mhurhangee/patent-ind-claim-en huggingface dataset:
- Pharmaceutical composition comprising a galactose analogue represented by the following formula: wherein R1 is selected from the group consisting of N 3 and CN, for use in the treatment of Fabry disease, wherein Fabry disease is caused by a mutation affecting the folding of the enzyme α-galactosidase A.
Method for operating a refrigeration system for a vehicle, having a refrigerant circuit which has a heat pump function, in which - the refrigerant circuit is designed with an exterior heat exchanger which is either operated as a condenser or gas cooler in order to perform a refrigeration system mode or as a heat-pump evaporator in order to perform a heat pump mode, - the refrigerant circuit is designed with an evaporator and an interior heating condenser or heating gas cooler for performing a heating mode, characterised in that - the interior heating condenser or heating gas cooler is fluidly connected to the exterior heat exchanger , downstream, by means of a post-heating expansion device (AE4) in order to perform a post-heating mode, wherein - the opening cross-section of the post-heating expansion device (AE4) is controlled in accordance with a refrigeration system parameter indicating the required post-heating power. - the refrigerant circuit is designed with an exterior heat exchanger which is either operated as a condenser or gas cooler in order to perform a refrigeration system mode or as a heat-pump evaporator in order to perform a heat pump mode, - the refrigerant circuit is designed with an evaporator and an interior heating condenser or heating gas cooler for performing a heating mode, characterised in that - the interior heating condenser or heating gas cooler is fluidly connected to the exterior heat exchanger , downstream, by means of a post-heating expansion device (AE4) in order to perform a post-heating mode, wherein - the opening cross-section of the post-heating expansion device (AE4) is controlled in accordance with a refrigeration system parameter indicating the required post-heating power.
An aerosol generating system , comprising an aerosol generating device in cooperation with a cartridge , the system for heating an aerosol-forming substrate in the cartridge and comprising: a vaporizer for heating the aerosol-forming substrate to form an aerosol; at least one air inlet ; at least one air outlet , the air inlet and the air outlet being arranged to define an air flow route between the air inlet and the air outlet ; and flow control means for adjusting the size of the at least one air inlet , so as to control the air flow speed in the air flow route, wherein the flow control means comprises: a first member and a second member, the first and second members cooperating to define the at least one air inlet , wherein the first and second members are arranged to rotate relative to one another so as to vary the size of the at least one air inlet , and wherein both the first member and the second member are contained in the cartridge . a vaporizer for heating the aerosol-forming substrate to form an aerosol; at least one air inlet ; at least one air outlet , the air inlet and the air outlet being arranged to define an air flow route between the air inlet and the air outlet ; and flow control means for adjusting the size of the at least one air inlet , so as to control the air flow speed in the air flow route, wherein the flow control means comprises: a first member and a second member, the first and second members cooperating to define the at least one air inlet , wherein the first and second members are arranged to rotate relative to one another so as to vary the size of the at least one air inlet , and wherein both the first member and the second member are contained in the cartridge .
A method of transforming acceleration data to drill-string motions related to drilling dysfunctions comprising: (a) determining gravitational and centripetal accelerations; (b) characterised by performing a local running mean of acceleration measurements from a drill pipe to determine the said gravitational and centripetal accelerations; (c) removing the local running mean to yield corrected acceleration data due to vibration only; (d) transforming the corrected acceleration data from a local rotating coordinate frame to a global stationary coordinate frame; (e) mapping in real time, the acceleration data in the global stationary coordinate frame into continuous drill-string positions: (f) further comprising determining, via a computing device, dysfunctions for detecting drilling equipment failure by using the data of step (e) to produce various attributes quantifying the drilling dysfunction. (a) determining gravitational and centripetal accelerations; (b) characterised by performing a local running mean of acceleration measurements from a drill pipe to determine the said gravitational and centripetal accelerations; (c) removing the local running mean to yield corrected acceleration data due to vibration only; (d) transforming the corrected acceleration data from a local rotating coordinate frame to a global stationary coordinate frame; (e) mapping in real time, the acceleration data in the global stationary coordinate frame into continuous drill-string positions: (f) further comprising determining, via a computing device, dysfunctions for detecting drilling equipment failure by using the data of step (e) to produce various attributes quantifying the drilling dysfunction.
