mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a carrier center frequency, wherein the method is applied to a Narrow Band Internet of Things, NB-IoT, system and comprises: determining a downlink frequency band starting frequency, a downlink absolute radio frequency channel number, a downlink frequency band offset, and a downlink relative radio frequency channel number; and determining a downlink carrier center frequency according to the downlink frequency band starting frequency, the downlink absolute radio frequency channel number, the downlink frequency band offset, and the downlink relative radio frequency channel number that are determined, wherein the downlink carrier center frequency is F NB DL, and the determining a downlink carrier center frequency according to the downlink frequency band starting frequency, the downlink absolute radio frequency channel number, the downlink frequency band offset, and the downlink relative radio frequency channel number that are determined comprises: F NB DL = F DL _ low + 0.1 * N DL − N Offs − DL + 0.0025 * 2 M DL + 1; wherein F DL_low is the downlink frequency band starting frequency, N DL is the downlink absolute radio frequency channel number, and N Offs-DL is the downlink frequency band offset; and wherein M DL is the downlink relative radio frequency channel number, a value range of which comprises any one in the following set: -10, -9, -8, -7, -6, -5, -4, -3, -2, -1, 0, 1, 2, 3, 4, 5, 6, 7, 8, 9. determining a downlink frequency band starting frequency, a downlink absolute radio frequency channel number, a downlink frequency band offset, and a downlink relative radio frequency channel number; and determining a downlink carrier center frequency according to the downlink frequency band starting frequency, the downlink absolute radio frequency channel number, the downlink frequency band offset, and the downlink relative radio frequency channel number that are determined, wherein the downlink carrier center frequency is F NB DL, and the determining a downlink carrier center frequency according to the downlink frequency band starting frequency, the downlink absolute radio frequency channel number, the downlink frequency band offset, and the downlink relative radio frequency channel number that are determined comprises: F NB DL = F DL _ low + 0.1 * N DL − N Offs − DL + 0.0025 * 2 M DL + 1; wherein F DL_low is the downlink frequency band starting frequency, N DL is the downlink absolute radio frequency channel number, and N Offs-DL is the downlink frequency band offset; and wherein M DL is the downlink relative radio frequency channel number, a value range of which comprises any one in the following set: -10, -9, -8, -7, -6, -5, -4, -3, -2, -1, 0, 1, 2, 3, 4, 5, 6, 7, 8, 9.
A system for controlling the angular position of variable-pitch stator blades of a turbine engine compressor comprising at least two spools, each with a rotation speed (N1 and N2 respectively), for a turbine engine operating at steady speed, the system comprising: - means for computing an angular set position of the blades (VSV CAL) as a function of one of the speeds ((N, N2) and - a module for correcting the set position comprising: ∘ means for determining the angular position of the blades; ∘ means for measuring the fuel flow rate of the turbine engine; ∘ a memory in which the successive angular positions of the blades (VSV COU, VSV REF) are associated with the fuel flow rates of the turbine engine (WFM COU, WFM REF) measured at said angular positions (VSV COU VSV REF); ∘ means for determining a correcting angle, said means being arranged to compute the correcting angle (VSV CORR) as a function of the difference between the fuel flow rates (WFM COU, WFM REF) measured between two successive angular positions of the blades (VSV COU, VSV REF); - an adder arranged to compute an optimized set position (VSV NEW) by adding the correcting angle (VSV CALC) to the set angular position (VSV CORR) and - an actuator arranged to control the angular position of the blades as a function of the optimized set position (VSV NEW). - means for computing an angular set position of the blades (VSV CAL) as a function of one of the speeds ((N, N2) and - a module for correcting the set position comprising: ∘ means for determining the angular position of the blades; ∘ means for measuring the fuel flow rate of the turbine engine; ∘ a memory in which the successive angular positions of the blades (VSV COU, VSV REF) are associated with the fuel flow rates of the turbine engine (WFM COU, WFM REF) measured at said angular positions (VSV COU VSV REF); ∘ means for determining a correcting angle, said means being arranged to compute the correcting angle (VSV CORR) as a function of the difference between the fuel flow rates (WFM COU, WFM REF) measured between two successive angular positions of the blades (VSV COU, VSV REF); ∘ means for determining the angular position of the blades; ∘ means for measuring the fuel flow rate of the turbine engine; ∘ a memory in which the successive angular positions of the blades (VSV COU, VSV REF) are associated with the fuel flow rates of the turbine engine (WFM COU, WFM REF) measured at said angular positions (VSV COU VSV REF); ∘ means for determining a correcting angle, said means being arranged to compute the correcting angle (VSV CORR) as a function of the difference between the fuel flow rates (WFM COU, WFM REF) measured between two successive angular positions of the blades (VSV COU, VSV REF); - an adder arranged to compute an optimized set position (VSV NEW) by adding the correcting angle (VSV CALC) to the set angular position (VSV CORR) and - an actuator arranged to control the angular position of the blades as a function of the optimized set position (VSV NEW).
