mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing a sheet (S) for bookbinding, the method comprising: forming a cut that divides a thickness of the sheet (S) in a binding-side side surface of the sheet (S); inserting, into the cut , a portion of a connection piece that is attached to the sheet (S), and functions as a hinge in a book-bound state; and joining the portion of the connection piece inserted into the cut to the sheet (S). forming a cut that divides a thickness of the sheet (S) in a binding-side side surface of the sheet (S); inserting, into the cut , a portion of a connection piece that is attached to the sheet (S), and functions as a hinge in a book-bound state; and joining the portion of the connection piece inserted into the cut to the sheet (S).
A transducer for detecting the state of an indicator lamp comprising a battery-operated photoelectric sensor and transmitter and a rechargeable battery ; the photoelectric sensor generating an electric potential in response to incident light from the indicator lamp, coupled to a field-effect transistor which switches between distinct on and off states at a threshold potential, wherein the field effect transistor is connected to a rechargeable battery arranged to be charged up by the photoelectric sensor and to be switched to discharge, by the field-effect transistor when the indicator lamp ceases to be illuminated, to discharge to the transmitter, the discharge current being used to transmit a message alerting an operator.
A method of finishing a target material, the method comprising: positioning a target material in a pressure vessel; introducing carbon dioxide ("CO 2 ") within the pressure vessel; increasing an internal temperature of the pressure vessel to an operating temperature; increasing a pressure within the pressure vessel to an operating pressure, wherein the CO 2 is at supercritical fluid ("SCF") state when at the operating temperature and the operating pressure; perfusing, using SCF CO 2 , the target material with a finishing material; and reducing the pressure from the operating pressure to a transition pressure prior to reducing the temperature to a threshold temperature; further comprising increasing a flow rate to a non-zero rate during the perfusing of the target material with the finishing material, wherein the flow rate is in a range of 175 - 240 m 3 /hr, and reducing the flow rate to a flow rate in a range of 90 - 130 m 3 /hr after reducing the pressure from the operating pressure, wherein the target material is a spooled material, wherein the finishing material is dyestuff, wherein a sacrificial material has integral dyestuff and is in physical contact with the spooled material.
A method of conductively bonding a test probe tip having an electrically conductive element to a device under test, DUT, having an electrical connection point, the method comprising: positioning the electrically conductive element of the test probe tip proximate to the electrical connection point of the DUT ; dispensing a UV-cure conductive adhesive between the electrically conductive element and the electrical connection point of the DUT , the dispensed UV-cure conductive adhesive continuously covering at least a portion of the electrically conductive element and at least a portion of the electrical connection point of the DUT ; and bonding the dispensed UV-cure conductive adhesive to the electrically conductive element and the electrical connection point of the DUT by applying UV-light from a UV-light source to the dispensed UV-cure conductive adhesive . positioning the electrically conductive element of the test probe tip proximate to the electrical connection point of the DUT ; dispensing a UV-cure conductive adhesive between the electrically conductive element and the electrical connection point of the DUT , the dispensed UV-cure conductive adhesive continuously covering at least a portion of the electrically conductive element and at least a portion of the electrical connection point of the DUT ; and bonding the dispensed UV-cure conductive adhesive to the electrically conductive element and the electrical connection point of the DUT by applying UV-light from a UV-light source to the dispensed UV-cure conductive adhesive .
A pressed powder magnetic core material comprising: a granulation binder; a soft magnetic powder in which an insulating coating film is formed on a particle surface; and a TeO 2 -V 2 O 5 -based glass frit whose softening point is a temperature being at least 100°C lower than a magnetic annealing temperature; wherein the glass frit is contained in an amount of 0.3 to 1.0% by mass based on the whole amount of the soft magnetic powder. a granulation binder; a soft magnetic powder in which an insulating coating film is formed on a particle surface; and a TeO 2 -V 2 O 5 -based glass frit whose softening point is a temperature being at least 100°C lower than a magnetic annealing temperature; wherein the glass frit is contained in an amount of 0.3 to 1.0% by mass based on the whole amount of the soft magnetic powder.
A robotic surgical instrument , comprising: an end effector ; a first support body that supports the end effector rotatably about a first shaft (A1); a second support body that supports the first support body rotatably about a second shaft (A2); an elongated element to rotate the first support body with respect to the second support body ; and a shaft to which the second support body is connected, wherein the elongated element includes a wire (W), an attachment (S) fixed to the wire, and a protection tube (C) fixed to the wire, and characterized in that the first support body includes a through-hole having a size in which the attachment and the protection tube are insertable. an end effector ; a first support body that supports the end effector rotatably about a first shaft (A1); a second support body that supports the first support body rotatably about a second shaft (A2); an elongated element to rotate the first support body with respect to the second support body ; and a shaft to which the second support body is connected, wherein the elongated element includes a wire (W), an attachment (S) fixed to the wire, and a protection tube (C) fixed to the wire, and characterized in that the first support body includes a through-hole having a size in which the attachment and the protection tube are insertable.
