mhurhangee/patent-ind-claim-en huggingface dataset:
Method for clustering detections in an imaging system, comprising: obtaining a plurality of frames (F1, F2, F3) associated with successive points in time (T1, T2, T3), wherein each frame (F1, F2, F3) includes a plurality of detections (V1, V2, V3, V1', V2', V3', V1", V2", V3"); wherein each detection is associated with a position in a space; identifying , over the successive points in time (T1, T2, T3), a pairwise covariance of a temporal progression of two detections of the plurality of detections (V1, V2, V3, V1', V2', V3', V1", V2", V3") moving over time, in order to obtain pairwise covariance values for each pair of temporal progressions associated with the two detections moving over time over the successive points in time (T1, T2, T3); clustering the detections (V1, V2, V3, V1', V2', V3', V1", V2", V3") for which a temporal progression of the pairwise covariance values of the pair corresponds to a predetermined pattern. obtaining a plurality of frames (F1, F2, F3) associated with successive points in time (T1, T2, T3), wherein each frame (F1, F2, F3) includes a plurality of detections (V1, V2, V3, V1', V2', V3', V1", V2", V3"); wherein each detection is associated with a position in a space; identifying , over the successive points in time (T1, T2, T3), a pairwise covariance of a temporal progression of two detections of the plurality of detections (V1, V2, V3, V1', V2', V3', V1", V2", V3") moving over time, in order to obtain pairwise covariance values for each pair of temporal progressions associated with the two detections moving over time over the successive points in time (T1, T2, T3); clustering the detections (V1, V2, V3, V1', V2', V3', V1", V2", V3") for which a temporal progression of the pairwise covariance values of the pair corresponds to a predetermined pattern.
A refrigeration appliance , comprising: a door , the door comprising a door panel having an opening ; and a dispenser provided in the door , the dispenser comprising a dispenser casing , the dispenser casing being connected with the door panel and defining an inner cavity which corresponds to the opening , and at least a portion of the inner cavity being configured to receive an outside container, the dispenser casing as a whole does not extend beyond the front surface of the door panel and the door further comprises a front panel , the front panel being closely near the door panel and having a front opening corresponding to the opening , and the front panel covering at least a major portion of the door panel so as to form the front surface of the door , characterized in that the door panel comprises an extension extending backwardly from the edge of the opening , wherein the extension lies outside the inner cavity . a door , the door comprising a door panel having an opening ; and a dispenser provided in the door , the dispenser comprising a dispenser casing , the dispenser casing being connected with the door panel and defining an inner cavity which corresponds to the opening , and at least a portion of the inner cavity being configured to receive an outside container, the dispenser casing as a whole does not extend beyond the front surface of the door panel and the door further comprises a front panel , the front panel being closely near the door panel and having a front opening corresponding to the opening , and the front panel covering at least a major portion of the door panel so as to form the front surface of the door , characterized in that the door panel comprises an extension extending backwardly from the edge of the opening , wherein the extension lies outside the inner cavity .
A pharmaceutical composition comprising: (i) a drug component comprising at least one pharmaceutically acceptable salt of glycopyrrolate, and at least one corticosteroid selected from budesonide and beclomethasone dipropionate; and (ii) a propellant component at least 90 weight % of which is 1,1-difluoroethane (H FA-152a). (i) a drug component comprising at least one pharmaceutically acceptable salt of glycopyrrolate, and at least one corticosteroid selected from budesonide and beclomethasone dipropionate; and (ii) a propellant component at least 90 weight % of which is 1,1-difluoroethane (H FA-152a).
Optical light-transmission element for a solar energy assembly with at least one solar cell , comprising at least one harvesting portion for directing solar light onto the solar cell , wherein the optical light-transmission element further comprises at least one alignment control portion for concentrating solar light onto a focusing region , and the alignment control portion is formed by a modification of a structure of the harvesting portion , a ratio of a surface area of the harvesting portion to a surface area of the alignment control portion is at least 10:1, and wherein the at least one harvesting portion is comprised within a circumference determining the active area of the harvesting portion, characterised in that the alignment control portion is located at the circumference .
