mhurhangee/ep-ind-claims huggingface dataset:
A method for authenticating a connection between a user device and a streaming media content device, comprising, at a server: identifying, using a hardware processor, a collection of candidate streaming media content devices based on one or more beacons detected by the user device; receiving, from the user device, an indication that one of the candidate streaming media content devices is to be selected for connection to the user device; transmitting instructions to the candidate streaming media content devices to broadcast a signal, wherein the signal broadcast by each of the candidate streaming media content devices contains a value that indicates an identity of the streaming media content device; receiving, from the user device, an audio signal that includes a detected signal; processing the audio signal to extract the value indicating the identity of a particular streaming media content device associated with the detected signal contained in the received audio signal; identifying the particular streaming media content device based on the determined value; and transmitting an indication that the user device and the particular streaming media content device are authenticated to communicate with each other. identifying, using a hardware processor, a collection of candidate streaming media content devices based on one or more beacons detected by the user device; receiving, from the user device, an indication that one of the candidate streaming media content devices is to be selected for connection to the user device; transmitting instructions to the candidate streaming media content devices to broadcast a signal, wherein the signal broadcast by each of the candidate streaming media content devices contains a value that indicates an identity of the streaming media content device; receiving, from the user device, an audio signal that includes a detected signal; processing the audio signal to extract the value indicating the identity of a particular streaming media content device associated with the detected signal contained in the received audio signal; identifying the particular streaming media content device based on the determined value; and transmitting an indication that the user device and the particular streaming media content device are authenticated to communicate with each other.
A process for producing (meth)acrylic acid, comprising the steps of: supplying a cooling medium to a crystallizer from a heat source device, thereby crystallizing (meth)acrylic acid from a crude (meth)acrylic acid solution; and discharging the cooling medium from the crystallizer and returning the cooling medium to the heat source device; characterized in that the temperature of the cooling medium returned to the heat source device is maintained constant by a first adjustment operation and a second adjustment operation, using a first buffer tank, wherein the cooling medium retained in the first buffer tank has a temperature gradient such that an upper part is high-temperature and a lower part is low-temperature; the first adjustment operation is performed by feeding at least a part of the cooling medium to be returned to the heat source device from the crystallizer into an upper part of the first buffer tank and discharging the cooling medium from a lower part of the first buffer tank to return to the heat source device; and the second adjustment operation is performed by feeding at least a part of the cooling medium to be supplied to the crystallizer from the heat source device and/or the cooling medium to be returned to the heat source device from the crystallizer into the lower part of the first buffer tank and discharging the cooling medium from the upper part of the first buffer tank to return to the heat source device. supplying a cooling medium to a crystallizer from a heat source device, thereby crystallizing (meth)acrylic acid from a crude (meth)acrylic acid solution; and discharging the cooling medium from the crystallizer and returning the cooling medium to the heat source device;
A waveguide arrangement, comprising: a microstrip coupler for coupling a radio frequency wave into a waveguide; the microstrip coupler comprising: a conductive microstrip line having a broadened end portion; wherein the broadened end portion is tapered; a non-conductive slot following the broadened end portion to form an antenna for irradiating the RF wave; the waveguide arrangement further comprising a RF waveguide enclosing the non-conductive slot to receive the irradiated RF wave; characterized in that: at least a portion of the broadened end portion is not enclosed by the RF waveguide; and the RF waveguide comprises a stepped portion receiving the conductive microstrip line, and an elongated portion extending perpendicularly from the conductive microstrip line. a microstrip coupler for coupling a radio frequency wave into a waveguide; the microstrip coupler comprising: a conductive microstrip line having a broadened end portion; wherein the broadened end portion is tapered; a non-conductive slot following the broadened end portion to form an antenna for irradiating the RF wave; the waveguide arrangement further comprising a RF waveguide enclosing the non-conductive slot to receive the irradiated RF wave; a conductive microstrip line having a broadened end portion; wherein the broadened end portion is tapered; a non-conductive slot following the broadened end portion to form an antenna for irradiating the RF wave; the waveguide arrangement further comprising a RF waveguide enclosing the non-conductive slot to receive the irradiated RF wave;
Molten adhesive dispensing device comprising an adhesive melter and at least two adhesive application nozzles, characterised in that one of the nozzles is fixed to the melter, the other of the nozzles being fixedly joined to the end of a support arm, the support arm being movably connected to the melter so as to adjust the spacing between the application nozzles, the at least one nozzle fixed to the melter and the support arm being in direct fluid communication with the melter and the at least one nozzle fixed to the support arm being in direct fluid communication with the support arm. characterised in that one of the nozzles is fixed to the melter, the other of the nozzles being fixedly joined to the end of a support arm, the support arm being movably connected to the melter so as to adjust the spacing between the application nozzles, the at least one nozzle fixed to the melter and the support arm being in direct fluid communication with the melter and the at least one nozzle fixed to the support arm being in direct fluid communication with the support arm.
