mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: aligning electrodes of a first light emitting diode die with contacts of a substrate, with furthermore flux or underfill being provided on at least the electrodes or the contacts; placing the first LED die on the substrate with the flux or underfill as a trapping layer between the electrodes and the contacts; and detaching a pick-up head for placing the first LED die on the substrate from the first LED die after placing the first LED die on the substrate, adhesive forces of the flux or underfill securing the first LED die on the substrate during detaching of the pick-up head from the first LED die; characterised by subsequently heating the electrodes, the contacts, and the flux or underfill to form a metallic contact between the first LED die and the substrate. aligning electrodes of a first light emitting diode die with contacts of a substrate, with furthermore flux or underfill being provided on at least the electrodes or the contacts; placing the first LED die on the substrate with the flux or underfill as a trapping layer between the electrodes and the contacts; and detaching a pick-up head for placing the first LED die on the substrate from the first LED die after placing the first LED die on the substrate, adhesive forces of the flux or underfill securing the first LED die on the substrate during detaching of the pick-up head from the first LED die; characterised by subsequently heating the electrodes, the contacts, and the flux or underfill to form a metallic contact between the first LED die and the substrate.
Container assembly for a volumetric gear pump of the type comprising a first gear, keyed on a first shaft, and a second gear, keyed on a second shaft, said first shaft and second shaft being on different axes but parallel to each other in such a manner that the first gear may be engaged with the second gear, also keyed on the first shaft being the internal magnetic core of a magnet forming the system for transmitting torque from an driving motor to the first gear, the magnet also comprising an external magnetic core, mounted coaxially around said internal magnetic core and actuated directly by said actuation motor, the container assembly comprising a first container made of deformable plastic material, capable of at least partly enclosing said internal and external magnetic cores of the magnet, the container assembly being characterised in that at least one membrane is arranged between the rear body of the pump and said first container of the magnet, said membrane being made of spongy or soft material, easily compressible, so as to compensate the volume increase due to possible freezing of the liquid in the pump during the period of inactivity.
A method for implementing a videoconferencing application, comprising: obtaining an address of at least one conference site, wherein the address of the conference site comprises a combination of one or more of a country, a region, and geographic coordinates; characterized by acquiring information related to the address of the conference site according to the address of the conference site, wherein the related information comprises one or more combinations of a time zone, current time, and current weather corresponding to the address of the conference site; sending the related information to one or more of conference sites, where the related information is used to provide a reference for a user to attend a conference; and determining a location of a mobile phone of a participant as a location of the participant by using a base station of a wireless network and/or a satellite positioning system, wherein a mobile phone number of the participant is pre-stored on a video conferencing apparatus and the mobile phone number of the participant corresponds to an ID of a conference site that the participant is to access; and sending a preset notification to the mobile phone of the participant when determining that the location of the participant is inconsistent with any address of each conference site of the at least one conference site. obtaining an address of at least one conference site, wherein the address of the conference site comprises a combination of one or more of a country, a region, and geographic coordinates; characterized by acquiring information related to the address of the conference site according to the address of the conference site, wherein the related information comprises one or more combinations of a time zone, current time, and current weather corresponding to the address of the conference site; sending the related information to one or more of conference sites, where the related information is used to provide a reference for a user to attend a conference; and determining a location of a mobile phone of a participant as a location of the participant by using a base station of a wireless network and/or a satellite positioning system, wherein a mobile phone number of the participant is pre-stored on a video conferencing apparatus and the mobile phone number of the participant corresponds to an ID of a conference site that the participant is to access; and sending a preset notification to the mobile phone of the participant when determining that the location of the participant is inconsistent with any address of each conference site of the at least one conference site.
