mhurhangee/patent-ind-claim-en huggingface dataset:
Method for regulating an output voltage (U=) of a switched-mode power supply having a power-factor-corrected step-down flyback converter with a transformer , wherein a pulsating DC voltage (U in ) is applied to the input side of the step-down flyback converter, wherein the transformer has, in addition to a primary winding and a secondary winding , an auxiliary winding , wherein a PWM signal is generated for the purpose of regulation, which PWM signal actuates a switching element which is series-connected to the primary winding of the transformer , and wherein a value of a voltage (U ind ) induced in the auxiliary winding is used as a reference variable for regulating the output voltage (U=), characterized in that the value used for regulation is determined at a predetermined instantaneous value of the pulsating DC voltage (U in ), wherein a voltage signal (U sin ) representing the instantaneous value of the pulsating input voltage (U in ) is compared with a trigger voltage (U trig ) in order to determine trigger instants (t trig , t* trig ) at which the value of a voltage (U ind ) induced in the auxiliary winding is measured, wherein at least in a PWM cycle following the trigger instant (t trig , t* trig ) the switched-mode power supply is operated in a DCM, Discontinuous Current Mode, when a current (Is) through the secondary winding dwells at the value zero for some time before the switching element is switched on again or is operated in a TM, Transition Mode, when it is switched on again when the secondary current (Is) has dropped to zero, and wherein in the PWM cycle following the trigger instant (t trig , t* trig ) the value of the voltage (U ind ) induced in the auxiliary winding is measured when a current through the secondary winding has just dropped to zero and before an oscillation process in the induced voltage (U ind ) has started.
A method for supporting payload data collection, executed on a node, in a transaction processing environment, comprising: capturing , by a plug-in of the node, application information, the application information comprising payload data; filtering, by the plug-in, the application information based upon a user defined filter; writing , by the plug-in, the filtered application information to a buffer; reading , by a local monitor service of the node, the filtered application information from the buffer; and passing , by the local monitor service, the filtered application information to a location for analysis; wherein the filtered application information is in a format , the format comprising a header , a datapool comprising a datasize and items , a namepool comprising a namelen and names , wherein namelen is a size of all the names and the format is a self-describing data format, and wherein the data format comprises payload data and filter information identifying the user defined filter, wherein the filter information is comprised in the header. capturing , by a plug-in of the node, application information, the application information comprising payload data; filtering, by the plug-in, the application information based upon a user defined filter; writing , by the plug-in, the filtered application information to a buffer; reading , by a local monitor service of the node, the filtered application information from the buffer; and passing , by the local monitor service, the filtered application information to a location for analysis; wherein the filtered application information is in a format , the format comprising a header , a datapool comprising a datasize and items , a namepool comprising a namelen and names , wherein namelen is a size of all the names and the format is a self-describing data format, and wherein the data format comprises payload data and filter information identifying the user defined filter, wherein the filter information is comprised in the header.
A connector assembly comprising a pin and a housing , the housing comprising an exterior surface and an interior surface defining a bore , the connector assembly further comprising: the pin comprising an insulator material, a groove, and an electrical contact ; a canted coil spring contact ; a direction of insertion of said pin into said bore of said housing ; wherein the pin comprises an axis in the direction of insertion; wherein the spring contact is retained with the groove of the pin prior to insertion of the pin into the bore of the housing; wherein the electrical contact comprises a contact band where contact is to be established with the spring contact , said contact band at least partially surrounds the insulator material around the axis of the pin ; wherein said electrical contact comprises a tab extending from the contact band and along at least a length of the pin ; and wherein the spring contact establishes an electrical path between the pin and the housing when the pin is inserted into the bore of the housing . the pin comprising an insulator material, a groove, and an electrical contact ; a canted coil spring contact ; a direction of insertion of said pin into said bore of said housing ; wherein the pin comprises an axis in the direction of insertion; wherein the spring contact is retained with the groove of the pin prior to insertion of the pin into the bore of the housing; wherein the electrical contact comprises a contact band where contact is to be established with the spring contact , said contact band at least partially surrounds the insulator material around the axis of the pin ; wherein said electrical contact comprises a tab extending from the contact band and along at least a length of the pin ; and wherein the spring contact establishes an electrical path between the pin and the housing when the pin is inserted into the bore of the housing .
A method comprising: at a mobile device , receiving , at a first location, an invitational message for specific media content from a local wireless network, the invitational message being localized to the first location; in response to receiving the invitational message, the mobile device sending a scheduling request to a content transfer scheduling server to cause a transfer of the specific media content to a media device to be scheduled. at a mobile device , receiving , at a first location, an invitational message for specific media content from a local wireless network, the invitational message being localized to the first location; in response to receiving the invitational message, the mobile device sending a scheduling request to a content transfer scheduling server to cause a transfer of the specific media content to a media device to be scheduled.
