mhurhangee/patent-ind-claim-en huggingface dataset:
A compound, having a formula 1' and/or a salt thereof, wherein: one of R 1 and R 2 is pyrimidin-2-yl, pyrimidin-4-yl, pyrazine-2-yl, 6-(difluoromethyl)pyridin-2-yl, 3-fluoro-6-(trifluoromethyl)pyridin-2-yl, 3,6-difluoropyridin-2-yl, or 3,5-difluoropyridin-2-yl, and the other of R 1 and R 2 is H; R 3 is H, aliphatic, heteroaliphatic, heterocyclyl, amide, aromatic, or araliphatic; R 4 is H or C 1-6 alkyl; R 5 is H or C 1-6 alkyl; and ring A is a 5-membered nitrogen-containing heteroaryl; wherein 'aromatic' refers to a cyclic, conjugated group or moiety of from 5 to 15 ring atoms having a single ring or multiple condensed rings in which at least one ring has a continuous, delocalized π-electron system, and wherein the aromatic group or moiety may comprise only carbon atoms in the ring or may comprise one or more ring carbon atoms and one or more ring heteroatoms selected from S, O, N, P, or Si; or alternatively the compound is II-15: 2-(1H-pyrazol-4-yl)-N-(3-(pyridin-2-yl)-1-(2-(2,2,2-tnfluoroethoxy)ethyl)-1H-pyrazol-4-yl)oxazole-4-carboxamide. one of R 1 and R 2 is pyrimidin-2-yl, pyrimidin-4-yl, pyrazine-2-yl, 6-(difluoromethyl)pyridin-2-yl, 3-fluoro-6-(trifluoromethyl)pyridin-2-yl, 3,6-difluoropyridin-2-yl, or 3,5-difluoropyridin-2-yl, and the other of R 1 and R 2 is H; R 3 is H, aliphatic, heteroaliphatic, heterocyclyl, amide, aromatic, or araliphatic; R 4 is H or C 1-6 alkyl; R 5 is H or C 1-6 alkyl; and ring A is a 5-membered nitrogen-containing heteroaryl; wherein 'aromatic' refers to a cyclic, conjugated group or moiety of from 5 to 15 ring atoms having a single ring or multiple condensed rings in which at least one ring has a continuous, delocalized π-electron system, and wherein the aromatic group or moiety may comprise only carbon atoms in the ring or may comprise one or more ring carbon atoms and one or more ring heteroatoms selected from S, O, N, P, or Si; or alternatively the compound is II-15: 2-(1H-pyrazol-4-yl)-N-(3-(pyridin-2-yl)-1-(2-(2,2,2-tnfluoroethoxy)ethyl)-1H-pyrazol-4-yl)oxazole-4-carboxamide.
An autonomous cleaning device, comprising: a device body , a drive module , a cleaning module and a sensing module , wherein the drive module, the cleaning module and the sensing module are separately and detachably assembled to the device body, characterized in that , the device body comprises a chassis and an upper housing fixed to the chassis , the drive module is provided to the chassis, and the sensing module is assembled in an accommodating chamber of the upper housing , the accommodating chamber is matched with the sensing module , the device body further comprises a protection cover assembled above the accommodating chamber , a circumferential side of the protection cover is hollowed out, and the sensing module is located between the accommodating chamber and the protection cover . the device body comprises a chassis and an upper housing fixed to the chassis , the drive module is provided to the chassis, and the sensing module is assembled in an accommodating chamber of the upper housing , the accommodating chamber is matched with the sensing module , the device body further comprises a protection cover assembled above the accommodating chamber , a circumferential side of the protection cover is hollowed out, and the sensing module is located between the accommodating chamber and the protection cover .
A high elasticity composition comprising hyaluronan for use in treating pain in a subject, wherein the composition has an elasticity (G') of at least about 900 Pascal when measured at a frequency of 5.0 Hz and ambient temperature and pressure.