A battery module, comprising: a battery cell assembly having a plurality of battery cells stacked on one another so that a pair of electrode leads (115, 116) protrudes on one side of each battery cell; and an Interconnect board assembly configured to cover one side of the battery cell assembly to electrically connect the pair of electrode leads of the plurality of battery cells, the ICB assembly having a plurality of lead slots through each of which electrode leads of two battery cells facing each other pass in common in an insertion direction, wherein the ICB assembly further includes: an ICB frame configured to cover one side of the battery cell assembly and having the plurality of lead slots; and a plurality of sensing bus bars provided at the ICB frame and electrically connected to the electrode leads passing through the plurality of lead slots in common, respectively, wherein each lead slot of the plurality of lead slots is disposed between two adjacent sensing bus bars of the plurality of the sensing bus bars so that the lead slots alternate with the sensing bus bars, wherein each of the plurality of sensing bus bars has a first surface that is perpendicular to the insertion direction, wherein all the portion of the electrode leads protruding out of the lead slots are bent in a single direction and welded to the first surface of the sensing bus bar adjacent thereto. a battery cell assembly having a plurality of battery cells stacked on one another so that a pair of electrode leads (115, 116) protrudes on one side of each battery cell; and an Interconnect board assembly configured to cover one side of the battery cell assembly to electrically connect the pair of electrode leads of the plurality of battery cells, the ICB assembly having a plurality of lead slots through each of which electrode leads of two battery cells facing each other pass in common in an insertion direction, wherein the ICB assembly further includes: an ICB frame configured to cover one side of the battery cell assembly and having the plurality of lead slots; and a plurality of sensing bus bars provided at the ICB frame and electrically connected to the electrode leads passing through the plurality of lead slots in common, respectively, wherein each lead slot of the plurality of lead slots is disposed between two adjacent sensing bus bars of the plurality of the sensing bus bars so that the lead slots alternate with the sensing bus bars, wherein each of the plurality of sensing bus bars has a first surface that is perpendicular to the insertion direction, wherein all the portion of the electrode leads protruding out of the lead slots are bent in a single direction and welded to the first surface of the sensing bus bar adjacent thereto.
An apparatus for coding video information, the apparatus comprising: a memory configured to store video information associated with a reference layer picture and an enhancement layer picture; and a processor operationally coupled to the memory and configured to: calculate a scale factor for sample location derivation in a resampling process that indicates a proportion of scaling between the reference layer picture and the enhancement layer picture in a first direction; determine using the previously calculated scale factor a rounding offset value for determining a coordinate in the first direction of a first sample located in the reference layer picture, the first sample corresponding to a second sample located in the enhancement layer picture; and determine the coordinate in the first direction of the first sample using the scale factor and the rounding offset value; wherein the processor is further configured to determine the rounding offset value as a product of the scale factor and a phase which is then summed with a first offset value and then right shifted, wherein the phase indicates a resampling filter phase in the first direction and the first offset value is a number. a memory configured to store video information associated with a reference layer picture and an enhancement layer picture; and a processor operationally coupled to the memory and configured to: calculate a scale factor for sample location derivation in a resampling process that indicates a proportion of scaling between the reference layer picture and the enhancement layer picture in a first direction; determine using the previously calculated scale factor a rounding offset value for determining a coordinate in the first direction of a first sample located in the reference layer picture, the first sample corresponding to a second sample located in the enhancement layer picture; and determine the coordinate in the first direction of the first sample using the scale factor and the rounding offset value; calculate a scale factor for sample location derivation in a resampling process that indicates a proportion of scaling between the reference layer picture and the enhancement layer picture in a first direction; determine using the previously calculated scale factor a rounding offset value for determining a coordinate in the first direction of a first sample located in the reference layer picture, the first sample corresponding to a second sample located in the enhancement layer picture; and determine the coordinate in the first direction of the first sample using the scale factor and the rounding offset value; wherein the processor is further configured to determine the rounding offset value as a product of the scale factor and a phase which is then summed with a first offset value and then right shifted, wherein the phase indicates a resampling filter phase in the first direction and the first offset value is a number.
A multi-channel audio signal acquisition method, characterized by comprising: acquiring a main audio signal collected by a main device when the main device shoots video of a target shooting object, and performing a first multi-channel rendering on the main audio signal to acquire an ambient multi-channel audio signal; acquiring an audio signal collected by an additional device, and determining a first additional audio signal, wherein a distance between the additional device and the target shooting object is less than a first threshold; performing an ambient sound suppression processing on the first additional audio signal and the main audio signal to acquire a target audio signal; performing a second multi-channel rendering on the target audio signal to acquire a target multi-channel audio signal; and mixing the ambient multi-channel audio signal and the target multi-channel audio signal to acquire a mixed multi-channel audio signal. acquiring a main audio signal collected by a main device when the main device shoots video of a target shooting object, and performing a first multi-channel rendering on the main audio signal to acquire an ambient multi-channel audio signal; acquiring an audio signal collected by an additional device, and determining a first additional audio signal, wherein a distance between the additional device and the target shooting object is less than a first threshold; performing an ambient sound suppression processing on the first additional audio signal and the main audio signal to acquire a target audio signal; performing a second multi-channel rendering on the target audio signal to acquire a target multi-channel audio signal; and mixing the ambient multi-channel audio signal and the target multi-channel audio signal to acquire a mixed multi-channel audio signal.
