mhurhangee/patent-ind-claim-en huggingface dataset:
Method for localisation of at least one vector magnetometer (C1-C3) of a network of vector magnetometers, comprising the following steps: - control of one of the vector magnetometers of the network, called source magnetometer, so that it generates (EMi) m reference magnetic fields, where m is an integer greater than or equal to 2, the amplitudes of the m magnetic fields being known and the directions of the m magnetic fields being known and distinct; - measurement (MESj), by at least one of the other magnetometers of the network, called measurement magnetometer, of the m reference magnetic fields along n axes of the at least one measurement magnetometer (C1-C3), where n is an integer greater than or equal to 2 and m and n are such that m*n≥6; - determination (LOCj) of the position and orientation of the at least one measurement magnetometer (C1-C3) relative to the source magnetometer, starting from the measurement of the m reference magnetic fields on the n axes of the at least one measure magnetometer. - control of one of the vector magnetometers of the network, called source magnetometer, so that it generates (EMi) m reference magnetic fields, where m is an integer greater than or equal to 2, the amplitudes of the m magnetic fields being known and the directions of the m magnetic fields being known and distinct; - measurement (MESj), by at least one of the other magnetometers of the network, called measurement magnetometer, of the m reference magnetic fields along n axes of the at least one measurement magnetometer (C1-C3), where n is an integer greater than or equal to 2 and m and n are such that m*n≥6; - determination (LOCj) of the position and orientation of the at least one measurement magnetometer (C1-C3) relative to the source magnetometer, starting from the measurement of the m reference magnetic fields on the n axes of the at least one measure magnetometer.
A detection device for discriminating between different materials by means of receiving radiation from a scene and determining the radiometric temperature thereof, comprising an optical system having at least one optical focussing element, an optical scanning element and a receiving element , the optical system being arranged to focus incident energy from the scene onto the receiving element via the optical scanning element, characterised in that the receiving element is sensitive to millimetre-wave electromagnetic radiation, characterized in that the optical scanning element is a transmissive prism, and has a first surface having a region with a continuously variable angle with respect to a second surface of the optical scanning element, opposite to the first surface, wherein the continuously variable angle acts to provide a continuously variable scan of the scene, and wherein the prism is arranged to rotate around a central axis to provide a linear scan of the beam direction, and further wherein at least a portion of the first surface is positioned at an angle θ to the second surface , and wherein the angle θ varies continuously between a minimum at a first position on the first surface and a maximum at a second position on the first surface , where the angle θ at the first position is in an opposite direction to the angle θ at the second position , and wherein the first surface comprises an interface between the first position on the first surface and the second position on the first surface where the angle θ changes sharply. the optical scanning element is a transmissive prism, and has a first surface having a region with a continuously variable angle with respect to a second surface of the optical scanning element, opposite to the first surface, wherein the continuously variable angle acts to provide a continuously variable scan of the scene, and wherein the prism is arranged to rotate around a central axis to provide a linear scan of the beam direction, and further wherein at least a portion of the first surface is positioned at an angle θ to the second surface , and wherein the angle θ varies continuously between a minimum at a first position on the first surface and a maximum at a second position on the first surface , where the angle θ at the first position is in an opposite direction to the angle θ at the second position , and wherein the first surface comprises an interface between the first position on the first surface and the second position on the first surface where the angle θ changes sharply.
Method for establishing a content distribution federation composed of at least one content provider and at least one content distributor, within a system comprising a plurality of content providers (CSPm) and a plurality of content distributors (CDAj), the method comprising: the provision of first parameters, by said content providers of the system, to an intermediate entity (INT) distinct from said content providers and from said content distributors; the provision of second parameters, by said content distributors of the system, to said intermediate entity (INT); a step of association , implemented by said intermediate entity (INT), of at least one of said content providers of the system with at least one of said content distributors of the system based on the first parameters and second parameters; the establishment of a content distribution federation composed of at least one content provider and at least one content distributor in association. the provision of first parameters, by said content providers of the system, to an intermediate entity (INT) distinct from said content providers and from said content distributors; the provision of second parameters, by said content distributors of the system, to said intermediate entity (INT); a step of association , implemented by said intermediate entity (INT), of at least one of said content providers of the system with at least one of said content distributors of the system based on the first parameters and second parameters; the establishment of a content distribution federation composed of at least one content provider and at least one content distributor in association.
