mhurhangee/patent-ind-claim-en huggingface dataset:
A method for establishing a trust relationship in an ultra dense network performed by a user equipment, the method comprising: • receiving a reconfiguration request from a macrocell, wherein a first base station serves for covering the macrocell (step 510); • deriving a user plane encryption key according to information in the reconfiguration request (step 520); • transmitting a first user plane signaling message to a first microcell in a group of microcells when the UE is attached to the first microcell (step 530), wherein, for each microcell among the microcells of the group of microcells, a different second base station serves for covering the microcell, and wherein each second base station is different to the first base station; and • transmitting a second user plane signaling message to a second microcell in the group of microcells when the UE is attached to the second microcell, wherein the first user plane signaling message and the second user plane signaling message are both encrypted according to the user plane encryption key (step 540). • receiving a reconfiguration request from a macrocell, wherein a first base station serves for covering the macrocell (step 510); • deriving a user plane encryption key according to information in the reconfiguration request (step 520); • transmitting a first user plane signaling message to a first microcell in a group of microcells when the UE is attached to the first microcell (step 530), wherein, for each microcell among the microcells of the group of microcells, a different second base station serves for covering the microcell, and wherein each second base station is different to the first base station; and • transmitting a second user plane signaling message to a second microcell in the group of microcells when the UE is attached to the second microcell, wherein the first user plane signaling message and the second user plane signaling message are both encrypted according to the user plane encryption key (step 540).
A turbomachine fluid delivery system (60;60a), comprising: a first turbomachine fluid container (72;72a) for receiving a mixture of air and oil; a second turbomachine fluid container (76;76a) for receiving a mixture of air and oil; a supplied area ; and a pump configured to move a flow of the turbomachine fluid to the supplied area , the system (60; 60a) being configured such that the first (72;72a) and second (76;76a) turbomachine fluid containers together provide the flow to the pump in both a positive g-force environment and a negative g-force environment, wherein: when operating in a positive g-force environment, the first turbomachine fluid container (72;72a) is configured to provide a mixture of air and oil; and when operating in a negative g-force environment, the first turbomachine fluid container (72;72a) is configured to provide primarily oil due to the negative g-forces causing most of the air within the first container (72;72a) to separate from the oil in the first container (72;72a); characterised in that : when operating in a positive g-force environment, the second turbomachine fluid container (76;76a) is configured to provide a mixture of air and oil; and when operating in a negative g-force environment, the second turbomachine fluid container (76; 76a) is configured to provide primarily air. a first turbomachine fluid container (72;72a) for receiving a mixture of air and oil; a second turbomachine fluid container (76;76a) for receiving a mixture of air and oil; a supplied area ; and a pump configured to move a flow of the turbomachine fluid to the supplied area , the system (60; 60a) being configured such that the first (72;72a) and second (76;76a) turbomachine fluid containers together provide the flow to the pump in both a positive g-force environment and a negative g-force environment, wherein: when operating in a positive g-force environment, the first turbomachine fluid container (72;72a) is configured to provide a mixture of air and oil; and when operating in a negative g-force environment, the first turbomachine fluid container (72;72a) is configured to provide primarily oil due to the negative g-forces causing most of the air within the first container (72;72a) to separate from the oil in the first container (72;72a); when operating in a positive g-force environment, the first turbomachine fluid container (72;72a) is configured to provide a mixture of air and oil; and when operating in a negative g-force environment, the first turbomachine fluid container (72;72a) is configured to provide primarily oil due to the negative g-forces causing most of the air within the first container (72;72a) to separate from the oil in the first container (72;72a); when operating in a positive g-force environment, the second turbomachine fluid container (76;76a) is configured to provide a mixture of air and oil; and when operating in a negative g-force environment, the second turbomachine fluid container (76; 76a) is configured to provide primarily air.