A package formation method for housing a MEMS device on a MEMS substrate in a hollow-sealed interior space, comprising in sequence: chemically and mechanically polishing a temporary substrate made of an easily polishable material to form a super smooth face; sputtering a metal on the smoothly polished surface to form a sacrificial thin film; providing a patterned plating film made of a noble metal on the sacrificial thin film to provide a sealing frame pattern; bonding a metal thin film provided on a sealing substrate with the plating film; remove the sacrificial thin film to separate the sealing substrate from the temporary substrate such that a smooth top face (14a1) at a tip of the sealing frame pattern is exposed; providing a MEMS device on the MEMS substrate; forming a noble metal thin film around the MEMS device; bringing the smooth top face (14a1) into contact with the noble metal thin film, bonding of the smooth top face (14a1) and the noble metal thin film at 200°C or less. chemically and mechanically polishing a temporary substrate made of an easily polishable material to form a super smooth face; sputtering a metal on the smoothly polished surface to form a sacrificial thin film; providing a patterned plating film made of a noble metal on the sacrificial thin film to provide a sealing frame pattern; bonding a metal thin film provided on a sealing substrate with the plating film; remove the sacrificial thin film to separate the sealing substrate from the temporary substrate such that a smooth top face (14a1) at a tip of the sealing frame pattern is exposed; providing a MEMS device on the MEMS substrate; forming a noble metal thin film around the MEMS device; bringing the smooth top face (14a1) into contact with the noble metal thin film,
A pneumatic valve, comprising a gas passage tube, a plug member, an elastic member and an adjustment member, wherein the gas passage tube is connected with the adjustment member and has a gas inlet and at least one first opening, the first opening being arranged between the gas inlet and the adjustment member; the plug member is disposed in the gas passage tube and has a blocking portion, the blocking portion having a first end proximal to the gas inlet and a second end distal from the gas inlet, the first end (21 a) and the second end being located at two sides of the first opening respectively; and the elastic member is arranged between the plug member and the adjustment member; wherein the first end of the blocking portion is a blunt end, and the blunt end has a flat plane; characterized in that the gas passage tube further comprises at least one second opening arranged between the first opening and the adjustment member so as to discharge gas not deflated from the first openings and passing through the blocking portion.
Tyre tread that comprises a rubber composition based: - on an elastomer matrix that comprises more than 50% by weight of at least one butyl rubber, - on a reinforcing filler, - and on a plasticizing system that comprises at least one polybutene oil having a glass transition temperature below -75°C. - on an elastomer matrix that comprises more than 50% by weight of at least one butyl rubber, - on a reinforcing filler, - and on a plasticizing system that comprises at least one polybutene oil having a glass transition temperature below -75°C.
A cooling structure, comprising: a substrate having: a plurality of microwave transmission lines (17e', 17g') disposed on an upper surface of the substrate; and an opening passing through the substrate; a cold plate having a cavity formed in an upper surface of the cold plate, the upper surface being thermally coupled to a bottom surface of the substrate; a heat spreader comprising thermally anisotropic material, such material having anisotropic heat conducting properties for conducting heat therethrough along a preferred plane, the heat spreader having a lower portion passing through the opening onto a bottom surface of the cavity, the; and, a circuit, disposed on an upper portion of the heat spreader, the circuit comprising a plurality of heat generating electrical components disposed on different ones of a first portion of a plurality of surfaces of the heat spreader and interconnected by microwave transmission lines (17a, 17b) disposed on a second portion of the plurality of surfaces of the heat spreader, the preferred plane intersecting the first portion of a plurality of surfaces of the heat spreader. a substrate having: a plurality of microwave transmission lines (17e', 17g') disposed on an upper surface of the substrate; and an opening passing through the substrate; a cold plate having a cavity formed in an upper surface of the cold plate, the upper surface being thermally coupled to a bottom surface of the substrate; a heat spreader comprising thermally anisotropic material, such material having anisotropic heat conducting properties for conducting heat therethrough along a preferred plane, the heat spreader having a lower portion passing through the opening onto a bottom surface of the cavity, the; and, a circuit, disposed on an upper portion of the heat spreader, the circuit comprising a plurality of heat generating electrical components disposed on different ones of a first portion of a plurality of surfaces of the heat spreader and interconnected by microwave transmission lines (17a, 17b) disposed on a second portion of the plurality of surfaces of the heat spreader, the preferred plane intersecting the first portion of a plurality of surfaces of the heat spreader.
