mhurhangee/patent-ind-claim-en huggingface dataset:
A color filter comprising a first color conversion region that is configured to emit a first light, wherein the first color conversion region comprises a quantum dot composite, wherein the quantum dot composite comprises a matrix and a plurality of quantum dots dispersed in the matrix, wherein the plurality of the quantum dots exhibit a multi-modal distribution comprising a first peak particle size and a second peak particle size in a size analysis, wherein the second peak particle size is greater than the first peak particle size, wherein a difference between the first peak particle size and the second peak particle size is less than 5 nanometers, wherein the first peak particle size is greater than or equal to 3.5 nanometers, wherein the quantum dot composite is configured to emit green light having a luminescent peak wavelength of greater than or equal to 500 nm and less than or equal to 550 nm, wherein the first peak particle size and the second peak particle size are determined from a particle size distribution measured using transmission electron microscopy, and wherein the luminescent peak wavelength is determined by a luminescent spectrum obtained by a spectrophotometer at an excitation wavelength of 450 nm. a first color conversion region that is configured to emit a first light, wherein the first color conversion region comprises a quantum dot composite, wherein the quantum dot composite comprises a matrix and a plurality of quantum dots dispersed in the matrix, a matrix and a plurality of quantum dots dispersed in the matrix, wherein the plurality of the quantum dots exhibit a multi-modal distribution comprising a first peak particle size and a second peak particle size in a size analysis, wherein the second peak particle size is greater than the first peak particle size, wherein a difference between the first peak particle size and the second peak particle size is less than 5 nanometers, wherein the first peak particle size is greater than or equal to 3.5 nanometers, wherein the quantum dot composite is configured to emit green light having a luminescent peak wavelength of greater than or equal to 500 nm and less than or equal to 550 nm, wherein the first peak particle size and the second peak particle size are determined from a particle size distribution measured using transmission electron microscopy, and wherein the luminescent peak wavelength is determined by a luminescent spectrum obtained by a spectrophotometer at an excitation wavelength of 450 nm.
A method for providing dynamic cache extension in a multi-cluster heterogeneous processor architecture in a portable computing device, the method comprising: receiving a processor workload input and a cache workload input for a first processor cluster and an associated first cache in a multi-cluster heterogeneous processor architecture comprising the first processor cluster and a second processor cluster having an associated second cache ; based on the processor workload input and the cache workload input, determining whether a current task associated with the first processor cluster is limited by a size threshold of the first cache or a performance threshold of the first processor cluster ; if the current task is limited by the size threshold of the first cache , using at least a portion of the second cache associated with the second processor cluster as an extension of the first cache ; if the current task is limited by the performance threshold of the first processor cluster rather than by the size threshold of the first cache , migrating the current task from the first processor cluster to the second processor cluster ; if the current task is migrated from the first processor cluster to the second processor cluster , determining whether the first cache can be inactivated; if the first cache can be inactivated, monitoring a snoop hit counter associated with the first cache ; and if the snoop hit counter falls below a snoop hit threshold and if an inactivate timeout is reached, inactivating the first cache . receiving a processor workload input and a cache workload input for a first processor cluster and an associated first cache in a multi-cluster heterogeneous processor architecture comprising the first processor cluster and a second processor cluster having an associated second cache ; based on the processor workload input and the cache workload input, determining whether a current task associated with the first processor cluster is limited by a size threshold of the first cache or a performance threshold of the first processor cluster ; if the current task is limited by the size threshold of the first cache , using at least a portion of the second cache associated with the second processor cluster as an extension of the first cache ; if the current task is limited by the performance threshold of the first processor cluster rather than by the size threshold of the first cache , migrating the current task from the first processor cluster to the second processor cluster ; if the current task is migrated from the first processor cluster to the second processor cluster , determining whether the first cache can be inactivated; if the first cache can be inactivated, monitoring a snoop hit counter associated with the first cache ; and if the snoop hit counter falls below a snoop hit threshold and if an inactivate timeout is reached, inactivating the first cache .
