mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a diode, comprising: - forming a semiconductor structure on a first GaN layer , the first GaN layer being on a sapphire substrate , wherein the semiconductor structure includes a second GaN layer grown by MOCVD on the first GaN layer, an active layer formed on the second GaN layer , a third GaN layer formed on the active layer ; - separating the substrate from the first GaN layer and the semiconductor structure by a laser lift-off method; - forming first and second electrodes on both sides of the semiconductor structure, wherein the second electrode is on a light exit side of the diode and has a smaller width than the first electrode and the first electrode serves as a reflective layer to reflect light from the active layer, wherein the formation of the first electrode is done on the first GaN layer where the substrate was separated. - forming a semiconductor structure on a first GaN layer , the first GaN layer being on a sapphire substrate , wherein the semiconductor structure includes a second GaN layer grown by MOCVD on the first GaN layer, an active layer formed on the second GaN layer , a third GaN layer formed on the active layer ; - separating the substrate from the first GaN layer and the semiconductor structure by a laser lift-off method; - forming first and second electrodes on both sides of the semiconductor structure,
A delivery device insertable, retainable and withdrawable from a body cavity of a target non-human mammal, the delivery device comprising a resilient frame formed from a polymer, and one or more impregnated masses having a sheet-like form, having a thickness of 0.1 to 0.95 mm, being impregnated with one or more active agents for delivery to the target non-human mammal upon insertion and retention in the target non-human mammal, and each of the one or more impregnated masses being supported by the resilient frame on at least two or more separate points of attachment, and the ratio of the surface area of the impregnated mass or masses to a mass of the one or more impregnated masses is from 12:1 to 60:1 cm 2 .g -1 . a resilient frame formed from a polymer, and one or more impregnated masses having a sheet-like form, having a thickness of 0.1 to 0.95 mm, being impregnated with one or more active agents for delivery to the target non-human mammal upon insertion and retention in the target non-human mammal, and each of the one or more impregnated masses being supported by the resilient frame on at least two or more separate points of attachment, and the ratio of the surface area of the impregnated mass or masses to a mass of the one or more impregnated masses is from 12:1 to 60:1 cm 2 .g -1 .
Use of a viscous adhesive tape for production of semiconductor devices, wherein the viscous adhesive tape comprises a tack layer containing a first acrylic resin having an acid value of 30 to 100 mg KOH/g and a second acrylic resin having an acid value of 0 to 10 mg KOH/g, wherein a ratio between the first acrylic resin and the second acrylic resin is, (First acrylic resin):(Second acrylic resin)=85:15 to 65:35, and the first acrylic resin and the second acrylic resin have a semi-interpenetrating polymer network structure, said polymer network structure being a mixture of cross-linked polymer networks, wherein the tack layer further contains a curing agent and is obtained by curing the first acrylic resin by the curing agent, and wherein the curing agent is an epoxy resin. wherein a ratio between the first acrylic resin and the second acrylic resin is, (First acrylic resin):(Second acrylic resin)=85:15 to 65:35, and the first acrylic resin and the second acrylic resin have a semi-interpenetrating polymer network structure, said polymer network structure being a mixture of cross-linked polymer networks, wherein the tack layer further contains a curing agent and is obtained by curing the first acrylic resin by the curing agent, and wherein the curing agent is an epoxy resin.
Film composite configured to be arranged in a building cladding element or a solar glass composite , wherein the film composite comprises: - a cover laminating film , - a carrier laminating film , - a number of spangles arranged between the carrier laminating film and the cover laminating film , characterized in that - the spangle has a light-permeable spangle carrier film , which has a partially reflective coating , such that a portion of the incidental light radiation (S) is transmitted as transmitted light radiation (T) and a portion of the incidental light radiation (S) is reflected as reflected light radiation (R), wherein - the partially reflective coating has an optical density (OD), and - the optical density (OD) is between 0.1 and 0.7, and - the partially reflective coating of the spangle is configured to produce a reflective effect (RE) by means of the reflected light radiation (R), and - the spangles in the film composite cover an area such that a degree of area coverage (F) is less than 0.7. - a cover laminating film , - a carrier laminating film , - a number of spangles arranged between the carrier laminating film and the cover laminating film , characterized in that - the spangle has a light-permeable spangle carrier film , which has a partially reflective coating , such that a portion of the incidental light radiation (S) is transmitted as transmitted light radiation (T) and a portion of the incidental light radiation (S) is reflected as reflected light radiation (R), wherein - the partially reflective coating has an optical density (OD), and - the optical density (OD) is between 0.1 and 0.7, and - the partially reflective coating of the spangle is configured to produce a reflective effect (RE) by means of the reflected light radiation (R), and - the spangles in the film composite cover an area such that a degree of area coverage (F) is less than 0.7.
