mhurhangee/ep-ind-claims huggingface dataset:
A motorized roller blind, said motorized roller blind comprising: a headrail and a motorized roller, wherein said headrail comprises a battery compartment for holding a battery configured to drive said motorized roller, wherein said battery compartment comprises a battery space, a closable lid movable between a closed position in which said battery space is closed from the surroundings and an open position in which said battery space is opened to the surroundings, and a battery tray arranged to hold the battery, wherein said battery tray is rigidly connected to said closable lid, thus providing easy access to the battery when said lid is in its open position, wherein said battery tray comprises a substantially horizontal surface arranged to support a battery, and characterized by that said closable lid is pivotable about a vertical pivot axis between said closed position and said open position. a headrail and a motorized roller, wherein said headrail comprises a battery compartment for holding a battery configured to drive said motorized roller, wherein said battery compartment comprises a battery space, a closable lid movable between a closed position in which said battery space is closed from the surroundings and an open position in which said battery space is opened to the surroundings, and a battery tray arranged to hold the battery, wherein said battery tray is rigidly connected to said closable lid, thus providing easy access to the battery when said lid is in its open position, wherein said battery tray comprises a substantially horizontal surface arranged to support a battery, and characterized by that said closable lid is pivotable about a vertical pivot axis between said closed position and said open position.
A process to prepare an olefin comprising (a) reacting an aliphatic alcohol and, optionally, diluent water, in a first adiabatic reactor of a reactor system including at least two adiabatic reactors, under reaction conditions including an inlet temperature of the first reactor of from 200 °C to 450 °C, in the presence of a first dehydration catalyst, wherein the diluent water, if used, is in an amount of up to 50 percent by weight, based on the weight of the aliphatic alcohol, to form a first reaction product that includes at least a dialkyl ether and generated water; and, subsequently, (b) reacting the first reaction product in a second adiabatic reactor under reaction conditions including an inlet temperature of the second reactor that is at least 10°C higher than the inlet temperature of the first reactor, in the presence of a second dehydration catalyst, such that at least a portion of the dialkyl ether in the first reaction product is dehydrated to form an olefin; provided that the first dehydration catalyst and the second dehydration catalyst may be the same or different and wherein the aliphatic alcohol is ethyl alcohol, propyl alcohol, butyl alcohol, or a mixture thereof, and the olefin is ethene, propene, butene, or a mixture thereof. (a) reacting an aliphatic alcohol and, optionally, diluent water, in a first adiabatic reactor of a reactor system including at least two adiabatic reactors, under reaction conditions including an inlet temperature of the first reactor of from 200 °C to 450 °C, in the presence of a first dehydration catalyst, wherein the diluent water, if used, is in an amount of up to 50 percent by weight, based on the weight of the aliphatic alcohol, to form a first reaction product that includes at least a dialkyl ether and generated water; and, subsequently, (b) reacting the first reaction product in a second adiabatic reactor under reaction conditions including an inlet temperature of the second reactor that is at least 10°C higher than the inlet temperature of the first reactor, in the presence of a second dehydration catalyst, such that at least a portion of the dialkyl ether in the first reaction product is dehydrated to form an olefin;
A method performed by a wireless apparatus for wireless communication, the method comprising: determining, by a wireless apparatus, a resource assigned for communication, wherein the assigned resource comprises a virtual resource block, VRB; mapping the assigned resource to a first physical resource, comprising a first physical resource block, PRB, based on a first mapping function, wherein the first mapping function comprises a one-to-one mapping from an index of the assigned resource to an equal index of the first physical resource; mapping the assigned resource to a second physical resource comprising a second PRB, based on a second mapping function wherein an output of the second mapping function is equal to an output of the first mapping function plus an offset, wherein the offset is based on a step size (Δ), and a hop value (y) which is a zero or non-zero integer value; and using the first and second physical resources for communication with a Node B. determining, by a wireless apparatus, a resource assigned for communication, wherein the assigned resource comprises a virtual resource block, VRB; mapping the assigned resource to a first physical resource, comprising a first physical resource block, PRB, based on a first mapping function, wherein the first mapping function comprises a one-to-one mapping from an index of the assigned resource to an equal index of the first physical resource; mapping the assigned resource to a second physical resource comprising a second PRB, based on a second mapping function wherein an output of the second mapping function is equal to an output of the first mapping function plus an offset, wherein the offset is based on a step size (Δ), and a hop value (y) which is a zero or non-zero integer value; and using the first and second physical resources for communication with a Node B.
