mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic circuit (1; 101) comprising: a bipolar device ; a unipolar device connected in parallel to the bipolar device ; a first connection metal member (31,33,35,37;31A,33A,35A,37A), parasitized by an inductance (L1,L3,L5,L7), through which the bipolar device is connected to the unipolar device ; an output line connected to the bipolar device through the first connection metal member(31,33,35,37;31A,33A,35A,37A), and to the unipolar device without going through the first connection metal member (31,33,35,37;31A,33A,35A,37A); and a second connection metal member through which the unipolar device is connected to the output line , and that is parasitized by an inductance (L2,L4,L6,L8), wherein the first and second connection metal members (31-38,31A-38A) are connected in series between the bipolar device and the output line , whereby an inductance (L2, L4, L6, L8) between the unipolar device and the output line is smaller than an inductance (L1-L8) between the bipolar device and the output line . a bipolar device ; a unipolar device connected in parallel to the bipolar device ; a first connection metal member (31,33,35,37;31A,33A,35A,37A), parasitized by an inductance (L1,L3,L5,L7), through which the bipolar device is connected to the unipolar device ; an output line connected to the bipolar device through the first connection metal member(31,33,35,37;31A,33A,35A,37A), and to the unipolar device without going through the first connection metal member (31,33,35,37;31A,33A,35A,37A); and a second connection metal member through which the unipolar device is connected to the output line , and that is parasitized by an inductance (L2,L4,L6,L8), wherein the first and second connection metal members (31-38,31A-38A) are connected in series between the bipolar device and the output line , whereby an inductance (L2, L4, L6, L8) between the unipolar device and the output line is smaller than an inductance (L1-L8) between the bipolar device and the output line .
A work piece processing device , comprising: a tool device and a work piece holder ; a servo-elastic actuator system having simultaneous precision force and position control that moves the tool device to the work piece holder or the work piece holder to the tool device ; the servo-elastic actuator system including a servo-actuator , a compliance elastic member and a weight compensation elastic member disposed in a force transmission path, wherein the compliance elastic member and the weight compensation elastic member are disposed with respect to each other so that a spring force exerted by the weight compensation elastic member is opposed to a spring force exerted by the compliance elastic member ; and a controller configured to determine a force being applied by the servo-actuator to a work piece held by the work piece holder as the compliance elastic member in combination with the weight compensation elastic member is deflected based on a spring deflection of these two elastic members and simultaneously control force and position of the servo-actuator based on a spring constant for the combination of the compliance elastic member and weight compensation elastic member . a tool device and a work piece holder ; a servo-elastic actuator system having simultaneous precision force and position control that moves the tool device to the work piece holder or the work piece holder to the tool device ; the servo-elastic actuator system including a servo-actuator , a compliance elastic member and a weight compensation elastic member disposed in a force transmission path, wherein the compliance elastic member and the weight compensation elastic member are disposed with respect to each other so that a spring force exerted by the weight compensation elastic member is opposed to a spring force exerted by the compliance elastic member ; and a controller configured to determine a force being applied by the servo-actuator to a work piece held by the work piece holder as the compliance elastic member in combination with the weight compensation elastic member is deflected based on a spring deflection of these two elastic members and simultaneously control force and position of the servo-actuator based on a spring constant for the combination of the compliance elastic member and weight compensation elastic member .
A signal transmission method comprising: determining data to be transmitted by a unit in air conditioning units(S102); transmitting, by the unit, the data to be transmitted to other units through a designated power line in multiphase power lines, wherein the designated power line is any power line in the multiphase power lines (S104), and the designated power line is a power line shared by all units in the air conditioning units characterised by : determining, by the unit, that designated data transmitted by a designated unit is not received within a preset time; and receiving, by the unit, the designated data through at least one unit of other units than the designated unit. determining data to be transmitted by a unit in air conditioning units(S102); transmitting, by the unit, the data to be transmitted to other units through a designated power line in multiphase power lines, wherein the designated power line is any power line in the multiphase power lines (S104), and the designated power line is a power line shared by all units in the air conditioning units characterised by : determining, by the unit, that designated data transmitted by a designated unit is not received within a preset time; and receiving, by the unit, the designated data through at least one unit of other units than the designated unit. determining, by the unit, that designated data transmitted by a designated unit is not received within a preset time; and receiving, by the unit, the designated data through at least one unit of other units than the designated unit.
A cylindrical cargo container comprising a plurality of extruded panels having a common curved shape characterized by a curvature, wherein adjacent pairs of the panels are joined at respective abutting edges , and the joined panels form a cylindrical tube, wherein for at least one of the extruded panels an extrusion axis of the panel is parallel to a longitudinal axis of the cylindrical tube, and a cross-sectional profile of the panel perpendicular to the extrusion axis has the curved shape.
