mhurhangee/ep-ind-claims huggingface dataset:
A device including: a wireless communication unit to assign a plurality of wireless communication devices to at least one Space-Division Multiple Access, SDMA, group based on traffic-specification, TSPEC, information corresponding to the plurality of wireless communication devices, wherein the TSPEC information corresponding to a wireless communication device of the plurality of wireless communication devices includes at least a quality of service of a traffic flow between the wireless communication device and the wireless communication unit, the wireless communication unit is configured to assign the wireless communication device to the group based at least on the quality of service of the traffic flow between the wireless communication device and the wireless communication unit, wherein the wireless communication unit is configured to simultaneously transmit a plurality of different wireless communication transmissions to the plurality of wireless communication devices of the group, and wherein the wireless communication unit is configured to transmit group allocation information to the plurality of wireless communication devices assigned to the group, the group allocation information includes a group address assigned to the group, the wireless communication unit is configured to transmit a common transmission to the plurality of wireless communication devices assigned to the group by transmitting the common transmission addressed to the group address. a wireless communication unit to assign a plurality of wireless communication devices to at least one Space-Division Multiple Access, SDMA, group based on traffic-specification, TSPEC, information corresponding to the plurality of wireless communication devices, wherein the TSPEC information corresponding to a wireless communication device of the plurality of wireless communication devices includes at least a quality of service of a traffic flow between the wireless communication device and the wireless communication unit, the wireless communication unit is configured to assign the wireless communication device to the group based at least on the quality of service of the traffic flow between the wireless communication device and the wireless communication unit, wherein the wireless communication unit is configured to simultaneously transmit a plurality of different wireless communication transmissions to the plurality of wireless communication devices of the group, and wherein the wireless communication unit is configured to transmit group allocation information to the plurality of wireless communication devices assigned to the group, the group allocation information includes a group address assigned to the group, the wireless communication unit is configured to transmit a common transmission to the plurality of wireless communication devices assigned to the group by transmitting the common transmission addressed to the group address.
A method for storing voicemail messages, the method comprising: detecting a connection to a callee's voicemail system during a communication attempt from a caller to a callee; receiving media from the caller device, the media being sent from the caller device to the callee's voicemail system; and automatically forking the media to the caller's voicemail system, wherein a copy of a voicemail message stored in the callee's voicemail system is also stored in the caller's voicemail system using the forked media. detecting a connection to a callee's voicemail system during a communication attempt from a caller to a callee; receiving media from the caller device, the media being sent from the caller device to the callee's voicemail system; and automatically forking the media to the caller's voicemail system, wherein a copy of a voicemail message stored in the callee's voicemail system is also stored in the caller's voicemail system using the forked media.
An eye and eyelid cover which includes a pair of spaced viewing windows, wherein a reservoir of hot water is contained between said pair of spaced viewing windows, said eye and eyelid cover comprising one or more compartments or internal components within which a wax phase change material is contained, the wax phase change material being molten at an initial temperature of the hot water in the reservoir and solidifying during cooling of the hot water whilst a treatment procedure is being carried out.
An apparatus comprising: (a) a first member having a hollow interior communicating a pressurized fluid flow and defining a longitudinal axis of said apparatus; (b) a body mounted for rotation at one end of said hollow first member; (c) means (56, 90) for rotating said body in response to said pressurized fluid flow communicated through said hollow interior of said first member; and (d) at least one port provided in said body independent to said means for rotating said body and in fluid communication with said hollow interior of said first member; (e) wherein said at least one port communicates said pressurized fluid flow external to said body; characterized in that the apparatus further comprises a second member having a hollow interior and further having one end thereof secured in fluid communication to said end of said first member communicating said pressurized fluid flow, wherein said body is mounted for said rotation on a peripheral surface of said second member and wherein said means (56, 90) for rotating said body comprises: (i) a closed chamber disposed within said body and having an irregular inner surface, and (ii) at least one orifice formed through a wall of said second member so as to direct pressurized fluid flow onto said irregular inner surface; (iii) wherein said second member extends through said chamber and wherein said hollow interior of said second member is in fluid communication with each of said hollow interior of said first member and said at least one port. (a) a first member having a hollow interior communicating a pressurized fluid flow and defining a longitudinal axis of said apparatus; (b) a body mounted for rotation at one end of said hollow first member; (c) means (56, 90) for rotating said body in response to said pressurized fluid flow communicated through said hollow interior of said first member; and (d) at least one port provided in said body independent to said means for rotating said body and in fluid communication with said hollow interior of said first member; (e) wherein said at least one port communicates said pressurized fluid flow external to said body; (i) a closed chamber disposed within said body and having an irregular inner surface, and (ii) at least one orifice formed through a wall of said second member so as to direct pressurized fluid flow onto said irregular inner surface; (iii) wherein said second member extends through said chamber and wherein said hollow interior of said second member is in fluid communication with each of said hollow interior of said first member and said at least one port.