A system for navigating a host vehicle, the system comprising: at least one processing device (180, 190) programmed to: receive, from an image capture device (122, 124, 126) included on the host vehicle, a plurality of images representative of an environment of the host vehicle; analyze at least one of the plurality of images to identify a partially obscured target vehicle in the environment of the host vehicle, wherein a lower portion of the target vehicle and the interface of the lower portion with a surface of a road in the environment of the host vehicle on which the target vehicle is located are obscured by another object; receive map information associated with an environment of the host vehicle; determine a trajectory of the target vehicle over a time period based on scale changes associated with the target vehicle across the plurality of images; determine, by comparing the determined trajectory of the target vehicle to target trajectories for a plurality of lanes of the road included in the map information, a current lane position of the target vehicle relative to a road in the environment of the host vehicle; and determine a navigational action for the host vehicle based on the determined lane position of the target vehicle. receive, from an image capture device (122, 124, 126) included on the host vehicle, a plurality of images representative of an environment of the host vehicle; analyze at least one of the plurality of images to identify a partially obscured target vehicle in the environment of the host vehicle, wherein a lower portion of the target vehicle and the interface of the lower portion with a surface of a road in the environment of the host vehicle on which the target vehicle is located are obscured by another object; receive map information associated with an environment of the host vehicle; determine a trajectory of the target vehicle over a time period based on scale changes associated with the target vehicle across the plurality of images; determine, by comparing the determined trajectory of the target vehicle to target trajectories for a plurality of lanes of the road included in the map information, a current lane position of the target vehicle relative to a road in the environment of the host vehicle; and determine a navigational action for the host vehicle based on the determined lane position of the target vehicle.
A volumetric flow controller, in particular for air conditioning and ventilation systems, for displacing a control flap that is adjustably supported in the interior of a flow channel, comprising a differential pressure sensor for measuring a pressure difference prevailing in the flow channel, a control unit that adjusts the control flap depending on the pressure measured by the pressure sensor for adjusting a target volumetric flow in the flow channel, a first operating element for selecting one of a plurality of parameters (8a-8h), in particular of control and/or configuration parameters, and a second operating element for adjusting the value of the respective selected parameter, and a display for displaying the currently set value of the respective selected parameter, characterized in that the first operating element is a push button, a touch-sensitive switch, a touch-sensitive operating panel or a contactless operating element for advancing the respective parameter displayed in the display, that a scale with the selectable parameters (8a-8h) is associated with the display and that a marking that can be advanced along the scale by actuation of the first operating element and that indicates the respective displayed parameter on the scale is displayed in the display.
A method for evaluating system fluency, the system fluency being fluency of a system of user equipment that indicates hardware capability of the user equipment, stability of the system, a level of system resource management, and capability to control a malicious application as well as a bad application of a third party, the method comprising: acquiring, among third-party applications each with a preset ranking, top N third-party applications, N being a positive integer; installing the top N third-party applications in the system of the user equipment; starting up a service in each serialized scene in the system; monitoring, during a service run in a serialized scene in the system, a state of running each service, wherein a serialized scene simulates a usage habit of a user, and comprises at least one third-party application; acquiring an abnormality in the state of running the each service; determining a number of occurrences of each abnormality; and computing a fluency score of the system according to the number of occurrences of each abnormality, wherein the computing the fluency score according to the number of occurences of each abnormality comprises: computing the fluency score of the system by computing a weighted sum of the number of occurences of each abnormality using a preset weight of each abnormality. acquiring, among third-party applications each with a preset ranking, top N third-party applications, N being a positive integer; installing the top N third-party applications in the system of the user equipment; starting up a service in each serialized scene in the system; monitoring, during a service run in a serialized scene in the system, a state of running each service, wherein a serialized scene simulates a usage habit of a user, and comprises at least one third-party application; acquiring an abnormality in the state of running the each service; determining a number of occurrences of each abnormality; and computing a fluency score of the system according to the number of occurrences of each abnormality, wherein the computing the fluency score according to the number of occurences of each abnormality comprises: computing the fluency score of the system by computing a weighted sum of the number of occurences of each abnormality using a preset weight of each abnormality.