A solar tracker , comprising: a plurality of bases ; a support structure including at least one longitudinal beam extending along a length of the solar tracker and a plurality of transverse beam pairs , the plurality of transverse beam pairs oriented generally orthogonal to the at least one longitudinal beam and each transverse beam pair rotatably coupled to one of the plurality of bases such that rotation of the transverse beam pairs rotates the support structure relative to the plurality of bases ; a plurality of gear boxes , each gear box supported by at least one of the plurality of transverse beam pairs ; a drive shaft traversing a length of the support structure parallel to the at least one longitudinal beam and coupled to each of the plurality of gear boxes ; and for each gear box , an actuator mechanically coupled to the drive shaft via the gearbox on one end and coupled to one of the plurality of bases on a second end, wherein the actuator includes a power screw which when driven by the drive shaft extends from or retracts into a body causing the support structure to rotate about an axis of rotation, characterized in that for each gear box an input shaft extends through the gear box , the input shaft being mechanically coupled to a portion of the drive shaft , and a portion of the input shaft extending through the at least one of the plurality of transverse beam pairs that supports the gear box . a plurality of bases ; a support structure including at least one longitudinal beam extending along a length of the solar tracker and a plurality of transverse beam pairs , the plurality of transverse beam pairs oriented generally orthogonal to the at least one longitudinal beam and each transverse beam pair rotatably coupled to one of the plurality of bases such that rotation of the transverse beam pairs rotates the support structure relative to the plurality of bases ; a plurality of gear boxes , each gear box supported by at least one of the plurality of transverse beam pairs ; a drive shaft traversing a length of the support structure parallel to the at least one longitudinal beam and coupled to each of the plurality of gear boxes ; and for each gear box , an actuator mechanically coupled to the drive shaft via the gearbox on one end and coupled to one of the plurality of bases on a second end, wherein the actuator includes a power screw which when driven by the drive shaft extends from or retracts into a body causing the support structure to rotate about an axis of rotation, characterized in that for each gear box an input shaft extends through the gear box , the input shaft being mechanically coupled to a portion of the drive shaft , and a portion of the input shaft extending through the at least one of the plurality of transverse beam pairs that supports the gear box .
A computer program product adapted to perform, when executed on a data-processing apparatus, a method comprising: reading data for a character and a plurality of objects located in a three-dimensional game field from a storage device , generating images of the character and the objects, and displaying the images on a display device connected to the data-processing apparatus; controlling a movement of the character located-on one of the objects; changing a viewing position or viewing direction used when generating the image in accordance with a command input from the player acknowledged by an input device connected to the data-processing apparatus; displaying a marker indicating a position where the character would land after falling using a direction of gravitational force exerted on the character to a direction that is parallel to the viewing direction; when a command input for changing the gravitational direction is acknowledged, changing the gravitational force exerted on the character to said direction and causing the character to fall in the changed direction of the gravitational force by exerting the changed gravitational force on the character. reading data for a character and a plurality of objects located in a three-dimensional game field from a storage device , generating images of the character and the objects, and displaying the images on a display device connected to the data-processing apparatus; controlling a movement of the character located-on one of the objects; changing a viewing position or viewing direction used when generating the image in accordance with a command input from the player acknowledged by an input device connected to the data-processing apparatus; displaying a marker indicating a position where the character would land after falling using a direction of gravitational force exerted on the character to a direction that is parallel to the viewing direction; when a command input for changing the gravitational direction is acknowledged, changing the gravitational force exerted on the character to said direction and causing the character to fall in the changed direction of the gravitational force by exerting the changed gravitational force on the character.
A camera decoration cover , comprising: a decoration cover plate and a light-transmitting cover plate that are stacked, wherein a region covered by the light-transmitting cover plate on the decoration cover plate is a coverage region , at least one camera hole is provided in the coverage region , the coverage region comprises at least one first region , and the first region is provided with at least one first electrostatic discharge hole corresponding to the camera hole ; the camera decoration cover characterized by further comprising: a center of the coverage region is a first center (o1), and a center of the camera hole is a second center (o2); and the first region is a region formed on one side of the second center (o2) far away from the first center (o1) by respectively rotating a straight line (L1) where the first center (o1) and the second center (o2) lie around the first center (o1) toward two sides of the straight line (L1) by a first preset angle (α), and the first preset angle (α) is in a range of (0°, 45°]. a region covered by the light-transmitting cover plate on the decoration cover plate is a coverage region , at least one camera hole is provided in the coverage region , the coverage region comprises at least one first region , and the first region is provided with at least one first electrostatic discharge hole corresponding to the camera hole ; the camera decoration cover characterized by further comprising: a center of the coverage region is a first center (o1), and a center of the camera hole is a second center (o2); and the first region is a region formed on one side of the second center (o2) far away from the first center (o1) by respectively rotating a straight line (L1) where the first center (o1) and the second center (o2) lie around the first center (o1) toward two sides of the straight line (L1) by a first preset angle (α), and the first preset angle (α) is in a range of (0°, 45°].
Vehicle , in particular for conveying people and/or freight, having at least one fireproof electrical network , at least one first vehicle region which has a first fire load and is designed for the purpose of conveying people and/or freight, and at least one second vehicle region which has a second fire load which is smaller than the first fire load and is not designed for the purpose of conveying people and/or freight, characterised in that at least part of the fireproof network is arranged in the second vehicle region and the vehicle comprises at least one fire-protective housing in the second vehicle region , in which at least part of the fireproof network is arranged.
