mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a speaker positioned on surface of a housing; and at least one sensor for outputting sensing information used in detecting a direction in which the speaker faces at least one processor configured to: receive a first audio signal through at least one microphone positioned in a first body of an earphone detachably connectable to the electronic device and a second audio signal through at least one microphone positioned in a second body of the earphone; obtain a time delay and a level difference between the first audio signal and the second audio signal; and identify a positioning state of the earphone based on the direction in which the speaker faces and at least one of the time delay and the level difference. a speaker positioned on surface of a housing; and at least one sensor for outputting sensing information used in detecting a direction in which the speaker faces at least one processor configured to: receive a first audio signal through at least one microphone positioned in a first body of an earphone detachably connectable to the electronic device and a second audio signal through at least one microphone positioned in a second body of the earphone; obtain a time delay and a level difference between the first audio signal and the second audio signal; and identify a positioning state of the earphone based on the direction in which the speaker faces and at least one of the time delay and the level difference. receive a first audio signal through at least one microphone positioned in a first body of an earphone detachably connectable to the electronic device and a second audio signal through at least one microphone positioned in a second body of the earphone; obtain a time delay and a level difference between the first audio signal and the second audio signal; and identify a positioning state of the earphone based on the direction in which the speaker faces and at least one of the time delay and the level difference.
A method of making a cleaning article having a longitudinal axis (LA), said method comprising the steps of: providing a precursor sheet having discrete tufts of tow fibers disposed thereon, cutting said precursor sheet into a plurality of discrete portions, and bonding at least some of said discrete portions of said precursor sheet and said tufts to a carrier sheet to provide a laminate with said tufts extending outwardly to form a cleaning article for cleaning a target surface with said tufts . providing a precursor sheet having discrete tufts of tow fibers disposed thereon, cutting said precursor sheet into a plurality of discrete portions, and bonding at least some of said discrete portions of said precursor sheet and said tufts to a carrier sheet to provide a laminate with said tufts extending outwardly to form a cleaning article for cleaning a target surface with said tufts .
Coating robot with a cavity which can be closed in a pressure-tight manner up to at least 175 mbar, 200 mbar or 225 mbar by a removable covering element , and with a closure device which can be attached to the robot and which comprises a fastening apparatus with a rotatable closure element for fastening the covering element to the robot , characterized in that the fastening apparatus comprises a closure bushing for receiving and fastening the closure element in sections, that the closure element has at least one nose (2.1) projecting from it and rotatable with it, which serves to fasten the closure element in the closure bushing , and in that the fastening apparatus has a rotary closing movement of between 45° and 215° and can thus be brought into a closed position by a rotary closing movement of between 45° and 215°. that the fastening apparatus comprises a closure bushing for receiving and fastening the closure element in sections, that the closure element has at least one nose (2.1) projecting from it and rotatable with it, which serves to fasten the closure element in the closure bushing , and in that the fastening apparatus has a rotary closing movement of between 45° and 215° and can thus be brought into a closed position by a rotary closing movement of between 45° and 215°.
A lubricating composition comprising: an oil of lubricating viscosity; and 2-30 wt.% of an overbased metal-containing sulfonate detergent having a Total Base Number, as determined by ASTM D2896-15, of 120 to 700; 5 to 50 wt. % of a low-ash additive system consisting of: an amine with a Total Base Number, as determined by ASTM D2896-15, of at least 150 and a weight average molecular weight of 100 to 600, the amine being 5-35 wt. % of the lubricating composition, and an N-substituted, hydrocarbyl-substituted succinimide dispersant, present at 1 to 35 wt. % of the lubricating composition, and having a Total Base Number, as determined by ASTM D2896-15, of at least 60, and wherein the low-ash additive system has a Total Base Number, as determined by ASTM D2896-15, of at least 150 mg KOH/g, or at least 200 mg KOH/g, the low-ash additive system providing no more than 70% of the Total Base Number of the lubricating composition. an oil of lubricating viscosity; and 2-30 wt.% of an overbased metal-containing sulfonate detergent having a Total Base Number, as determined by ASTM D2896-15, of 120 to 700; 5 to 50 wt. % of a low-ash additive system consisting of: an amine with a Total Base Number, as determined by ASTM D2896-15, of at least 150 and a weight average molecular weight of 100 to 600, the amine being 5-35 wt. % of the lubricating composition, and an N-substituted, hydrocarbyl-substituted succinimide dispersant, present at 1 to 35 wt. % of the lubricating composition, and having a Total Base Number, as determined by ASTM D2896-15, of at least 60, and wherein the low-ash additive system has a Total Base Number, as determined by ASTM D2896-15, of at least 150 mg KOH/g, or at least 200 mg KOH/g, the low-ash additive system providing no more than 70% of the Total Base Number of the lubricating composition. an amine with a Total Base Number, as determined by ASTM D2896-15, of at least 150 and a weight average molecular weight of 100 to 600, the amine being 5-35 wt. % of the lubricating composition, and an N-substituted, hydrocarbyl-substituted succinimide dispersant, present at 1 to 35 wt. % of the lubricating composition, and having a Total Base Number, as determined by ASTM D2896-15, of at least 60, and wherein the low-ash additive system has a Total Base Number, as determined by ASTM D2896-15, of at least 150 mg KOH/g, or at least 200 mg KOH/g, the low-ash additive system providing no more than 70% of the Total Base Number of the lubricating composition.
