mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting occupancy-related data from a sensor (410a-d) to a remote server, the methodcomprising: collecting and buffering occupancy-related data on the sensor (410a-d) for a period of time; periodically generating, by the sensor (410a-d), a plurality of advertisement beacons with an identifier; adding, by the sensor (410a-d), the occupancy-related data buffered for a period of time to the plurality of advertisement beacons as occupancy-related data payloads, wherein the sensor (410a-d) is configured to rotate the collected occupancy-related data for the buffered period of time in the plurality of occupancy-related data payloads on a round-robin basis, wherein each of the plurality of occupancy-related data payloads are added to a different advertisement beacon of the plurality of advertisement beacons; wirelessly broadcasting, by the sensor (410a-d), the advertisement beacons with the occupancy-related data payloads and the identifier; scanning on mobile devices (420a-420n) for advertisement beacons with the identifier, wherein the scanning occurs without user notice or interaction; and in response to detecting an advertisement beacon with the identifier on a mobile device (420a-420n), automatically uploading, by the mobile device (420a-420n), the advertisement beacon and the corresponding occupancy-related data payload to the remote server; wherein the advertisement beacon is uploaded without user interaction, wherein the occupancy-related data comprises data related to one of following sensed parameters in a location: infrared light, carbon dioxide, temperature, or light. collecting and buffering occupancy-related data on the sensor (410a-d) for a period of time; periodically generating, by the sensor (410a-d), a plurality of advertisement beacons with an identifier; adding, by the sensor (410a-d), the occupancy-related data buffered for a period of time to the plurality of advertisement beacons as occupancy-related data payloads, wherein the sensor (410a-d) is configured to rotate the collected occupancy-related data for the buffered period of time in the plurality of occupancy-related data payloads on a round-robin basis, wherein each of the plurality of occupancy-related data payloads are added to a different advertisement beacon of the plurality of advertisement beacons; wirelessly broadcasting, by the sensor (410a-d), the advertisement beacons with the occupancy-related data payloads and the identifier; scanning on mobile devices (420a-420n) for advertisement beacons with the identifier, wherein the scanning occurs without user notice or interaction; and in response to detecting an advertisement beacon with the identifier on a mobile device (420a-420n), automatically uploading, by the mobile device (420a-420n), the advertisement beacon and the corresponding occupancy-related data payload to the remote server; wherein the advertisement beacon is uploaded without user interaction, wherein the occupancy-related data comprises data related to one of following sensed parameters in a location: infrared light, carbon dioxide, temperature, or light.
A method for washing a suspension containing solid matter, such as pulp, by means of a suction drum washer comprising a basin connected to the frame of the washer and containing the suspension, a drum rotating partly submerged in the suspension and provided with a filtering surface, a main vacuum source, such as a suction leg for introducing a vacuum/suction onto the inner surfaces of the filtering surfaces of the drum for accumulating a solids-containing pulp layer onto the filtering surface of the drum, and washing pipes (60, 70) mounted to the frame of the suction drum washer for distributing washing liquid onto the surface of the pulp layer, wherein a washing liquid spray supplied by a first washing pipe is directed to hit the pulp layer on the surface of the drum below a point located in the rotational direction 10 degrees above the surface of the suspension in the basin, characterized in that an intensified suction, generated by a vacuum which is at least 0.1 bar greater than the vacuum introduced by the main vacuum source, is directed to affect a filtrate compartment located below the inner surface of the filtering surface of the drum at the point where the washing liquid spray of the first washing pipe hits the pulp layer, which intensified suction is produced by means of one or more vacuum source separate from the main vacuum source and this intensified suction is directed to affect the filtrate compartment located below the filtering surface of the drum by means of a channel of a valve and via filtrate tubes,wherein the intensified suction is directed to a sector of the drum which starts at the point where the washing liquid spray of the first washing liquid pipe hits the surface of the pulp layer on the surface of the drum and ends in the rotational direction of the drum at the earliest 10 degrees after the point of the surface of the suspension so that the effect of the intensified suction on the filtrate compartment moving to said sector starts before any point of the filtrate compartment has moved to said sector.
A method for use in management of managed elements in a communications network operating as a Self Organising Network, SON, the method being performed by a domain manager of said network, comprising the steps of: - receiving by an agent operating in said domain manager a request, said request being from a predefined set of requests, to execute a first SON function, said first SON function being from a predefined set of SON functions, wherein said first SON function relates to management of at least one managed element and said first SON function is implemented in a network element (702, 708) where it is to be executed; - sending by said agent to said first SON function a message corresponding to said request; - executing said first SON function in response to said message. - receiving by an agent operating in said domain manager a request, said request being from a predefined set of requests, to execute a first SON function, said first SON function being from a predefined set of SON functions, wherein said first SON function relates to management of at least one managed element and said first SON function is implemented in a network element (702, 708) where it is to be executed; - sending by said agent to said first SON function a message corresponding to said request; - executing said first SON function in response to said message.