A wavelength converting member comprising: a quantum dot layer having quantum dots; and a barrier layer formed on both outer surfaces of the quantum dot layer , wherein a moisture vapor transmission rate of the barrier layer is lower than 9 (g/m 2 ▪ day), characterized in that the quantum dot layer contains the quantum dots, a resin in which the quantum dots are dispersed, a dispersant for improving dispersibility of the quantum dots, and a light-scattering agent, the light-scattering agent is contained in the quantum dot layer at 1 wt% to 10 wt% with respect to the quantum dot layer , wherein the barrier layer is a film having an organic layer , and an outer surface of the barrier layer is matted, and wherein the organic layer is adhered to the quantum dot layer , via an adhesive layer , with the organic layer facing the quantum dot layer . a quantum dot layer having quantum dots; and a barrier layer formed on both outer surfaces of the quantum dot layer , wherein a moisture vapor transmission rate of the barrier layer is lower than 9 (g/m 2 ▪ day), characterized in that the quantum dot layer contains the quantum dots, a resin in which the quantum dots are dispersed, a dispersant for improving dispersibility of the quantum dots, and a light-scattering agent, the light-scattering agent is contained in the quantum dot layer at 1 wt% to 10 wt% with respect to the quantum dot layer , wherein the barrier layer is a film having an organic layer , and an outer surface of the barrier layer is matted, and wherein the organic layer is adhered to the quantum dot layer , via an adhesive layer , with the organic layer facing the quantum dot layer .
A process of making an n-type zinc-oxide-based thin film semiconductor by depositing a thin film material on a surface area of a substrate, either an entire surface area or a selected portion thereof, wherein deposition is by an atomic layer deposition process that is carried out at or above atmospheric pressure, wherein the temperature of the substrate during deposition is under 300°C, and wherein the atomic layer deposition process comprises simultaneously directing a series of gas flows along elongated substantially parallel channels comprising, in order, at least a first reactive gaseous material containing a zinc-containing compound having a molar flow during deposition, an inert purge gas, and a second reactive gaseous material through a plurality of output openings spaced apart from the substrate, and transporting the substrate in a direction relative to the plurality of output openings, such that any point on the surface area of the substrate experiences a sequence of the first reactive gaseous material, the inert purge gas, and the second reactive gaseous material, whereby the sequence causes a thin film to be formed by atomic layer deposition on the surface area of the substrate, wherein a volatile indium-containing compound is introduced into the first reactive gaseous material or a supplemental gaseous material such that the indium-containing compound has a molar flow at a level of greater than 20 percent of the molar flow of the zinc-containing compound, wherein the series of gas flows are provided by a deposition device comprising, facing said substrate in plan view, a series of elongated output openings, substantially in parallel, positioned over the substrate, in an output face of the deposition device, spaced within 1 mm from the surface of the substrate subject to deposition and the flows of one or more of the first and second reactive gaseous materials and inert purge gas to the substrate surface for thin film deposition provides at least part of a force separating the depositing output face of said deposition device from the surface of the substrate.
A clamping device comprising a clamping member which is movably mounted in a main body , a linearly movable actuator which is operatively connected to the clamping member , a spring element which is operatively connected to the actuator and a rotatably mounted actuating element which is operatively connected to the spring element , wherein the spring element is designed as a compression spring which can be compressed when tensioned by means of the actuating element , wherein an abutment element for the spring element is arranged at the end of the actuator remote from the clamping member , wherein the spring element is designed to be supported, on the one hand, on the actuator and, on the other hand, on an abutment which is operatively connected to the actuating element , wherein the abutment is arranged at one end of a housing and the actuating element is designed to be operatively connected to the other end of the housing , characterised in that the abutment element is designed to be mounted in the manner of a piston in the housing in order to form a damper.
A method of wireless communication of a base station , comprising: determining at least one of i) a number of one or more demodulation reference signal, DM-RS, symbols or ii) one or more locations within a subframe for transmission of the one or more DM-RS symbols ; transmitting the at least one of i) the number of the one or more DM-RS symbols or ii) the one or more locations within the subframe for the transmission of the one or more DM-RS symbols to a user equipment, UE ; determining a resource allocation scheme for a phase noise compensation reference signal, PC-RS, wherein the PC-RS is located in resource elements different from resource elements carrying the DM-RS; and transmitting the resource allocation scheme for the PC-RS to the UE . determining at least one of i) a number of one or more demodulation reference signal, DM-RS, symbols or ii) one or more locations within a subframe for transmission of the one or more DM-RS symbols ; transmitting the at least one of i) the number of the one or more DM-RS symbols or ii) the one or more locations within the subframe for the transmission of the one or more DM-RS symbols to a user equipment, UE ; determining a resource allocation scheme for a phase noise compensation reference signal, PC-RS, wherein the PC-RS is located in resource elements different from resource elements carrying the DM-RS; and transmitting the resource allocation scheme for the PC-RS to the UE .