Luminaire , in particular damp-proof luminaire, with an oblong basic body and a trough-shaped and at least partially transparent cover , wherein the basic body that comprises the lighting means carries a multitude of luminescent diodes placed the one behind the other in longitudinal direction and the cover comprises on both longitudinal sides at least one light directing area with a multitude of refractive structures placed on the inner shell surface of the cover and consecutive transversely to the longitudinal direction respectively in the form of longitudinally extending prismatic structures and a refractive shaping placed on the outer shell surface of the cover, wherein luminescent diodes are placed approximately on an intersection line between the longitudinal section plane of the cover and the opening plane (K) thereof, characterized in that light emitted by the luminescent diodes strikes directly onto the inner shell surface of the cover and in that longitudinally extending prismatic structures of a light directing area (L1, L2) are modulated in longitudinal direction for fanning out the light portions of the luminescent diodes in longitudinal direction of the luminaire.
A method for maintaining the total braking force of a rail vehicle taking into account the available adhesion conditions, involving the following steps: - recognition that at least one unit (I, II, III) is wheel-slide-controlled; - retrieval of the type of adhesion (nH, xnH) prevailing at the wheel-slide-controlled units (I, II, III); - determination of the values μ0 and Kμ0 for each unit (I, II, III) that is wheel-slide-controlled, μ0 and Kμ0 indicating adhesion values between rail and rail vehicle wheel; - formation of a function for the value μ0 and a function for the value Kμ0, in each case over the entire length of the unit (I, II, III), i.e. in the longitudinal direction of a rail vehicle, based on the values determined for μ0 and Kμ0 for the wheel-slide-controlled units (I, II, III); - comparison of the current braking request (BA_I, BA_II, BA-III) at each of the units (I, II, III), i.e. including the non-wheel-slide-controlled units (I, II, III), with the value of the function of Kμ0 at the point of the corresponding braking request (BA_I, BA_II, BA_III); - adjustment of each braking request (BA_I, SA_II, BA-III) at each of the units (I, II, III), i.e. including the non-wheel-slide-controlled units (I, II, III), towards the value of the function of Kμ0 at the point of the corresponding braking request (BA_I, SA_II, BA_III). - recognition that at least one unit (I, II, III) is wheel-slide-controlled; - retrieval of the type of adhesion (nH, xnH) prevailing at the wheel-slide-controlled units (I, II, III); - determination of the values μ0 and Kμ0 for each unit (I, II, III) that is wheel-slide-controlled, μ0 and Kμ0 indicating adhesion values between rail and rail vehicle wheel; - formation of a function for the value μ0 and a function for the value Kμ0, in each case over the entire length of the unit (I, II, III), i.e. in the longitudinal direction of a rail vehicle, based on the values determined for μ0 and Kμ0 for the wheel-slide-controlled units (I, II, III); - comparison of the current braking request (BA_I, BA_II, BA-III) at each of the units (I, II, III), i.e. including the non-wheel-slide-controlled units (I, II, III), with the value of the function of Kμ0 at the point of the corresponding braking request (BA_I, BA_II, BA_III); - adjustment of each braking request (BA_I, SA_II, BA-III) at each of the units (I, II, III), i.e. including the non-wheel-slide-controlled units (I, II, III), towards the value of the function of Kμ0 at the point of the corresponding braking request (BA_I, SA_II, BA_III).
A method for managing data traffic congestion in a network communication node that processes packets having an identifier indicative of scalable packets or other packets, wherein scalable packets support scalable congestion control, the method comprising: - maintaining a marking probability based on a marking ratio indicative of a ratio between a change in packets responsible for congestion in a network queue in the network communication node, and a change in a total number of packets processed by the network queue, wherein packets responsible for congestion cause a congestion parameter to exceed a threshold; - classifying packets processed by the network queue as scalable packets or other packets based on the identifier included in the packets; - marking the scalable packets responsible for congestion in the network queue with a congestion mark to signal data traffic congestion; and - marking the other packets that support unscalable congestion control with the congestion mark based on the marking probability . - maintaining a marking probability based on a marking ratio indicative of a ratio between a change in packets responsible for congestion in a network queue in the network communication node, and a change in a total number of packets processed by the network queue, wherein packets responsible for congestion cause a congestion parameter to exceed a threshold; - classifying packets processed by the network queue as scalable packets or other packets based on the identifier included in the packets; - marking the scalable packets responsible for congestion in the network queue with a congestion mark to signal data traffic congestion; and - marking the other packets that support unscalable congestion control with the congestion mark based on the marking probability .