Wheel fork, in particular for a jogger function of a multifunctional bicycle trailer, comprising at least one fork arm (1, 2), having a dropout (3, 4) on its free end configured to receive a wheel axle of a wheel, wherein the dropout (3, 4) includes a movable latch configured to assume at least two positions, wherein in a first position of the latch the wheel axle can be fitted into the dropout (3, 4), and retaining means are provided to hold the latch at least in its second position, wherein in the second position the latch blocks the opening of the dropout (3, 4) at least so far that a wheel axle fitted in the dropout (3, 4) is held securely therein, characterized in that the retaining means comprise a dead-center spring through whose dead-center the latch can be moved from the first position into the second position and from the second position into the first position.
A method comprising: establishing a data connection with a base station (201,301,401,801,1001,1201) by a user equipment, UE (202,302,402,802,1002,1202), over a dedicated data beam, wherein the dedicated data beam has a fine resolution with narrower angular coverage; monitoring a set of fallback beams which are control beams, wherein each fallback control beam has a coarse resolution with wider angular coverage, and wherein the UE (202,302,402,802,1002,1202) receives downlink reference signals, DL-RSs, periodically transmitted over each of the fallback control beams; estimating channel state information, CSI, for each fallback control beam; and transmitting CSI feedback information to the base station (201,301,401,801,1001,1201), characterized by switching from the dedicated data beam to a selected fallback control beam for data communication when a channel quality associated with the dedicated data beam is below a threshold. establishing a data connection with a base station (201,301,401,801,1001,1201) by a user equipment, UE (202,302,402,802,1002,1202), over a dedicated data beam, wherein the dedicated data beam has a fine resolution with narrower angular coverage; monitoring a set of fallback beams which are control beams, wherein each fallback control beam has a coarse resolution with wider angular coverage, and wherein the UE (202,302,402,802,1002,1202) receives downlink reference signals, DL-RSs, periodically transmitted over each of the fallback control beams; estimating channel state information, CSI, for each fallback control beam; and transmitting CSI feedback information to the base station (201,301,401,801,1001,1201), characterized by switching from the dedicated data beam to a selected fallback control beam for data communication when a channel quality associated with the dedicated data beam is below a threshold.
Process for producing a polymer-metal hybrid component composed of a metallic main element and a semifinished fibre composite part joined adhesively to the main element, where the process comprises the following steps: (i) provision of a semifinished fibre composite part based on polyamide, wherein at least part of the surface of the semifinished part is formed by a polymer composition containing the following: a) 100 parts by weight of a polyamide; b) from 0.5 to 20 parts by weight of one or more bonding additives of the formula: M a M' b D c D' d where M = [R 3 SiO 1/2] M' = [R'R 2 SiO 1/2] D = [R 2 SiO 2/2] D' = [R'RSiO 2/2] where each R is independently methyl or phenyl and R' is a glycidyloxypropyl radical of the formula and the indices have the following values a = 0 to 2 b = 0 to 2 c = 10 to 500 d = 0 to 50 a + b = 2 and b + d ≥ 2; (ii) provision of a metallic main element; (iii)optionally pre-treatment of the surface of the metallic main element to generate functional groups; (iv) introduction of the metallic main element and the semifinished fibre composite part into a pressing tool and closure of the tool; and (v) adhesive joining of semifinished fibre composite part and metallic main element by pressing under pressure and the action of heat. (i) provision of a semifinished fibre composite part based on polyamide, wherein at least part of the surface of the semifinished part is formed by a polymer composition containing the following: a) 100 parts by weight of a polyamide; b) from 0.5 to 20 parts by weight of one or more bonding additives of the formula: M a M' b D c D' d where M = [R 3 SiO 1/2] M' = [R'R 2 SiO 1/2] D = [R 2 SiO 2/2] D' = [R'RSiO 2/2] where each R is independently methyl or phenyl and R' is a glycidyloxypropyl radical of the formula and the indices have the following values a = 0 to 2 b = 0 to 2 c = 10 to 500 d = 0 to 50 a + b = 2 and b + d ≥ 2; a) 100 parts by weight of a polyamide; b) from 0.5 to 20 parts by weight of one or more bonding additives of the formula: M a M' b D c D' d where M = [R 3 SiO 1/2] M' = [R'R 2 SiO 1/2] D = [R 2 SiO 2/2] D' = [R'RSiO 2/2] M = [R 3 SiO 1/2] M' = [R'R 2 SiO 1/2] D = [R 2 SiO 2/2] D' = [R'RSiO 2/2] a = 0 to 2 b = 0 to 2 c = 10 to 500 d = 0 to 50 a + b = 2 and b + d ≥ 2; (ii) provision of a metallic main element; (iii)optionally pre-treatment of the surface of the metallic main element to generate functional groups; (iv) introduction of the metallic main element and the semifinished fibre composite part into a pressing tool and closure of the tool; and (v) adhesive joining of semifinished fibre composite part and metallic main element by pressing under pressure and the action of heat.