A method for supplying lithium to an electrode plate , characterized by comprising the following steps: 10) compositing a first substrate and a first lithium strip to form a first composite lithium strip , and forming an obstruction using a second substrate between the first lithium strip and a compositing device, 11) adjusting a temperature of the compositing device to adjust a temperature of the first lithium strip during compositing, 20) compositing the first composite lithium strip and an electrode plate to be supplied with lithium to form a lithium supplied composite electrode plate , during the compositing process, the first substrate in the first composite lithium strip is located at a side away from the electrode plate to be supplied with lithium, 30) peeling and reeling the first substrate from the lithium supplied composite electrode plate , to form a lithium supplied electrode plate . 10) compositing a first substrate and a first lithium strip to form a first composite lithium strip , and forming an obstruction using a second substrate between the first lithium strip and a compositing device, 11) adjusting a temperature of the compositing device to adjust a temperature of the first lithium strip during compositing, 20) compositing the first composite lithium strip and an electrode plate to be supplied with lithium to form a lithium supplied composite electrode plate , during the compositing process, the first substrate in the first composite lithium strip is located at a side away from the electrode plate to be supplied with lithium, 30) peeling and reeling the first substrate from the lithium supplied composite electrode plate , to form a lithium supplied electrode plate .
A beverage comprising protein, plant sterol ester and/or plant stanol ester, a fruit and/or vegetable preparation and a stabiliser, wherein the protein is present in an amount from 0.5 to 5.0 % by weight, the plant sterol ester and/or plant stanol ester is present in an amount from 0.5 to 7.0 % by weight, the stabiliser is present in an amount from 0.1 to 1 % by weight, wherein the stabiliser comprises high methoxy pectin, and wherein the concentration of natural fruit and/or vegetable derived from the fruit and/or vegetable preparation is from 30 to 1000 % by weight.
An inkjet sheet printer comprising a sheet transport apparatus for transporting sheets (S) of print media, comprising: - an endless air permeable belt with an endless protrusion secured onto the belt and extending a predetermined height (H) out of a surface of the belt ; - a plurality of rollers (110-113) comprising a driving roller driveable by means of an actuator and at least one support roller (111-113) positioned with respect to the driving roller to tension the belt over the plurality of rollers (110-113), such that a rotation of the driving roller moves the belt in a transport direction (D), wherein at least one of the plurality of rollers (110-113) comprises an endless recess dimensioned to receive the protrusion , such that the protrusion is substantially prevented from transferring driving forces in the transport direction (D) from its respective roller (110-113) to the belt while restricting movement of the protrusion and consequently the belt in a width direction (Y) perpendicular to the transport direction (D), wherein a rotation axis (RA) of at least one of the rollers (110-113) provided with the recess is skewed with respect to the one or more other rollers (110-113), thereby providing a force on the belt in the width direction (Y). - an endless air permeable belt with an endless protrusion secured onto the belt and extending a predetermined height (H) out of a surface of the belt ; - a plurality of rollers (110-113) comprising a driving roller driveable by means of an actuator and at least one support roller (111-113) positioned with respect to the driving roller to tension the belt over the plurality of rollers (110-113), such that a rotation of the driving roller moves the belt in a transport direction (D), wherein at least one of the plurality of rollers (110-113) comprises an endless recess dimensioned to receive the protrusion , such that the protrusion is substantially prevented from transferring driving forces in the transport direction (D) from its respective roller (110-113) to the belt while restricting movement of the protrusion and consequently the belt in a width direction (Y) perpendicular to the transport direction (D), wherein a rotation axis (RA) of at least one of the rollers (110-113) provided with the recess is skewed with respect to the one or more other rollers (110-113), thereby providing a force on the belt in the width direction (Y).
An intravesical drug delivery device comprising: an elongated body formed of a matrix system of a drug dispersed in a biocompatible elastomeric polymer, the elongated body having a first end , an opposed second end , and an intermediate portion between the first and second ends ; and an elastic retention frame associated with the elongated body and effective to bias the elongated body into a coiled retention shape. an elongated body formed of a matrix system of a drug dispersed in a biocompatible elastomeric polymer, the elongated body having a first end , an opposed second end , and an intermediate portion between the first and second ends ; and an elastic retention frame associated with the elongated body and effective to bias the elongated body into a coiled retention shape.