A computer system comprising: one or more processors configured to execute instructions to cause the computer system to perform operations; and a non-transitory computer accessible storage medium coupled to the one or more processors and configured to store a plurality of instructions forming a secure execution environment controller configured to control a secure execution environment including a first code sequence, wherein the secure execution environment is configured to execute the first code sequence on input data provided from a separate computer system over a trusted channel to generate output data, and wherein the secure execution environment controller is configured to cause the computer system to digitally sign the output data, and wherein the secure execution environment controller is configured to generate a response packet that includes the digitally signed data and a hash of the input data, a hash of the first code sequence, environment data, and a time, and wherein the secure execution environment controller is configured to cause the computer system to digitally sign the response packet to attest to the execution on the input data in the first code sequence which is unaltered from its installation in the computer system to produce the output data in a specific secure execution environment at a specific time. one or more processors configured to execute instructions to cause the computer system to perform operations; and a non-transitory computer accessible storage medium coupled to the one or more processors and configured to store a plurality of instructions forming a secure execution environment controller configured to control a secure execution environment including a first code sequence, wherein the secure execution environment is configured to execute the first code sequence on input data provided from a separate computer system over a trusted channel to generate output data, and wherein the secure execution environment controller is configured to cause the computer system to digitally sign the output data, and wherein the secure execution environment controller is configured to generate a response packet that includes the digitally signed data and a hash of the input data, a hash of the first code sequence, environment data, and a time, and wherein the secure execution environment controller is configured to cause the computer system to digitally sign the response packet to attest to the execution on the input data in the first code sequence which is unaltered from its installation in the computer system to produce the output data in a specific secure execution environment at a specific time.
A method of making a polymeric layer having first and second, generally opposed major surfaces, comprising an array of blind openings extending into the first major surface, but not through the second major surface, wherein the blind openings each have a series of areas through the blind openings from the first major surface towards the second major surface ranging from minimum to maximum areas, wherein for at least a majority of the blind openings the minimum area is not at the first major surface, wherein at least a portion of the first major surface comprises a first material and the first material extends up to, but not into the second major surface and is not present on the second major surface, and wherein at least a portion of the second major surface comprises a second, different material, the method comprising at least one of passing through a nip or a calendaring a netting comprising an array of polymeric strands (26, 28) periodically joined together at bond regions throughout the array, the netting has first and second, generally opposed major surfaces, wherein the bond regions are generally perpendicular to the first and second major surfaces, wherein the array comprises a first plurality of strands having first and second, generally opposed major surfaces, wherein the array comprises a second plurality of strands having first and second, generally opposed major surfaces, wherein the first major surface of the netting comprises the first major surfaces (10131, 10141) of the first and second plurality of strands, wherein the second major surface of the netting comprises the second (10132, 10142) major surfaces of the first and second plurality of strands, wherein the first major surface of the first plurality of strands comprises the first material, wherein the second major surface of the first plurality of strands comprises the second material, wherein the first major surface of the second plurality of strands comprises a third material, wherein the second major surface of the second plurality of strands comprises a fourth material, wherein the first and second materials are different, and wherein the first material does not extend to the second major surface of the first plurality of strands.