Coated particles comprising: controlled release API-containing particles comprising an API in an amount of at least 0.1%, and a fat/wax in an amount of between 5 and 30% based on the weight of the uncoated particles, and a crush resistant coating containing between 10 and 30% of a fat/wax based on the weight of the coated particles and the coating is present in an amount of between 20 and 75% by weight based on the weight of the coated particles, wherein the coated particles exhibit at least one of greater crush resistance or longer API release when compared to identical coated particles that do not include a fat/wax in both the particle and the coating.
A machine for drying field crops, comprising: a chassis; at least one generally horizontally disposed lower conveyor (24, 124a, 124b) disposed in the chassis, the lower conveyor (24, 124a, 124b) having a belt and a plurality of lower conveyor flights extending across the belt; at least one generally horizontally disposed upper conveyor (16, 116a, 116b) disposed in the chassis directly above the lower conveyor (24, 124a, 124b), the upper conveyor (16, 116a, 116b) having a belt, and a crop drying enclosure defined between the lower conveyor (24, 124a, 124b) and the upper conveyor (16, 116a, 116b), characterized by a plurality of upper conveyor flights extending laterally across the upper conveyor belt (16, 116a, 116b), wherein each of the upper conveyor flights engages a corresponding one of said lower conveyor flights to drive the lower conveyor. a chassis; at least one generally horizontally disposed lower conveyor (24, 124a, 124b) disposed in the chassis, the lower conveyor (24, 124a, 124b) having a belt and a plurality of lower conveyor flights extending across the belt; at least one generally horizontally disposed upper conveyor (16, 116a, 116b) disposed in the chassis directly above the lower conveyor (24, 124a, 124b), the upper conveyor (16, 116a, 116b) having a belt, and a crop drying enclosure defined between the lower conveyor (24, 124a, 124b) and the upper conveyor (16, 116a, 116b),
A radial vibration damper (100, 200) comprising: an inertia member defining an annular channel having a radially facing, open face, a bottom surface, and interior, opposing surfaces (158, 159), wherein the interior, opposing surfaces (158, 159) are each angled generally outward away from a central transverse plane through the inertia member at an angle in a range from zero degrees to at most 45 degrees; and a spring damper member having a channel portion seated in the annular channel to a selected depth that defines a damper gap (G D) between a radial inner surface of the spring damper member and the bottom surface of the annular channel and a shaft-engaging portion protruding from the radially facing, open face a sufficient distance that, once the shaft-engaging portion is compressed against a shaft, the spring damper member defines a clearance gap (Gc)between the shaft and the inertia member; wherein the channel portion of the spring damper member has opposing angled axial surfaces (114, 116) that mate with the interior, opposing surfaces (158, 159) of the annular channel; characterized in that a tuning ratio of the clearance gap (Gc) to the selected depth is in a range of about 1:1.5 to about 1:0.5, and radial vibration damper has a first mode of vibration, calculated via finite element analysis, that is radial in shape, and wherein the damper gap (G D) has a radial distance of about 1 mm to about 25 mm. an inertia member defining an annular channel having a radially facing, open face, a bottom surface, and interior, opposing surfaces (158, 159), wherein the interior, opposing surfaces (158, 159) are each angled generally outward away from a central transverse plane through the inertia member at an angle in a range from zero degrees to at most 45 degrees; and a spring damper member having a channel portion seated in the annular channel to a selected depth that defines a damper gap (G D) between a radial inner surface of the spring damper member and the bottom surface of the annular channel and a shaft-engaging portion protruding from the radially facing, open face a sufficient distance that, once the shaft-engaging portion is compressed against a shaft, the spring damper member defines a clearance gap (Gc)between the shaft and the inertia member; wherein the channel portion of the spring damper member has opposing angled axial surfaces (114, 116) that mate with the interior, opposing surfaces (158, 159) of the annular channel; characterized in that a tuning ratio of the clearance gap (Gc) to the selected depth is in a range of about 1:1.5 to about 1:0.5, and radial vibration damper has a first mode of vibration, calculated via finite element analysis, that is radial in shape, and wherein the damper gap (G D) has a radial distance of about 1 mm to about 25 mm.