A bioconjugate obtainable by attachment of a biomolecule to a plurality of functional groups attached to the surface of a chromophoric nanoparticle, wherein: the chromophoric nanoparticle comprises a chromophoric semiconducting polymer; the plurality of functional groups is covalently linked to the chromophoric semiconducting polymer; and one, two, three, four, five, six, seven, eight, nine, or ten biomolecules covalently linked to the functional groups. the chromophoric nanoparticle comprises a chromophoric semiconducting polymer; the plurality of functional groups is covalently linked to the chromophoric semiconducting polymer; and one, two, three, four, five, six, seven, eight, nine, or ten biomolecules covalently linked to the functional groups.
A handheld tool , comprising: a handle for holding by a user of the handheld tool; an attachment arm extending from the handle, the attachment arm configured to connect to a user-assistive device ; a first inertial measurement unit ("IMU") mounted to the attachment arm to acquire measurements of one or more of a motion or an orientation of the user-assistive device and to generate feedback data indicative of the measurements; an actuator assembly coupled to manipulate the user-assistive device via the attachment arm in at least two dimensions; a motion control system coupled to receive the feedback data from the first IMU and coupled to provide commands to the actuator assembly to provide auto-leveling of the user-assistive device to a frame of reference while the user manipulates the handheld tool; and characterized in that the actuator assembly includes: a first actuator and a second actuator , wherein the first actuator is disposed within the handle and the second actuator is disposed external to the handle. a handle for holding by a user of the handheld tool; an attachment arm extending from the handle, the attachment arm configured to connect to a user-assistive device ; a first inertial measurement unit ("IMU") mounted to the attachment arm to acquire measurements of one or more of a motion or an orientation of the user-assistive device and to generate feedback data indicative of the measurements; an actuator assembly coupled to manipulate the user-assistive device via the attachment arm in at least two dimensions; a motion control system coupled to receive the feedback data from the first IMU and coupled to provide commands to the actuator assembly to provide auto-leveling of the user-assistive device to a frame of reference while the user manipulates the handheld tool; and characterized in that the actuator assembly includes: a first actuator and a second actuator , wherein the first actuator is disposed within the handle and the second actuator is disposed external to the handle.
A roll body of a band-like patch formed by rolling a band-like patch comprising a cloth support , a pressure-sensitive adhesive layer , and a release liner laminated in this order, wherein at least one temporary attachment region in which a temporary attachment layer is formed and at least one grip region in which no temporary attachment layer is formed are provided at an interface between a back face of the cloth support and a back face of the release liner , characterized in that said temporary attachment layer exposed after pulling out the band-like patch from the roll body has substantially no surface tackiness, the temporary attachment layer being constituted of a hot melt material that has no pressure-sensitive adhesiveness at room temperature.
An interface apparatus for engine strut fairing and wing of an aircraft comprising: a load bearing member configured for coupling to a structure , the load bearing member comprising: - a baseplate configured for coupling to the structure and having first locking members and - a bearing housing coupled to the baseplate and having second locking members that are configured to engage the first locking members ; an attachment member coupled to the load bearing member ; and a bearing , the attachment member being coupled to the bearing ; wherein the load bearing member is configured to react loads, from the attachment member to the structure , in at least a first direction (D1-D6) while simultaneously providing free movement of the attachment member in at least a second direction (D1-D6); wherein the bearing housing is configured to house the bearing so as to constrain the bearing in at least the first direction (D1-D6) and to provide free movement of the bearing in at least the second direction (D1-D6), and wherein the first locking members and the second locking members each comprise a series of protruding members . a load bearing member configured for coupling to a structure , the load bearing member comprising: - a baseplate configured for coupling to the structure and having first locking members and - a bearing housing coupled to the baseplate and having second locking members that are configured to engage the first locking members ; - a baseplate configured for coupling to the structure and having first locking members and - a bearing housing coupled to the baseplate and having second locking members that are configured to engage the first locking members ; an attachment member coupled to the load bearing member ; and a bearing , the attachment member being coupled to the bearing ; wherein the load bearing member is configured to react loads, from the attachment member to the structure , in at least a first direction (D1-D6) while simultaneously providing free movement of the attachment member in at least a second direction (D1-D6); wherein the bearing housing is configured to house the bearing so as to constrain the bearing in at least the first direction (D1-D6) and to provide free movement of the bearing in at least the second direction (D1-D6), and wherein the first locking members and the second locking members each comprise a series of protruding members .