A rigid vinyl chloride injection screw which kneads and injects rigid vinyl chloride comprising: a flight ; and a groove , wherein an effective screw length (L) is divided into a supply portion, a compression portion, and a measure portion, a width (tf) of the flight at the supply portion is set to be wider than a width (tm) of the flight at the measure portion, and a depth (hf) of the groove at the supply portion is set to be larger than a depth (hm) of the groove at the measure portion, wherein L/D is set to be in a range that is 17,0 to 19,5 where L is the effective screw length and D is a diameter of the injection screw , wherein tf/tm is set to be in a range that is 2,3 to 3,0 where tf is the width of the flight at the supply portion and tm is the width of the flight at the measure portion, hf/hm is set to be in a range that is 2,0 to 2,2 where hf is the depth of the groove at the supply portion and hm is the depth of the groove at the measure portion, and wherein a compression ratio that is calculated from ((P - tf) × hf)/((P - tm) × hm) is set to be in a range that is 1,63 to 1,81 where P is a pitch of the injection screw . wherein an effective screw length (L) is divided into a supply portion, a compression portion, and a measure portion, a width (tf) of the flight at the supply portion is set to be wider than a width (tm) of the flight at the measure portion, and a depth (hf) of the groove at the supply portion is set to be larger than a depth (hm) of the groove at the measure portion, wherein L/D is set to be in a range that is 17,0 to 19,5 where L is the effective screw length and D is a diameter of the injection screw , wherein tf/tm is set to be in a range that is 2,3 to 3,0 where tf is the width of the flight at the supply portion and tm is the width of the flight at the measure portion, hf/hm is set to be in a range that is 2,0 to 2,2 where hf is the depth of the groove at the supply portion and hm is the depth of the groove at the measure portion, and wherein a compression ratio that is calculated from ((P - tf) × hf)/((P - tm) × hm) is set to be in a range that is 1,63 to 1,81 where P is a pitch of the injection screw .
A method of targeting speech and disregarding noise in an automatic speech extraction system, comprising: accepting a voice signal in a system for automatic speech extraction; identifying : a fundamental frequency of the voice signal, and at least one harmonic of the fundamental frequency; applying a filter to the fundamental frequency and the at least one harmonic to disregard non-harmonic energy, thereby forming one or more harmonic-only signals; performing an amplitude modulation on the one or more harmonic-only signals, thereby forming one or more amplitude modulated harmonic-only signals; constructing one or more signal-to-noise ratios for the one or more amplitude modulated harmonic-only signals; disregarding one or more signals from among the one or more amplitude modulated harmonic-only signals whose signal-to-noise ratio falls below a threshold amplitude; applying a bandpass filter to the extracted amplitude patterns, the bandpass filter having a range characteristic of human speech, thereby disregarding one or more signals from among the one or more amplitude modulated harmonic-only signals whose amplitude modulations are inconsistent with human speech, to produce a resultant signal; and outputting the resultant signal. accepting a voice signal in a system for automatic speech extraction; identifying : a fundamental frequency of the voice signal, and at least one harmonic of the fundamental frequency; a fundamental frequency of the voice signal, and at least one harmonic of the fundamental frequency; applying a filter to the fundamental frequency and the at least one harmonic to disregard non-harmonic energy, thereby forming one or more harmonic-only signals; performing an amplitude modulation on the one or more harmonic-only signals, thereby forming one or more amplitude modulated harmonic-only signals; constructing one or more signal-to-noise ratios for the one or more amplitude modulated harmonic-only signals; disregarding one or more signals from among the one or more amplitude modulated harmonic-only signals whose signal-to-noise ratio falls below a threshold amplitude; applying a bandpass filter to the extracted amplitude patterns, the bandpass filter having a range characteristic of human speech, thereby disregarding one or more signals from among the one or more amplitude modulated harmonic-only signals whose amplitude modulations are inconsistent with human speech, to produce a resultant signal; and outputting the resultant signal.
A holder for mounting a hand tool to a surface , the holder comprising: a suction cup positionable upon the surface , the suction cup having a central area; a yoke connected to the central area, the yoke movable in a vertical direction relative to the surface , to distort the suction cup and create an area of low pressure between the suction cup and the surface , to secure the suction cup and yoke to the surface , the yoke including a cam engagement surface ; a frame including a cradle shaped to receive and support the hand tool when a hand tool is placed onto the holder ; a base ; an extension connecting the base and the cradle ; and a cam pin movable within the frame, the cam pin including a cam profile slideably engageable with the cam engagement surface of the yoke to push the yoke vertically away from the surface or allow the yoke to move towards the surface to increase or decrease the pressure between the suction cup and the surface , characterized in that the yoke is biased by a resilient bumper . a suction cup positionable upon the surface , the suction cup having a central area; a yoke connected to the central area, the yoke movable in a vertical direction relative to the surface , to distort the suction cup and create an area of low pressure between the suction cup and the surface , to secure the suction cup and yoke to the surface , the yoke including a cam engagement surface ; a frame including a cradle shaped to receive and support the hand tool when a hand tool is placed onto the holder ; a base ; an extension connecting the base and the cradle ; and a cradle shaped to receive and support the hand tool when a hand tool is placed onto the holder ; a base ; an extension connecting the base and the cradle ; and a cam pin movable within the frame, the cam pin including a cam profile slideably engageable with the cam engagement surface of the yoke to push the yoke vertically away from the surface or allow the yoke to move towards the surface to increase or decrease the pressure between the suction cup and the surface , characterized in that the yoke is biased by a resilient bumper .