Muffler for an exhaust system of an internal combustion engine, comprising a muffler housing and at least one exhaust gas pipe group , wherein the at least one exhaust gas pipe group comprises: - an outlet pipe open towards an expansion chamber formed in the muffler housing , wherein exhaust gas introduced via the at least one exhaust gas pipe group leaves the muffler housing via the outlet pipe , - a first inlet pipe , wherein the first inlet pipe has an inlet pipe end area , which is inserted into the outlet pipe and extends in the outlet pipe , characterized by a second inlet pipe , wherein the second inlet pipe is open towards the expansion chamber . - an outlet pipe open towards an expansion chamber formed in the muffler housing , wherein exhaust gas introduced via the at least one exhaust gas pipe group leaves the muffler housing via the outlet pipe , - a first inlet pipe , wherein the first inlet pipe has an inlet pipe end area , which is inserted into the outlet pipe and extends in the outlet pipe ,
Cooling device comprising: - a cooling plate , - a cooling system provided with a cooling fluid, - a hollow cold finger closed at one end by the cooling plate , the cooling fluid being located in the cold finger to cool the cooling plate , the cold finger comprising at least one side wall defining a confinement channel of the cooling fluid from the cooling system , - said at least one side wall being at least partially formed by an area made from at least partially amorphous metal alloy so as to form a thermal insulator, cooling device characterized in that : - the area made from at least partially amorphous metal alloy is formed by an at least ternary alloy containing at least 17.5% in atomic % of hafnium and possibly of copper with a maximum content equal to 40% in atomic % of copper. - a cooling plate , - a cooling system provided with a cooling fluid, - a hollow cold finger closed at one end by the cooling plate , the cooling fluid being located in the cold finger to cool the cooling plate , the cold finger comprising at least one side wall defining a confinement channel of the cooling fluid from the cooling system , - said at least one side wall being at least partially formed by an area made from at least partially amorphous metal alloy so as to form a thermal insulator, - the area made from at least partially amorphous metal alloy is formed by an at least ternary alloy containing at least 17.5% in atomic % of hafnium and possibly of copper with a maximum content equal to 40% in atomic % of copper.
A method for producing a permanent magnet, in which a powder of a magnetic material is produced and the powder of the magnetic material is processed into a permanent magnet, wherein the production of the powder of the magnetic material comprises the steps: - Grinding a suspension of particles of the magnetic material of a first average particle size in liquid nitrogen, obtaining particles of the magnetic material of a second average particle size, which is smaller than the first average particle size, characterized by - separating a suspension of the ground magnetic material in liquid nitrogen, wherein particles having a particle size smaller than a predetermined upper particle size are separated. - Grinding a suspension of particles of the magnetic material of a first average particle size in liquid nitrogen, obtaining particles of the magnetic material of a second average particle size, which is smaller than the first average particle size, characterized by - separating a suspension of the ground magnetic material in liquid nitrogen, wherein particles having a particle size smaller than a predetermined upper particle size are separated.
A filter structure for separating water from a fluid, the filter comprising an absorbent filter membrane constituted by a non-woven textile , wherein the absorbent filter membrane comprises a first face turned upstream in a crossing direction (F) of the fluid being filtered and a second face , opposite to the first face and turned downstream in the crossing direction (F) of the fluid being filtered, wherein the non-woven textile is constituted by a bearing lattice and by a super-absorbent material , which expands when it absorbs water, fixed to the bearing lattice , wherein the super-absorbent material is present in a smaller quantity than 70% in dry weight with respect to a dry weight of the non-woven textile , and wherein the super-absorbent material is operable between a dry or unsaturated configuration, in which the non-woven textile has an open porosity between the bearing lattice and the super-absorbent material , and a saturation configuration, in which the expansion of the super-absorbent material closes the open porosity between the bearing lattice and the super-absorbent material , characterized in that fibres that constitute the bearing lattice define a pathway having at least an upstream end, in the crossing direction (F), which defines a portion of the first face or emerges slightly with respect thereto both in dry or unsaturated configuration and in saturation configuration of the super-absorbent material , and a downstream end, in the crossing direction (F), which defines a portion of the second face or emerges slightly therefrom both in dry or unsaturated configuration and in saturation configuration of the super-absorbent material so that, when the super-absorbent material is in saturation configuration, the non-woven textile has a permeability to the fluid that is not nil by capillarity to the interface between the bearing lattice and the super-absorbent material .