A near-field wireless device , comprising: a coil , including a first feed-point and a second feed-point , and configured to carry non-propagating quasi-static near-field magnetic-induction wireless signals; a first conductive surface , including a third feed-point , and configured to carry non-propagating quasi-static near-field electric-induction wireless signals; a tuning circuit including a first tuning element (C1, R1), a second tuning element (C2, R2), and a mid-point ; wherein a first end of the first tuning element (C1, R1) is coupled to the first feed-point ; wherein a first end of the second tuning element (C2, R2) is coupled to the second feed-point ; wherein a second end of the first tuning element (C1, R1) and a second end of the second tuning element (C2, R2) are coupled to the mid-point ; a second conductive surface coupled to either the first feed-point or the second feed-point ; and wherein the first and second conductive surfaces are configured to carry the near-field electric-induction wireless signals for wireless communication; characterized in that the third feed-point is directly connected to the mid-point . a coil , including a first feed-point and a second feed-point , and configured to carry non-propagating quasi-static near-field magnetic-induction wireless signals; a first conductive surface , including a third feed-point , and configured to carry non-propagating quasi-static near-field electric-induction wireless signals; a tuning circuit including a first tuning element (C1, R1), a second tuning element (C2, R2), and a mid-point ; wherein a first end of the first tuning element (C1, R1) is coupled to the first feed-point ; wherein a first end of the second tuning element (C2, R2) is coupled to the second feed-point ; wherein a second end of the first tuning element (C1, R1) and a second end of the second tuning element (C2, R2) are coupled to the mid-point ; a second conductive surface coupled to either the first feed-point or the second feed-point ; and wherein the first and second conductive surfaces are configured to carry the near-field electric-induction wireless signals for wireless communication; characterized in that the third feed-point is directly connected to the mid-point .
A method for wireless communications implemented at a network entity , comprising: receiving , at the network entity , a request from a user equipment, UE , to allocate a virtual subscriber information module, VSIM, profile for a peripheral device paired with the UE ; determining a mobile device identification of the UE based in part on the request; allocating a virtual identifier to the peripheral device based on the mobile device identification of the UE ; transmitting , from the network entity to the UE , the virtual identifier for the paired peripheral device to be transmitted further to the paired peripheral device over a non-cellular short range communication network; receiving, at the network entity, a supplementary service message from the UE , wherein the supplementary service message identifies each of active peripheral devices from a plurality of peripheral devices that are paired with the UE ; updating network routing settings based at least in part on the supplementary service message; and transmitting a supplementary service acknowledgement in response to receiving the supplementary service message. receiving , at the network entity , a request from a user equipment, UE , to allocate a virtual subscriber information module, VSIM, profile for a peripheral device paired with the UE ; determining a mobile device identification of the UE based in part on the request; allocating a virtual identifier to the peripheral device based on the mobile device identification of the UE ; transmitting , from the network entity to the UE , the virtual identifier for the paired peripheral device to be transmitted further to the paired peripheral device over a non-cellular short range communication network; receiving, at the network entity, a supplementary service message from the UE , wherein the supplementary service message identifies each of active peripheral devices from a plurality of peripheral devices that are paired with the UE ; updating network routing settings based at least in part on the supplementary service message; and transmitting a supplementary service acknowledgement in response to receiving the supplementary service message.
A sensor arrangement comprising: a sensor configured to be arranged in a high-voltage, HV, environment and to measure a property of said environment; a detector configured to receive signals from the sensor; and a resonator array comprising an array of LC circuits arranged galvanically isolated from each other along a transfer path between the sensor and the detector and configured to wirelessly transfer power to the sensor from an electrical power source and to wirelessly transfer the sensor signals from the sensor to the detector, and wherein the sensor is integrated with the resonator array . a sensor configured to be arranged in a high-voltage, HV, environment and to measure a property of said environment; a detector configured to receive signals from the sensor; and a resonator array comprising an array of LC circuits arranged galvanically isolated from each other along a transfer path between the sensor and the detector and configured to wirelessly transfer power to the sensor from an electrical power source and to wirelessly transfer the sensor signals from the sensor to the detector, and wherein the sensor is integrated with the resonator array .