A cable duct extending in a longitudinal direction (X-X) comprising: - two side walls and a bottom that connects the side walls to each other, - a plurality of initial fastening holes for fastening the cables held in the cable duct at the bottom of the cable duct , whereby the initial fastening holes extend through the bottom , wherein the cable duct further comprises connecting holes for connecting separators to the cable duct , which are suitable for receiving connecting tabs of a separator , wherein the connecting holes extend through the bottom and have a greater width in the transverse direction of the cable duct than the initial fastening holes , wherein the cable duct further comprises at least one separator extending perpendicularly to the bottom along the longitudinal direction (X-X) between the side walls , each separator having at one edge a plurality of connecting tabs spaced from each other in the longitudinal direction (X-X) and extending through the connecting holes and abutting an outer side of the bottom , wherein the width of the connecting holes is greater than the width of the separators , wherein the connecting tabs are connected to the bottom on its outer side by welding or by clinching. - two side walls and a bottom that connects the side walls to each other, - a plurality of initial fastening holes for fastening the cables held in the cable duct at the bottom of the cable duct , whereby the initial fastening holes extend through the bottom , wherein the cable duct further comprises connecting holes for connecting separators to the cable duct , which are suitable for receiving connecting tabs of a separator , wherein the connecting holes extend through the bottom and have a greater width in the transverse direction of the cable duct than the initial fastening holes , wherein the cable duct further comprises at least one separator extending perpendicularly to the bottom along the longitudinal direction (X-X) between the side walls , each separator having at one edge a plurality of connecting tabs spaced from each other in the longitudinal direction (X-X) and extending through the connecting holes and abutting an outer side of the bottom , wherein the width of the connecting holes is greater than the width of the separators , wherein the connecting tabs are connected to the bottom on its outer side by welding or by clinching.
A method of determining a decode matrix ( D̃ ) for decoding an encoded audio signal, the encoded audio signal being in Ambisonics format for L loudspeakers, the method comprising: - determining a set of loudspeaker positions comprising at least one virtual loudspeaker position Ω ^ L + 1 ′ and the positions ( Ω̂ 1 , ..., Ω̂ L ) of the L loudspeakers; - determining a first matrix ( D ') having coefficients for the positions of the set of loudspeaker positions; - determining the decode matrix ( D̃ ) from the first matrix ( D '), at least by weighting and distributing the coefficient(s) for the at least one virtual loudspeaker position of the first matrix ( D ' ) to coefficients relating to the positions ( Ω̂ 1, ..., Ω̂ L ) of the L loudspeakers, whereby the decode matrix ( D̃ ) has coefficients for the positions ( Ω̂ 1 , ..., Ω̂ L ) of the L loudspeakers, wherein said weighting and distributing the coefficient(s) for the at least one virtual loudspeaker position of the first matrix ( D ') comprises weighting said coefficient(s) with a weighting factor = 1 L . - determining a set of loudspeaker positions comprising at least one virtual loudspeaker position Ω ^ L + 1 ′ and the positions ( Ω̂ 1 , ..., Ω̂ L ) of the L loudspeakers; - determining a first matrix ( D ') having coefficients for the positions of the set of loudspeaker positions; - determining the decode matrix ( D̃ ) from the first matrix ( D '), at least by weighting and distributing the coefficient(s) for the at least one virtual loudspeaker position of the first matrix ( D ' ) to coefficients relating to the positions ( Ω̂ 1, ..., Ω̂ L ) of the L loudspeakers, whereby the decode matrix ( D̃ ) has coefficients for the positions ( Ω̂ 1 , ..., Ω̂ L ) of the L loudspeakers,
A method of analyzing a test device, the method comprising the following steps: - obtaining at least one image of a test device , the image comprising at least one representation of at least one portion of an observation surface and a visible reference having a predetermined format; - identifying a test device according to the visible reference; - identifying at least one graphical element in the at least one portion of the observation surface, said at least one graphical element resulting from a biological or chemical test; - determining at least one geometrical feature of a graphical element identified according to at least the visible reference, the at least one geometrical feature comprising at least a size or a shape; and - analyzing the at least one portion of the observation surface according to an identification of the test device and at least one determined geometrical feature, the analysis step comprising a step of comparing the at least one determined geometrical feature with at least one geometrical feature of a graphical element identified in a portion of an observation surface represented in another image of the