A therapeutic agent which inhibits the interaction of LFA-1 and an ICAM for use in the treatment of macular edema, wherein the therapeutic agent is of Formula IIB or its pharmaceutically acceptable salts or esters, AR 1 is a monocyclic or polycyclic aryl, heteroaryl, alkylaryl, alkylheteroaryl, alicyclic or heterocyclic moiety; where R 17 is hydrogen, pharmaceutically acceptable salts or esters; and where R 27 is
A dishwasher for washing an object to be washed, comprising: a wash tub for containing the object to be washed; a wash nozzle for washing the object inside the wash tub ; a feed water unit for feeding water to the inside of the wash tub ; a drain path for discharging washing water from the wash tub to the outside of the dishwasher; and a turbidity sensor placed on the drain path , for sensing information related to turbidity of washing water inside the drain path , wherein the turbidity sensor is placed in a position higher than a level of the washing water remaining in the drain path when draining ends, wherein the drain path has a substantially vertical part through which washing water flows upward and the substantially vertical part includes a projection projected from the drain path , wherein the turbidity sensor is placed outside the projection (15; 16), wherein the projection (15; 16) is connected to the drain path at a bottom surface (15a; 16a) of the projection (15; 16), characterized in that the bottom surface (15a; 16a) is obliquely formed so that a part of the bottom surface (15a; 16a) connected to the drain path is lower than a projected top of the projection (15; 16), wherein a side surface (15c; 16c) of the projection (15; 16) is formed of a substantially vertical surface, and wherein the turbidity sensor has a light-emitting unit and a light-receiving unit facing each other outside the side surface (15c; 16c). a wash tub for containing the object to be washed; a wash nozzle for washing the object inside the wash tub ; a feed water unit for feeding water to the inside of the wash tub ; a drain path for discharging washing water from the wash tub to the outside of the dishwasher; and a turbidity sensor placed on the drain path , for sensing information related to turbidity of washing water inside the drain path ,
Poly (ethylene oxide) (PEO) having a functionalized chain end selected from the group consisting of compounds of formulas (I) to (IV): wherein, R is methyl, n -butyl, sec- butyl or tert -butyl, R 1 and R 5 are each independently hydrogen or methyl, R2 is an amide group having a functional group selected from the group consisting of N-isopropylamide, sulfabenzene, sulfisoxazole, sulfacetamide, sulfamethizole, sulfadimethoxine, sulfadiazine, sulfamethoxy pyridazine, sulfamethazine, sulfisoimidine, sulfapyridine, indisulam and amprenavir, R3 is hydrogen, isobutylacrylonitryl, phenyl or halogen, R4 is phenyl or isobutylacrylonitryl, X is propylene sulfonic acid, 2-bromoisobutyryl, 2-bromopropionyl, propylene sulfide, methacrylamide or phthalic anhydride, Y is sulfabenzene, sulfisoxazole, sulfacetamide, sulfamethizole, sulfadimethoxine, sulfadiazine, sulfamethoxy pyridazine, sulfamethazine, sulfisoimidine, sulfapyridine, indisulam, amprenavir, folic acid, doxorubicin, paclitaxel or vancomycin, n is an integer in the range of 10 to 500, k is an integer in the range of 1 to 10, and m is an integer in the range of 5 to 50. wherein, R is methyl, n -butyl, sec- butyl or tert -butyl, R 1 and R 5 are each independently hydrogen or methyl, R2 is an amide group having a functional group selected from the group consisting of N-isopropylamide, sulfabenzene, sulfisoxazole, sulfacetamide, sulfamethizole, sulfadimethoxine, sulfadiazine, sulfamethoxy pyridazine, sulfamethazine, sulfisoimidine, sulfapyridine, indisulam and amprenavir, R3 is hydrogen, isobutylacrylonitryl, phenyl or halogen, R4 is phenyl or isobutylacrylonitryl, X is propylene sulfonic acid, 2-bromoisobutyryl, 2-bromopropionyl, propylene sulfide, methacrylamide or phthalic anhydride, Y is sulfabenzene, sulfisoxazole, sulfacetamide, sulfamethizole, sulfadimethoxine, sulfadiazine, sulfamethoxy pyridazine, sulfamethazine, sulfisoimidine, sulfapyridine, indisulam, amprenavir, folic acid, doxorubicin, paclitaxel or vancomycin, n is an integer in the range of 10 to 500, k is an integer in the range of 1 to 10, and m is an integer in the range of 5 to 50.
