mhurhangee/patent-ind-claim-en huggingface dataset:
A method for broadcasting a plurality of positioning signals from a plurality of transmitters in support of reducing cross-interference in a position location system, the method comprising: selecting a first frequency from a sum of a base frequency plus a first offset that belongs to a set of offsets, wherein each offset of the set of offsets is a multiple of a minimum nonzero offset, and wherein the set of offsets corresponds to 0, k 0 R+R/Q, 2 k 0 R+2R/Q, 3 k 0 R+3R/Q ... ,(Q-1)k 0 R+(Q-1)R/Q, where R represents a PN frame rate, k 0 represents a nonzero integer, and Q represents an integer equal to the number of offsets in the set of offsets; generating a first positioning signal comprising a carrier at the first frequency wherein the first positioning signal includes a wideband pseudorandom ranging signal with a first pseudorandom code; and transmitting, from a first transmitter, the first positioning signal concurrently with transmission of a second positioning signal from a second transmitter of the plurality of transmitters, wherein the second positioning signal has a carrier at a second frequency that is the sum of the base frequency plus a second offset belonging to the set of offsets, and wherein the first and second offsets are different by an amount that is at least one of equal to and less than 25 percent of the bandwidth of each of the plurality of positioning signals. selecting a first frequency from a sum of a base frequency plus a first offset that belongs to a set of offsets, wherein each offset of the set of offsets is a multiple of a minimum nonzero offset, and wherein the set of offsets corresponds to 0, k 0 R+R/Q, 2 k 0 R+2R/Q, 3 k 0 R+3R/Q ... ,(Q-1)k 0 R+(Q-1)R/Q, where R represents a PN frame rate, k 0 represents a nonzero integer, and Q represents an integer equal to the number of offsets in the set of offsets; generating a first positioning signal comprising a carrier at the first frequency wherein the first positioning signal includes a wideband pseudorandom ranging signal with a first pseudorandom code; and transmitting, from a first transmitter, the first positioning signal concurrently with transmission of a second positioning signal from a second transmitter of the plurality of transmitters, wherein the second positioning signal has a carrier at a second frequency that is the sum of the base frequency plus a second offset belonging to the set of offsets, and wherein the first and second offsets are different by an amount that is at least one of equal to and less than 25 percent of the bandwidth of each of the plurality of positioning signals.
A method for controlling a status of a terminal device, comprising: sending (S310, S410, S510, S610, S710), by a terminal device in an inactive state, a first request message to a first network device, wherein the first request message comprises first identifier information of the terminal device; and receiving (S320, S450, S550, S630, S750), by the terminal device, a first response message sent by the first network device, wherein the first response message is used to instruct the terminal device to enter an idle state or enter the inactive state; charaterized in that the first request message further comprises slice indicator information; wherein when the first response message is used to instruct the terminal device to enter the inactive state, the first response message comprises state indicator information, and the state indicator information is used to instruct the terminal device to enter the inactive state rather than a connected state. sending (S310, S410, S510, S610, S710), by a terminal device in an inactive state, a first request message to a first network device, wherein the first request message comprises first identifier information of the terminal device; and receiving (S320, S450, S550, S630, S750), by the terminal device, a first response message sent by the first network device, wherein the first response message is used to instruct the terminal device to enter an idle state or enter the inactive state; charaterized in that the first request message further comprises slice indicator information; wherein when the first response message is used to instruct the terminal device to enter the inactive state, the first response message comprises state indicator information, and the state indicator information is used to instruct the terminal device to enter the inactive state rather than a connected state.
Isolated solid form of anamorelin monohydrochloride wherein said anamorelin monohydrochloride has a chloride:anamorelin molar ratio of from 0.9 to 0.99.
A combustion device , which comprises an infrared reflective plate including a reflective surface ; the reflective surface has a reflective structure which comprises a plurality of convex parts and a plurality of embossings ; each of the embossings is located between two adjacent convex parts ; wherein the combustion device comprises: at least one burner having a flame outlet , wherein the at least one burner is for burning gas to generate flames through the flame outlet ; and an infrared ray generation mesh which is corresponding to the flame outlet having a front side surface and a rear side surface positioned back-to-back; the infrared ray generation mesh being flame heated by the at least one burner to generate infrared rays; wherein the infrared reflective plate is disposed outside the rear side surface of the infrared ray generation mesh , and faces the rear side surface. at least one burner having a flame outlet , wherein the at least one burner is for burning gas to generate flames through the flame outlet ; and an infrared ray generation mesh which is corresponding to the flame outlet having a front side surface and a rear side surface positioned back-to-back; the infrared ray generation mesh being flame heated by the at least one burner to generate infrared rays; wherein the infrared reflective plate is disposed outside the rear side surface of the infrared ray generation mesh , and faces the rear side surface.