Method for producing ethylene, wherein a reaction feed containing ethane and oxygen is formed and a portion of the ethane and of the oxygen in the reaction feed is reacted by oxidative dehydrogenation to ethylene and acetic acid by yielding a process gas, wherein the process gas contains the unreacted portion of the ethane and of the oxygen, the ethylene and the acetic acid and water and wherein the process gas is subjected to a water wash, characterized in that the water wash comprises feeding the process gas into a washing column into which aqueous, liquid detergent streams are fed in at least two different column parts and are sent towards the process gas.
An isolated TAFA4 protein or agonist thereof, for use as an active ingredient for preventing or treating pain in a subject, wherein said protein comprises the amino acid sequence of SEQ ID NO: 1 or 2 or a sequence having at least 90% identity to SEQ ID NO: 1 or 2; and wherein said agonist is a peptide comprising less than 60 amino acid residues and at least 10 consecutive amino acid residues of SEQ ID NO: 1 or 2, preferably at least 20, 25, 27 or 30 consecutive amino acid residues.
A method for drilling a well, comprising: generating a plurality of proposed drilling actions using a plurality of working agents based on a working environment; simulating drilling responses to the proposed drilling actions using a plurality of validation agents in a validation environment that initially represents the working environment ; determining rewards for the proposed drilling actions based on the simulating, using the validation agents ; selecting one of the proposed drilling actions ; and causing a drilling rig to execute the selected one of the proposed actions . generating a plurality of proposed drilling actions using a plurality of working agents based on a working environment; simulating drilling responses to the proposed drilling actions using a plurality of validation agents in a validation environment that initially represents the working environment ; determining rewards for the proposed drilling actions based on the simulating, using the validation agents ; selecting one of the proposed drilling actions ; and causing a drilling rig to execute the selected one of the proposed actions .
A method for measuring damage (D) below a surface of a substrate caused by an electron beam , the method comprising - using an atomic force microscope (AFM) to provide a measurement (S2) of material properties (P2) below the surface of the substrate at an exposure area of the electron beam , wherein the measurement is at least one of: a measurement of a force-distance curve at an exposure area of the electron beam, and a measurement of a contact stiffness of the atomic force microscope at the exposure area of the electron beam; and - calculating a damage parameter (Sd) indicative for the damage (D) based on the measurement (S2) of the material properties (P2) at the exposure area . - using an atomic force microscope (AFM) to provide a measurement (S2) of material properties (P2) below the surface of the substrate at an exposure area of the electron beam , wherein the measurement is at least one of: a measurement of a force-distance curve at an exposure area of the electron beam, and a measurement of a contact stiffness of the atomic force microscope at the exposure area of the electron beam; and a measurement of a force-distance curve at an exposure area of the electron beam, and a measurement of a contact stiffness of the atomic force microscope at the exposure area of the electron beam; and - calculating a damage parameter (Sd) indicative for the damage (D) based on the measurement (S2) of the material properties (P2) at the exposure area .
Haptic actuator comprising: - a stator comprising at least one solenoid (110; 111, 112) capable of producing at least one electromagnetic field, the stator having a first end and a second end opposite the first end; - a movable part comprising a first surface and a second surface , the first surface extending facing the first end , the second surface extending facing the second end , the movable part being designed to be moved by the at least one electromagnetic field relative to the stator , the position of the first surface relative to the second surface being fixed when the movable part is moved; - a first return means placed between the first surface and the first end so as to return, when the movable part is moved by the at least one electromagnetic field, the movable part towards a reference position and a second return means placed between the second surface and the second end so as to return, when the movable part is moved by the at least one electromagnetic field, the movable part towards the reference position. - a stator comprising at least one solenoid (110; 111, 112) capable of producing at least one electromagnetic field, the stator having a first end and a second end opposite the first end; - a movable part comprising a first surface and a second surface , the first surface extending facing the first end , the second surface extending facing the second end , the movable part being designed to be moved by the at least one electromagnetic field relative to the stator , the position of the first surface relative to the second surface being fixed when the movable part is moved; - a first return means placed between the first surface and the first end so as to return, when the movable part is moved by the at least one electromagnetic field, the movable part towards a reference position and a second return means placed between the second surface and the second end so as to return, when the movable part is moved by the at least one electromagnetic field, the movable part towards the reference position.