A current interrupting device provided with: a current limiting element provided on a power supply path (C1) from a predetermined power supply to a load device, the current limiting element being configured to exhibit a current limiting action when current flowing the power supply path (C1) exceeds a first current threshold value (I th1 ); a current diversion path switch capable of switching on and off of an electric conduction of a current diversion path (C2), the current diversion path switch being connected in parallel with the power supply path (C1); and a controller configured to control on and off of the current diversion path switch , characterized in that the controller is configured to: switch the current diversion path switch on from an off state when it is detected that current flowing through the current limiting element is limited to a second current threshold value (I th2 ) after the current flowing the current limiting element has exceeded the first current threshold value (I th1 ), and switch the current diversion path switch off again after a predetermined switched-on holding time has elapsed since the current diversion path switch has been switched on. a current limiting element provided on a power supply path (C1) from a predetermined power supply to a load device, the current limiting element being configured to exhibit a current limiting action when current flowing the power supply path (C1) exceeds a first current threshold value (I th1 ); a current diversion path switch capable of switching on and off of an electric conduction of a current diversion path (C2), the current diversion path switch being connected in parallel with the power supply path (C1); and a controller configured to control on and off of the current diversion path switch , characterized in that the controller is configured to: switch the current diversion path switch on from an off state when it is detected that current flowing through the current limiting element is limited to a second current threshold value (I th2 ) after the current flowing the current limiting element has exceeded the first current threshold value (I th1 ), and switch the current diversion path switch off again after a predetermined switched-on holding time has elapsed since the current diversion path switch has been switched on. switch the current diversion path switch on from an off state when it is detected that current flowing through the current limiting element is limited to a second current threshold value (I th2 ) after the current flowing the current limiting element has exceeded the first current threshold value (I th1 ), and switch the current diversion path switch off again after a predetermined switched-on holding time has elapsed since the current diversion path switch has been switched on.
A camera assembly for a mobile terminal, comprising a substrate , a lens , a photosensitive element , an infrared photosensitive sensor and an infrared filter , wherein the photosensitive element , the infrared photosensitive sensor and the infrared filter are located between the substrate and the lens , the photosensitive element and the infrared photosensitive sensor are arranged on the substrate and are electrically connected to the substrate , and the infrared filter is located at a side of the photosensitive element away from the substrate; wherein infrared light entering through the lens is incident on the infrared photosensitive sensor ; characterized in that the infrared photosensitive sensor is located within a projection region of the infrared filter onto the substrate , and a position of the infrared filter aligned with the infrared photosensitive sensor is provided with a hole ; an end of the infrared photosensitive sensor away from the substrate passes through the hole of the infrared filter ; and a photosensitive region formed by the photosensitive element is of a ring structure, and the infrared photosensitive sensor is located in an inner ring of the photosensitive region. wherein the photosensitive element , the infrared photosensitive sensor and the infrared filter are located between the substrate and the lens , the photosensitive element and the infrared photosensitive sensor are arranged on the substrate and are electrically connected to the substrate , and the infrared filter is located at a side of the photosensitive element away from the substrate; wherein infrared light entering through the lens is incident on the infrared photosensitive sensor ; characterized in that the infrared photosensitive sensor is located within a projection region of the infrared filter onto the substrate , and a position of the infrared filter aligned with the infrared photosensitive sensor is provided with a hole ; an end of the infrared photosensitive sensor away from the substrate passes through the hole of the infrared filter ; and a photosensitive region formed by the photosensitive element is of a ring structure, and the infrared photosensitive sensor is located in an inner ring of the photosensitive region.