A method comprising: providing a plurality of multimedia broadcast multicast services to be transmitted over a common area from a plurality of nodes ; and characterised in that the method comprises: providing information relating to a quantity of data of each of said plurality of services individually to said plurality of nodes ; wherein said information relating to a quantity of data comprises information relating to a total number of packets and a total number of octets of each of said plurality of services; wherein data for each of the multimedia broadcast multicast services is transmitted in bursts; wherein, for each multimedia broadcast multicast service, a timestamp is included in a header of a beginning of a burst; wherein a packet counter and an octet counter are included in each packet header for each multimedia broadcast multicast service; and wherein the packets are transmitted to said plurality of nodes . providing information relating to a quantity of data of each of said plurality of services individually to said plurality of nodes ; wherein said information relating to a quantity of data comprises information relating to a total number of packets and a total number of octets of each of said plurality of services; wherein data for each of the multimedia broadcast multicast services is transmitted in bursts; wherein, for each multimedia broadcast multicast service, a timestamp is included in a header of a beginning of a burst; wherein a packet counter and an octet counter are included in each packet header for each multimedia broadcast multicast service; and wherein the packets are transmitted to said plurality of nodes .
A vertical cavity surface emitting laser, VCSEL, comprising: an active region ; an isolation region comprising a blocking region having an implanted material, the isolation region having at least one conductive channel , the blocking region having a first thickness; wherein the at least one conductive channel has a top surface, a side surface, and a bottom surface that is continuous with the bottom surface of the blocking region , and the at least one conductive channel has a second thickness that is larger than the first thickness; and a first non-planarized semiconductor layer over and in contact with: a top surface of the blocking region , each top surface of the at least one conductive channel ; and each side surface of the at least one conductive channel . an active region ; an isolation region comprising a blocking region having an implanted material, the isolation region having at least one conductive channel , the blocking region having a first thickness; wherein the at least one conductive channel has a top surface, a side surface, and a bottom surface that is continuous with the bottom surface of the blocking region , and the at least one conductive channel has a second thickness that is larger than the first thickness; and the at least one conductive channel has a top surface, a side surface, and a bottom surface that is continuous with the bottom surface of the blocking region , and the at least one conductive channel has a second thickness that is larger than the first thickness; and a first non-planarized semiconductor layer over and in contact with: a top surface of the blocking region , each top surface of the at least one conductive channel ; and each side surface of the at least one conductive channel . a top surface of the blocking region , each top surface of the at least one conductive channel ; and each side surface of the at least one conductive channel .
A tracking system, comprising: a first device ; and a second device , comprising: an optical module , configured to capture image data in a first detection field (ODF); an ultrasonic module , configured to collect ultrasonic data in a second detection field (UDF1, UDF2) different from the first detection field (OFD); and a processor , configured to determine a relative position of the first device relative to the second device in a third detection field according to at least one of the image data and the ultrasonic data, wherein the third detection field is larger than the first detection field (ODF) and larger than the second detection field (UDF1, UDF2); characterised in that the first device is a controller and the second device is a head mounted display, and the second device is configured to display a simulated environment; and the optical module is disposed on a front surface of the second device , and the ultrasonic module comprises ultrasonic transceivers grouped as two ultrasonic arrays (221-223, 224-225), one of the two ultrasonic arrays disposed on a left lateral of the second device and the other of the two ultrasonic arrays disposed on a right lateral of the second device . a first device ; and a second device , comprising: an optical module , configured to capture image data in a first detection field (ODF); an ultrasonic module , configured to collect ultrasonic data in a second detection field (UDF1, UDF2) different from the first detection field (OFD); and a processor , configured to determine a relative position of the first device relative to the second device in a third detection field according to at least one of the image data and the ultrasonic data, wherein the third detection field is larger than the first detection field (ODF) and larger than the second detection field (UDF1, UDF2); an optical module , configured to capture image data in a first detection field (ODF); an ultrasonic module , configured to collect ultrasonic data in a second detection field (UDF1, UDF2) different from the first detection field (OFD); and a processor , configured to determine a relative position of the first device relative to the second device in a third detection field according to at least one of the image data and the ultrasonic data, wherein the third detection field is larger than the first detection field (ODF) and larger than the second detection field (UDF1, UDF2); characterised in that the first device is a controller and the second device is a head mounted display, and the second device is configured to display a simulated environment; and the optical module is disposed on a front surface of the second device , and the ultrasonic module comprises ultrasonic transceivers grouped as two ultrasonic arrays (221-223, 224-225), one of the two ultrasonic arrays disposed on a left lateral of the second device and the other of the two ultrasonic arrays disposed on a right lateral of the second device .