A process for manufacturing a surface-mount electronic device, comprising the steps of: - forming a plurality of preliminary contact regions (30; 60; 90) of a sinterable material on a supporting structure ; - mechanically coupling a die (42; 72; 82) including a semiconductor body (44; 75) to the supporting structure ; - sintering said sinterable material, in such a way that each preliminary contact region (30; 60; 90) forms a corresponding sintered preliminary contact (36; 66; 96); and - coating the die (42; 72; 82) and the preliminary contact regions (30; 60; 90) with a dielectric coating region ; characterized in that said supporting structure is of a soluble type, said manufacturing process further including the step of removing said supporting structure by a jet of liquid, after said step of coating the die and preliminary contact regions. - forming a plurality of preliminary contact regions (30; 60; 90) of a sinterable material on a supporting structure ; - mechanically coupling a die (42; 72; 82) including a semiconductor body (44; 75) to the supporting structure ; - sintering said sinterable material, in such a way that each preliminary contact region (30; 60; 90) forms a corresponding sintered preliminary contact (36; 66; 96); and - coating the die (42; 72; 82) and the preliminary contact regions (30; 60; 90) with a dielectric coating region ;
A method performed by a wireless device operating in both a first network and a second network wherein the wireless device is in an idle/inactive state in the second network, the method comprising: determining a periodic pattern for performing a set of idle/inactive mode procedures in the second network; transmitting a first indication of the determined periodic pattern to the first network; monitoring an occurrence of at least one idle/inactive event in the second network, the at least one idle/inactive event comprising a periodic event; and transmitting a second indication of the occurrence of the at least one idle/inactive event to the first network, characterized in that the second indication comprises an updated periodic pattern based on the determined periodic pattern and the occurrence of the at least one idle/inactive event. determining a periodic pattern for performing a set of idle/inactive mode procedures in the second network; transmitting a first indication of the determined periodic pattern to the first network; monitoring an occurrence of at least one idle/inactive event in the second network, the at least one idle/inactive event comprising a periodic event; and transmitting a second indication of the occurrence of the at least one idle/inactive event to the first network, characterized in that the second indication comprises an updated periodic pattern based on the determined periodic pattern and the occurrence of the at least one idle/inactive event.
Picking-up device , in particular a pick-up, for an agricultural working machine, comprising a picking-up rotor and a wheel , the picking-up rotor being provided for picking up crops from the ground , the wheel being arranged on the side of the picking-up rotor , the wheel being arranged on a support arm which is articulated to a frame of the picking-up device by means of a stationary guide element, the wheel being automatically and reversibly adjustable from a working position (A), in which the wheel is provided for guiding the picking-up device over the ground and in which the picking-up device has a working width (BA), into a transport position (T), in which the picking-up device has a smaller transport (BT) than the working width (BA), the picking-up device being height-adjustable in the working position (A) of the wheel by means of an actuator , the wheel being designed to be adjustable from the working position (A) into the transport position (T) along a spatial path (R), the actuator being configured both for height adjustment of the picking-up device and for automatic wheel adjustment of the wheel from the working position (A) into the transport position (T), characterised in that the stationary guide element is a joint having at least two degrees of freedom.
A semiconductor device comprising: a frame body having a rectangular shape in a plan view and a rectangular opening region formed in a central portion thereof; an insulating substrate which is provided in the opening region of the frame body and on which a semiconductor chip is mounted; a portion (5a-5d) provided in a surface of the frame body and including an inclined portion (5a6-5d6) that is at least partially exposed to the opening region formed in the frame body and extends along the surface of the frame body with at least one side being inclined at an inclination angle with respect to an edge of an end surface forming and surrounding the opening region , wherein an accommodation groove (6a-6d) is formed in the surface of the frame body , which accommodation groove has a shape corresponding to a shape of the lead portion (5a-5d), and wherein the lead portion (5a-5d) is provided in the accommodation groove (6a-6d); and a bonding wire that is bonded between the lead portion (5a-5d) and the semiconductor chip . a frame body having a rectangular shape in a plan view and a rectangular opening region formed in a central portion thereof; an insulating substrate which is provided in the opening region of the frame body and on which a semiconductor chip is mounted; a portion (5a-5d) provided in a surface of the frame body and including an inclined portion (5a6-5d6) that is at least partially exposed to the opening region formed in the frame body and extends along the surface of the frame body with at least one side being inclined at an inclination angle with respect to an edge of an end surface forming and surrounding the opening region , wherein an accommodation groove (6a-6d) is formed in the surface of the frame body , which accommodation groove has a shape corresponding to a shape of the lead portion (5a-5d), and wherein the lead portion (5a-5d) is provided in the accommodation groove (6a-6d); and a bonding wire that is bonded between the lead portion (5a-5d) and the semiconductor chip .