A piezoelectric element array assembly comprising: at least one piezoelectric element configured to produce ultrasound energy responsive to amplified driving pulses; and a lens layer bonded to the at least one piezoelectric element, the lens layer having a plurality of lenses formed therein that are configured to focus ultrasound energy created by single ones of the at least one piezoelectric element into a plurality of wells of a microplate disposable in ultrasonic communication with the lens layer, wherein more than one of the plurality of lenses overlie single ones of the at least one piezoelectric element. at least one piezoelectric element configured to produce ultrasound energy responsive to amplified driving pulses; and a lens layer bonded to the at least one piezoelectric element, the lens layer having a plurality of lenses formed therein that are configured to focus ultrasound energy created by single ones of the at least one piezoelectric element into a plurality of wells of a microplate disposable in ultrasonic communication with the lens layer, wherein more than one of the plurality of lenses overlie single ones of the at least one piezoelectric element.
A data transmission method, wherein the method is applied to a communications system that comprises a primary link and a spatial reuse link, the primary link is set between primary apparatuses , the spatial reuse link is set between spatial reuse transmission apparatuses , and the method comprises: obtaining, by the primary apparatus , information indicating spatial reuse transmission, wherein the information is used to indicate whether a spatial reuse transmission apparatus of the spatial reuse link is to perform a spatial reuse transmission by using all or some of the time-frequency resources of the primary link , wherein the information occupies 4 bits, value 0 of the 4 bits indicates that the spatial reuse transmission apparatus of the spatial reuse link is prohibited from performing the spatial reuse transmission by using all or some of the time-frequency resources of the primary link; and sending, by the primary apparatus , the information, wherein value 1-14 of the 4 bits indicates a determining parameter, and the determining parameter is associated with allowed interference power when the spatial reuse transmission is being done. obtaining, by the primary apparatus , information indicating spatial reuse transmission, wherein the information is used to indicate whether a spatial reuse transmission apparatus of the spatial reuse link is to perform a spatial reuse transmission by using all or some of the time-frequency resources of the primary link , wherein the information occupies 4 bits, value 0 of the 4 bits indicates that the spatial reuse transmission apparatus of the spatial reuse link is prohibited from performing the spatial reuse transmission by using all or some of the time-frequency resources of the primary link; and sending, by the primary apparatus , the information, wherein value 1-14 of the 4 bits indicates a determining parameter, and the determining parameter is associated with allowed interference power when the spatial reuse transmission is being done.
A method for analyzing waveform capture data, the method comprising: receiving, by a controller from an intelligent electronic device, waveform capture data indicative of an electrical event; extracting, from the waveform capture data, electrical event data; performing a partial event classification on the waveform capture using the extracted electrical event data pursuant to a selected power quality standard; evaluating the partial event classification against metadata, IED information, and additional event data to develop a refined event classification, the partial event classification, metadata, IED information, and additional event data representing symptoms of the electrical event; diagnosing the electrical event and a cause of the electrical event based on a the comparison of the symptoms of the electrical event to stored event data, the stored event data including previously stored electrical event symptoms and diagnosed causes of electrical events; providing an indication of the cause of the electrical event; and automatically mitigating the cause of the electrical event. receiving, by a controller from an intelligent electronic device, waveform capture data indicative of an electrical event; extracting, from the waveform capture data, electrical event data; performing a partial event classification on the waveform capture using the extracted electrical event data pursuant to a selected power quality standard; evaluating the partial event classification against metadata, IED information, and additional event data to develop a refined event classification, the partial event classification, metadata, IED information, and additional event data representing symptoms of the electrical event; diagnosing the electrical event and a cause of the electrical event based on a the comparison of the symptoms of the electrical event to stored event data, the stored event data including previously stored electrical event symptoms and diagnosed causes of electrical events; providing an indication of the cause of the electrical event; and automatically mitigating the cause of the electrical event.