Apparatus for encoding image data, the image data being decomposed into a plurality of different subbands, each subband comprising a plurality of coefficients, wherein a first subband of the plurality of different subbands comprises a first set of coefficients, wherein a different second subband of the plurality of different subbands comprises a different second set of coefficients, wherein a precinct comprises the first and the second sets of coefficients (1001, 1002) from the first and the second subbands of the plurality of different subbands, wherein the first and the second sets of coefficients (1001, 1002) of the precinct belong to a spatial region of an image represented by the image data, the apparatus comprising: a processor for determining, for each group of coefficients within a set, a greatest coded line index (GCLI); an encoder for encoding the greatest coded line indices associated with the first set of coefficients of the precinct in accordance with a first encoding mode, and for encoding the greatest coded line indices associated with the second set of coefficients of the precinct in accordance with a second encoding mode, the second encoding mode being different from the first encoding mode; and an output interface for outputting an encoded image signal having data on the encoded greatest coded line indices and data on the coefficients, wherein the first encoding mode and the second encoding mode are selected from a set of encoding modes comprising at least two of: a vertical prediction encoding mode, a horizontal prediction encoding mode, and a raw encoding mode. a processor for determining, for each group of coefficients within a set, a greatest coded line index (GCLI); an encoder for encoding the greatest coded line indices associated with the first set of coefficients of the precinct in accordance with a first encoding mode, and for encoding the greatest coded line indices associated with the second set of coefficients of the precinct in accordance with a second encoding mode, the second encoding mode being different from the first encoding mode; and an output interface for outputting an encoded image signal having data on the encoded greatest coded line indices and data on the coefficients, wherein the first encoding mode and the second encoding mode are selected from a set of encoding modes comprising at least two of: a vertical prediction encoding mode, a horizontal prediction encoding mode, and a raw encoding mode.
A method of forming a current measurement device, the method comprising: providing a glass substrate comprising first and second substantially planar surfaces (118, 120) that are opposite one another; forming a plurality of through-vias in the glass substrate that each extend between the first and second substantially planar surfaces (118, 120); and forming conductive tracks on the glass substrate that connect adjacent ones of the through-vias together, wherein forming the plurality of through-vias comprises applying radiation to the glass substrate, wherein the conductive tracks and the through-vias collectively form a coil structure in the glass substrate, wherein windings of the coil structure comprise a pair of the through-vias and one of the conductive tracks electrically connecting the pair of the through-vias together, and wherein the method further comprises forming a first metallization layer on the first substantially planar surface, and forming a second metallization layer on the second substantially planar surface, wherein the conductive tracks are formed in the first and second metallization layers (130, 132). providing a glass substrate comprising first and second substantially planar surfaces (118, 120) that are opposite one another; forming a plurality of through-vias in the glass substrate that each extend between the first and second substantially planar surfaces (118, 120); and forming conductive tracks on the glass substrate that connect adjacent ones of the through-vias together, wherein forming the plurality of through-vias comprises applying radiation to the glass substrate, wherein the conductive tracks and the through-vias collectively form a coil structure in the glass substrate, wherein windings of the coil structure comprise a pair of the through-vias and one of the conductive tracks electrically connecting the pair of the through-vias together, and wherein the method further comprises forming a first metallization layer on the first substantially planar surface, and forming a second metallization layer on the second substantially planar surface, wherein the conductive tracks are formed in the first and second metallization layers (130, 132).
A method for autonomous, automatic interleaving of cycled loads coupled to a grid, comprising: determining, by a smart load coupled to a grid, a first grid stress value; comparing, by the smart load, the first grid stress value to an activation threshold; activating, by the smart load, when the first grid stress value is less than the activation threshold, a delay period that is a function of number of missed opportunities for the smart load to turn on during a time period in which the smart load is waiting to turn on; determining, by the smart load and after the delay period ends, a second grid stress value; comparing, by the smart load, the second grid stress value to the activation threshold; and activating the smart load when the second grid stress value is less than the activation threshold. determining, by a smart load coupled to a grid, a first grid stress value; comparing, by the smart load, the first grid stress value to an activation threshold; activating, by the smart load, when the first grid stress value is less than the activation threshold, a delay period that is a function of number of missed opportunities for the smart load to turn on during a time period in which the smart load is waiting to turn on; determining, by the smart load and after the delay period ends, a second grid stress value; comparing, by the smart load, the second grid stress value to the activation threshold; and activating the smart load when the second grid stress value is less than the activation threshold.
A porous implantable device suitable for implantation in a living being, said implantable device comprising a high density porous material possessing the property of glass transition and at least one additive component, wherein at least one additive component is arranged to create a microstructure, wherein said high density is obtainable by a process comprising compression applied to at least one porous material, wherein said compression process causes the sacrifice of at least some pores in said porous material.
A hybrid implant made of a composite material having a polymer matrix and a ceramic-inorganic component, wherein the polymer matrix has at least one component selected from the group of PDLLA, PLGA, PCL, HDPE, PE, UHMWPE, PEAK, PEEK, PP, PUR, and the ceramic-inorganic component contains at least one constituent selected from the group consisting of HAP, α-TCP, β-TCP and CaCO 3, characterized in that the ceramic-inorganic component contains CaCO 3 and the CaCO 3 contributes between about 15% and about 65% percentage by weight to the total mass of the hybrid implant, and the composite material additionally contains metallic constituents and the metallic constituents contribute between about 5% and about 15% percentage by weight to the total mass of the hybrid implant.