A method of opening motor vehicle door comprising the steps of: Step A - detecting the presence of at least a portion of an individual's body by a capacitive or non-capacitive sensor; Step B - it authenticates the individual as being authorized to unlock the vehicle by an authentication means; Step C - a virtual switch is carried out projecting on the floor on which the motor vehicle in the form of a light pattern; Step D - the individual puts his foot so as to obscure the virtual switch in a predetermined manner having a predetermined direction of movement; Step E - if the foot is not placed in the predetermined manner, a signal is sent again to step D; or if the foot is placed in the predetermined manner, a control means opens the opening, wherein a guide means in the predetermined direction of movement is associated with said virtual switch. Step A - detecting the presence of at least a portion of an individual's body by a capacitive or non-capacitive sensor; Step B - it authenticates the individual as being authorized to unlock the vehicle by an authentication means; Step C - a virtual switch is carried out projecting on the floor on which the motor vehicle in the form of a light pattern; Step D - the individual puts his foot so as to obscure the virtual switch in a predetermined manner having a predetermined direction of movement; Step E - if the foot is not placed in the predetermined manner, a signal is sent again to step D; or if the foot is placed in the predetermined manner, a control means opens the opening,
A system for an aircraft performing taxi maneuvers, the system comprising: a processor (36, 50) configured to receive sensor information from one or more radar sensors mounted in at least one of a wingtip light module, fuselage, engine cowling, landing gear or tail component, wherein each of the one or more sensors has a field of view that is selected based on a stopping distance range of the aircraft; determine a non skidding braking distance for the aircraft based on a weight and a current speed of the aircraft; detect the position of at least one obstacle based on the received sensor information and the determined aircraft braking distance; and generate an image comprising: an ownship icon comprising at least one feature representing the at least one wingtip light module, fuselage, engine cowling, landing gear or tail component of the aircraft; and at least one indicator associated with the detected at least one obstacle; and a display device configured to present the generated image. a processor (36, 50) configured to receive sensor information from one or more radar sensors mounted in at least one of a wingtip light module, fuselage, engine cowling, landing gear or tail component, wherein each of the one or more sensors has a field of view that is selected based on a stopping distance range of the aircraft; determine a non skidding braking distance for the aircraft based on a weight and a current speed of the aircraft; detect the position of at least one obstacle based on the received sensor information and the determined aircraft braking distance; and generate an image comprising: an ownship icon comprising at least one feature representing the at least one wingtip light module, fuselage, engine cowling, landing gear or tail component of the aircraft; and at least one indicator associated with the detected at least one obstacle; and an ownship icon comprising at least one feature representing the at least one wingtip light module, fuselage, engine cowling, landing gear or tail component of the aircraft; and at least one indicator associated with the detected at least one obstacle; and a display device configured to present the generated image.
An apparatus for protecting an electroacoustic transducer, comprising: a layer of porous material, comprising openings, configured to pass sound waves through the layer and capture particles larger than a size of the opening; and a coil configured on the layer, wherein a signal line of the coil is configured to conform to a shape of the layer so that the signal line is configured on the layer; wherein the coil is configured to change a magnetic field of the electroacoustic transducer and thereby change an orientation of elongated ferromagnetic particles so as to capture the particles on the layer. a layer of porous material, comprising openings, configured to pass sound waves through the layer and capture particles larger than a size of the opening; and a coil configured on the layer, wherein a signal line of the coil is configured to conform to a shape of the layer so that the signal line is configured on the layer; wherein the coil is configured to change a magnetic field of the electroacoustic transducer and thereby change an orientation of elongated ferromagnetic particles so as to capture the particles on the layer.
A computer-implemented method, comprising: determining contents of an active application window displayed on a primary computing device, the primary computing device being associated with a user account, wherein the contents of the active application window displayed on the primary computing device include text inputted by a user using the primary computing device; identifying a secondary computing device associated with the user account and located proximate to the primary computing device; selecting one or more search results from an executed search query that is based on the text inputted by the user and displayed in the active application window; and providing the selected one or more search results for display on the secondary computing device while the active application window is displayed on the primary computing device. determining contents of an active application window displayed on a primary computing device, the primary computing device being associated with a user account, wherein the contents of the active application window displayed on the primary computing device include text inputted by a user using the primary computing device; identifying a secondary computing device associated with the user account and located proximate to the primary computing device; selecting one or more search results from an executed search query that is based on the text inputted by the user and displayed in the active application window; and providing the selected one or more search results for display on the secondary computing device while the active application window is displayed on the primary computing device.