A luminaire comprising: a. one or more light-emitting elements (LEEs) arranged to provide light within a first angular range ; b. one or more couplers arranged to receive the light provided by the one or more LEEs and configured to provide light within a second angular range ; c. a diffuser in a path of only a portion of the light provided by the one or more couplers and configured to diffusely transmit at least some of the portion of the light; and d. a reflector having a first surface and a second surface opposite the first surface, the reflector being arranged so that the first surface receives at least a portion of the diffusely transmitted light from the diffuser and the second surface receives at least some light from the coupler that does not impinge on the diffuser, wherein, during operation, the luminaire provides light within a first output angular range and a second output angular range different from the first output angular range. a. one or more light-emitting elements (LEEs) arranged to provide light within a first angular range ; b. one or more couplers arranged to receive the light provided by the one or more LEEs and configured to provide light within a second angular range ; c. a diffuser in a path of only a portion of the light provided by the one or more couplers and configured to diffusely transmit at least some of the portion of the light; and d. a reflector having a first surface and a second surface opposite the first surface, the reflector being arranged so that the first surface receives at least a portion of the diffusely transmitted light from the diffuser and the second surface receives at least some light from the coupler that does not impinge on the diffuser, wherein, during operation, the luminaire provides light within a first output angular range and a second output angular range different from the first output angular range.
A non-transitory computer-readable storage medium storing one or more processor-executable instructions wherein the one or more instructions, when executed by a processor of a controller , cause the controller to perform a method , the method comprising: receiving data indicative of one or more pressure signals representative of pressure between respective compressor blade tips and a casing of a compressor at one or more stages ; generating a plurality of patterns based on a permutation entropy window and the signals ; identifying a plurality of pattern categories in the plurality of patterns ; determining a permutation entropy based on the plurality of patterns and the plurality of pattern categories ; predicting an anomaly in a compressor based on the permutation entropy; comparing the plurality of pattern categories to determined permutations of pattern categories when an anomaly is present in the compressor ; predicting a category of the anomaly based on the comparison of the plurality of pattern categories to the determined permutation of pattern categories ; and outputting control signals for causing a corrective action to a gas turbine comprising a compressor to occur to minimize or avoid the predicted anomaly . receiving data indicative of one or more pressure signals representative of pressure between respective compressor blade tips and a casing of a compressor at one or more stages ; generating a plurality of patterns based on a permutation entropy window and the signals ; identifying a plurality of pattern categories in the plurality of patterns ; determining a permutation entropy based on the plurality of patterns and the plurality of pattern categories ; predicting an anomaly in a compressor based on the permutation entropy; comparing the plurality of pattern categories to determined permutations of pattern categories when an anomaly is present in the compressor ; predicting a category of the anomaly based on the comparison of the plurality of pattern categories to the determined permutation of pattern categories ; and outputting control signals for causing a corrective action to a gas turbine comprising a compressor to occur to minimize or avoid the predicted anomaly .