A screw less strike device for a lock, comprising: an elongated box-shaped body having a peripheral wall and a fore cavity , extending according to a longitudinal axis (A), configured to engage a latch or a bolt of the lock; a face plate conforming to the box body ; and means for fixing the box body in a housing seat of a door frame or support member ; characterised in that the box body comprises one or more elastically yieldable locking arms at least at one end, or at least at one side of the box body , in a spaced apart condition from a respective shoulder surface of the peripheral wall of the box body ; and wherein the face plate comprises at least one rear pushing member configured to be press-fitted between a locking arm and a respective shoulder surface of the box body to divaricate and press the locking arm against an inner surface of the housing seat for the same box body . an elongated box-shaped body having a peripheral wall and a fore cavity , extending according to a longitudinal axis (A), configured to engage a latch or a bolt of the lock; a face plate conforming to the box body ; and means for fixing the box body in a housing seat of a door frame or support member ; characterised in that the box body comprises one or more elastically yieldable locking arms at least at one end, or at least at one side of the box body , in a spaced apart condition from a respective shoulder surface of the peripheral wall of the box body ; and wherein the face plate comprises at least one rear pushing member configured to be press-fitted between a locking arm and a respective shoulder surface of the box body to divaricate and press the locking arm against an inner surface of the housing seat for the same box body .
A process comprising: (a) contacting CO, H 2 , and at least one olefin in a reaction zone under hydroformylation conditions sufficient to form at least one aldehyde product in the presence of a catalyst comprising, as components, a transition metal and a hydrolyzable organophosphorous ligand, and (b) providing the ligand as a ligand composition comprising the ligand and from 0.05 to 13 acid-neutralizing equivalents of an acid scavenger per 100 moles ligand; wherein the composition consists essentially of a hydrolyzable organophosphorous ligand and, per 100 moles compound, from 0.05 to 13 equivalents of the acid scavenger; wherein the acid scavenger includes at least one compound selected from: triethanolamine (TEA) and ethoxylates thereof, methyldiethoxyamine, dimethylethoxyamine, ethyldiethoxyamine, tri-3-propoxyamine, tri-(2-(methanol)ethyl)amine, tri-isopropanolamine and propoxylates thereof, 4-hydroxyl-2,2,6,6-tetramethylpiperidine, bis(2,2,6,6-tetramethyl-4-piperidyl) sebacate, triethylamine, tri-n-propylamine, tri-n-butylamine, tri-iso-butylamine, tri-iso-propylamine, tri-n-hexylamine, tri-n-octylamine, dimethyl-iso-propylamine, dimethylhexadecylamine, methyl-di-n-octylamine, N,N-dimethylaniline, N,N-diethylaniline, N,N-dimethyl-p-toluidine, N-methyldiphenylamine, N,N-dimethylbenzylamine, N,N-dimethyl-1-naphthylamine, N,N, N',N'-tetramethylethylene diamine, 1,4-diazabicyclo- -octane, pyridine, picoline, lutidine, collidine, N-methylpiperidine, N-methylmorpholine, N-2'-hydroxyethylmorpholine, quinoline, iso-quinoline, quinoxaline, acridine, quinuclidine, imidazole, benzimidazole and benztriazole, sodium and/or potassium salts of phosphoric acid, sodium and/or potassium salts of citric acid, sodium and/or potassium salts of maleic acid, and sodium and/or potassium salts of fumaric acid; wherein a hydrolyzable organophosphorus ligand is a trivalent phosphorous compound that contains at least one P-Z bond wherein Z is oxygen, nitrogen, chlorine, fluorine or bromine; and the process further comprising, prior to providing the ligand composition, storing the ligand composition under an inert atmosphere, under vacuum, or both.
A method of improving adhesion between a silicon substrate and a dielectric layer comprising the steps of: depositing a silicon dioxide adhesion layer directly onto the silicon substrate by a first plasma enhanced chemical vapor deposition (PECVD) process; and depositing the dielectric layer onto the adhesion layer by a second PECVD process; in which the first PECVD process is performed in a gaseous atmosphere comprising tetraethyl orthosilicate (TEOS) either in the absence of an oxidising gas or with an oxidising gas consisting of O 2 introduced into the process at a flow rate of 250sccm or less. depositing a silicon dioxide adhesion layer directly onto the silicon substrate by a first plasma enhanced chemical vapor deposition (PECVD) process; and depositing the dielectric layer onto the adhesion layer by a second PECVD process; in which the first PECVD process is performed in a gaseous atmosphere comprising tetraethyl orthosilicate (TEOS) either in the absence of an oxidising gas or with an oxidising gas consisting of O 2 introduced into the process at a flow rate of 250sccm or less.