A computer-implemented method for determining dental plaque, the method comprising the steps of: receiving a first 3D-image comprising at least one tooth and a second 3D-image comprising the at least one tooth , wherein the second 3D-image has been captured at a different point in time than the first 3D-image , comparing the first 3D-image and the second 3D-image with each other and determining, based on a deviation between the first 3D-image and the second 3D-image , a differential amount of dental plaque on the at least one tooth , and further comprising the step of transferring, within at least the first 3D-image , a grid comprising multiple grid segments (161a - 161i) onto the surface of the at least one tooth ; wherein the grid segments (161a - 161i) represent Index Regions of a Dental Plaque Index comprising at least one of a Rustogi Modified Navy Plaque Index (RMNPI) and a Turesky-Modification of the Quigley Hein Plaque Index (TQHPI), and wherein the differential amount of dental plaque on the at least one tooth is determined based on the Index Regions of the Dental Plaque Index. receiving a first 3D-image comprising at least one tooth and a second 3D-image comprising the at least one tooth , wherein the second 3D-image has been captured at a different point in time than the first 3D-image , comparing the first 3D-image and the second 3D-image with each other and determining, based on a deviation between the first 3D-image and the second 3D-image , a differential amount of dental plaque on the at least one tooth , and further comprising the step of transferring, within at least the first 3D-image , a grid comprising multiple grid segments (161a - 161i) onto the surface of the at least one tooth ; wherein the grid segments (161a - 161i) represent Index Regions of a Dental Plaque Index comprising at least one of a Rustogi Modified Navy Plaque Index (RMNPI) and a Turesky-Modification of the Quigley Hein Plaque Index (TQHPI), and wherein the differential amount of dental plaque on the at least one tooth is determined based on the Index Regions of the Dental Plaque Index.
A flexible energy absorbing system comprising a plurality of cells on a plane , wherein the cells comprise a strain rate sensitive material, wherein the system is configurable in a planar form and in an aspherical form, wherein, when configured in the aspherical form, the cells comprise a re-entrant geometry, wherein each cell in the plurality of cells comprises a plurality of corrugations or folds along the plane, each corrugation or fold being inwardly angled to form a re-entrant angle, and wherein each cell in the plurality of cells comprises at least one wall , the at least one wall has a re-entrant geometry in a direction normal to the plane, characterized in that the re-entrant geometry in the direction normal to the plane comprises a plurality of corrugations or folds.
A compound having structural Formula I: or a pharmaceutically acceptable salt thereof wherein: C ∗ is indicates a potential chiral carbon atom; R 1 is hydrogen (C 1-6 )alkyl, halo(C 1-6 )alkyl, (C 1-6 )alkyl-O-, halo(C 1-6 )alkyl-O-, (C 3-7 )cycloalkyl-(C 1-3 )alkyl-O-, -(C 1-3 )alkyl-(C 3-7 )cycloalkyl, or -(C 1-3 )alkyl-phenyl, wherein phenyl is unsubstituted or substituted by 1 to 3 halo; R 2 is (C 1-3 )alkyl, or (C 3-7 )cycloalkyl; R 4 is hydrogen, (C 1-6 )alkyl, halo(C 1-6 )alkyl,, (C 1-6 )alkoxy, halo(C 1-3 )alkoxy, (C 3-7 )cycloalkyl, or cyano; R 5 is hydrogen, (C 1-6 )alkyl, halo(C 1-6 )alkyl, halo, amino, (C 1-3 )alkyl-aryl, (C 1-3 )alkyl-(C 3-6 )cycloalkyl, or cyano; R 6 is hydrogen, hydroxy, (C 1-6 )alkyl, (C 1-6 )alkoxy, (C 1-3 )alkyl-O-(C 1-3 )alkoxy- (C 3-6 )cycloalkyl, cyano, phenyl, or -C(O)NH 2 ; and each R 7 is independently (C 1-3 )alkoxy, halo(C 1-3 )alkoxy, halo, -CO 2 -(C 1-6 )alkyl, or -C(O)NH 2 ; wherein: R 3 is an phenyl unsubstituted or substituted by 1 to 3 R 7 or a six-membered heteroaryl containing 1 or 2 N heteroatoms, wherein heteroaryl is unsubstituted or substituted by 1 to 3 R 7 , optionally wherein R 3 is C ∗ is indicates a potential chiral carbon atom; R 1 is hydrogen (C 1-6 )alkyl, halo(C 1-6 )alkyl, (C 1-6 )alkyl-O-, halo(C 1-6 )alkyl-O-, (C 3-7 )cycloalkyl-(C 1-3 )alkyl-O-, -(C 1-3 )alkyl-(C 3-7 )cycloalkyl, or -(C 1-3 )alkyl-phenyl, wherein phenyl is