A unit for compacting ceramic products, comprising a matrix wherein at least one opening is formed, defined by a plurality of lateral surfaces; a punch arranged inside said opening to define the bottom of a cavity of a die for compacting the powders suitable for making said ceramic products; an ejector block placed under said matrix and associated with said punch, said ejector block being axially movable to said opening for removing the ceramic products produced at said die following the process of compaction of said powders; a blowing member activatable in the volume between said matrix and said ejector block; wherein it includes means for detecting the presence of dispersed powders in said volume between said matrix and said ejector block, characterized by comprising means for checking the sediment of said dispersed powders and means for signaling said presence of dispersed powders, activatable by said checking means and suitable for blocking the production chain during said process of compaction of the powders in said cavity of the die.
A method for the preparation of a fibrous web of paper or board, comprising the steps of - providing a foam of water and a surfactant, - incorporating microfibrillated cellulose together with a pulp of a greater fibre length in the foam, - supplying the foam onto a forming fabric, - dewatering the foam on the forming fabric by suction to form a web, and - subjecting the web to final drying. - providing a foam of water and a surfactant, - incorporating microfibrillated cellulose together with a pulp of a greater fibre length in the foam, - supplying the foam onto a forming fabric, - dewatering the foam on the forming fabric by suction to form a web, and - subjecting the web to final drying.
A surface that generates a haptic feedback, said surface comprising: an isolated region (15, 21) within said surface and having a perimeter; a gap surrounding the perimeter, said gap separating the isolated region (15, from a remainder of the surface; said isolated region (15, 21) contacts an actuator (31, 32, 33) during the haptic feedback characterized in that the surface further comprising a deformable sealing material filled within said gap, wherein the actuator (31, 32, 33) is coupled to said surface outside of said isolated region (15, 21). an isolated region (15, 21) within said surface and having a perimeter; a gap surrounding the perimeter, said gap separating the isolated region (15, from a remainder of the surface; said isolated region (15, 21) contacts an actuator (31, 32, 33) during the haptic feedback characterized in that the surface further comprising a deformable sealing material filled within said gap, wherein the actuator (31, 32, 33) is coupled to said surface outside of said isolated region (15, 21).
A system for providing instillation and negative-pressure therapy to a tissue site with a negative-pressure source, the system comprising: a housing forming an outer portion of a cartridge, the housing defining a chamber; a movable barrier disposed within the chamber of the housing, the movable barrier dividing the chamber of the housing into a first fluid chamber and a second fluid chamber, said chambers being fluidly isolated from each other, said second fluid chamber being for fluid placed under negative-pressure, and said first fluid chamber being an ambient chamber for the atmospheric pressure at which the tissue site is located, the moveable barrier being operable to move between a charge position and a discharge position in response to negative pressure, said charge position maximizing the volume of the second fluid chamber and minimizing the volume of the first fluid chamber, and said discharge position maximizing the volume of the first fluid chamber and minimizing the volume of the second fluid chamber; a reservoir of fluid disposed in the second fluid chamber, the reservoir being compressible in response to movement of the movable barrier to the discharge position; and a fluid outlet in fluid communication with the reservoir of fluid; a negative-pressure port in fluid communication with the second fluid chamber; a negative-pressure source coupled to the negative-pressure port and configured to provide the application of negative pressure; and a vent opening formed in the housing, the opening in fluid communication with the first fluid chamber. a housing forming an outer portion of a cartridge, the housing defining a chamber; a movable barrier disposed within the chamber of the housing, the movable barrier dividing the chamber of the housing into a first fluid chamber and a second fluid chamber, said chambers being fluidly isolated from each other, said second fluid chamber being for fluid placed under negative-pressure, and said first fluid chamber being an ambient chamber for the atmospheric pressure at which the tissue site is located, the moveable barrier being operable to move between a charge position and a discharge position in response to negative pressure, said charge position maximizing the volume of the second fluid chamber and minimizing the volume of the first fluid chamber, and said discharge position maximizing the volume of the first fluid chamber and minimizing the volume of the second fluid chamber; a reservoir of fluid disposed in the second fluid chamber, the reservoir being compressible in response to movement of the movable barrier to the discharge position; and a fluid outlet in fluid communication with the reservoir of fluid; a negative-pressure port in fluid communication with the second fluid chamber; a negative-pressure source coupled to the negative-pressure port and configured to provide the application of negative pressure; and a vent opening formed in the housing, the opening in fluid communication with the first fluid chamber.