same test device. - obtaining at least one image of a test device , the image comprising at least one representation of at least one portion of an observation surface and a visible reference having a predetermined format; - identifying a test device according to the visible reference; - identifying at least one graphical element in the at least one portion of the observation surface, said at least one graphical element resulting from a biological or chemical test; - determining at least one geometrical feature of a graphical element identified according to at least the visible reference, the at least one geometrical feature comprising at least a size or a shape; and - analyzing the at least one portion of the observation surface according to an identification of the test device and at least one determined geometrical feature,
A method for producing a two-layer noble metal mesh (20', 20", 20′′′, 20"") on a flat-bed knitting machine, the flat-bed knitting machine comprising a first and a second needle bed, the method comprising the steps of - providing at least one noble-metal-containing wire, - knitting the noble metal mesh (20', 20", 20′′′, 20""), the first layer of the noble metal mesh (21', 21", 21′′′, 21"") being knitted on the first needle bed and the second layer of the noble metal mesh (22', 22", 22′′′, 22"") being knitted on the second needle bed at the same time, the two layers each comprising at least two abutting edges (23', 23", 23′′′, 23"", 24', 24", 24′′′, 24"", 25', 25", 25′′′, 25"", 26', 26", 26′′′, 26""), characterized in that the first and the second layer of the noble metal mesh (21', 21", 21′′′, 21"", 22', 22", 22′′′, 22"") are connected, at least in part, at the two respective abutting edges (23', 23", 23′′′, 23"", 24', 24", 24′′′, 24"", 25', 25", 25′′′, 25"", 26', 26", 26′′′, 26"") thereof, by at least one connecting knit stitch (M1'-HR, M1"-HR, M1′′′-HR, M1""-HR, M2'-HR, M2"-HR, M2′′′-HR, M2""-HR, M3'-HR, M3"-HR, M3′′′-HR, M3""-HR, M1'-VR, M1"-VR, M1′′′-VR, M1""-VR, M2'-VR, M2"-VR, M2′′′-VR, M2""-VR, M3'-VR, M3"-VR, M3′′′- VR, M3ʺ′′′-VR), thus creating an at least partially tubular knitted fabric. - providing at least one noble-metal-containing wire, - knitting the noble metal mesh (20', 20", 20′′′, 20""), the first layer of the noble metal mesh (21', 21", 21′′′, 21"") being knitted on the first needle bed and the second layer of the noble metal mesh (22', 22", 22′′′, 22"") being knitted on the second needle bed at the same time, the two layers each comprising at least two abutting edges (23', 23", 23′′′, 23"", 24', 24", 24′′′, 24"", 25', 25", 25′′′, 25"", 26', 26", 26′′′, 26""), characterized in that the first and the second layer of the noble metal mesh (21', 21", 21′′′, 21"", 22', 22", 22′′′, 22"") are connected, at least in part, at the two respective abutting edges (23', 23", 23′′′, 23"", 24', 24", 24′′′, 24"", 25', 25", 25′′′, 25"", 26', 26", 26′′′, 26"") thereof, by at least one connecting knit stitch (M1'-HR, M1"-HR, M1′′′-HR, M1""-HR, M2'-HR, M2"-HR, M2′′′-HR, M2""-HR, M3'-HR, M3"-HR, M3′′′-HR, M3""-HR, M1'-VR, M1"-VR, M1′′′-VR, M1""-VR, M2'-VR, M2"-VR, M2′′′-VR, M2""-VR, M3'-VR, M3"-VR, M3′′′- VR, M3ʺ′′′-VR), thus creating an at least partially tubular knitted fabric.
An apparatus for wireless communication, comprising: a first bowtie antenna comprising a pair of electrically conductive elements disposed in a first plane and electrically coupled to a conductive connection of the apparatus, the conductive connection configured to provide a signal to each electrically conductive element; a plurality of additional bowtie antennas, each of the plurality of additional bowtie antennas comprising a corresponding pair of electrically conductive elements disposed in a different plane parallel to the first plane, wherein the first bowtie antenna and the plurality of additional bowtie antennas form a stack of bowtie antennas stacked in a first direction perpendicular to the first plane; and a conductive wall extending in a second direction perpendicular to the first direction, wherein the conductive wall comprises a plurality of staggered electrical connections coupled to a grounding element of the apparatus, wherein conductive wall is configured to reflect radiations from the stack of bowtie antennas. a first bowtie antenna comprising a pair of electrically conductive elements disposed in a first plane and electrically coupled to a conductive connection of the apparatus, the conductive connection configured to provide a signal to each electrically conductive element; a plurality of additional bowtie antennas, each of the plurality of additional bowtie antennas comprising a corresponding pair of electrically conductive elements disposed in a different plane parallel to the first plane, wherein the first bowtie antenna and the plurality of additional bowtie antennas form a stack of bowtie antennas stacked in a first direction perpendicular to the first plane; and a conductive wall extending in a second direction perpendicular to the first direction, wherein the conductive wall comprises a plurality of staggered electrical connections coupled to a grounding element of the apparatus, wherein conductive wall is configured to reflect radiations from the stack of bowtie antennas.