Edgebanding machine for fixing an edge element to an edge of an element made of wood or similar materials, comprising a gluing unit for applying an adhesive substance to said edge element or to said edge, and supporting means for rotatably supporting said gluing unit around a swivel axis between an operating position, wherein said gluing unit applies said adhesive substance to said edge element or to said edge, and a non-operating position, wherein said gluing unit does not apply said adhesive substance to said edge element or to said edge, wherein connecting means is provided for removably connecting said gluing unit to said supporting means, characterised in that said connecting means comprises adjusting means connected to said gluing unit for adjusting a tilt of said swivel axis with respect to said supporting means.
Microstorage device, in particular for integration into a microfluid flow cell, with a storage space, which receives a fluid and is in connection with an outlet channel for the fluid, in which a removable barrier for the fluid is formed, and with means for removing the barrier without subjecting the barrier to pressure of the fluid, which comprise an actuator element (14; 16; 21; 22) for mechanically destroying the barrier, characterized in that the barrier is formed by welding and/or adhesively bonding bounding walls of the outlet channel that are opposite one another and the actuator element (14; 16; 21, 22) brings about the separation of the welding and/or adhesive bond between the bounding walls.
Compound of the formula in which R 1 represents hydrogen or halogen, R 2 represents hydrogen or halogen, R 3 represents chloro or trifluoromethyl, R 4 represents hydrogen or C 1 -C 4 -alkyl R 5 represents a group of the formula where # is the point of attachment to the aromatic or heteroaromatic 6 ring system R 6 represents C 1 -C 6 -alkyl, substituted by one or more substituent independently selected from the group consisting of trifluoromethoxy, nitril, amido, C 2 -C 6 -halogenoalkyl, substituted by 1 to 5 fluoro substituents, C 3 -C 6 -cycloalkyl, C 3 -C 6 -cycloalkyl-methyl, optionally substituted by 1 to 5 fluoro substituents or a trifluoromethyl group, C 1 -C 6 -alkylcarbonyl, optionally substituted by 1 to 3 fluoro substituents, C 3 -C 6 -cycloalkyl-carbonyl, optionally substituted by 1 to 3 fluoro substituents, oxetanyl, spiro[2.2]pentan-2-ylmethyl or [(3-fluoro-1-bicyclo[1.1.1]pentanyl)methyl, R 7 represents C 1 -C 4 -alkylcarbonyl, optionally substituted by a C 3 -C 6 -cycloalkyl group, R 8 represents C 2 -C 4 - halogenoalkyl substituted by 1 to 6 fluoro substituents, X 1 represents nitrogen or carbon, X 2 represents nitrogen or carbon R 1 represents hydrogen or halogen, R 2 represents hydrogen or halogen, R 3 represents chloro or trifluoromethyl, R 4 represents hydrogen or C 1 -C 4 -alkyl R 5 represents a group of the formula where # is the point of attachment to the aromatic or heteroaromatic 6 ring system R 6 represents C 1 -C 6 -alkyl, substituted by one or more substituent independently selected from the group consisting of trifluoromethoxy, nitril, amido, C 2 -C 6 -halogenoalkyl, substituted by 1 to 5 fluoro substituents, C 3 -C 6 -cycloalkyl, C 3 -C 6 -cycloalkyl-methyl, optionally substituted by 1 to 5 fluoro substituents or a trifluoromethyl group, C 1 -C 6 -alkylcarbonyl, optionally substituted by 1 to 3 fluoro substituents, C 3 -C 6 -cycloalkyl-carbonyl, optionally substituted by 1 to 3 fluoro substituents, oxetanyl, spiro[2.2]pentan-2-ylmethyl or [(3-fluoro-1-bicyclo[1.1.1]pentanyl)methyl, C 1 -C 6 -alkyl, substituted by one or more substituent independently selected from the group consisting of trifluoromethoxy, nitril, amido, C 2 -C 6 -halogenoalkyl, substituted by 1 to 5 fluoro substituents, C 3 -C 6 -cycloalkyl, C 3 -C 6 -cycloalkyl-methyl, optionally substituted by 1 to 5 fluoro substituents or a trifluoromethyl group, C 1 -C 6 -alkylcarbonyl, optionally substituted by 1 to 3 fluoro substituents, C 3 -C 6 -cycloalkyl-carbonyl, optionally substituted by 1 to 3 fluoro substituents, oxetanyl, spiro[2.2]pentan-2-ylmethyl or [(3-fluoro-1-bicyclo[1.1.1]pentanyl)methyl, R 7 represents C 1 -C 4 -alkylcarbonyl, optionally substituted by a C 3 -C 6 -cycloalkyl group, R 8 represents C 2 -C 4 - halogenoalkyl substituted by 1 to 6 fluoro substituents, X 1 represents nitrogen or carbon, X 2 represents nitrogen or carbon