mhurhangee/ep-ind-claims huggingface dataset:
A compound of Formula: or a pharmaceutically acceptable salt thereof wherein: A is -C - or nitrogen; B is oxygen or C(R 6) 2; J is is: where W* represents the point of attachment to W, and where J is optionally substituted with 1 R 2; K is: or K is: where K is optionally substituted with 1 or 2 R 3; W is selected from the group consisting of: each R 1 is independently selected from the group consisting of C 1 -C 6 alkyl, halogen, C 1 -C 6 haloalkyl, cyano and N(R 6) 2; R 2 is C 1 -C 6 alkyl; each R 3 is independently selected from the group consisting of C 1 -C 6 alkyl, hydroxy, halogen, and C 1 -C 6 halo-alkyl; R 4 is -X-Y-Z where: X is absent or is oxygen, Y is absent or C 1 -C 6 alkylenyl, and Z is selected from H, heterocycle having 3-12 ring atoms and C 3 -C 6 cycloalkyl, where R 4 is optionally substituted with R 7; each R 6 is independently selected from the group consisting of hydrogen, hydroxyl, C 1 -C 6 alkoxy and C 1 -C 6 alkyl, or two R 6 optionally join to form heterocycle having 3-12 ring atoms or C 3 -C 6 cycloalkyl; each R 7 is independently R 7' or C 1 -C 6 alkyl-R 7', where each R 7' is independently selected from the group consisting of: C 1 -C 6 alkyl and -N(R 6) 2; and m is 0, 1, 2 or 3. A is -C - or nitrogen; B is oxygen or C(R 6) 2; J is is: where W* represents the point of attachment to W, and where J is optionally substituted with 1 R 2; K is: or K is: where K is optionally substituted with 1 or 2 R 3; W is selected from the group consisting of: each R 1 is independently selected from the group consisting of C 1 -C 6 alkyl, halogen, C 1 -C 6 haloalkyl, cyano and N(R 6) 2; R 2 is C 1 -C 6 alkyl; each R 3 is independently selected from the group consisting of C 1 -C 6 alkyl, hydroxy, halogen, and C 1 -C 6 halo-alkyl; R 4 is -X-Y-Z where: X is absent or is oxygen, Y is absent or C 1 -C 6 alkylenyl, and Z is selected from H, heterocycle having 3-12 ring atoms and C 3 -C 6 cycloalkyl, X is absent or is oxygen, Y is absent or C 1 -C 6 alkylenyl, and Z is selected from H, heterocycle having 3-12 ring atoms and C 3 -C 6 cycloalkyl, where R 4 is optionally substituted with R 7; each R 6 is independently selected from the group consisting of hydrogen, hydroxyl, C 1 -C 6 alkoxy and C 1 -C 6 alkyl, or two R 6 optionally join to form heterocycle having 3-12 ring atoms or C 3 -C 6 cycloalkyl; each R 7 is independently R 7' or C 1 -C 6 alkyl-R 7', where each R 7' is independently selected from the group consisting of: C 1 -C 6 alkyl and -N(R 6) 2; and m is 0, 1, 2 or 3.
A method of operating a sleep mode at a mobile station, MS, in a wireless communication system, the method comprising: receiving a sleep response message from a base station during an active mode, the sleep response message including a length of an initial sleep cycle, the initial sleep cycle comprises only a sleep window; operating in a sleep mode during the initial sleep cycle based on the received sleep response message; receiving a traffic indication message including a positive indication from a base station during a current listening window of a current sleep cycle after the initial sleep cycle, the current sleep cycle comprising a current sleep window and the current listening window; resetting a length of the current sleep cycle to the length of the initial sleep cycle based on the traffic indication message including the positive indication; receiving an indicator from a base station, BS, during the current listening window, wherein the indicator indicates the mobile station terminates the listening window or the base station has a last protocol data unit, PDU, in the downlink, DL, buffer during the current listening window; terminating the current listening window before an expiration of the current listening window according to indication of the received indicator; and entering the current sleep window after terminating the current listening window. receiving a sleep response message from a base station during an active mode, the sleep response message including a length of an initial sleep cycle, the initial sleep cycle comprises only a sleep window; operating in a sleep mode during the initial sleep cycle based on the received sleep response message; receiving a traffic indication message including a positive indication from a base station during a current listening window of a current sleep cycle after the initial sleep cycle, the current sleep cycle comprising a current sleep window and the current listening window; resetting a length of the current sleep cycle to the length of the initial sleep cycle based on the traffic indication message including the positive indication; receiving an indicator from a base station, BS, during the current listening window, wherein the indicator indicates the mobile station terminates the listening window or the base station has a last protocol data unit, PDU, in the downlink, DL, buffer during the current listening window; terminating the current listening window before an expiration of the current listening window according to indication of the received indicator; and entering the current sleep window after terminating the current listening window.