A method for manufacturing a steel strip for a blade that includes, in percent by mass, 0.55 to 0.80% C, 1.0% or less Si, 1.0% or less Mn, and 12.0 to 14.0% Cr with the remainder being Fe and inevitable impurities, the method characterised by comprising: a batch annealing step for annealing a material for cold rolling having the aforementioned composition in a batch annealing furnace; and a cold rolling step for forming a steel strip by performing cold rolling one or more times on the material for cold rolling that has been batch annealed, wherein the batch annealing step includes a first uniform temperature step for maintaining heating for 1 to 12 hours at an internal furnace temperature exceeding 450°C and less than 770°C and a second uniform temperature step, carried out after the first uniform temperature step, for maintaining heating for 1 to 16 hours at an internal furnace temperature exceeding 770°C and less than 900°C, and a gradual cooling step of gradually cooling the material that has been batch annealed is further comprised between the batch annealing step and the cold rolling step, wherein in the gradual cooling step, a material temperature reaches 600 to 800°C and a temperature that is lower than the internal furnace temperature in the second uniform temperature step. a batch annealing step for annealing a material for cold rolling having the aforementioned composition in a batch annealing furnace; and a cold rolling step for forming a steel strip by performing cold rolling one or more times on the material for cold rolling that has been batch annealed, wherein the batch annealing step includes a first uniform temperature step for maintaining heating for 1 to 12 hours at an internal furnace temperature exceeding 450°C and less than 770°C and a second uniform temperature step, carried out after the first uniform temperature step, for maintaining heating for 1 to 16 hours at an internal furnace temperature exceeding 770°C and less than 900°C, and a gradual cooling step of gradually cooling the material that has been batch annealed is further comprised between the batch annealing step and the cold rolling step, wherein in the gradual cooling step, a material temperature reaches 600 to 800°C and a temperature that is lower than the internal furnace temperature in the second uniform temperature step.
A method comprising: providing a substrate comprising: a host; a seed layer bonded to the host; and a plurality of trenches formed in the seed layer; growing a semiconductor structure on the seed layer, the semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region, and a nucleation layer grown directly on the seed layer; and dividing into individual devices, wherein: the seed layer is patterned by the trenches, characterised in that: the edges of the seed layer portions are not located beneath the light emitting layer of the individual devices. providing a substrate comprising: a host; a seed layer bonded to the host; and a plurality of trenches formed in the seed layer; a host; a seed layer bonded to the host; and a plurality of trenches formed in the seed layer; growing a semiconductor structure on the seed layer, the semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region, and a nucleation layer grown directly on the seed layer; and dividing into individual devices, wherein: the seed layer is patterned by the trenches, characterised in that: the edges of the seed layer portions are not located beneath the light emitting layer of the individual devices. the seed layer is patterned by the trenches, characterised in that: the edges of the seed layer portions are not located beneath the light emitting layer of the individual devices.
Method for determining the position of at least one rock reinforcing bolt in a tunnel or a mine, with the bolt installation being arranged to be carried out by means of a drilling rig, with the said drilling rig comprising at least one boom with a first end and a second end, with the said first end being attached to a carrier via at least one articulated connection, and with the said boom being arranged to carry an installation tool, characterized in that the method comprises the steps of: - determining a position for the said carrier using means arranged on the drilling rig, - determining at least one angle for the said boom in relation to the carrier by determination of an angle of rotation for the said articulated connection, and - determining the position of the rock reinforcing bolt in the tunnel or mine on the basis of the said position of the carrier and the said determined angle of rotation. - determining a position for the said carrier using means arranged on the drilling rig, - determining at least one angle for the said boom in relation to the carrier by determination of an angle of rotation for the said articulated connection, and - determining the position of the rock reinforcing bolt in the tunnel or mine on the basis of the said position of the carrier and the said determined angle of rotation.