A common mode inductor for suppression of common mode noise and transmission of a differential mode communication signal, comprising: a ferromagnetic core with a first winding and a second winding , the first winding and the second winding being wound on the core in opposite directions and forming a differential pair of conductors arranged to convey a differential mode communication signal, a third winding wound on the core and extending along and being inductively coupled to at least a portion of the first winding; a fourth winding wound on the core and extending along and being inductively coupled to at least a portion of the second winding; wherein the third winding and the fourth winding are connected in series with each other and adapted to provide a sensor signal induced by the differential mode communication signal in the first winding and the second winding. a ferromagnetic core with a first winding and a second winding , the first winding and the second winding being wound on the core in opposite directions and forming a differential pair of conductors arranged to convey a differential mode communication signal, a third winding wound on the core and extending along and being inductively coupled to at least a portion of the first winding; a fourth winding wound on the core and extending along and being inductively coupled to at least a portion of the second winding; wherein the third winding and the fourth winding are connected in series with each other and adapted to provide a sensor signal induced by the differential mode communication signal in the first winding and the second winding.
An audio system comprising: a closed-loop amplifier including a noise shaper configured to shift noise to out-of-band frequencies above the audible frequency range, a load detector configured to detect an amplifier output load coupled to an output of the closed-loop amplifier , the output coupled to the load detector , the load detector comprising: a noise detector configured to be coupled to the output of the closed-loop amplifier and to detect a noise signal at least partially generated by the amplifier, the noise signal comprising frequencies outside the audible frequency range; and a parameter calculation module having an input coupled to the output of the noise detector and an output, wherein the parameter calculation module is configured to determine a parameter value relating to an impedance of the amplifier output load from the detected noise signal and to output a load detection signal dependent on the determined parameter value. a closed-loop amplifier including a noise shaper configured to shift noise to out-of-band frequencies above the audible frequency range, a load detector configured to detect an amplifier output load coupled to an output of the closed-loop amplifier , the output coupled to the load detector , the load detector comprising: a noise detector configured to be coupled to the output of the closed-loop amplifier and to detect a noise signal at least partially generated by the amplifier, the noise signal comprising frequencies outside the audible frequency range; and a parameter calculation module having an input coupled to the output of the noise detector and an output, wherein the parameter calculation module is configured to determine a parameter value relating to an impedance of the amplifier output load from the detected noise signal and to output a load detection signal dependent on the determined parameter value. a noise detector configured to be coupled to the output of the closed-loop amplifier and to detect a noise signal at least partially generated by the amplifier, the noise signal comprising frequencies outside the audible frequency range; and a parameter calculation module having an input coupled to the output of the noise detector and an output, wherein the parameter calculation module is configured to determine a parameter value relating to an impedance of the amplifier output load from the detected noise signal and to output a load detection signal dependent on the determined parameter value.
An electronic device comprising: at least one speaker ; at least one microphone ; a signal processor configured to: process an audio signal being output from the microphone; and a processor configured to control the signal processor to determine first information regarding an output of the speaker by analyzing at least one speaker input signal being input into the speaker, and to determine second information regarding a sound source being input into the microphone by analyzing at least one audio signal being output from the microphone, and to process the at least one audio signal according to at least one of the first and second information, and wherein the signal processor comprises an echo canceller configured to cancel an echo signal caused by the output of the speaker being fed back to the microphone as another microphone input sound, and characterised in that the processor is configured to control the echo canceller not to perform the echo cancellation when the output of the speaker is below a predetermined level. at least one speaker ; at least one microphone ; a signal processor configured to: process an audio signal being output from the microphone; and a processor configured to control the signal processor to determine first information regarding an output of the speaker by analyzing at least one speaker input signal being input into the speaker, and to determine second information regarding a sound source being input into the microphone by analyzing at least one audio signal being output from the microphone, and to process the at least one audio signal according to at least one of the first and second information, and wherein the signal processor comprises an echo canceller configured to cancel an echo signal caused by the output of the speaker being fed back to the microphone as another microphone input sound, and characterised in that the processor is configured to control the echo canceller not to perform the echo cancellation when the output of the speaker is below a predetermined level. process an audio signal being output from the microphone; and a processor configured to control the signal processor to determine first information regarding an output of the speaker by analyzing at least one speaker input signal being input into the speaker, and to determine second information regarding a sound source being input into the microphone by analyzing at least one audio signal being output from the microphone, and to process the at least one audio signal according to at least one of the first and second information, and wherein the signal processor comprises an echo canceller configured to cancel an echo signal caused by the output of the speaker being fed back to the microphone as another microphone input sound, and characterised in that the processor is configured to control the echo canceller not to perform the echo cancellation when the output of the speaker is below a predetermined level.