A computer-implemented method for designing a nucleic acid nanostructure having a geometric shape comprising: (a) determining geometric parameters of an input, wherein the input comprises a 3D polyhedral or 2D polygon geometric shape and optionally one or more of its physical dimensions; (b) identifying a route for a single-stranded nucleic acid scaffold that traces throughout the geometric shape comprising: rendering a wireframe mesh of the geometric shape as a node-edge network; using a spanning tree of the node-edge network to define the placement of scaffold crossovers; and determining an Euler cycle, wherein the single stranded nucleic acid scaffold traces the Euler cycle throughout the node-edge network; and (c) generating the sequences of the single-stranded nucleic acid scaffold and optionally the nucleic acid sequence of staple strands that combine to form a nucleic acid nanostructure having the geometric shape. (a) determining geometric parameters of an input, wherein the input comprises a 3D polyhedral or 2D polygon geometric shape and optionally one or more of its physical dimensions; (b) identifying a route for a single-stranded nucleic acid scaffold that traces throughout the geometric shape comprising: rendering a wireframe mesh of the geometric shape as a node-edge network; using a spanning tree of the node-edge network to define the placement of scaffold crossovers; and determining an Euler cycle, wherein the single stranded nucleic acid scaffold traces the Euler cycle throughout the node-edge network; and rendering a wireframe mesh of the geometric shape as a node-edge network; using a spanning tree of the node-edge network to define the placement of scaffold crossovers; and determining an Euler cycle, wherein the single stranded nucleic acid scaffold traces the Euler cycle throughout the node-edge network; and (c) generating the sequences of the single-stranded nucleic acid scaffold and optionally the nucleic acid sequence of staple strands that combine to form a nucleic acid nanostructure having the geometric shape.
A display device comprising: a plurality of electrodes (24.1-24.n, 26.1-26.n); a phase change material layer comprising a solid state phase change material having a refractive index that is reversibly controllable by application of a voltage to said electrodes; a controller adapted to apply at least one voltage, via said electrodes, to change said refractive index of said material; a viewing surface; a spacer layer, which is transmissive to light, provided on the opposite side of the phase change material layer from said viewing surface; and a reflector, characterized in that: when a single phase change material layer is provided between the reflector and the viewing surface, the spacer layer is provided between the reflector and the phase change material layer; and when a plurality of the phase change material layers are provided between the reflector and the viewing surface, a corresponding plurality of the spacer layers are provided to form an alternating multilayer stack of phase change material layers and spacer layers, wherein one of the spacer layers is provided between the reflector and the phase change material layer closest to the reflector. a plurality of electrodes (24.1-24.n, 26.1-26.n); a phase change material layer comprising a solid state phase change material having a refractive index that is reversibly controllable by application of a voltage to said electrodes; a controller adapted to apply at least one voltage, via said electrodes, to change said refractive index of said material; a viewing surface; a spacer layer, which is transmissive to light, provided on the opposite side of the phase change material layer from said viewing surface; and a reflector, characterized in that: when a single phase change material layer is provided between the reflector and the viewing surface, the spacer layer is provided between the reflector and the phase change material layer; and when a plurality of the phase change material layers are provided between the reflector and the viewing surface, a corresponding plurality of the spacer layers are provided to form an alternating multilayer stack of phase change material layers and spacer layers, wherein one of the spacer layers is provided between the reflector and the phase change material layer closest to the reflector. when a single phase change material layer is provided between the reflector and the viewing surface, the spacer layer is provided between the reflector and the phase change material layer; and when a plurality of the phase change material layers are provided between the reflector and the viewing surface, a corresponding plurality of the spacer layers are provided to form an alternating multilayer stack of phase change material layers and spacer layers, wherein one of the spacer layers is provided between the reflector and the phase change material layer closest to the reflector.
A method (500, 600) of communications, comprising: scheduling (510, 640) a first set of subframes in a frame duration for traffic based at least in part on a first configuration for communications in an unlicensed frequency band; scheduling (520, 640), based at least in part on the first configuration, a second set of subframes in the frame duration for detection of a primary user of the unlicensed frequency band; the method further comprising: comparing an amount of traffic scheduled for transmission on the first set of subframes to a scheduler threshold; identifying a second configuration for communications in the unlicensed frequency band when the amount of traffic exceeds the scheduler threshold; and adjusting (550, 670) a number of subframes in the first and second set of subframes based on the second configuration for communications, wherein the second configuration for communications is identified based on a type of primary user being detected. scheduling (510, 640) a first set of subframes in a frame duration for traffic based at least in part on a first configuration for communications in an unlicensed frequency band; scheduling (520, 640), based at least in part on the first configuration, a second set of subframes in the frame duration for detection of a primary user of the unlicensed frequency band; the method further comprising: comparing an amount of traffic scheduled for transmission on the first set of subframes to a scheduler threshold; identifying a second configuration for communications in the unlicensed frequency band when the amount of traffic exceeds the scheduler threshold; and adjusting (550, 670) a number of subframes in the first and second set of subframes based on the second configuration for communications, wherein the second configuration for communications is identified based on a type of primary user being detected. comparing an amount of traffic scheduled for transmission on the first set of subframes to a scheduler threshold; identifying a second configuration for communications in the unlicensed frequency band when the amount of traffic exceeds the scheduler threshold; and adjusting (550, 670) a number of subframes in the first and second set of subframes based on the second configuration for communications, wherein the second configuration for communications is identified based on a type of primary user being detected.