A system for use in connection with a structure having a wall defining an opening, the system comprising: a slide-out compartment receivable within the opening, the slide-out compartment comprising a floor , an end wall connected to the floor proximate an end edge of the floor, and at least one of (a) a first collapsible side wall connected or connectable to the end wall and connectable to the structure, (b) a second collapsible side wall connected or connectable to the end wall and connectable to the structure, and (c) a collapsible roof connected or connectable to the end wall and connectable to the structure; and an operating mechanism connected between the structure and the slide-out compartment, characterised in that the operating mechanism comprises: a first driven portion including a gear rack connected to a first side edge of the floor; a first drive portion including a pinion gear engaged with the gear rack and connectable to the wall of the structure adjacent the first driven portion, wherein the pinion gear is keyed to or otherwise disposed on a torque shaft for rotation therewith; and a first cable connected to an upper portion of the end wall of the slide-out compartment, the first cable operably associated with the first drive portion. a slide-out compartment receivable within the opening, the slide-out compartment comprising a floor , an end wall connected to the floor proximate an end edge of the floor, and at least one of (a) a first collapsible side wall connected or connectable to the end wall and connectable to the structure, (b) a second collapsible side wall connected or connectable to the end wall and connectable to the structure, and (c) a collapsible roof connected or connectable to the end wall and connectable to the structure; and an operating mechanism connected between the structure and the slide-out compartment, characterised in that the operating mechanism comprises: a first driven portion including a gear rack connected to a first side edge of the floor; a first drive portion including a pinion gear engaged with the gear rack and connectable to the wall of the structure adjacent the first driven portion, wherein the pinion gear is keyed to or otherwise disposed on a torque shaft for rotation therewith; and a first cable connected to an upper portion of the end wall of the slide-out compartment, the first cable operably associated with the first drive portion. a first driven portion including a gear rack connected to a first side edge of the floor; a first drive portion including a pinion gear engaged with the gear rack and connectable to the wall of the structure adjacent the first driven portion, wherein the pinion gear is keyed to or otherwise disposed on a torque shaft for rotation therewith; and a first cable connected to an upper portion of the end wall of the slide-out compartment, the first cable operably associated with the first drive portion.
A method of improving a surface-based reaction, the method comprising: (a) providing a microfluidic channel comprising a groove, wherein said groove comprises at least one reaction surface, said reaction surface comprises one or more probes immobilized thereto; (b) providing a sample comprising an analyte and focusing said analyte by isotachophoresis (ITP) to an ITP focus zone; and (c) delivering said focused analyte to said probe immobilized to said reaction surface, thereby accelerating a surface-based reaction; wherein said at least one reaction surface is coupled to a magnetic field generator, and wherein said one or more probes is bound to a paramagnetic bead thereby immobilizing said one or more probes to said reaction surface. (a) providing a microfluidic channel comprising a groove, wherein said groove comprises at least one reaction surface, said reaction surface comprises one or more probes immobilized thereto; (b) providing a sample comprising an analyte and focusing said analyte by isotachophoresis (ITP) to an ITP focus zone; and (c) delivering said focused analyte to said probe immobilized to said reaction surface, thereby accelerating a surface-based reaction; wherein said at least one reaction surface is coupled to a magnetic field generator, and wherein said one or more probes is bound to a paramagnetic bead thereby immobilizing said one or more probes to said reaction surface.
Motor vehicle comprising a front bumper which comprises a bottom part extending in its central part transversely with respect to a longitudinal axis (X) of the vehicle and which is fixed to a front part of the body understructure of the vehicle, the front part of the body understructure comprising at least one zone (W) which is locally structured in such a way as to increase the mechanical stiffness of the bottom part of the bumper along said longitudinal axis (X) of the vehicle in the event of an impact on said bottom part, the vehicle comprising a masking plate mounted facing said at least one structured zone (W) of the front part in such a way as to mask said at least one structured zone with respect to the outside of the vehicle, said masking plate having an external face facing towards the outside of the vehicle and offering an aerodynamic surface, characterized in that the front part of the body understructure is formed of a reinforcing plate in which said at least one structured zone (W) comprises a succession of cavities and of box structures arranged along a transverse axis (Y) and in that the succession of cavities and of box structures comprises ribs (N) arranged transversely in the cavities situated between the successive box structures.
A calculation processing apparatus comprising: a first output unit configured to compare an input value with a boundary value and output, in a calculation of a rectified linear function in a learning process of a deep neural network, a value equal to the input value when the input value exceeds the boundary value; and a second output unit configured to output, in the calculation of the rectified linear function by which a certain output value is output in a case where the input value is smaller than or equal to the boundary value, the certain output value, characterized in that the second output unit is configured to randomly output one of -ε, 0, or +ε as the certain output value, wherein ε is a small value. a first output unit configured to compare an input value with a boundary value and output, in a calculation of a rectified linear function in a learning process of a deep neural network, a value equal to the input value when the input value exceeds the boundary value; and a second output unit configured to output, in the calculation of the rectified linear function by which a certain output value is output in a case where the input value is smaller than or equal to the boundary value, the certain output value, characterized in that the second output unit is configured to randomly output one of -ε, 0, or +ε as the certain output value, wherein ε is a small value.