mhurhangee/ep-ind-claims huggingface dataset:
Method for interaction of a wireless communication device with an identification unit, the wireless communication device being connected with said identification unit, the wireless communication device further operating within a cellular network by means of said identification unit, said identification unit being configured to carry information representing a subscription for operating a wireless communication device in the cellular network, the wireless communication device and the identification unit being adapted to provide each a set of capabilities of operation within the cellular network, wherein the method comprises the following steps performed by the wireless communication device: - determining a first set of information representing the capabilities of the wireless communication device, - determining a second set of information representing the capabilities of the identification unit, wherein the set of capabilities comprises at least one out of: - capability to support a group of radio access technologies, and/or - capability to support a set of services within a certain radio access technology, - analysing the first and the second set of information for differences, - carrying out measures for handling of differences, in case differences have been detected at the analysing step. - determining a first set of information representing the capabilities of the wireless communication device, - determining a second set of information representing the capabilities of the identification unit, - capability to support a group of radio access technologies, and/or - capability to support a set of services within a certain radio access technology, - analysing the first and the second set of information for differences, - carrying out measures for handling of differences, in case differences have been detected at the analysing step.
A thermally insulated shipping container comprising: an inner structure including an inner base, a front inner wall, a rear inner wall opposed to the front inner wall, a pair of opposed side inner walls each extending between the front and rear inner walls and an inner lid (6, 7); an outer structure including an outer base, a front outer wall, a rear outer wall opposed to the front inner wall, two side outer walls each extending between the front and rear outer walls and an outer lid; and a cavity extending at least between the inner and outer walls, the cavity being arranged to receive a plurality of cool packs; wherein the container, when empty, is arranged to be transported disassembled in a flat packed state prior to being assembled for use, characterised in that, when disassembled, each side outer wall comprises a first portion and a second portion separate to the first portion, which first and second portions are arranged to abut together to form the respective side outer wall when the container is assembled for use, and in that the first portion of each of the two side outer walls is hinged at one end to a respective end of one of the front or rear outer walls. an inner structure including an inner base, a front inner wall, a rear inner wall opposed to the front inner wall, a pair of opposed side inner walls each extending between the front and rear inner walls and an inner lid (6, 7); an outer structure including an outer base, a front outer wall, a rear outer wall opposed to the front inner wall, two side outer walls each extending between the front and rear outer walls and an outer lid; and a cavity extending at least between the inner and outer walls, the cavity being arranged to receive a plurality of cool packs; wherein the container, when empty, is arranged to be transported disassembled in a flat packed state prior to being assembled for use, characterised in that, when disassembled, each side outer wall comprises a first portion and a second portion separate to the first portion, which first and second portions are arranged to abut together to form the respective side outer wall when the container is assembled for use, and in that the first portion of each of the two side outer walls is hinged at one end to a respective end of one of the front or rear outer walls.
Cosmetic preparation comprising a) 4-(tert-butyl)-4'-methoxydibenzoylmethane and b) titanium dioxide particles in a primary particle size distribution having at least two maxima, characterized in that the preparation is free of ethylhexyl salicylate, 2-ethylhexyl 2-cyano-3,3-diphenylacrylate, homomenthyl salicylate, 2-ethylhexyl 4-methoxycinnamate and 3-(4-methylbenzylidene)camphor. a) 4-(tert-butyl)-4'-methoxydibenzoylmethane and b) titanium dioxide particles in a primary particle size distribution having at least two maxima, characterized in that the preparation is free of ethylhexyl salicylate, 2-ethylhexyl 2-cyano-3,3-diphenylacrylate, homomenthyl salicylate, 2-ethylhexyl 4-methoxycinnamate and 3-(4-methylbenzylidene)camphor.