A termination circuit for a receiver receiving a single-ended signal, the termination circuit comprising: a first stage for receiving input from an input port of the receiver, the first stage having a low-pass transfer function having a first pole/zero pair; and characterized by : a second stage for outputting to one or more further stages of the receiver, the second stage being coupled to the first stage , the second stage having a high-pass transfer function, the high-pass transfer function having a second pole/zero pair that cancels out the first pole/zero pair; wherein the termination circuit provides AC-coupled termination for the single-ended signal. a first stage for receiving input from an input port of the receiver, the first stage having a low-pass transfer function having a first pole/zero pair; and characterized by : a second stage for outputting to one or more further stages of the receiver, the second stage being coupled to the first stage , the second stage having a high-pass transfer function, the high-pass transfer function having a second pole/zero pair that cancels out the first pole/zero pair; wherein the termination circuit provides AC-coupled termination for the single-ended signal. a second stage for outputting to one or more further stages of the receiver, the second stage being coupled to the first stage , the second stage having a high-pass transfer function, the high-pass transfer function having a second pole/zero pair that cancels out the first pole/zero pair; wherein the termination circuit provides AC-coupled termination for the single-ended signal.
A sample observation device , comprising: an emission optical system that emits planar light (L2) to a sample (S) on an XZ plane; a scanning unit that scans the sample (S) in a Y-axis direction so as to pass through an emission surface (R) of the planar light (L2); an imaging optical system that has an observation axis (P2) inclined with respect to the emission surface (R) and forms an image of observation light (L3) generated in the sample (S) by emission of the planar light (L2); an image acquisition unit that acquires a plurality of pieces of XZ image data corresponding to an optical image of the observation light (L3) formed by the imaging optical system ; and an image generation unit that generates XY image data of the sample (S) based on the plurality of pieces of XZ image data acquired by the image acquisition unit , wherein the image acquisition unit acquires a plurality of pieces of the XZ image data in the Y-axis direction, and the image generation unit extracts an analysis region (F) where fluorescence from the sample (S) is present among regions imaged by the XZ image data , characterised in that the image generation unit further integrates brightness values of the analysis region (F) in a Z-axis direction to generate X image data , and combines the X image data in the Y-axis direction to generate the XY image data . an emission optical system that emits planar light (L2) to a sample (S) on an XZ plane; a scanning unit that scans the sample (S) in a Y-axis direction so as to pass through an emission surface (R) of the planar light (L2); an imaging optical system that has an observation axis (P2) inclined with respect to the emission surface (R) and forms an image of observation light (L3) generated in the sample (S) by emission of the planar light (L2); an image acquisition unit that acquires a plurality of pieces of XZ image data corresponding to an optical image of the observation light (L3) formed by the imaging optical system ; and an image generation unit that generates XY image data of the sample (S) based on the plurality of pieces of XZ image data acquired by the image acquisition unit , wherein the image acquisition unit acquires a plurality of pieces of the XZ image data in the Y-axis direction, and the image generation unit extracts an analysis region (F) where fluorescence from the sample (S) is present among regions imaged by the XZ image data , characterised in that the image generation unit further integrates brightness values of the analysis region (F) in a Z-axis direction to generate X image data , and combines the X image data in the Y-axis direction to generate the XY image data .
