical conductors on the inner surface , and wherein the LRU sensor can be removed from the socket and be replaced with another LRU sensor without moving or disassembling the motor . a casing having an interior and a socket formed in the casing and accessible from outside the casing, the socket having an inner surface ; an internal wiring network within the interior of the casing ; and a line replaceable unit, i.e. LRU, sensor system comprising: an LRU sensor having electrical conductors and internal sensor wiring that is electrically connected to the electrical conductors , wherein further electrical conductors on the inner surface of the socket are electrically connected to the internal wiring network within the interior of the casing so as to provide electrical power to the socket and a signal path for signals outputted by the LRU sensor , wherein the LRU sensor is removably positioned in the socket such that the electrical conductors of the LRU sensor contact and draw electrical power from particular electrical conductors on the inner surface of the socket and the LRU sensor provides sensor output signals to other electrical conductors on the inner surface , and wherein the LRU sensor can be removed from the socket and be replaced with another LRU sensor without moving or disassembling the motor . an LRU sensor having electrical conductors and internal sensor wiring that is electrically connected to the electrical conductors , wherein further electrical conductors on the inner surface of the socket are electrically connected to the internal wiring network within the interior of the casing so as to provide electrical power to the socket and a signal path for signals outputted by the LRU sensor , wherein the LRU sensor is removably positioned in the socket such that the electrical conductors of the LRU sensor contact and draw electrical power from particular electrical conductors on the inner surface of the socket and the LRU sensor provides sensor output signals to other electrical conductors on the inner surface , and wherein the LRU sensor can be removed from the socket and be replaced with another LRU sensor without moving or disassembling the motor .
Elongate body for a vehicle system of a vehicle , wherein the body features at least one cursor band for an inductive linear path sensor , wherein the at least one cursor band extends in the direction of a longitudinal extension of the body , wherein the at least one cursor band is designed with several electrically conductive cursor pads to inductively couple at least one excitation coil with at least one sensor coil of a stator of the linear path sensor and with non-coupling sections that are less conductive or non-conductive in relation to the cursor pad , wherein the cursor pads are each arranged at a distance to each other by the non-coupling sections in the direction of the longitudinal extension, and wherein the cursor pads of the cursor band are formed at the body , wherein the cursor pads are designed as elevations of the body or on elevations of the body which are raised in relation to the non-coupling sections and wherein one cross-section of the elevations features a mushroom shape, wherein the mushroom shape essentially represents a T-shape wherein one stem of the mushroom shape extends away from the body .
A portable communication device comprising: a housing ; a printed circuit board seated in the housing and mounted to a communication circuit; and at least one position adjusting groove (410; 420), wherein the housing includes: a support plate having at least one antenna unit operatively connected with the communication circuit, and an injection molded member surrounding at least a portion of the at least one antenna unit , wherein the support plate includes: a main body (311_21) in which at least a portion of the printed circuit board is seated, and at least one lead (311_1, 311_2) connecting the at least one antenna unit with the main body (311_21), and wherein the at least one position adjusting groove is formed at a position at which the at least one lead (311_1, 311_2) makes contact with the injection molded member ; wherein the at least one position adjusting groove (410; 420) includes: a first part formed by engraving a portion of the support plate ; and a second part formed by engraving a portion of the injection molded member and being connected with the first part . a housing ; a printed circuit board seated in the housing and mounted to a communication circuit; and at least one position adjusting groove (410; 420), wherein the housing includes: a support plate having at least one antenna unit operatively connected with the communication circuit, and an injection molded member surrounding at least a portion of the at least one antenna unit , a support plate having at least one antenna unit operatively connected with the communication circuit, and an injection molded member surrounding at least a portion of the at least one antenna unit , wherein the support plate includes: a main body (311_21) in which at least a portion of the printed circuit board is seated, and at least one lead (311_1, 311_2) connecting the at least one antenna unit with the main body (311_21), and a main body (311_21) in which at least a portion of the printed circuit board is seated, and at least one lead (311_1, 311_2) connecting the at least one antenna unit with the main body (311_21), and wherein the at least one position adjusting groove is formed at a position at which the at least one lead (311_1, 311_2) makes contact with the injection molded member ; wherein the at least one position adjusting groove (410; 420) includes: a first part formed by engraving a portion of the support plate ; and a second part formed by engraving a portion of the injection molded member and being connected with the first part . a first part formed by engraving a portion of the support plate ; and a second part formed by engraving a portion of the injection molded member and being connected with the first part .
A hollow curved plate for a gas turbine combustor comprising: a first plate member (24 1 -24 3 ) having a plurality of first grooves ; and a second plate member (34 1 -34 3 ) having a plurality of second grooves , the second plate member (34 1 -34 3 ) being bonded to the first plate member (24 1 -24 3 ) by diffusion bonding, wherein each first groove faces a second groove of approximately the same width as the first groove , a position of the first groove substantially coincides with a position of the second groove in a width direction, and a plurality of hollow parts (40 1 -40 3 ) is formed, each formed by the first groove and the second groove , and wherein each of the hollow parts is formed into a linear channel, wherein the hollow curved plate is formed of the first plate member (24 1 -24 3 ) and the second plate member (34 1 -34 3 ) curved by bending in a state where the first plate member (24 1 -24 3 ) and the second plate member (34 1 -34 3 ) are bonded together, wherein a plurality of air suction holes is provided in the first plate member (24 1 -24 3 ) and a plurality of air discharge holes is provided in the second plate member (34 1 -34 3 ), characterized in that the air suction holes and the air discharge holes are each open only to any one of the hollow parts (40 1 -40 3 ), each of the air suction holes and the air discharge holes having a diameter greater than the width of a whole of the any one of said hollow parts at which said each of the air suction holes and the air discharge holes opens. a first plate member (24 1 -24 3 ) having a plurality of first grooves ; and a second plate member (34 1 -34 3 ) having a plurality of second grooves , the second plate member (34 1 -34 3 ) being bonded to the first plate member (24 1 -24 3 ) by diffusion bonding, wherein each first groove faces a second groove of approximately the same width as the first groove , a position of the first groove substantially coincides with a position of the second groove in a width direction, and a plurality of hollow parts (40 1 -40 3 ) is formed, each formed by the first groove and the second groove , and wherein each of the hollow parts is formed into a linear channel, wherein the hollow curved plate is formed of the first plate member (24 1 -24 3 ) and the second plate member (34 1 -34 3 ) curved by bending in a state where the first plate member (24 1 -24 3 ) and the second plate member (34 1 -34 3 ) are bonded together, wherein a plurality of air suction holes is provided in the first plate member (24 1 -24 3 ) and a plurality of air discharge holes is provided in the second plate member (34 1 -34 3 ), characterized in that the air suction holes and the air discharge holes are each open only to any one of the hollow parts (40 1 -40 3 ), each of the air suction holes and the air discharge holes having a diameter greater than the width of a whole of the any one of said hollow parts at which said each of the air suction holes and the air discharge holes opens.