A gas compressor, comprising: a bearing configured to rotatably support a rotary shaft; a rotation drive portion configured to rotate the rotary shaft; an impeller (26, 32) that is provided on the rotary shaft, and configured to be rotated about an axis (O 1) of the rotary shaft thereby compressing gas flowing therein; a casing accommodating the rotary shaft, the bearing, the rotation drive portion and the impeller (26,32); a working fluid gas extraction portion (34,74) configured to extract the gas under compression from a middle of the impeller to an outside of the casing; a working fluid supply line configured to allow the gas under compression, on which gas extraction is performed by the working fluid gas extraction portion, to be supplied therethrough to the rotation drive portion; a working fluid supply line for an impeller configured to allow the gas to be supplied therethrough to an inlet of the impeller (26,32); and a working fluid recovery line that is connected to the working fluid supply line for an impeller, the gas under compression, which is supplied through the working fluid supply line, is allowed to be recovered through the working fluid recovery line, and the gas under compression, which is supplied to the rotation drive portion, is allowed to be supplied to the inlet of the impeller through the working fluid recovery line and the working fluid supply line for an impeller. a bearing configured to rotatably support a rotary shaft; a rotation drive portion configured to rotate the rotary shaft; an impeller (26, 32) that is provided on the rotary shaft, and configured to be rotated about an axis (O 1) of the rotary shaft thereby compressing gas flowing therein; a casing accommodating the rotary shaft, the bearing, the rotation drive portion and the impeller (26,32); a working fluid gas extraction portion (34,74) configured to extract the gas under compression from a middle of the impeller to an outside of the casing; a working fluid supply line configured to allow the gas under compression, on which gas extraction is performed by the working fluid gas extraction portion, to be supplied therethrough to the rotation drive portion; a working fluid supply line for an impeller configured to allow the gas to be supplied therethrough to an inlet of the impeller (26,32); and a working fluid recovery line that is connected to the working fluid supply line for an impeller, the gas under compression, which is supplied through the working fluid supply line, is allowed to be recovered through the working fluid recovery line, and the gas under compression, which is supplied to the rotation drive portion, is allowed to be supplied to the inlet of the impeller through the working fluid recovery line and the working fluid supply line for an impeller.
A light emitting device array comprising: a printed circuit board on which a plurality of electrode patterns and a current line connecting adjacent electrode patterns to each other are provided to form a series circuit pattern, the electrode patterns having the same width; a plurality of light emitting device packages disposed on a predetermined number of electrode patterns; and at least one power supply line (162, 164) disposed on at least one of the remaining electrode pattern except for the predetermined number of electrode patterns, wherein the at least one power supply line (162, 164) includes a first and a second power supply lines (162, 164), and the first power supply line is disposed on at least one electrode pattern of the plurality of electrode patterns, characterized in that the second power supply line is disposed on at least two adjacent electrode patterns of the plurality of electrode patterns and is connected to one side and an opposite side of said two adjacent electrode patterns, wherein the length of the second power supply line is 2 times to 5 times the length of the first power supply line, wherein the at least one power supply line (162, 164) has a resistance value of 0 ohms to 5 ohms. a printed circuit board on which a plurality of electrode patterns and a current line connecting adjacent electrode patterns to each other are provided to form a series circuit pattern, the electrode patterns having the same width; a plurality of light emitting device packages disposed on a predetermined number of electrode patterns; and at least one power supply line (162, 164) disposed on at least one of the remaining electrode pattern except for the predetermined number of electrode patterns, wherein the at least one power supply line (162, 164) includes a first and a second power supply lines (162, 164), and the first power supply line is disposed on at least one electrode pattern of the plurality of electrode patterns, characterized in that the second power supply line is disposed on at least two adjacent electrode patterns of the plurality of electrode patterns and is connected to one side and an opposite side of said two adjacent electrode patterns, wherein the length of the second power supply line is 2 times to 5 times the length of the first power supply line, wherein the at least one power supply line (162, 164) has a resistance value of 0 ohms to 5 ohms.