A catalyst for olefin polymerization containing a metal complex represented by the following general formula: wherein, M represents Pd, X represents a phosphorous atom, Y represents a methylene group (-CH 2 -), R 5 represents a methyl group, benzyl group, methoxy group, 2-acetoamidophenyl group or acetyloxy group, R 6 and R 7 respectively and independently represent an alkoxy group, aryloxy group, silyl group, amino group or hydrocarbon group having 1 to 120 carbon atoms optionally substituted with one or more substituents selected from a halogen atom, alkoxy group and aryloxy group, at least one of R 6 and R 7 represents a tertiary alkyl group represented by general formula: wherein, R 8, R 9 and R 10 respectively and independently represent a hydrocarbon group having 1 to 30 carbon atoms, R 8, R 9 and R 10 may respectively bond to form a ring structure, and in the formula, bonds between the carbon atom and X in general formula are also indicated, R 6 and R 7 may respectively bond to form a ring structure, L represents an electron donating ligand, and q represents 1/2, 1 or 2, in which a value of 1/2 for q means that a single divalent electron donating ligand is coordinated with two metal complexes.
Current collector for a multi-pole contact line system, having: - a lower arm pivotally mounted on a base, - at least two upper arms (2, 3) which are pivotally mounted relative to one another on an end of the lower arm opposite the base, - at least two separate contact assemblies (7 a, 7b) which are arranged on the respective upper arms (2, 3) and are associated with different poles (14a, 14b) of a contact line, - a central compensating rocker arranged on the base, characterised by - at least two connecting rods (8, 9) whose first end is pivotally connected to the central compensating rocker respectively and whose second end is pivotally connected to one of the at least two upper arms (2, 3) respectively. - a lower arm pivotally mounted on a base, - at least two upper arms (2, 3) which are pivotally mounted relative to one another on an end of the lower arm opposite the base, - at least two separate contact assemblies (7 a, 7b) which are arranged on the respective upper arms (2, 3) and are associated with different poles (14a, 14b) of a contact line, - a central compensating rocker arranged on the base, characterised by - at least two connecting rods (8, 9) whose first end is pivotally connected to the central compensating rocker respectively and whose second end is pivotally connected to one of the at least two upper arms (2, 3) respectively.
A method, performed by a user equipment, UE, the method comprising: receiving, from an access node, a first assignment for a first transmission with a first hybrid automatic repeat request, HARQ, process identifier, ID, in a first network resource being a first component carrier; receiving, from the access node, a second assignment for a second transmission with a second HARQ process ID in a second network resource being a second component carrier, wherein the first network resource and the second network resource are associated with different transmission/receiving points, TRPs, wherein the receiving the first assignment and the second assignment comprises: receiving the first assignment and the second assignment in two different pieces of downlink control information, DCI, indicating respectively the first HARQ process ID and the second HARQ process ID; or receiving the first assignment and the second assignment in a single DCI indicating the first HARQ process ID, wherein the first HARQ process ID and the second HARQ process ID are the same; detecting an indication including a semi-static configuration indicating that the first transmission and the second transmission map to a same transport block, TB; and communicating at least one transmission of the first transmission in the first network resource and the second transmission in the second network resource. receiving, from an access node, a first assignment for a first transmission with a first hybrid automatic repeat request, HARQ, process identifier, ID, in a first network resource being a first component carrier; receiving, from the access node, a second assignment for a second transmission with a second HARQ process ID in a second network resource being a second component carrier, wherein the first network resource and the second network resource are associated with different transmission/receiving points, TRPs, wherein the receiving the first assignment and the second assignment comprises: receiving the first assignment and the second assignment in two different pieces of downlink control information, DCI, indicating respectively the first HARQ process ID and the second HARQ process ID; or receiving the first assignment and the second assignment in a single DCI indicating the first HARQ process ID, wherein the first HARQ process ID and the second HARQ process ID are the same; receiving the first assignment and the second assignment in two different pieces of downlink control information, DCI, indicating respectively the first HARQ process ID and the second HARQ process ID; or receiving the first assignment and the second assignment in a single DCI indicating the first HARQ process ID, wherein the first HARQ process ID and the second HARQ process ID are the same; detecting an indication including a semi-static configuration indicating that the first transmission and the second transmission map to a same transport block, TB; and communicating at least one transmission of the first transmission in the first network resource and the second transmission in the second network resource.