A pressure regulating valve for an inkjet printhead , said valve comprising: a valve inlet ; a valve outlet ; a fluid flow path defined between the valve inlet and the valve outlet; a first orifice positioned in the flow path, the first orifice having a sealable first seat; a movable first valve member configured for sealing engagement with the first seat; a second orifice positioned in the flow path; a movable second valve member configured for regulating a fluid flow rate through the second orifice; a regulator chamber having the valve outlet and comprising a diaphragm operatively connected to the second valve member, such that movement of the diaphragm moves the second valve member relative to the second orifice; and a biasing mechanism for resiliently biasing the diaphragm away from the second orifice, characterised in that an outer surface of the second valve member is flared away from the diaphragm; and when in use, movement of the diaphragm towards the second orifice progressively opens the second orifice thereby to increase a flow rate therethrough, and movement of the diaphragm away from the second orifice progressively occludes the second orifice to decrease the flow rate therethrough. a valve inlet ; a valve outlet ; a fluid flow path defined between the valve inlet and the valve outlet; a first orifice positioned in the flow path, the first orifice having a sealable first seat; a movable first valve member configured for sealing engagement with the first seat; a second orifice positioned in the flow path; a movable second valve member configured for regulating a fluid flow rate through the second orifice; a regulator chamber having the valve outlet and comprising a diaphragm operatively connected to the second valve member, such that movement of the diaphragm moves the second valve member relative to the second orifice; and a biasing mechanism for resiliently biasing the diaphragm away from the second orifice, characterised in that an outer surface of the second valve member is flared away from the diaphragm; and when in use, movement of the diaphragm towards the second orifice progressively opens the second orifice thereby to increase a flow rate therethrough, and movement of the diaphragm away from the second orifice progressively occludes the second orifice to decrease the flow rate therethrough.
A cable arrangement comprising a cable , which has an outer conductor , an electrical inner conductor , an insulator part and a support sleeve , an outer conductor contact element and a filling element , wherein the insulator part is arranged between the outer conductor and the electrical inner conductor , wherein the support sleeve is fixed on the outer conductor and the outer conductor is folded back around the support sleeve , wherein the outer conductor contact element is electrically connected to the folded-back outer conductor and has a diameter change, wherein the filling element concentrically surrounds the insulator part , wherein the filling element is arranged in a region between an axial end of the folded-back outer conductor and the diameter change of the outer conductor contact element within the outer conductor contact element , wherein the filling element is electrically conductive, characterized in that the filling element is elastic and is configured to reduce an air inclusion in the region between the axial end of the folded-back outer conductor and the diameter change of the outer conductor contact element within the outer conductor contact element . wherein the insulator part is arranged between the outer conductor and the electrical inner conductor , wherein the support sleeve is fixed on the outer conductor and the outer conductor is folded back around the support sleeve , wherein the outer conductor contact element is electrically connected to the folded-back outer conductor and has a diameter change, wherein the filling element concentrically surrounds the insulator part , wherein the filling element is arranged in a region between an axial end of the folded-back outer conductor and the diameter change of the outer conductor contact element within the outer conductor contact element , wherein the filling element is electrically conductive, characterized in that the filling element is elastic and is configured to reduce an air inclusion in the region between the axial end of the folded-back outer conductor and the diameter change of the outer conductor contact element within the outer conductor contact element .