A method of controlling a ceiling type air conditioner including a panel located on a ceiling surface, outlets formed at positions corresponding to four sides of the panel, a first vane group for opening and closing the outlets located at two opposing sides, and a second vane group for opening and closing the outlets located at the other two opposing sides, the method comprising: performing a dynamic airflow mode in which an indoor temperature reaches a set temperature by controlling rotation angles of the first vane group and the second vane group; and calculating a pleasant airflow index Y for determining a pleasant feeling of a user at the set temperature, wherein the pleasant airflow index is calculated using the indoor temperature, the rotation angle of the first vane group or the second vane group, an air volume, a distance from a floor surface and an airflow position as variables. performing a dynamic airflow mode in which an indoor temperature reaches a set temperature by controlling rotation angles of the first vane group and the second vane group; and calculating a pleasant airflow index Y for determining a pleasant feeling of a user at the set temperature, wherein the pleasant airflow index is calculated using the indoor temperature, the rotation angle of the first vane group or the second vane group, an air volume, a distance from a floor surface and an airflow position as variables.
A method for coating a part, comprising: binding a metallic powder to a section of the part; energizing the metallic powder to at least partially melt and resolidify the metallic powder to form a first metallic coating; and depositing a second metallic coating to substantially all of the part; wherein energizing the metallic powder comprises the simultaneous steps of: transferring a molten material to the section; melting the metallic powder onto the section; wherein the binding includes binding a hydrocarbon-based binder to the part; wherein, optionally the hydrocarbon-based binder comprises a protein; and further optionally the protein is gluten; wherein a contact metal deposition process energizes the metallic powder; and wherein the contact metal deposition process is an electro spark deposition process which utilizes an electrode and comprises: applying a first voltage to the electrode; applying a second voltage to the part, wherein the first voltage is greater than the second voltage; and touching the electrode to the section of the part, wherein a microstructure of the part is substantially unaltered by the electro-spark deposition process. binding a metallic powder to a section of the part; energizing the metallic powder to at least partially melt and resolidify the metallic powder to form a first metallic coating; and depositing a second metallic coating to substantially all of the part; wherein energizing the metallic powder comprises the simultaneous steps of: transferring a molten material to the section; melting the metallic powder onto the section; transferring a molten material to the section; melting the metallic powder onto the section; wherein the binding includes binding a hydrocarbon-based binder to the part; wherein, optionally the hydrocarbon-based binder comprises a protein; and further optionally the protein is gluten; wherein a contact metal deposition process energizes the metallic powder; and wherein the contact metal deposition process is an electro spark deposition process which utilizes an electrode and comprises: applying a first voltage to the electrode; applying a second voltage to the part, wherein the first voltage is greater than the second voltage; and touching the electrode to the section of the part, wherein a microstructure of the part is substantially unaltered by the electro-spark deposition process. applying a first voltage to the electrode; applying a second voltage to the part, wherein the first voltage is greater than the second voltage; and touching the electrode to the section of the part, wherein a microstructure of the part is substantially unaltered by the electro-spark deposition process.
A method for preparing a change of material in an extrusion device for a film machine having at least one feed device for feeding a feed material for an extruder, having the following steps: - predetermining an end of a production order of an extrusion device, - specifying a reduced changing filling level for the at least one feed device, - maintaining the filling level of the at least one feed device at the reduced changing filling level for the further production with the extrusion device, wherein the filling level of the at least one feed device is increased in batches in a single refill thrust, when the filling level falls below the changing filling level, wherein a defined refill quantity is introduced into the feed device. - predetermining an end of a production order of an extrusion device, - specifying a reduced changing filling level for the at least one feed device, - maintaining the filling level of the at least one feed device at the reduced changing filling level for the further production with the extrusion device, wherein the filling level of the at least one feed device is increased in batches in a single refill thrust, when the filling level falls below the changing filling level, wherein a defined refill quantity is introduced into the feed device.
A synthetic composition, comprising a plant element associated with a designed complex endophyte, the designed complex endophyte comprising a host fungal endophyte comprising a heterologous bacterial endophyte living inside the host fungal hyphae, wherein said designed complex endophyte comprises a host fungus from a class selected from the group consisting of: Mucoromycotina, Pezizomycotina, Dothideomycetes, Sordariomycetes and a bacterium from a class selected from the group consisting of: Bacilli, Gammaproteobacteria or Actinobacteria and wherein said designed complex endophyte is capable of providing a trait of agronomic importance to said plant element or plant with which said plant element is associated.