The medicinal salts of polyamine derivatives, wherein the medicinal salts are salts formed with polyamine derivatives shown in general formula 1 and pharmaceutically acceptable acids through chemical combination, the polyamine derivatives have structure of general formula 1: Wherein, R 1 ∼R 5 are selected from H or OH or OCH 3 ; n 1 ∼n 5 are any integer between 0∼10.
A system for implementing service function deployment, wherein the system comprises an active apparatus and a standby apparatus for a first service; wherein the active apparatus is configured to process the first service and deploy a first function module for a second service on the standby apparatus, wherein the second service is an artificial intelligence, AI, service; and the standby apparatus is configured to process data of the second service by using the first function module, wherein the first function module comprises an inference module; and the standby apparatus is specifically configured to draw an inference based on feature data of the second service by using the inference module, to obtain an inference result, wherein the active apparatus is further configured to deploy a feature extraction module for the second service on the active apparatus; the active apparatus is further configured to extract a feature of raw data of the second service by using the feature extraction module, to obtain the feature data, and send the feature data to the standby apparatus; and the standby apparatus is configured to receive the feature data from the active apparatus and draw, by using the inference module, an inference based on the feature data received from the active apparatus. the active apparatus is configured to process the first service and deploy a first function module for a second service on the standby apparatus, wherein the second service is an artificial intelligence, AI, service; and the standby apparatus is configured to process data of the second service by using the first function module, wherein the first function module comprises an inference module; and the standby apparatus is specifically configured to draw an inference based on feature data of the second service by using the inference module, to obtain an inference result, wherein the active apparatus is further configured to deploy a feature extraction module for the second service on the active apparatus; the active apparatus is further configured to extract a feature of raw data of the second service by using the feature extraction module, to obtain the feature data, and send the feature data to the standby apparatus; and the standby apparatus is configured to receive the feature data from the active apparatus and draw, by using the inference module, an inference based on the feature data received from the active apparatus.
A method for increasing network coverage for a Voice-over-Internet Protocol, VoIP, session between a first user equipment, UE, (302-1) and a second UE (302-2), comprising: negotiating , between the first UE (302-1) and the second UE (302-2), a codec configuration to use in the VoIP session between the first UE (302-1) and the second UE (302-2); determining, at the first UE (302-1), maximum end-to-end packet loss rates, PLRs, that the first UE (302-1) and the second UE (302-2) can tolerate for received media based at least in part on the negotiated codec configuration; determining, at the first UE (302-1), a distribution of the maximum end-to-end PLRs among respective uplinks and downlinks at the first UE (302-1) and the second UE (302-2); and transmitting, by the first UE (302-1) to a serving base station (322-1), a message to request the serving base station (322-1) to support an uplink PLR for media transmitted in a direction from the first UE (302-1) to the second UE (302-2) and a downlink PLR for media transmitted in a direction from the second UE (302-2) to the first UE (302-1) according to the determined distribution. negotiating , between the first UE (302-1) and the second UE (302-2), a codec configuration to use in the VoIP session between the first UE (302-1) and the second UE (302-2); determining, at the first UE (302-1), maximum end-to-end packet loss rates, PLRs, that the first UE (302-1) and the second UE (302-2) can tolerate for received media based at least in part on the negotiated codec configuration; determining, at the first UE (302-1), a distribution of the maximum end-to-end PLRs among respective uplinks and downlinks at the first UE (302-1) and the second UE (302-2); and transmitting, by the first UE (302-1) to a serving base station (322-1), a message to request the serving base station (322-1) to support an uplink PLR for media transmitted in a direction from the first UE (302-1) to the second UE (302-2) and a downlink PLR for media transmitted in a direction from the second UE (302-2) to the first UE (302-1) according to the determined distribution.
A noise reducing device for a wind turbine blade , extending in a longitudinal direction from a first end to a second end , and having a first local side surface and a second local side surface arranged between the first end and the second end, the second local side surface being a substantially flat side surface, wherein the noise reducing device is configured for attachment to a side surface of the wind turbine blade , the noise reducing device comprising a plurality of airflow modifying elements and a plurality of noise reducing elements , the airflow modifying elements extending from a first proximal end to the first end , the noise reducing elements extending from an opposite facing second proximal end to the second end , wherein the airflow modifying elements and the noise reducing elements extend in opposite longitudinal directions, the second local side surface of the airflow modifying elements is configured to be directly attached to said side surface of the wind turbine blade , and the noise reducing device further comprising at least one base part , wherein said at least one base part extends from the first proximal end to the second proximal end .