A method for wireless communication in a system comprising a first and second node (110, 120) as well as a user equipment, UE, comprising: receiving a first transmission of data sent based on a first rank by said first node to the UE, wherein the first transmission of the data is sent by only the first node; characterized by, receiving a second transmission of the data sent based on a second rank by said second node, or both the first and second nodes (110, 120) to the UE, the second rank being different from the first rank, and wherein the second transmission of the data is sent by only the second node or by both the first and second nodes (110, 120) wherein the second node relays communications between the UE and the first node, and wherein the first and second transmissions include hybrid automatic repeat request, HARQ, transmissions. receiving a first transmission of data sent based on a first rank by said first node to the UE, wherein the first transmission of the data is sent by only the first node; characterized by, receiving a second transmission of the data sent based on a second rank by said second node, or both the first and second nodes (110, 120) to the UE, the second rank being different from the first rank, and wherein the second transmission of the data is sent by only the second node or by both the first and second nodes (110, 120) wherein the second node relays communications between the UE and the first node, and wherein the first and second transmissions include hybrid automatic repeat request, HARQ, transmissions.
A current leakage protection apparatus of a 2P2M electromagnetic residual current circuit breaker with overcurrent protection (RCBO), comprising a housing, wherein a current leakage tripping action mechanism and a test circuit mechanism are disposed in the housing; the test circuit mechanism comprises a conductivity test torsion spring; a hinging and linking shaft is hinged to a middle part of the conductivity test torsion spring, and one end of the hinging and linking shaft is fixed to the housing; a test button is movably embedded in an upper part of the housing; one end of the conductivity test torsion spring extends towards the test button and abuts against the test button; the housing is provided with a linkage hole in a direction of a movable contact of the circuit breaker; the other end of the conductivity test torsion spring opposite to the end abutting against the test button is embedded in the linkage hole and extends towards an outer side of the linkage hole; a test resistor is disposed under the test button on the housing, and the conductivity test torsion spring is intermittently conductively connected to the test resistor through the test button.
A method of manufacturing the calcium nanohydroxyapatite Ca 10 (PO 4) 6 2 structurally modified with Li + ions (nHAP:Li +) Li 0,1 Ca 9,9 (PO 4) 6 2 optionally doped with 1-2% mol of Eu 3+ cations in the form of nanocrystalline powder, characterized in that it consists of seven steps, where: in step one the water soluble lithium nitrate is obtained by digestion of the stoichiometric amount of Li 2 CO 3 in an excess of HNO 3; in step two depending on the final product which is obtained the solution of water soluble calcium nitrate is obtained by suspension of 73,35 g of Ca 2 in 200 ml of deionized water and subsequent digestion of calcium dioxide in an excess of 65% HNO 3 and 170 g of polyvinylpyrrolidone is added or the pure europium nitrate is obtained by suspending stoichiometric amounts 0,0352 g of Eu 2 O 3 in distilled water and subsequent digestion of europium oxide in an excess of 65% HNO 3 and subsequent three times re-crystallization and solution of 2.2434 g of Ca(NO 3) 2 ·4H 2 O dissolved in MQ-water is added; in step three the ammonium phosphate solution is obtained by dissolution of (NH 4) 2 HPO 4 in water in step four solutions prepared in the steps 1-2 are added to the ammonium phosphate solution obtained in step 3, leading to fast precipitation of the by-product; in step five the pH is adjusted to 8-10 by addition of ammonium hydroxide NH 4 OH and the mixture is filtrated under reduced pressure; in step six the precipitate resulted in step 5 is washed 5 times and dried at 90°C for 20-24 h; in step seven the precipitate resulted in step 6 is subjected to a thermal treatment by gradually heating at 400-500°C in air atmosphere for 3-4 hours, at a heating rate of 5°C per minute to obtain final product. in step one the water soluble lithium nitrate is obtained by digestion of the stoichiometric amount of Li 2 CO 3 in an excess of HNO 3; in step two depending on the final product which is obtained the solution of water soluble calcium nitrate is obtained by suspension of 73,35 g of Ca 2 in 200 ml of deionized water and subsequent digestion of calcium dioxide in an excess of 65% HNO 3 and 170 g of polyvinylpyrrolidone is added or the pure europium nitrate is obtained by suspending stoichiometric amounts 0,0352 g of Eu 2 O 3 in distilled water and subsequent digestion of europium oxide in an excess of 65% HNO 3 and subsequent three times re-crystallization and solution of 2.2434 g of Ca(NO 3) 2 ·4H 2 O dissolved in MQ-water is added; in step three the ammonium phosphate solution is obtained by dissolution of (NH 4) 2 HPO 4 in water in step four solutions prepared in the steps 1-2 are added to the ammonium phosphate solution obtained in step 3, leading to fast precipitation of the by-product; in step five the pH is adjusted to 8-10 by addition of ammonium hydroxide NH 4 OH and the mixture is filtrated under reduced pressure; in step six the precipitate resulted in step 5 is washed 5 times and dried at 90°C for 20-24 h; in step seven the precipitate resulted in step 6 is subjected to a thermal treatment by gradually heating at 400-500°C in air atmosphere for 3-4 hours, at a heating rate of 5°C per minute to obtain final product.