A compound of formula: wherein; R 1 is hydrogen or C 1-6 alkyl; R 2 is hydrogen, C 1-6 alkyl, perhalomethylC 0-5 alkyl-O-, or C 1-6 alkoxy; R 3 is hydrogen, C 1-6 alkyl, or C 1-6 alkoxyC 1-6 alkyl; R 4 is hydrogen, C 1-6 alkyl, perhalomethylC 1-6 alkyl; or unsubstituted C 3-6 cycloalkylC 1-6 alkyl; A is C-R 5 or N; B is C-R 6 or N; D is C-R 7 or N; with the proviso that at least one of A, B, and D, is N; R 5 is hydrogen or C 1-6 alkyl; R 6 is hydrogen or C 1-6 alkyl; R 7 is hydrogen, C 1-6 alkyl, C 1-6 alkoxy, or hydroxy; R 8 is hydrogen or C 1-6 alkyl, with the proviso that one of R 4 and R 8 is hydrogen; R 9 is hydrogen or hydroxy; R 10 is hydrogen or C 1-6 alkyl; or a salt thereof. R 1 is hydrogen or C 1-6 alkyl; R 2 is hydrogen, C 1-6 alkyl, perhalomethylC 0-5 alkyl-O-, or C 1-6 alkoxy; R 3 is hydrogen, C 1-6 alkyl, or C 1-6 alkoxyC 1-6 alkyl; R 4 is hydrogen, C 1-6 alkyl, perhalomethylC 1-6 alkyl; or unsubstituted C 3-6 cycloalkylC 1-6 alkyl; A is C-R 5 or N; B is C-R 6 or N; D is C-R 7 or N; with the proviso that at least one of A, B, and D, is N; R 5 is hydrogen or C 1-6 alkyl; R 6 is hydrogen or C 1-6 alkyl; R 7 is hydrogen, C 1-6 alkyl, C 1-6 alkoxy, or hydroxy; R 8 is hydrogen or C 1-6 alkyl, with the proviso that one of R 4 and R 8 is hydrogen; R 9 is hydrogen or hydroxy; R 10 is hydrogen or C 1-6 alkyl;
One polypeptide of the sequence as shown in the following general formula or a mixture of two or more polypeptides of the sequences as shown in the following general formula in any proportion for use in lowering blood glucose and/or blood lipid level in a mammal, or preventing and/or treating diabetes and/or hyperlipidemia in a mammal: X 1 SCNGVCSPFX 2 X 3 PPCGX 4 X 5 X 6 CRCIPX 7 GLX 8 X 9 GX 10 CRNPX 11 G wherein, X 1 -X 11 is independently selected from the group consisting of A, C, D, E, F, G, H, I, K, L, M, N, P, Q, R, S, T, V, W, Y and M ox, whereby said mammal is preferably a human being, and said diabetes is preferably type 2 diabetes. wherein, X 1 -X 11 is independently selected from the group consisting of A, C, D, E, F, G, H, I, K, L, M, N, P, Q, R, S, T, V, W, Y and M ox, whereby said mammal is preferably a human being, and said diabetes is preferably type 2 diabetes.