Mechanical horological movement comprising at least one energy storage means designed to drive a gear train of which an output mobile component is designed to pivot about a drive axis and comprising a rotary resonator which comprises at least one central mobile component designed to pivot about a central axis and comprising an input mobile component designed to collaborate with the said output mobile component, the said rotary resonator comprising at least one inertial element designed to pivot with respect to the central mobile component about a secondary axis perpendicular to the said central axis and secant therewith, and characterized in that the said inertial element is returned towards a rest position, relative with respect to the said central mobile component, by at least one elastic return element, and further characterized in that the said secondary axis passes through the centre of mass of the said inertial element associated with it.
An actuator, comprising: a yaw sub-assembly having a yaw rotation axis; a pitch sub-assembly carrying an optical path folding element (OPFE), the pitch sub-assembly including a pivot rotation mechanism and having a pitch rotation axis; and a stationary sub-assembly 230), and a yaw driving magnet for driving the yaw rotation, wherein the actuator is operative to rotate the OPFE in two rotation directions, a first rotation for yaw around the yaw rotation axis and a second rotation for pitch around the pitch rotation axis, and wherein the rotation for pitch includes rotation using the pivot rotation mechanism, wherein the actuator is integrated in a folded camera, and wherein the pitch rotation mechanism comprising a pitch driving coil and a magnet, wherein the pitch driving coil surrounds the yaw rotation axis; characterized by the yaw driving magnet serving also for preloading the pitch sub-assembly to pitch rotation mechanism. a yaw sub-assembly having a yaw rotation axis; a pitch sub-assembly carrying an optical path folding element (OPFE), the pitch sub-assembly including a pivot rotation mechanism and having a pitch rotation axis; and a stationary sub-assembly 230), and a yaw driving magnet for driving the yaw rotation, wherein the actuator is operative to rotate the OPFE in two rotation directions, a first rotation for yaw around the yaw rotation axis and a second rotation for pitch around the pitch rotation axis, and wherein the rotation for pitch includes rotation using the pivot rotation mechanism, wherein the actuator is integrated in a folded camera, and wherein the pitch rotation mechanism comprising a pitch driving coil and a magnet, wherein the pitch driving coil surrounds the yaw rotation axis; characterized by the yaw driving magnet serving also for preloading the pitch sub-assembly to pitch rotation mechanism.
Use of an adhesion-promoting additive combination composed of one or more polyalkylenoxides out of the group comprising polypropylene oxides and ethylene oxide-propylene oxide copolymers and of one or more starch ether derivatives out of the group comprising carboxyalkyl starch ethers and their alkali salts, and hydroxyalkyl starch ethers, in mortar compositions comprising mineral binders and water-redispersible polymer powders, characterized in that the additive combination is part of the water-redispersible polymer powder.
Shower jet outlet device, preferably for a sanitary shower device, comprising - a jet disk including at least one jet disk opening and - a jet outlet element disposed in the jet disk opening, wherein - the jet outlet element is pot-shaped with an outlet-sided bottom, a side wall and a hollow chamber delimited by the bottom and the side wall, characterized in that - the bottom is arranged facing in the jet outlet direction and includes a plurality of fine jet openings, and in that - the bottom and the side wall of the jet outlet element are made of an elastic material and the jet outlet element is configured to deform by bulging of its bottom and its side wall, in response to a fluid operating pressure present in the hollow chamber. - a jet disk including at least one jet disk opening and - a jet outlet element disposed in the jet disk opening, wherein - the jet outlet element is pot-shaped with an outlet-sided bottom, a side wall and a hollow chamber delimited by the bottom and the side wall, characterized in that - the bottom is arranged facing in the jet outlet direction and includes a plurality of fine jet openings, and in that - the bottom and the side wall of the jet outlet element are made of an elastic material and the jet outlet element is configured to deform by bulging of its bottom and its side wall, in response to a fluid operating pressure present in the hollow chamber.