unsubstituted or substituted by 1 to 3 halo; hydrogen (C 1-6 )alkyl, halo(C 1-6 )alkyl, (C 1-6 )alkyl-O-, halo(C 1-6 )alkyl-O-, (C 3-7 )cycloalkyl-(C 1-3 )alkyl-O-, -(C 1-3 )alkyl-(C 3-7 )cycloalkyl, or -(C 1-3 )alkyl-phenyl, wherein phenyl is unsubstituted or substituted by 1 to 3 halo; R 2 is (C 1-3 )alkyl, or (C 3-7 )cycloalkyl; (C 1-3 )alkyl, or (C 3-7 )cycloalkyl; R 4 is hydrogen, (C 1-6 )alkyl, halo(C 1-6 )alkyl,, (C 1-6 )alkoxy, halo(C 1-3 )alkoxy, (C 3-7 )cycloalkyl, or cyano; hydrogen, (C 1-6 )alkyl, halo(C 1-6 )alkyl,, (C 1-6 )alkoxy, halo(C 1-3 )alkoxy, (C 3-7 )cycloalkyl, or cyano; R 5 is hydrogen, (C 1-6 )alkyl, halo(C 1-6 )alkyl, halo, amino, (C 1-3 )alkyl-aryl, (C 1-3 )alkyl-(C 3-6 )cycloalkyl, or cyano; hydrogen, (C 1-6 )alkyl, halo(C 1-6 )alkyl, halo, amino, (C 1-3 )alkyl-aryl, (C 1-3 )alkyl-(C 3-6 )cycloalkyl, or cyano; R 6 is hydrogen, hydroxy, (C 1-6 )alkyl, (C 1-6 )alkoxy, (C 1-3 )alkyl-O-(C 1-3 )alkoxy- (C 3-6 )cycloalkyl, cyano, phenyl, or -C(O)NH 2 ; and hydrogen, hydroxy, (C 1-6 )alkyl, (C 1-6 )alkoxy, (C 1-3 )alkyl-O-(C 1-3 )alkoxy- (C 3-6 )cycloalkyl, cyano, phenyl, or -C(O)NH 2 ; and each R 7 is independently (C 1-3 )alkoxy, halo(C 1-3 )alkoxy, halo, -CO 2 -(C 1-6 )alkyl, or -C(O)NH 2 ; (C 1-3 )alkoxy, halo(C 1-3 )alkoxy, halo, -CO 2 -(C 1-6 )alkyl, or -C(O)NH 2 ; wherein: R 3 is an phenyl unsubstituted or substituted by 1 to 3 R 7 or a six-membered heteroaryl containing 1 or 2 N heteroatoms, wherein heteroaryl is unsubstituted or substituted by 1 to 3 R 7 , optionally wherein R 3 is
A printing system for printing a plurality of images on a first web and on a second web , the printing system comprising: a) a print head ; b) a feed unit for feeding both the first web and the second web from a first input roll and a second input roll respectively simultaneously to the print head in a feed direction (Y) relative said print head ; c) a wrap up unit for wrapping up both the first web and the second web simultaneously to form a first output roll and a second output roll respectively; d) a user interface configured to set a printing arrangement of the plurality of images on the first web and the second web and to input the print head , the feed unit and the wrap up unit for performing printing according to the printing arrangement by ejecting marking material on the respective webs ; characterized in that the printing system further comprises a prediction module for predicting before the start of printing a first diameter of the first output roll and a second diameter of the second output roll based on the printing arrangement , the prediction module being configured to establish a difference of the predicted first diameter and the predicted second diameter, and to provide to the user interface a warning when the established difference is larger than a predetermined diameter difference threshold. a) a print head ; b) a feed unit for feeding both the first web and the second web from a first input roll and a second input roll respectively simultaneously to the print head in a feed direction (Y) relative said print head ; c) a wrap up unit for wrapping up both the first web and the second web simultaneously to form a first output roll and a second output roll respectively; d) a user interface configured to set a printing arrangement of the plurality of images on the first web and the second web and to input the print head , the feed unit and the wrap up unit for performing printing according to the printing arrangement by ejecting marking material on the respective webs ;
A system to detect or determine faults in a valve activation system of an on/off valve (V1) including an actuator connected to a pneumatic or hydraulic pressurized fluid line , the system including at least one solenoid valve (SOV1, SOV2, SOV3) connected in the fluid line ahead of the actuator , wherein each connected solenoid valve (SOV1, SOV2, SOV3) is activated by a solenoid (SO1, SO2, SO3) controlled by an external control system (A, B, C) , said solenoid valves being adapted to block the fluid line when de-activated, and vent the fluid line releasing the pressure from the actuator , which will de-energize the actuator and move the on/off valve (V1) to safe position, characterized in that the system further includes - a current detector (CD1, CD2, CD3) associated with each connected solenoid (SO1, SO2, SO3) monitoring magnetizing current in said solenoid, - a fluid flow detector (VENT1, VENT2, VENT3) associated with each connected solenoid valve (SOV1, SOV2, SOV3) detecting any flow of fluid vented from the fluid line through the solenoid valve, - a controller connected to and monitoring signals from each connected current detector (CD1, CD2, CD2) and each connected fluid flow detector (VENT1, VENT2, VENT3). - a current detector (CD1, CD2, CD3) associated with each connected solenoid (SO1, SO2, SO3) monitoring magnetizing current in said solenoid, - a fluid flow detector (VENT1, VENT2, VENT3) associated with each connected solenoid valve (SOV1, SOV2, SOV3) detecting any flow of fluid vented from the fluid line through the solenoid valve, - a controller connected to and monitoring signals from each connected current detector (CD1, CD2, CD2) and each connected fluid flow detector (VENT1, VENT2, VENT3).
Belt tensioning device for a belt drive, wherein the belt drive has at least one unit with a drive shaft and with a belt pulley , as well as an endless belt for driving the belt pulley , the belt tensioning device comprising: a base member with attaching means for connecting the base member to the unit and with an opening into which the drive shaft extends at least partially in the assembled state; two tensioning arms , which are mounted on the base member so as to be pivotable about a pivot axis (A3) and are supported relative to each other in the circumferential direction via a spring , wherein the pivot axis (A3) is arranged within an outer diameter of the belt pulley of the unit in the assembled state; a tensioning roller per tensioning arm for tensioning the belt , wherein the tensioning rollers are respectively mounted on the associated tensioning arm so as to be rotatable about a respective axis of rotation (A5, A7); characterised in that the spring extends around the pivot axis (A3) and has at least 1.25 and at most 2.5 windings. a base member with attaching means for connecting the base member to the unit and with an opening into which the drive shaft extends at least partially in the assembled state; two tensioning arms , which are mounted on the base member so as to be pivotable about a pivot axis (A3) and are supported relative to each other in the circumferential direction via a spring , wherein the pivot axis (A3) is arranged within an outer diameter of the belt pulley of the unit in the assembled state; a tensioning roller per tensioning arm for tensioning the belt , wherein the tensioning rollers are respectively mounted on the associated tensioning arm so as to be rotatable about a respective axis of rotation (A5, A7); characterised in that the spring extends around the pivot axis (A3) and has at least 1.25 and at most 2.5 windings.
A hybrid conductor comprising: a plurality of nanotubes, each having a surface area; a yarn having a geometric profile defined by the plurality of nanotubes; and a layer of conductive material circumferentially positioned about the yarn such that the yarn is substantially encapsulated by the conductive material, wherein the conductive material is in contact with less than the total surface area of the plurality of nanotubes, wherein the combination of the conductive material and the plurality of nanotubes enhances conductivity while decreasing resistivity along the length of the yarn , wherein the conductive material comprises one of copper, aluminum, titanium, platinum, nickel, gold, silver, silver coated copper, cadmium, nickel, tin, bismuth, arsenic, alloys of these metals, boron, boron nitride, glassy carbon, ceramics, silicon compounds, gallium arsenic, or a combination thereof. a plurality of nanotubes, each having a surface area; a yarn having a geometric profile defined by the plurality of nanotubes; and a layer of conductive material circumferentially positioned about the yarn such that the yarn is substantially encapsulated by the conductive material, wherein the conductive material is in contact with less than the total surface area of the plurality of nanotubes, wherein the combination of the conductive material and the plurality of nanotubes enhances conductivity while decreasing resistivity along the length of the yarn ,