A method for measuring the antenna patterns in bearing of a secondary radar per elevation slice, each pattern (11, 12, 14, 15) being associated with a reception pathway, characterized in that it uses the synchronous responses and the asynchronous responses, unsolicited of Fruit type, transmitted by targets present in the aerial environment of said radar and detected over a given number of antenna revolutions, at each detection of a response, the time of said detection, the value of the azimuth of the main beam of the antenna and the value of power received on each of said pathways being associated with said detection, each asynchronous response being enriched with its bearing, with its relative power per pattern and with its elevation by differencing with the extrapolated same values of said synchronous response at the time of the Fruit, said values obtained over the given number of revolutions being stored, the measured patterns being sampled from said stored values, for each asynchronous response of a target, the following data being calculated: - its antenna bearing: by extrapolation of the synchronous position of said target azimuth-wise at the Fruit detection time and of the position of the antenna azimuth-wise at the Fruit detection time; - its relative power: by extrapolation of the power of said synchronous responses, acquired with the main beam of the sum pathway of the antenna, of said target temporally bracketing the Fruit detection time at the time of the Fruit and of the power of the Fruit on each of the patterns of the antenna; - its elevation: by extrapolation of the elevation, received in the synchronous responses, of said target temporally bracketing the Fruit detection time at the time of the Fruit. - its antenna bearing: by extrapolation of the synchronous position of said target azimuth-wise at the Fruit detection time and of the position of the antenna azimuth-wise at the Fruit detection time; - its relative power: by extrapolation of the power of said synchronous responses, acquired with the main beam of the sum pathway of the antenna, of said target temporally bracketing the Fruit detection time at the time of the Fruit and of the power of the Fruit on each of the patterns of the antenna; - its elevation: by extrapolation of the elevation, received in the synchronous responses, of said target temporally bracketing the Fruit detection time at the time of the Fruit.
Heating apparatus comprising - a first housing structure for retention of a water store, and - a second housing structure for retention of a heat cell, - wherein the first housing structure and the second housing structure are arranged one above the other, - wherein a separating element which separates the first housing structure from the second housing structure is formed, - the separating element having at least two means for retention of the second housing structure and has at least one means for positioning of the water store, - characterized in that said heating apparatus further comprises a connecting element, wherein the at least two means for retention of the second housing structure are connected to one another via the at least one connecting element. - a first housing structure for retention of a water store, and - a second housing structure for retention of a heat cell, - wherein the first housing structure and the second housing structure are arranged one above the other, - wherein a separating element which separates the first housing structure from the second housing structure is formed, - the separating element having at least two means for retention of the second housing structure and has at least one means for positioning of the water store, - characterized in that said heating apparatus further comprises a connecting element, wherein the at least two means for retention of the second housing structure are connected to one another via the at least one connecting element.
Stator for an electrical machine, in particular a generator of a wind turbine, wherein the cylindrical stator comprises multiple similar stator segments, each stator segment constituting a fraction of the circumference of the stator and having at least one coil element and one pre-installed bus bar segment per phase provided to or by the electrical machine, wherein each bus bar segment is electrically connected to a coil element of the respective phase, wherein at least two circumferentially adjacent stator segments form a section (4, 5, 6, 7) and multiple subsets of an even number of radially opposing sections (4, 5, 6, 7) are respectively assigned to a connector (13, 14) at a respective connection position (15, 16) along the circumference of the stator, wherein each connector (13, 14) connects a subset to a different electrical system, where in each section (4, 5, 6, 7), segmented bus bars for each phase are provided by connecting bus bar segments of adjacent stator segments, which belong to the same phase, using segment connection means, and the segmented bus bars of each section (4, 5, 6, 7) whose segmented bus bars are distanced from their associated connection position (15, 16) are connected to the respective connector (13, 14) by additional, continuous bus bars bypassing each stator segment between an end of the segmented bus bars closest to the connection position (15, 16) and the connection position (15, 16). where in each section (4, 5, 6, 7), segmented bus bars for each phase are provided by connecting bus bar segments of adjacent stator segments, which belong to the same phase, using segment connection means, and the segmented bus bars of each section (4, 5, 6, 7) whose segmented bus bars are distanced from their associated connection position (15, 16) are connected to the respective connector (13, 14) by additional, continuous bus bars bypassing each stator segment between an end of the segmented bus bars closest to the connection position (15, 16) and the connection position (15, 16).