Video coding process with at least one digital frame sequence, where the frames of said sequence can be intermediary frames or key frames (IC0, IC1) used as references for coding by motion compensation of intermediary frames, the coding process being characterised in that: - intermediary frames are coded by zone based on motion compensation according to global motion patterns in the forward and backward direction using key frames (IC0, IC1), an intermediary frame zone being generated: - by merger of corresponding zones of motion compensated key frames (IG0, IG1) when said corresponding zones of key frames (IC0, IC1) are compensated according to said global motion patterns and the contents of said corresponding zones of motion compensated key frames (IG0, IG1) are consistent with the direction of a measurement; or - by conventional predictive coding when said corresponding zones of key frames are not compensated according to global motion patterns or when said corresponding zones of key frames are compensated (IG0, IG1) according to global motion patterns but the contents of said corresponding zones of motion compensated key frames (IG0, IG1) are not consistent with the direction of a measurement - intermediary frames are coded by zone based on motion compensation according to global motion patterns in the forward and backward direction using key frames (IC0, IC1), an intermediary frame zone being generated: - by merger of corresponding zones of motion compensated key frames (IG0, IG1) when said corresponding zones of key frames (IC0, IC1) are compensated according to said global motion patterns and the contents of said corresponding zones of motion compensated key frames (IG0, IG1) are consistent with the direction of a measurement; or - by conventional predictive coding when said corresponding zones of key frames are not compensated according to global motion patterns or when said corresponding zones of key frames are compensated (IG0, IG1) according to global motion patterns but the contents of said corresponding zones of motion compensated key frames (IG0, IG1) are not consistent with the direction of a measurement - by merger of corresponding zones of motion compensated key frames (IG0, IG1) when said corresponding zones of key frames (IC0, IC1) are compensated according to said global motion patterns and the contents of said corresponding zones of motion compensated key frames (IG0, IG1) are consistent with the direction of a measurement; or - by conventional predictive coding when said corresponding zones of key frames are not compensated according to global motion patterns or when said corresponding zones of key frames are compensated (IG0, IG1) according to global motion patterns but the contents of said corresponding zones of motion compensated key frames (IG0, IG1) are not consistent with the direction of a measurement
A refrigerator, comprising: an ice maker positioned in the refrigerator and configured to make ice; an ice making tray associated with the ice maker and configured to retain water to be frozen; a plate positioned at an open side of the ice making tray, and configured to reduce water overflow from the ice making tray; a cool air inlet passage configured to allow cool air to be introduced to an area inside of the plate; and a cool air outlet passage that is separate from the cool air inlet passage, and configured to allow release, to an exterior of the plate, of the cool air introduced to the area inside of the plate, a driving unit coupled to the ice making tray and configured to rotate the ice making tray, a control unit configured to provide a control signal to the driving unit to rotate the ice making tray, characterized in that the control unit is configured to detect a status of the water retained in the ice making tray and provide the control signal to the driving unit based on the detected status, and wherein the cool air outlet passage is generated between the ice making tray and the plate, and is made by rotation of the ice making tray. an ice maker positioned in the refrigerator and configured to make ice; an ice making tray associated with the ice maker and configured to retain water to be frozen; a plate positioned at an open side of the ice making tray, and configured to reduce water overflow from the ice making tray; a cool air inlet passage configured to allow cool air to be introduced to an area inside of the plate; and a cool air outlet passage that is separate from the cool air inlet passage, and configured to allow release, to an exterior of the plate, of the cool air introduced to the area inside of the plate, a driving unit coupled to the ice making tray and configured to rotate the ice making tray, a control unit configured to provide a control signal to the driving unit to rotate the ice making tray, characterized in that the control unit is configured to detect a status of the water retained in the ice making tray and provide the control signal to the driving unit based on the detected status, and wherein the cool air outlet passage is generated between the ice making tray and the plate, and is made by rotation of the ice making tray.
A composition containing an acacia bark derivative(s) for use in the prevention and/or treatment of leukemia wherein the acacia bark derivative(s) is an extract(s) of acacia bark and wherein the acacia bark is bark selected from the group consisting of Acacia mearnsii De Wild., Acacia mangium Willd., Acacia dealbata Link, Acacia decurrens Willd. and Acacia pycnantha Benth.
Attachment device for two elements (1, 2) of a watch band to allow said two elements (1, 2) to be hooked into place or unhooked, wherein the first element comprises at least one bar on one of its ends, characterised in that the second element comprises two fixed grooves (20, 21), each comprising a longitudinal opening (210, 220) respectively opposite one another, and one of the two elements (1, 2) can move from an unhooked position, in which one of the elements is oriented in a predetermined angular position in relation to the other element, to a hooked position, in which the two elements (1, 2) are coplanar after a rotation of a predetermined angle of one of the two elements in relation to the other so that each groove is articulated on the bar to hold the two elements hooked to one another.