An apparatus for improved mixing of oxygen and a mixture of a non-gaseous fuel and conveying gas for improved combustion in a combustion chamber, said apparatus comprising: a) a source of a mixture of non-gaseous fuel and conveying gas; b) a source of oxygen; c) a burner operatively associated with a combustion chamber; d) a fuel duct in fluid communication with said source of mixed non-gaseous fuel and conveying gas, wherein said fuel duct includes a portion that extends along an axis towards said burner; e) a tubular oxygen lance fluidly communicating with said source of oxygen, wherein said lance is disposed along said axis and has a diameter D; and wherein the source of oxygen contains a gas or a gas mixture containing at least 90% by volume of oxygen; f) at least first and second injection elements (3,5) in fluid communication with said source of oxygen and configured to inject oxygen into, and mix therewith, a flow of said mixture upstream of, or at, said burner, wherein at least one of said first and second injection elements receives oxygen from said lance, characterized in that: • said first and second injection elements are spaced from each other by a distance X, which is greater than the length of diameter D. a) a source of a mixture of non-gaseous fuel and conveying gas; b) a source of oxygen; c) a burner operatively associated with a combustion chamber; d) a fuel duct in fluid communication with said source of mixed non-gaseous fuel and conveying gas, wherein said fuel duct includes a portion that extends along an axis towards said burner; e) a tubular oxygen lance fluidly communicating with said source of oxygen, wherein said lance is disposed along said axis and has a diameter D; and wherein the source of oxygen contains a gas or a gas mixture containing at least 90% by volume of oxygen; f) at least first and second injection elements (3,5) in fluid communication with said source of oxygen and configured to inject oxygen into, and mix therewith, a flow of said mixture upstream of, or at, said burner, wherein at least one of said first and second injection elements receives oxygen from said lance, characterized in that: • said first and second injection elements are spaced from each other by a distance X, which is greater than the length of diameter D. • said first and second injection elements are spaced from each other by a distance X, which is greater than the length of diameter D.
Method for treating a solid substrate comprising a support comprising, preferably consisting of, at least one oxide chosen among the oxides of a first metal chosen among rare earths, mixed oxides of a first metal chosen among rare earths and of at least one second metal different from the first metal, and mixtures of an oxide of a first metal chosen among rare earths and of at least one oxide of at least one second metal different from the first metal, said support comprising at least one surface whereon are deposited particles consisting of at least one noble metal, so as to separate the first metal, the optional second metal, and the noble metal constituting the particles, said method comprising a step for selective dissolution of the support, during which the substrate is contacted with a dissolution solution comprising at least one mineral acid and at least one reducing agent of the rare earth or rare earths of the support, whereby a solution is obtained containing the first metal and the optional second metal in the dissolved state, wherein the particles consisting of the noble metal are suspended; characterised in that the reducing agent of the rare earth or rare earths of the support is chosen among natural antioxidant molecules chosen among ascorbic acid, catechol, gallic acid, and mixtures thereof.
A method for sector selection performed in a network node of a communication system, the communication system comprising two or more sectors (12, 13, 14) using a common cell identification, each sector of the two or more sectors (12, 13, 14) being controlled by a different network node, at least one sector of the two or more sectors (12, 13, 14) is controlled by a Remote Radio Unit the two or more sectors (12, 13, 14) each providing uplink and/or downlink connections to wireless devices (15, 16) located within a coverage area of the sectors (12, 13, 14), the method comprising: - estimating, for a wireless device (15, 16), a sector combining gain, wherein the sector combining gain is related to an increment in spectrum efficiency for the wireless device (15, 16), and wherein the estimating comprises: determining, for each of the two or more sectors (12, 13, 14), a radio condition value for the wireless device (15, 16), and estimating the sector combining gain based on the determined radio condition values; and - selecting one or more of the sectors (12, 13, 14) for use by the wireless device (15, 16) based on an adjustable sector selection criterion, wherein a sector (12, 13, 14) is selected if the estimated sector combining gain fulfills the adjustable sector selection criterion, wherein the adjustable sector selection criterion comprises using an adjustable combining gain threshold that is adjusted adaptively for each of the wireless device (15, 16) within each of the sectors (12, 13, 14), and wherein the selecting comprises selecting a sector (12, 13, 14) for reception and/or transmission for the wireless device (15, 16) if the estimated sector combining gain is greater than the adjustable combining gain threshold. - estimating, for a wireless device (15, 16), a sector combining gain, wherein the sector combining gain is related to an increment in spectrum efficiency for the wireless device (15, 16), and wherein the estimating comprises: determining, for each of the two or more sectors (12, 13, 14), a radio condition value for the wireless device (15, 16), and estimating the sector combining gain based on the determined radio condition values; and - selecting one or more of the sectors (12, 13, 14) for use by the wireless device (15, 16) based on an adjustable sector selection criterion, wherein a sector (12, 13, 14) is selected if the estimated sector combining gain fulfills the adjustable sector selection criterion, wherein the adjustable sector selection criterion comprises using an adjustable combining gain threshold that is adjusted adaptively for each of the wireless device (15, 16) within each of the sectors (12, 13, 14), and wherein the selecting comprises selecting a sector (12, 13, 14) for reception and/or transmission for the wireless device (15, 16) if the estimated sector combining gain is greater than the adjustable combining gain threshold.