A working cylinder, comprising at least one disc-like displacer rotatably supported in a cylindrical block, which displacer is arranged between two annular flanges extending radially inwards from said block on each sides of said displacer such that said displacer will be arranged in parallel with said flanges upon rotation, wherein at least one of said flanges comprises a plurality of sections including a first section having a first temperature, a second section having a second temperature being lower than said first temperature, and two insulating sections (112c, 112d) completely preventing contact between said first section and said second section, and wherein said displacer comprises a cutout for rotating a volume of working fluid across the sections, said cutout is dimensioned such that for every rotational position it does not overlap the first section and the second section at the same time, characterized in that the cylinder block is divided into block sections, each of which is thermally connected to an associated flange section, the block sections (115a, 115b) associated with the hot and cold sections (112a, 112b) of the flange are somewhat bigger than intermediate block sections (115c, 115d) associated with the insulating sections (112c, 112d) and arranged between the block sections (115a, 115b) associated with the hot and cold sections (112a, 112b) of the flange, such that the heat source and the cooling device act on a larger volume or mass for increasing the heat transfer to and from the flange sections (112a, 112b).
Wheel washing apparatus for cleaning a wheel of a motor vehicle, comprising a brush device which comprises or forms at least one brush (36, 37, 38) that is placeable against the wheel (16, 20), a drive device for rotatingly driving the at least one brush (36, 37, 38), and an advancing device with which the brush device is transferable from a rest position remote from the wheel into at least one use position near the wheel, wherein the brush device is lowerable by means of the advancing device upon moving in the direction of the wheel (16, 20), characterized in that the brush device is moveable by means of the advancing device along a trajectory having at least one inflection point upon an advancing movement from the rest position into the at least one use position and passes through this trajectory in the advancing movement.
A method comprising: dynamically loading one or more filters that validate data across an application programming interface, API, boundary in a network element of a software defined network, such that a reboot of the network element is not required to use the one or more filters; receiving an API call for an API function associated with the software defined network, wherein the API call contains one or more parameter values associated with the API function; validating the parameters using the one or more filters; if it is determined that the one or more filters validate the parameters for the API function, executing the API function using the parameter values; and if it is determined that the one or more filters do not validate the parameters for the API function, aborting execution of the API function, the method further comprising: presenting to a user performance cost data for each of the one or more filters that has been benchmarked by measuring a central processor unit impact of the use of the filter; receiving confirmation from the user as to whether to load the one or more filters; and loading the one or more filters only depending on whether confirmation from the user is received; wherein the one or more filters are applied in an order with filters having a lower computing cost being applied before filters having higher computing costs. dynamically loading one or more filters that validate data across an application programming interface, API, boundary in a network element of a software defined network, such that a reboot of the network element is not required to use the one or more filters; receiving an API call for an API function associated with the software defined network, wherein the API call contains one or more parameter values associated with the API function; validating the parameters using the one or more filters; if it is determined that the one or more filters validate the parameters for the API function, executing the API function using the parameter values; and if it is determined that the one or more filters do not validate the parameters for the API function, aborting execution of the API function, presenting to a user performance cost data for each of the one or more filters that has been benchmarked by measuring a central processor unit impact of the use of the filter; receiving confirmation from the user as to whether to load the one or more filters; and loading the one or more filters only depending on whether confirmation from the user is received; wherein the one or more filters are applied in an order with filters having a lower computing cost being applied before filters having higher computing costs.