An implantable medical device, comprising: a sensor configured to produce an intraventricular signal that includes an atrial mechanical event signal attendant to atrial mechanical systole; a sensing circuit configured to sense ventricular events; a memory configured to store atrial arrhythmia episode data; and a control circuit coupled to the sensor, the sensing circuit, and the memory, the control circuit configured to: determine a first atrial arrhythmia score from the ventricular events sensed by the sensing circuit, the first atrial arrhythmia score correlated to a presence of atrial arrhythmia; determine a second atrial arrhythmia score from the intraventricular signal based on the atrial mechanical event signals; detect an atrial arrhythmia based on the first atrial arrhythmia score and the second atrial arrhythmia score; and update the atrial arrhythmia episode data stored in the memory in response to detecting the atrial arrhythmia, the update including an indication of the detected atrial arrhythmia. a sensor configured to produce an intraventricular signal that includes an atrial mechanical event signal attendant to atrial mechanical systole; a sensing circuit configured to sense ventricular events; a memory configured to store atrial arrhythmia episode data; and a control circuit coupled to the sensor, the sensing circuit, and the memory, the control circuit configured to: determine a first atrial arrhythmia score from the ventricular events sensed by the sensing circuit, the first atrial arrhythmia score correlated to a presence of atrial arrhythmia; determine a second atrial arrhythmia score from the intraventricular signal based on the atrial mechanical event signals; detect an atrial arrhythmia based on the first atrial arrhythmia score and the second atrial arrhythmia score; and update the atrial arrhythmia episode data stored in the memory in response to detecting the atrial arrhythmia, the update including an indication of the detected atrial arrhythmia. determine a first atrial arrhythmia score from the ventricular events sensed by the sensing circuit, the first atrial arrhythmia score correlated to a presence of atrial arrhythmia; determine a second atrial arrhythmia score from the intraventricular signal based on the atrial mechanical event signals; detect an atrial arrhythmia based on the first atrial arrhythmia score and the second atrial arrhythmia score; and update the atrial arrhythmia episode data stored in the memory in response to detecting the atrial arrhythmia, the update including an indication of the detected atrial arrhythmia.
An autonomous floor cleaning robot , comprising: a robot body ; a controller supported by the robot body; a drive supporting the robot body to maneuver the robot across a floor surface in response to commands from the controller; and a pad sensor (624; 724) to sense a feature on a removable cleaning pad (1000; 1100; 1200; 1300) attached to the robot and to generate a signal based on the feature; and wherein the controller is responsive to the signal generated by the pad sensor to perform operations comprising: selecting a cleaning mode from among cleaning modes based on the signal, and controlling the robot according to a selected cleaning mode, characterized in that : the feature comprises identification elements defined at least in part by a marking (1010; 1115; 1210) and a cutout of the pad. a robot body ; a controller supported by the robot body; a drive supporting the robot body to maneuver the robot across a floor surface in response to commands from the controller; and a pad sensor (624; 724) to sense a feature on a removable cleaning pad (1000; 1100; 1200; 1300) attached to the robot and to generate a signal based on the feature; and wherein the controller is responsive to the signal generated by the pad sensor to perform operations comprising: selecting a cleaning mode from among cleaning modes based on the signal, and controlling the robot according to a selected cleaning mode, characterized in that : the feature comprises identification elements defined at least in part by a marking (1010; 1115; 1210) and a cutout of the pad. selecting a cleaning mode from among cleaning modes based on the signal, and controlling the robot according to a selected cleaning mode, characterized in that : the feature comprises identification elements defined at least in part by a marking (1010; 1115; 1210) and a cutout of the pad.
A method for performing linear or stepped gradient elution on a glatiramer acetate with a high-performance liquid chromatography and determining whether the content of each component of the glatiramer acetate is qualified, comprising the following steps: step : preparing a solution of the glatiramer acetate to be tested; step : performing gradient elution on a sample to be tested with a cation exchange liquid chromatography; step : determining a peak area corresponding to each component of the glatiramer acetate, comparing the peak area with a peak area of a reference substance to determine whether the content of each component of the sample to be tested is in a qualified range. step : preparing a solution of the glatiramer acetate to be tested; step : performing gradient elution on a sample to be tested with a cation exchange liquid chromatography; step : determining a peak area corresponding to each component of the glatiramer acetate, comparing the peak area with a peak area of a reference substance to determine whether the content of each component of the sample to be tested is in a qualified range.