A graphics processing unit comprising: a plurality (202A, 202B, 202C, 202D, 202E) of engines configured to: (i) receive, from a scheduling module associated with a central processing unit, a plurality of tasks and (ii) load state data associated with each of the plurality of tasks to be executed by a shader core; and a shader core associated with the GPU configured to receive, from the plurality of engines, the plurality of tasks, each task received from a different engine and each task having an associated priority, and to execute a first task from the plurality of tasks while executing a second task from the plurality of tasks based on the respective load state data associated with each of the first and second tasks, wherein the shader core comprises: a first plurality of processing elements configured to execute the first task based on a first set of load state data associated with the first task; and a second plurality of processing elements configured to execute the second task based on a second set of load state data associated with the second task. a plurality (202A, 202B, 202C, 202D, 202E) of engines configured to: (i) receive, from a scheduling module associated with a central processing unit, a plurality of tasks and (ii) load state data associated with each of the plurality of tasks to be executed by a shader core; and a shader core associated with the GPU configured to receive, from the plurality of engines, the plurality of tasks, each task received from a different engine and each task having an associated priority, and to execute a first task from the plurality of tasks while executing a second task from the plurality of tasks based on the respective load state data associated with each of the first and second tasks, wherein the shader core comprises: a first plurality of processing elements configured to execute the first task based on a first set of load state data associated with the first task; and a second plurality of processing elements configured to execute the second task based on a second set of load state data associated with the second task. a first plurality of processing elements configured to execute the first task based on a first set of load state data associated with the first task; and a second plurality of processing elements configured to execute the second task based on a second set of load state data associated with the second task.
Hydrophilic precipitated silica characterized by the following physicochemical parameters: Equilibrium moisture content (at 70% relative humidity/20°C) 0.5% - 5.0% by weight BET surface area 50 - 250 m 2 /g CTAB surface area 50 - 250 m 2 /g DBP (anhydrous) 200 - 350 g/100 g pH 4 - 8
A lighting system comprising an auxiliary electrical module (130, 140) and lighting modules (10, 120, 204) forming a row having a first light row end a second light row end, each one of the auxiliary electrical module (130, 140) and the lighting modules (10, 120, 204) comprising: - a printed circuit board, hereafter PCB, comprising a first end and a second end; - a first connector assembly located proximate the first end and comprising a first LED power connector and a first auxiliary power connector; and - a second connector assembly located proximate the second end and comprising a second LED power connector and a second auxiliary power connector, the first and second connector assemblies (22, 24) being compatible with each other; wherein: - each lighting module (10, 120, 204) further comprises light emitting diodes, hereafter LEDs, connected between the first and second LED power connectors (26, 27); - the auxiliary electrical module (130, 140) further comprises an auxiliary electrical component connected between the first and second auxiliary power connectors (30, 31); - the first and second LED power connectors (26, 27) are electrically connected to each other, and the first and second auxiliary power connectors (30, 31) are electrically connected to each other distinctly from the first and second LED power connectors (26, 27) and are operative to provide electrical energy to the auxiliary electrical component in the lighting system thereby avoiding additional external electrical connections for the auxiliary electrical component; and - the lighting modules (10, 120, 204) and the auxiliary electrical module (130, 140) are electrically connected in and end-to-end relationship. - a printed circuit board, hereafter PCB, comprising a first end and a second end; - a first connector assembly located proximate the first end and comprising a first LED power connector and a first auxiliary power connector; and - a second connector assembly located proximate the second end and comprising a second LED power connector and a second auxiliary power connector, the first and second connector assemblies (22, 24) being compatible with each other; - each lighting module (10, 120, 204) further comprises light emitting diodes, hereafter LEDs, connected between the first and second LED power connectors (26, 27); - the auxiliary electrical module (130, 140) further comprises an auxiliary electrical component connected between the first and second auxiliary power connectors (30, 31); - the first and second LED power connectors (26, 27) are electrically connected to each other, and the first and second auxiliary power connectors (30, 31) are electrically connected to each other distinctly from the first and second LED power connectors (26, 27) and are operative to provide electrical energy to the auxiliary electrical component in the lighting system thereby avoiding additional external electrical connections for the auxiliary electrical component; and - the lighting modules (10, 120, 204) and the auxiliary electrical module (130, 140) are electrically connected in and end-to-end relationship.