Beacon (B) for transmitting data to a plurality of devices in a certain range comprising - an interface (I) for receiving a signal received from a sensor, - a processing unit (PU) which is arranged to generate a control signal for an adaptation of the transmission of data depending on the received signal, characterised by : wherein the sensor comprises a light sensor for determining light intensity in the environment of the beacon (B), and wherein the transmission rate or/and transmission power is varied essentially proportional to the light intensity. - an interface (I) for receiving a signal received from a sensor, - a processing unit (PU) which is arranged to generate a control signal for an adaptation of the transmission of data depending on the received signal, characterised by : wherein the sensor comprises a light sensor for determining light intensity in the environment of the beacon (B), and wherein the transmission rate or/and transmission power is varied essentially proportional to the light intensity. wherein the sensor comprises a light sensor for determining light intensity in the environment of the beacon (B), and wherein the transmission rate or/and transmission power is varied essentially proportional to the light intensity.
A nuclear level sensing gauge for measuring the level of product in a bin , the gauge comprising: a source of nuclear radiation positioned adjacent the product in the bin; a housing ; a plurality of scintillators provided in the housing adjacent the product in the bin and positioned opposite the source of nuclear radiation , nuclear radiation from the source passing through the bin and impinging upon the scintillators, causing the scintillators to generate scintillating light ; light sensing circuitry for detecting light; and characterised in that it further comprises: an optical fiber for conveying the scintillating light from all of the scintillators to the light sensing circuitry, the scintillating light being transmitted from each of the scintillators and into the optical fiber through an air coupling, the optical fiber emitting light in response to absorption of the scintillating light from the scintillators, the light sensing circuitry collecting the emitted light from the optical fiber to provide a representation of the level of radiation-absorbing product in the bin. a source of nuclear radiation positioned adjacent the product in the bin; a housing ; a plurality of scintillators provided in the housing adjacent the product in the bin and positioned opposite the source of nuclear radiation , nuclear radiation from the source passing through the bin and impinging upon the scintillators, causing the scintillators to generate scintillating light ; light sensing circuitry for detecting light; and characterised in that it further comprises: an optical fiber for conveying the scintillating light from all of the scintillators to the light sensing circuitry, the scintillating light being transmitted from each of the scintillators and into the optical fiber through an air coupling, the optical fiber emitting light in response to absorption of the scintillating light from the scintillators, the light sensing circuitry collecting the emitted light from the optical fiber to provide a representation of the level of radiation-absorbing product in the bin.
A method performed by a wireless device, comprising: receiving, by the wireless device from a base station: an indication of a resource pool; and an indication of sidelink subcarrier spacing, SCS; determining a processing time associated with congestion control, wherein the processing time is based on: a processing capability of the wireless device; and the sidelink SCS; determining, based on the processing time, a congestion control parameter measurement value of the resource pool; and sending, via a sidelink and based on the congestion control parameter measurement value, at least one message. receiving, by the wireless device from a base station: an indication of a resource pool; and an indication of sidelink subcarrier spacing, SCS; an indication of a resource pool; and an indication of sidelink subcarrier spacing, SCS; determining a processing time associated with congestion control, wherein the processing time is based on: a processing capability of the wireless device; and the sidelink SCS; a processing capability of the wireless device; and the sidelink SCS; determining, based on the processing time, a congestion control parameter measurement value of the resource pool; and sending, via a sidelink and based on the congestion control parameter measurement value, at least one message.
A lens-forming composition, comprising: (a) at least one lens-forming material, (b) at least one photoinitiator, (c) at least one thiol-containing compound or polymer in an amount for reducing the curing time of the lens-forming composition, with a first light having a wavelength from 380 to 460 nm, compared to a control composition which differs from the lens-forming composition only in that the control composition is free of any chain-transfer agent while the lens-forming composition comprises said at least one thiol-containing compound or polymer, (d) at least one metal ion scavenger, (e) at least one free radical scavenger, and (f) optionally at least one polymerizable UV-absorbing component having at least one UV-absorbing moiety which absorbs UV radiation having a wavelength of from 200 nm to 400 nm, wherein the lens-forming composition has a pH of from 2.5 to 5 and a shelf life of at least 3 days. (a) at least one lens-forming material, (b) at least one photoinitiator, (c) at least one thiol-containing compound or polymer in an amount for reducing the curing time of the lens-forming composition, with a first light having a wavelength from 380 to 460 nm, compared to a control composition which differs from the lens-forming composition only in that the control composition is free of any chain-transfer agent while the lens-forming composition comprises said at least one thiol-containing compound or polymer, (d) at least one metal ion scavenger, (e) at least one free radical scavenger, and (f) optionally at least one polymerizable UV-absorbing component having at least one UV-absorbing moiety which absorbs UV radiation having a wavelength of from 200 nm to 400 nm,