Weighing system for weighing rail vehicles, comprising one or more detection supports removably applicable on a rail , wherein each said detection support forms a ramp and a detection seat with at least one load cell , wherein said detection seat is suitable for receiving a portion of wheel of the rail vehicle in a manner that the wheel rests directly on the load cell and the ramp forms an inclined rolling surface, extending from a front end of the detection support up to the detection seat , so that, when the detection support has been applied onto the rail , the wheel of the rail vehicle can roll from the rail over the ramp up into the detection seat characterized in that the detection support is elongated in shape and forms, on a lower side thereof, a rail seat shaped like an open channel extending in the longitudinal direction of the detection support , wherein said rail seat is delimited by: - an upper wall suitable for resting from above on the upper rolling surface of the rail , - an outer side wall and an inner side wall suitable for embracing the rail profile on the two opposite sides, so that, when the detection support has been applied onto the rail , the rail seat extends astride over the head of the rail . - an upper wall suitable for resting from above on the upper rolling surface of the rail , - an outer side wall and an inner side wall suitable for embracing the rail profile on the two opposite sides,
Aqueous polymeric composition capable of forming, after application followed by drying on a substrate to be decontaminated or depolluted, a peelable film coating a surface of the substrate adhering thereto, the composition comprising an aqueous solvent and at least one polyvinyl alcohol soluble in said solvent, characterised in that the composition comprises the product of a chemical reaction between a first film-forming component and a second oxidising component of the composition, said first component comprising said aqueous solvent and said at least one polyvinyl alcohol, said second component comprising an oxidising agent formed from a metallic cation complex and present in the composition according to a mass fraction between 20% and 45%, the product of said reaction comprising a polymeric chain of said at least one polyvinyl alcohol which is modified by said oxidising agent by being ruptured by said cation, the composition being capable of eroding said substrate by transferring an oxidised superficial layer thereof onto the film by a peeling of the film performed after said drying.
A wearable electronic device comprising: a housing including a cover forming a rear surface of the wearable electronic device and including a transparent portion capable of passing a light therethrough; a display accommodated in the housing; a flexible printed circuit board, PCB, accommodated in the housing under the display, and including a first surface facing the cover and a second surface opposite to the first surface; a first bio-signal sensing unit including a light-receiving unit and a light-emitting unit disposed on the first surface of the flexible PCB ; a second bio-signal sensing unit including an internal electrode (551 or 552) and an external electrode (553 or 554) formed on an interior surface and an exterior surface of the cover , respectively, and electrically connected with each other; a contact unit disposed such that a first end and a second end of the contact unit are in contact with the first surface of the flexible PCB and the internal electrode (551 or 552), respectively; and a signal processing unit disposed on the second surface of the flexible PCB and configured to process a first bio-signal and a second bio-signal sensed by the first bio-signal sensing unit and the second bio-signal sensing unit , respectively. a housing including a cover forming a rear surface of the wearable electronic device and including a transparent portion capable of passing a light therethrough; a display accommodated in the housing; a flexible printed circuit board, PCB, accommodated in the housing under the display, and including a first surface facing the cover and a second surface opposite to the first surface; a first bio-signal sensing unit including a light-receiving unit and a light-emitting unit disposed on the first surface of the flexible PCB ; a second bio-signal sensing unit including an internal electrode (551 or 552) and an external electrode (553 or 554) formed on an interior surface and an exterior surface of the cover , respectively, and electrically connected with each other; a contact unit disposed such that a first end and a second end of the contact unit are in contact with the first surface of the flexible PCB and the internal electrode (551 or 552), respectively; and a signal processing unit disposed on the second surface of the flexible PCB and configured to process a first bio-signal and a second bio-signal sensed by the first bio-signal sensing unit and the second bio-signal sensing unit , respectively.