Anti-friction bearing arrangement , in particular double-row tapered roller bearing, with a first bearing ring (2; 6) and a second bearing ring (2; 6) which, between them, form a bearing interior space , in which rolling bodies are arranged, in order to make a relative rotation of the first and second bearing ring (2; 6) possible, the anti-friction bearing arrangement having, furthermore, a sealing arrangement for sealing the bearing interior space , the sealing arrangement having a separate seal carrier which is connected fixedly to the first bearing ring (2; 6) for conjoint rotation, extends from the first bearing ring to the second bearing ring, and covers the bearing interior space at least partially, and has, furthermore, a seal element with at least one primary sealing lip for sealing the bearing interior space and one secondary sealing lip for sealing against external contamination, the seal element being connected fixedly to the seal carrier for conjoint rotation, the primary and the secondary sealing lip (24; 26) bearing axially against an end face of the second bearing ring (2; 6) in a sealing manner, characterized in that the primary sealing lip is directed in the direction of the bearing interior space , and the second sealing lip is directed in an opposite direction, with the result that the primary and the secondary sealing lip (24; 26) form, between them, a lip spread angle (β) which lies in the range from 100° to 140°, preferably at 120°, and the seal element being fastened to the seal carrier by means of a clamping ring which extends circumferentially.
A platform system comprising a platform including a plurality of sides and a plurality of components that are configured to connect to the platform, characterized in that the platform is square and is created from a single, continuous piece of sheet metal that is cut and folded to form the platform, and wherein each side of the platform defines a set of apertures, wherein the set of apertures allow the respective side of the platform to interchangeably connect to the plurality of components.
A module for separating nitrogen from air by means of hollow-fibre membranes, which comprises a bundle of hollow-fibre membranes for separating nitrogen from compressed air contained within an outer casing provided at one end with at least one inlet hole for a flow of pressurized air, at least one second intermediate hole for outlet of the permeate gases, and a third hole for outlet of the nitrogen that has been separated to be used for painting with air systems, which is set at the opposite end of the casing with respect to the inlet hole , wherein said bundle of fibres forms a free space comprised between the inlet hole and a first end of the bundle , said module comprising a deflector communicating with the inlet hole and arranged for deflecting the flow of compressed air within said space along paths of flow having a direction that is not directly incident on said first end of the bundle of fibres characterized in that said deflector comprises a base body provided in which are the inlet hole and perpendicular radial channels that communicate with the hole itself said base body being shaped like a disk delimited laterally by a flange and said channels are provided in the form of circular sectors lowered with respect to the top surface of the disk and extending between said inlet hole and a peripheral circular channel adjacent to the flange .
An electromagnetic energy converter comprising: - two ferromagnetic plates each having an inner face ; - at least one single-piece magnetic flux variation device disposed between the inner faces , and which comprises, along an elongation axis AA' in the following order, a first prismatic ferromagnetic part , a magnet and a second prismatic ferromagnetic part , said device is arranged to pivot around a pivot axis XX' between two balance positions, and for which the first and second prismatic ferromagnetic parts each come into contact, according to contact zones , with a different inner face as soon as the magnetic flux variation device lies in either of both balance positions, - a conducting coil arranged such that a magnetic flux generated by the magnet and guided by both ferromagnetic plates passes therethrough in a first sense S1 as soon as the magnetic flux variation device lies in one of both balance positions, and in a second sense S2, opposite to the first sense S1, as soon as said device lies in the other of both balance positions, advantageously the magnet has poles in alignment with the elongation axis AA'. - two ferromagnetic plates each having an inner face ; - at least one single-piece magnetic flux variation device disposed between the inner faces , and which comprises, along an elongation axis AA' in the following order, a first prismatic ferromagnetic part , a magnet and a second prismatic ferromagnetic part , said device is arranged to pivot around a pivot axis XX' between two balance positions, and for which the first and second prismatic ferromagnetic parts each come into contact, according to contact zones , with a different inner face as soon as the magnetic flux variation device lies in either of both balance positions, - a conducting coil arranged such that a magnetic flux generated by the magnet and guided by both ferromagnetic plates passes therethrough in a first sense S1 as soon as the magnetic flux variation device lies in one of both balance positions, and in a second sense S2, opposite to the first sense S1, as soon as said device lies in the other of both balance positions, advantageously the magnet has poles in alignment with the elongation axis AA'.