High-voltage system, comprising a high-voltage battery and a DC-to-DC converter, wherein the high-voltage system has two different, galvanically connected voltage levels when the DC-to-DC converter is active, wherein the high-voltage system also has two contactors, by means of which the high-voltage battery can be galvanically isolated from the rest of the high-voltage system at all poles, wherein the high-voltage system has a first measuring apparatus for detecting the voltage (U_2b) of the high-voltage battery and a second measuring apparatus for detecting the voltage at the output of the DC-to-DC converter, wherein the high-voltage system has an insulation resistance measuring apparatus that is designed to carry out insulation resistance measurements only when the DC-to-DC converter is deactivated, wherein the insulation resistance measuring apparatus is designed to measure the internal insulation resistance of the high-voltage battery when the contactors are open and to measure the total insulation resistance when the contactors are closed, wherein the high-voltage system also has a third measuring apparatus for detecting a voltage (U_2b_P) between a positive high-voltage line and earth, and a fourth measuring apparatus for detecting a voltage (U_2b_N) between a negative high-voltage line and earth, wherein the high-voltage system has an insulation monitoring apparatus that is designed to monitor, from the data from the first to fourth measuring apparatuses (M1-M4), different further insulation resistances of the high-voltage battery when the DC-to-DC converter is active, wherein the insulation monitoring apparatus is designed to detect insulation faults between the positive high-voltage line of the DC-to-DC converter and earth by virtue of the voltage of the fourth measuring apparatus being greater than the sum of the voltage (U_2b) detected by the first measuring apparatus and a threshold value, and the voltage of the third measuring apparatus being negative.
Electric machine, - wherein the electric machine has a stator device and a rotor, - wherein the rotor is arranged in a rotationally fixed manner on a rotor shaft, - wherein the rotor shaft is mounted in bearings of the electric machine so that the rotor shaft including the rotor can be rotated around a rotational axis, - wherein limiting elements are mounted on the stator device axially on both sides so that the stator device and limiting elements bound an internal rotor space radially externally and axially on both sides, - wherein axially extending first cooling channels are arranged in the stator device which at their axial ends are connected in a communicating manner to the internal rotor space so that by means of the first cooling channels an internal air-cooling circuit will be completed from the internal rotor space through the first cooling channels and back into the internal rotor space, - wherein a liquid cooling medium is ducted to the stator device and then ducted out of the stator device again, - wherein the liquid cooling medium is ducted at least partially through second cooling channels arranged in the stator device, - wherein the first cooling channels and the second cooling channels are separated from one another by partitions of the stator device and the partitions have cooling-fin-like primary projections on their sides facing the first cooling channels, characterised in that - the primary projections in turn have cooling-fin-like secondary projections on their sides facing the first cooling channels. - wherein the electric machine has a stator device and a rotor, - wherein the rotor is arranged in a rotationally fixed manner on a rotor shaft, - wherein the rotor shaft is mounted in bearings of the electric machine so that the rotor shaft including the rotor can be rotated around a rotational axis, - wherein limiting elements are mounted on the stator device axially on both sides so that the stator device and limiting elements bound an internal rotor space radially externally and axially on both sides, - wherein axially extending first cooling channels are arranged in the stator device which at their axial ends are connected in a communicating manner to the internal rotor space so that by means of the first cooling channels an internal air-cooling circuit will be completed from the internal rotor space through the first cooling channels and back into the internal rotor space, - wherein a liquid cooling medium is ducted to the stator device and then ducted out of the stator device again, - wherein the liquid cooling medium is ducted at least partially through second cooling channels arranged in the stator device, - wherein the first cooling channels and the second cooling channels are separated from one another by partitions of the stator device and the partitions have cooling-fin-like primary projections on their sides facing the first cooling channels, characterised in that - the primary projections in turn have cooling-fin-like secondary projections on their sides facing the first cooling channels.
A compound of Formula or pharmaceutically acceptable salt thereof wherein n is 1 or 2; R 1 is hydrogen, fluoro, methyl or methoxy; and R 2 is phenyl, pyridyl, C 3-6 cycloalkyl, piperidin-1-yl or tetrahydropyranyl, wherein phenyl and pyridyl are optionally substituted by one to three substituents independently selected from chloro, fluoro, cyano, C 1-3 alkyl optionally substituted by one or more fluoro, or C 1-3 alkoxy optionally substituted by one or more fluoro, and cycloalkyl, piperidin-1-yl and tetrahydropyranyl are optionally substituted by one or two fluoro. n is 1 or 2; R 1 is hydrogen, fluoro, methyl or methoxy; and R 2 is phenyl, pyridyl, C 3-6 cycloalkyl, piperidin-1-yl or tetrahydropyranyl, wherein phenyl and pyridyl are optionally substituted by one to three substituents independently selected from chloro, fluoro, cyano, C 1-3 alkyl optionally substituted by one or more fluoro, or C 1-3 alkoxy optionally substituted by one or more fluoro, and cycloalkyl, piperidin-1-yl and tetrahydropyranyl are optionally substituted by one or two fluoro.