Coating composition comprising (a) at least one thermoplastic acrylonitrile-butadiene-styrene copolymer in a content of at least 30% by weight of the solids content of the coating composition; (b) at least one UV-curable reactive diluent in a content of at least 30% by weight of the solids content of the coating composition; (c) at least one photoinitiator in a content of ≥ 0.1 to ≤ 10 parts by weight of the solids content of the coating composition; and (d) at least one organic solvent, wherein the proportion of ethylenically unsaturated groups is at least 3 mol per kg of the solids content of the coating composition, and wherein the acrylonitrile-butadiene-styrene copolymer (a) has an acrylonitrile content in the range of ≥ 19% and ≤ 35%. (a) at least one thermoplastic acrylonitrile-butadiene-styrene copolymer in a content of at least 30% by weight of the solids content of the coating composition; (b) at least one UV-curable reactive diluent in a content of at least 30% by weight of the solids content of the coating composition; (c) at least one photoinitiator in a content of ≥ 0.1 to ≤ 10 parts by weight of the solids content of the coating composition; and (d) at least one organic solvent,
An electrophoretic display module, comprising a pixel electrode and a transparent electrode overlaid by an electrically conductive layer and being located above the pixel electrode, an electrophoretic medium provided between the pixel electrode and the electrically conductive layer overlaying the transparent electrode, the pixel electrode including a plurality of pixel electrode units distributed in an array defining a display area of the electrophoretic display module, and a spacer frame having a conductive silver paste coating therein is located around the electrophoretic medium, a lightproof insulating display area protection layer is provided between the spacer frame and the electrically conductive layer and also between an edge of the electrophoretic medium and the electrically conductive layer; an electrophoretic fluid barrier array for uniformly dispersing and stabilizing the electrophoretic medium is provided on the pixel electrode and/or the transparent electrode; the electrophoretic fluid barrier array comprises a plurality of electrophoretic fluid barrier frames distributed in an array, wherein the pixel electrode is embedded in a Thin Film Transistor, TFT, glass substrate, and the pixel electrode and the electrophoretic medium are adhered to each other by a lightproof insulating adhesive layer.
A method at user equipment 'UE', the method comprising: determining one or more radio channel estimates from received signals; selecting an optimum precoding index for improved transmission, based on the one or more radio channel estimates and a reduced precoding matrix, wherein the reduced precoding matrix comprises precoding properties of a single centred beam for each of the different polarisation planes, and the reduced precoding matrix is derived from an expanded precoding matrix comprising precoding properties of a plurality of beams for each of the different polarisation planes; and transmitting a precoding matrix indicator, PMI, based on the selected precoding index. determining one or more radio channel estimates from received signals; selecting an optimum precoding index for improved transmission, based on the one or more radio channel estimates and a reduced precoding matrix, wherein the reduced precoding matrix comprises precoding properties of a single centred beam for each of the different polarisation planes, and the reduced precoding matrix is derived from an expanded precoding matrix comprising precoding properties of a plurality of beams for each of the different polarisation planes; and transmitting a precoding matrix indicator, PMI, based on the selected precoding index.
A tracking device configured to track a shipment of cargo, comprising: a housing; a tracking unit arranged within the housing and configured to collect and transmit data; a power unit having at least one power source arranged within the housing, the power unit being configured to supply power to the tracking unit; a circuit board connecting the power unit and the tracking unit, characterised in that the housing has a complementary top portion and bottom portion, the top portion and the bottom portion being pivotally coupled and the circuit board includes a metal tab arranged adjacent a conductive interface, a portion of a pull tab formed from a thin, non-conductive material is arranged between the tab and the conductive interface, wherein the tracking device is configured to transform from an inactive state to a fully active state upon removal of the pull tab. a housing; a tracking unit arranged within the housing and configured to collect and transmit data; a power unit having at least one power source arranged within the housing, the power unit being configured to supply power to the tracking unit; a circuit board connecting the power unit and the tracking unit, characterised in that the housing has a complementary top portion and bottom portion, the top portion and the bottom portion being pivotally coupled and the circuit board includes a metal tab arranged adjacent a conductive interface, a portion of a pull tab formed from a thin, non-conductive material is arranged between the tab and the conductive interface, wherein the tracking device is configured to transform from an inactive state to a fully active state upon removal of the pull tab.