A method of measuring loop resistance in a live-earth conductor loop powered by an alternating current mains supply, the live-earth conductor loop comprising a residual current device , the method comprising: using a measurement circuit having a low-pass filter characteristic, the low-pass filter characteristic being arranged to substantially remove signal components at the frequency of the alternating current mains supply, to measure, in a first period, a voltage across live and earth conductors of the live-earth conductor loop to determine a first voltage; using a current application circuit to apply a unipolar test current between the live and earth conductors of the live-earth conductor loop for a second period, wherein the unipolar test current has a magnitude below a trip current value of the residual current device ; with the unipolar test current applied, using the measurement circuit to measure, in the second period, a voltage between the live and earth conductors to determine a second voltage; comparing the first and second voltages to determine a change in voltage; and based on a difference in test current between the first and second periods and a difference in voltage between the first voltage and the second voltage, calculating the resistance of the live-earth conductor loop. using a measurement circuit having a low-pass filter characteristic, the low-pass filter characteristic being arranged to substantially remove signal components at the frequency of the alternating current mains supply, to measure, in a first period, a voltage across live and earth conductors of the live-earth conductor loop to determine a first voltage; using a current application circuit to apply a unipolar test current between the live and earth conductors of the live-earth conductor loop for a second period, wherein the unipolar test current has a magnitude below a trip current value of the residual current device ; with the unipolar test current applied, using the measurement circuit to measure, in the second period, a voltage between the live and earth conductors to determine a second voltage; comparing the first and second voltages to determine a change in voltage; and based on a difference in test current between the first and second periods and a difference in voltage between the first voltage and the second voltage, calculating the resistance of the live-earth conductor loop.
Washing method for a dishwasher having a wash container that delimits a wash compartment, in which wash liquid that is no longer required during or after execution of a wash operation is buffered in a storage container coupled thermally to the wash container , and in a drying step (T) of the wash operation the moisture-laden air or water vapour in a wash compartment of the wash container is condensed on at least one side wall of the wash container , wherein before or during the drying step (T) the storage container is filled with fresh water in order to provide a condensation surface, and wherein after execution of the drying step (T) the fresh water buffered in the storage container is reused in a subsequent wash operation or wash cycle.
An adaptable seat comprising a frame , a backrest member and a seat member , said backrest member being rotatably connected to the frame about a rotation axis (x), said seat member comprising a sliding mechanism which includes at least one linear guide which connects the seat member to the frame and allows said seat member to move along a sliding axis (y) which is defined by said linear guide , wherein said linear guide comprises a sliding element which is connected to said frame , said adaptable seat further comprising a connection mechanism which connects said backrest member to said seat member , said connection mechanism comprising a male element and a female element which are formed on said seat member and said backrest member , respectively, or vice versa, and which are capable of mutual engagement in such a manner as to convert a rotation of the backrest member about the rotation axis (x) into a sliding action of the seat member along the sliding axis (y), and vice versa, said male element and said female element being elongated and extending at an outer edge of said seat member and said backrest member , respectively, or vice versa, wherein said male element comprises a profile projecting from an operating surface of said seat member or said backrest member , and said female element comprising a pocket-like element which is formed on the other of said seat member and said backrest member and is configured so as to receive said projecting profile , characterized in that the sliding element is snap-fixed in a slidable manner on said seat member .
A vehicle comprising a driver seat and a front seat and/or a first rear seat and a second rear seat with a vehicle cabin comprising a flat floor surface between the driver seat and the front passenger seat and/or between the first rear seat and the second rear seat which can be walked on, from the perspective of an occupant, a near vehicle side and a far vehicle side, and a far side airbag apparatus comprising: a cushion embedded in the floor which inflates in an upward direction from the flat floor surface and reaching a height at least equal to that of a pelvis region of an occupant seated in a seat during inflation and deployment. a driver seat and a front seat and/or a first rear seat and a second rear seat with a vehicle cabin comprising a flat floor surface between the driver seat and the front passenger seat and/or between the first rear seat and the second rear seat which can be walked on, from the perspective of an occupant, a near vehicle side and a far vehicle side, and a far side airbag apparatus comprising: a cushion embedded in the floor which inflates in an upward direction from the flat floor surface and reaching a height at least equal to that of a pelvis region of an occupant seated in a seat during inflation and deployment.