A stapling device comprising; an elongate body having a proximal portion and a distal portion; a tool assembly supported on the distal portion of the elongate body, the tool assembly having a proximal portion and a distal portion and including an anvil assembly and a cartridge assembly, the anvil assembly and the cartridge assembly having proximal portions coupled together such that the tool assembly is movable between an open position and a clamped position; and a stabilizing member supported on the distal portion of the tool assembly on one of the cartridge and anvil assemblies, the stabilizing member being movable when the tool assembly is in the clamped position from a first position disengaged with the other one of the cartridge and anvil assemblies to a second position engaged with the other one of the cartridge and anvil assemblies to define a predetermined maximum tissue gap ("G") between the cartridge assembly and the anvil assembly, characterized in that the stabilizing member is a stabilizing cap that is movable between the first and the second positions on the one of the cartridge and anvil assemblies, wherein the stabilizing cap defines a cavity that receives the other one of the cartridge and anvil assemblies when the cap is moved to the second position. an elongate body having a proximal portion and a distal portion; a tool assembly supported on the distal portion of the elongate body, the tool assembly having a proximal portion and a distal portion and including an anvil assembly and a cartridge assembly, the anvil assembly and the cartridge assembly having proximal portions coupled together such that the tool assembly is movable between an open position and a clamped position; and a stabilizing member supported on the distal portion of the tool assembly on one of the cartridge and anvil assemblies, the stabilizing member being movable when the tool assembly is in the clamped position from a first position disengaged with the other one of the cartridge and anvil assemblies to a second position engaged with the other one of the cartridge and anvil assemblies to define a predetermined maximum tissue gap ("G") between the cartridge assembly and the anvil assembly, characterized in that the stabilizing member is a stabilizing cap that is movable between the first and the second positions on the one of the cartridge and anvil assemblies, wherein the stabilizing cap defines a cavity that receives the other one of the cartridge and anvil assemblies when the cap is moved to the second position.
A therapeutically effective amount of a miR-135, a precursor thereof or a nucleic acid molecule encoding said miR-135 or said precursor thereof for use in treating a bipolar disorder in a subject in need thereof.
A method comprising: measuring one or more periauricular muscle signals from one or more periauricular muscles of a user with a set of one or more electrodes placed at least partially inside a concha of the user; computing, based on the periauricular muscle signals, an estimate of an angle corresponding to a direction of a current auditory attention locus of the user with respect to a reference point or plane; and controlling, based on the estimate of the angle, an operating characteristic of a sound processing system . measuring one or more periauricular muscle signals from one or more periauricular muscles of a user with a set of one or more electrodes placed at least partially inside a concha of the user; computing, based on the periauricular muscle signals, an estimate of an angle corresponding to a direction of a current auditory attention locus of the user with respect to a reference point or plane; and controlling, based on the estimate of the angle, an operating characteristic of a sound processing system .
A guided land vehicle for travelling on a railway track, the vehicle comprising : - a roof , - the vehicle comprising, on its roof , means for connection to an overhead contact line, - means for supplying power in the event of an overhead contact line failure, mounted on the roof , and - traction means mounted on the roof , characterised in that the traction means comprise at least one traction box having a static converter, the static converter being configured to supply voltage to the auxiliary circuits, the auxiliary circuits comprising at least the lighting, the air conditioning or the on-board announcement system of the vehicle. - a roof , - the vehicle comprising, on its roof , means for connection to an overhead contact line, - means for supplying power in the event of an overhead contact line failure, mounted on the roof , and - traction means mounted on the roof ,
A stencil printer for printing an assembly material on an electronic substrate, the stencil printer comprising: a frame ; a stencil coupled to the frame , the stencil having apertures formed therein; a support assembly coupled to the frame, the support assembly being configured to support the electronic substrate; a print head gantry coupled to the frame; a print head assembly supported by the print head gantry in such a manner that the print head assembly is configured to traverse the stencil during print strokes; and an assembly material recovery system configured to remove assembly material from a top surface of the stencil and to deposit assembly material onto a new replacement stencil, the recovery system including a receptacle configured to be positioned on the top surface of the stencil ; wherein the support assembly is configured to be moved in a z-axis direction and elevated to engage magnets mounted in a bottom of the receptacle, with the support assembly including a steel surface to secure the receptacle in place on the stencil . a frame ; a stencil coupled to the frame , the stencil having apertures formed therein; a support assembly coupled to the frame, the support assembly being configured to support the electronic substrate; a print head gantry coupled to the frame; a print head assembly supported by the print head gantry in such a manner that the print head assembly is configured to traverse the stencil during print strokes; and an assembly material recovery system configured to remove assembly material from a top surface of the stencil and to deposit assembly material onto a new replacement stencil, the recovery system including a receptacle configured to be positioned on the top surface of the stencil ; wherein the support assembly is configured to be moved in a z-axis direction and elevated to engage magnets mounted in a bottom of the receptacle, with the support assembly including a steel surface to secure the receptacle in place on the stencil .