Method for adjusting an initial starting position of an acquisition trajectory of a mobile X-ray device to perform a portable X-ray tomography acquisition sequence on a region of interest of an object , comprising the steps of: - positioning said mobile X-ray device at said initial starting position such that an estimated acquisition trajectory is aligned with a digital imaging detector by an operator, - receiving X-ray source collimator settings, - calculating said acquisition trajectory of said mobile X-ray device during said portable X-ray tomography acquisition sequence for said initial starting position, characterized in that , - the acquisition trajectory of said mobile X-ray device during said portable X-ray tomography acquisition sequence for said initial starting position is visualized for each change in position of said mobile X-ray device, - said initial starting position for said acquisition trajectory is adjusted interactively by said operator by moving said mobile X-ray device, such that a trajectory portion of said visualized acquisition trajectory is aligned with said region of interest of said patient. - positioning said mobile X-ray device at said initial starting position such that an estimated acquisition trajectory is aligned with a digital imaging detector by an operator, - receiving X-ray source collimator settings, - calculating said acquisition trajectory of said mobile X-ray device during said portable X-ray tomography acquisition sequence for said initial starting position, characterized in that , - the acquisition trajectory of said mobile X-ray device during said portable X-ray tomography acquisition sequence for said initial starting position is visualized for each change in position of said mobile X-ray device, - said initial starting position for said acquisition trajectory is adjusted interactively by said operator by moving said mobile X-ray device, such that a trajectory portion of said visualized acquisition trajectory is aligned with said region of interest of said patient.
A computer-implemented method for supporting echo or traceroute functionality in a path spanning multiple autonomous systems, ASes, having segment routing, SR, enabled, the path including an ingress node and an egress node, the computer-implemented method comprising: a) obtaining a return label stack to reach the ingress node from either (A) the egress node, or (B) a transit node in the path, wherein obtaining the return label stack comprises: calculating, by the ingress node and/or a path monitoring system, PMS, controller outside the path, the return label stack, said calculating being based on the network topology of the return path; and obtaining, by the ingress node from the ingress node itself and/or the path monitoring system, PMS, controller, the calculated return label stack; b) obtaining a label stack to reach, from the ingress node, either (A) the egress node, or (B) the transit node; c) generating a request message, including the return label stack, at the ingress node; and d) sending the request message, including the return label stack, from the ingress node towards either (A) the egress node, or (B) the transit node using the label stack. a) obtaining a return label stack to reach the ingress node from either (A) the egress node, or (B) a transit node in the path, wherein obtaining the return label stack comprises: calculating, by the ingress node and/or a path monitoring system, PMS, controller outside the path, the return label stack, said calculating being based on the network topology of the return path; and obtaining, by the ingress node from the ingress node itself and/or the path monitoring system, PMS, controller, the calculated return label stack; calculating, by the ingress node and/or a path monitoring system, PMS, controller outside the path, the return label stack, said calculating being based on the network topology of the return path; and obtaining, by the ingress node from the ingress node itself and/or the path monitoring system, PMS, controller, the calculated return label stack; b) obtaining a label stack to reach, from the ingress node, either (A) the egress node, or (B) the transit node; c) generating a request message, including the return label stack, at the ingress node; and d) sending the request message, including the return label stack, from the ingress node towards either (A) the egress node, or (B) the transit node using the label stack.
A fluid delivery device comprising: a housing having a fluid reservoir ; a needle configured to be in fluid communication with the fluid reservoir in an engaged position and out of fluid communication with the fluid reservoir in an armed position and a storage position; a cap extending over a needle button coupled to the needle in the storage position and preventing the fluid delivery device from transitioning to the armed and engaged positions; a biasing member having a proximal end coupled to the housing and a distal end configured to provide a force for the fluid reservoir; and a plunger coupled to the distal end of the biasing member , wherein the plunger extends through the biasing member, the plunger being fixed with respect to the housing in the storage position such that the biasing member does not provide the force to the fluid reservoir and moveable with respect to the housing in the armed position such that the biasing member provides the force to the fluid reservoir, characterised in that the cap is coupled to a pin extending through the housing and releaseably retaining the plunger in the storage position such that removing the cap from covering the needle button releases the plunger from the housing and transitions the fluid delivery device from the storage position to the armed position. a housing having a fluid reservoir ; a needle configured to be in fluid communication with the fluid reservoir in an engaged position and out of fluid communication with the fluid reservoir in an armed position and a storage position; a cap extending over a needle button coupled to the needle in the storage position and preventing the fluid delivery device from transitioning to the armed and engaged positions; a biasing member having a proximal end coupled to the housing and a distal end configured to provide a force for the fluid reservoir; and a plunger coupled to the distal end of the biasing member , wherein the plunger extends through the biasing member, the plunger being fixed with respect to the housing in the storage position such that the biasing member does not provide the force to the fluid reservoir and moveable with respect to the housing in the armed position such that the biasing member provides the force to the fluid reservoir, characterised in that the cap is coupled to a pin extending through the housing and releaseably retaining the plunger in the storage position such that removing the cap from covering the needle button releases the plunger from the housing and transitions the fluid delivery device from the storage position to the armed position.