A resonance matching circuit used in a power supply system that supplies electric power by an electric field coupling method, the resonance matching circuit comprising: an inverter circuit that functions as a voltage source; and a matching unit that is connected to the inverter circuit , wherein the matching unit comprises a first resonance circuit (A) and a second resonance circuit (B) magnetically coupled to the first resonance circuit (A), wherein the first resonance circuit (A) comprises, connected in series, first and second primary coils of first and second transformer devices , characterized by a first capacitive element connecting the first primary coil with a first terminal of the inverter circuit and a second capacitive element connecting the second primary coil with a second terminal of the inverter circuit , wherein the first and second capacitive elements are set so that a series resonance of the first resonance circuit (A) enables a zero-cross operation of the inverter circuit . an inverter circuit that functions as a voltage source; and a matching unit that is connected to the inverter circuit , wherein the matching unit comprises a first resonance circuit (A) and a second resonance circuit (B) magnetically coupled to the first resonance circuit (A), wherein the first resonance circuit (A) comprises, connected in series, first and second primary coils of first and second transformer devices , characterized by a first capacitive element connecting the first primary coil with a first terminal of the inverter circuit and a second capacitive element connecting the second primary coil with a second terminal of the inverter circuit , wherein the first and second capacitive elements are set so that a series resonance of the first resonance circuit (A) enables a zero-cross operation of the inverter circuit .
A catalyst support material comprising: from about 86% to about 94% weight anatase titanium dioxide; from about 0.1% to about 10% weight MoO 3 ; from about 0.01% to about 2.5% P; and from about 0.1% to about 10% weight SiO 2 in a low molecular weight form; wherein the SiO 2 comprises nanoparticles having diameters of less than 4 nm. from about 86% to about 94% weight anatase titanium dioxide; from about 0.1% to about 10% weight MoO 3 ; from about 0.01% to about 2.5% P; and from about 0.1% to about 10% weight SiO 2 in a low molecular weight form; wherein the SiO 2 comprises nanoparticles having diameters of less than 4 nm.
A calibration method for at least one gap sensor, comprising constructing a transformation formula for transforming an output signal of a gap sensor (31;32) into a gap detection value for each of at least one gap sensor , the at least one gap sensor being provided on a magnetic bearing supporting a floating body in a non-contact manner by an electromagnetic force, the at least one gap sensor being configured to detect a gap detection value (g) between the floating body and a reference object that serves as a positional reference for position control of the floating body , the method comprising: constructing a transformation formula for transforming an output signal (v) of the at least one gap sensor into the gap detection value (g), using three or more constraints that are set as conditions for associating the gap detection value (g) with the output signal (v) of the at least one gap sensor , wherein the constructing includes: moving the floating body along a predetermined trajectory; reading output signals from the at least one gap sensor at a plurality of different positions on the trajectory; and setting, so as to construct the transformation formula of the at least one gap sensor , the three or more constraints by assigning the output signals read from the at least one gap sensor to a geometric relational expression between the gap detection value (g) and the trajectory, the geometric relational expression constraining the output signals of the radial gap sensors . constructing a transformation formula for transforming an output signal (v) of the at least one gap sensor into the gap detection value (g), using three or more constraints that are set as conditions for associating the gap detection value (g) with the output signal (v) of the at least one gap sensor , wherein the constructing includes: moving the floating body along a predetermined trajectory; reading output signals from the at least one gap sensor at a plurality of different positions on the trajectory; and setting, so as to construct the transformation formula of the at least one gap sensor , the three or more constraints by assigning the output signals read from the at least one gap sensor to a geometric relational expression between the gap detection value (g) and the trajectory, the geometric relational expression constraining the output signals of the radial gap sensors . moving the floating body along a predetermined trajectory; reading output signals from the at least one gap sensor at a plurality of different positions on the trajectory; and setting, so as to construct the transformation formula of the at least one gap sensor , the three or more constraints by assigning the output signals read from the at least one gap sensor to a geometric relational expression between the gap detection value (g) and the trajectory, the geometric relational expression constraining the output signals of the radial gap sensors .
Method for storing at least one domain name system container image (CI), wherein the domain name system container image (CI) is designed to create at least one domain name system container instance (C) in a domain name system infrastructure (IF), having the steps of: - creating (S1) at least one item of signed domain name system information (SI), wherein the at least one item of signed domain name system information (SI) is created by means of a cryptographic signature (K) of an item of domain name system information (I), wherein the cryptographic signature (K) is created outside the domain name system server infrastructure (IF), - creating (S2) at least one domain name system container image (CI), wherein the at least one domain name system container image (CI) has the signed domain name system information (I) and at least one item of domain name system server software, and - storing (S3) the at least one domain name system container image (CI) in a container registry (R). - creating (S1) at least one item of signed domain name system information (SI), wherein the at least one item of signed domain name system information (SI) is created by means of a cryptographic signature (K) of an item of domain name system information (I), wherein the cryptographic signature (K) is created outside the domain name system server infrastructure (IF), - creating (S2) at least one domain name system container image (CI), wherein the at least one domain name system container image (CI) has the signed domain name system information (I) and at least one item of domain name system server software, and - storing (S3) the at least one domain name system container image (CI) in a container registry (R).