Method for producing an arrangement comprising an electrical or electronic component (10; 40; 50; 60), a circuit carrier (15; 35; 47; 56; 62) and a damping element (25; 42; 59; 69) for the component (10; 40; 50; 60), in which the component (10; 40; 50; 60) is electrically contact-connected to the circuit carrier (15; 35; 47; 56; 62), in particular to a printed circuit board, via connections (13, 14; 32, 33; 52, 53; 62, 65), wherein the damping element (25; 42; 59; 69) is arranged in an interspace between the component (10; 40; 50; 60) and the circuit carrier (15; 35; 47; 56; 62), and wherein the damping element (25; 42; 59; 69) is in the form of an element whose volume is expandable under the influence of heat and/or chemical substances, characterized in that an expansion of the damping element (25; 42; 59; 69) is preceded by an interspace being formed between the component (10; 40; 50; 60) and the circuit carrier (15; 35; 47; 56; 62), and this is followed by an expansion of the damping element (25; 42; 59; 69) being brought about by the influence of heat and/or chemical substances and, as a result of the expansion, the damping element (25; 42; 59; 69) coming into touching contact both with the circuit carrier (15; 35; 47; 56; 62) and with the component (10; 40; 50; 60), as a result of which the interspace between the component (10; 40; 50; 60) and the circuit carrier (15; 35; 47; 56; 52) is filled after the expansion.
An antifouling coating composition comprising: a hydrolyzable polymer (A) including at least one selected from the group consisting of a polymer (A1) having a structural unit represented by the formula below and a polymer (A2) having a structural unit represented by the formula below, a versatic acid (B), and an antifouling agent component (C), [in the formula , M is zinc or copper, and R 1 independently at each occurrence is a hydrogen atom or a methyl group] -COO-M-O-COR 2 · · · [in the formula , M is zinc or copper, and R 2 is an organic group]. a hydrolyzable polymer (A) including at least one selected from the group consisting of a polymer (A1) having a structural unit represented by the formula below and a polymer (A2) having a structural unit represented by the formula below, a versatic acid (B), and an antifouling agent component (C), [in the formula , M is zinc or copper, and R 1 independently at each occurrence is a hydrogen atom or a methyl group] -COO-M-O-COR 2 · · · [in the formula , M is zinc or copper, and R 2 is an organic group].
An isolated antibody or antigen-binding fragment thereof that specifically binds to Siglec-15 comprising VH-CDR1, VH-CDR2, VH-CDR3, VL-CDR1, VL-CDR2 and VL-CDR3 sequences of table 1 corresponding to SEQ ID NO:3, SEQ ID NO:4 and SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7 and SEQ ID NO:8, respectively.
A therapeutic agent that is capable of downregulating the amount and/or level of activity of IncRNA2 for use in treating a vascular condition in a subject, wherein the agent targets IncRNA2 directly, wherein IncRNA2 is an RNA sequence as shown in Figure 39 or an RNA sequence that corresponds to the DNA sequence of Ensembl ID: RP11-94A24.1.
An integrated circuit comprising: a control circuit ; a one-time programmable circuit comprising a one-time programmable disable circuit and a one-time programmable enable circuit; and a security feature , wherein the control circuit determines if the one-time programmable disable circuit and the one-time programmable enable circuit are programmed in response to a request by a user of the integrated circuit to access the security feature , the control circuit causes the one-time programmable enable circuit to be programmed in response to the request to access the security feature , and the control circuit generates a signal to indicate to the user of the integrated circuit that the security feature has been previously accessed if the control circuit determines that the one-time programmable enable circuit has been programmed, wherein the control circuit causes the one-time programmable enable circuit to be programmed in response to the request if the control circuit determines that the one-time programmable enable circuit has not been programmed, and wherein the control circuit prevents a user of the integrated circuit from accessing the security feature if the control circuit determines that the one-time programmable disable circuit has been programmed. a control circuit ; a one-time programmable circuit comprising a one-time programmable disable circuit and a one-time programmable enable circuit; and a security feature , wherein the control circuit determines if the one-time programmable disable circuit and the one-time programmable enable circuit are programmed in response to a request by a user of the integrated circuit to access the security feature , the control circuit causes the one-time programmable enable circuit to be programmed in response to the request to access the security feature , and the control circuit generates a signal to indicate to the user of the integrated circuit that the security feature has been previously accessed if the control circuit determines that the one-time programmable enable circuit has been programmed, wherein the control circuit causes the one-time programmable enable circuit to be programmed in response to the request if the control circuit determines that the one-time programmable enable circuit has not been programmed, and wherein the control circuit prevents a user of the integrated circuit from accessing the security feature if the control circuit determines that the one-time programmable disable circuit has been programmed.