A double chain stitch sewing machine comprising an upper decoration mechanism , the upper decoration mechanism comprising: an expansion retraction mechanism configured to switch a spreader between an expanded state where the spreader cooperates with needles for performing an upper decoration sewing and a retracted state where the spreader is separated from the needles for performing sewing without an upper decoration thread (T4), wherein when the upper decoration mechanism is switched to the retracted state, the spreader is separated from the needles and is moved upward, and wherein when the upper decoration mechanism is switched to the expanded state, the spreader is moved downward and is lowered near to the needles , characterized in that the upper decoration mechanism is housed inside the cover of the double chain stitch sewing machine in the retracted state. an expansion retraction mechanism configured to switch a spreader between an expanded state where the spreader cooperates with needles for performing an upper decoration sewing and a retracted state where the spreader is separated from the needles for performing sewing without an upper decoration thread (T4), wherein when the upper decoration mechanism is switched to the retracted state, the spreader is separated from the needles and is moved upward, and wherein when the upper decoration mechanism is switched to the expanded state, the spreader is moved downward and is lowered near to the needles , characterized in that the upper decoration mechanism is housed inside the cover of the double chain stitch sewing machine in the retracted state.
A catheter insertion device comprising: a housing ; a latch for resiliently coupling said housing to a catheter device , the latch being a spring latch that flexibly and resiliently engages a protrusion or indention on the catheter device and is decoupled from the catheter device when the latch does not engage the protrusion or indention; a needle for insertion into a patient; and a spring , wherein said spring relaxes and thereby retracts said needle entirely into said housing when said latch resiliently decouples from said catheter device. a housing ; a latch for resiliently coupling said housing to a catheter device , the latch being a spring latch that flexibly and resiliently engages a protrusion or indention on the catheter device and is decoupled from the catheter device when the latch does not engage the protrusion or indention; a needle for insertion into a patient; and a spring , wherein said spring relaxes and thereby retracts said needle entirely into said housing when said latch resiliently decouples from said catheter device.
Hydroelastic damper equipped with a first linking member and a second linking member capable of mechanically connecting said hydroelastic damper to a first mechanical member and to a second mechanical member , respectively, said hydroelastic damper including an elastic member and a hydraulic system , said hydraulic system including a hydraulic cartridge containing a hydraulic fluid and a piston integral with a rod movable in translation relative to said hydraulic cartridge , said rod extending longitudinally from a first end to a second end along a longitudinal axis (OX), said first end being fixed to said first linking member and said second end emerging from said hydraulic cartridge , said hydraulic cartridge having at least two degrees of mobility, partly or entirely, with respect to a sleeve fixed to said second linking member , said at least two degrees of mobility including at least one degree of translational mobility and at least one degree of rotational mobility, characterized in that said hydroelastic damper includes a sheath having a first end integral with said sleeve , said sheath being arranged to cover said hydraulic cartridge , and in that said elastic member includes, on the one hand, a first elastic means interposed between said second end of said rod and the second linking member and, on the other hand, a second elastic means interposed between said first end of said rod and a second end of said sheath .
A method for producing silicon-containing oxide-coated aluminum nitride particles comprising aluminum nitride particles and a silicon-containing oxide coating covering a surface of each of the aluminum nitride particles, the method comprising: a first step comprising mixing aluminum nitride particles and an organic silicone compound solution in which an organic silicone compound having a structure represented by formula below is dissolved in a solvent to form a mixture and then heating the mixture to remove the solvent and to obtain aluminum nitride particles coated with the organic silicone compound; and a second step comprising heating the aluminum nitride particles coated with the organic silicone compound at a temperature of 300°C or more and 1,000°C or less, wherein R is an alkyl group having 4 or less carbon atoms, wherein the organic silicone compound having the structure represented by formula comprises at least one of a compound represented by formula below and a compound represented by formula below, wherein R1 and R2 are each independently a hydrogen atom or a methyl group, provided that at least one of R1 and R2 is a hydrogen atom, and m is an integer from 0 to 10, wherein n is an integer from 3 to 6. a first step comprising mixing aluminum nitride particles and an organic silicone compound solution in which an organic silicone compound having a structure represented by formula below is dissolved in a solvent to form a mixture and then heating the mixture to remove the solvent and to obtain aluminum nitride particles coated with the organic silicone compound; and a second step comprising heating the aluminum nitride particles coated with the organic silicone compound at a temperature of 300°C or more and 1,000°C or less, wherein R is an alkyl group having 4 or less carbon atoms, wherein the organic silicone compound having the structure represented by formula comprises at least one of a compound represented by formula below and a compound represented by formula below, wherein R1 and R2 are each independently a hydrogen atom or a methyl group, provided that at least one of R1 and R2 is a hydrogen atom, and m is an integer from 0 to 10, wherein n is an integer from 3 to 6.