A method for early data transmission performed by a wireless device, the method comprising: obtaining , from a non-access stratum, NAS, communication layer, an initial NAS protocol data unit, PDU, for early data transmission; determining , by a radio resource control, RRC, communication layer, to initiate early data transmission based at least in part on a size of the initial NAS PDU; and transmitting an early data transmission including the initial NAS PDU. obtaining , from a non-access stratum, NAS, communication layer, an initial NAS protocol data unit, PDU, for early data transmission; determining , by a radio resource control, RRC, communication layer, to initiate early data transmission based at least in part on a size of the initial NAS PDU; and transmitting an early data transmission including the initial NAS PDU.
A system , comprising: a plurality of electrodes ; one or more radiofrequency, RF, generators ; and a controller , configured to: using one or more decision rules for deciding between multiple treatment settings, treat skin of a user responsively to multiple ascertained values of at least one parameter, by iteratively: ascertaining at least one respective value of the ascertained values, by applying at least one of the decision rules to the ascertained value, identifying a treatment setting from among the multiple treatment settings, and causing said one or more RF generators to cause one or more RF currents to pass, through the skin, between at least some of the electrodes in accordance with the identified treatment setting, characterised in that said controller is further configured to modify at least one of the decision rules in response to the ascertained values. a plurality of electrodes ; one or more radiofrequency, RF, generators ; and a controller , configured to: using one or more decision rules for deciding between multiple treatment settings, treat skin of a user responsively to multiple ascertained values of at least one parameter, by iteratively: ascertaining at least one respective value of the ascertained values, by applying at least one of the decision rules to the ascertained value, identifying a treatment setting from among the multiple treatment settings, and causing said one or more RF generators to cause one or more RF currents to pass, through the skin, between at least some of the electrodes in accordance with the identified treatment setting, characterised in that said controller is further configured to modify at least one of the decision rules in response to the ascertained values. ascertaining at least one respective value of the ascertained values, by applying at least one of the decision rules to the ascertained value, identifying a treatment setting from among the multiple treatment settings, and causing said one or more RF generators to cause one or more RF currents to pass, through the skin, between at least some of the electrodes in accordance with the identified treatment setting, characterised in that said controller is further configured to modify at least one of the decision rules in response to the ascertained values.
A power generation system comprising a plurality of functional units, the number of the plurality of functional units being equal to n, and n being an integer greater than 1, wherein each of the plurality of functional units comprises: a compressor, a regenerator, a combustion unit and a turbine; the compressor being in operative communication with the regenerator to provide to the regenerator compressed gas from the compressor; the regenerator being in operative communication with the combustion unit to provide to the combustion unit heated gas from the regenerator; the combustion unit being in operative communication with the turbine to provide to the turbine exhaust gas from the combustion unit; wherein, for each of the functional units other than the nth functional unit, the turbine is in operative communication with the combustion unit of a successive functional unit to provide to the combustion unit of the successive functional unit expanded gas from the turbine; and wherein, for the nth functional unit, the turbine is in operative communication with the regenerator of each preceding functional unit to provide to the regenerator of each preceding functional unit expanded gas from the turbine. a compressor, a regenerator, a combustion unit and a turbine; the compressor being in operative communication with the regenerator to provide to the regenerator compressed gas from the compressor; the regenerator being in operative communication with the combustion unit to provide to the combustion unit heated gas from the regenerator; the combustion unit being in operative communication with the turbine to provide to the turbine exhaust gas from the combustion unit; wherein, for each of the functional units other than the nth functional unit, the turbine is in operative communication with the combustion unit of a successive functional unit to provide to the combustion unit of the successive functional unit expanded gas from the turbine; and wherein, for the nth functional unit, the turbine is in operative communication with the regenerator of each preceding functional unit to provide to the regenerator of each preceding functional unit expanded gas from the turbine.
A process of producing a ceramic matrix composite component having a blade tip, the process comprising: positioning core wrap plies on a mandrel; surrounding the core wrap plies with blade plies; at least partially rigidizing the core wrap plies and blade plies to form a preform ceramic matrix composite arrangement defining a tip cavity and a hollow region , wherein the at least partially rigidized preform ceramic matrix composite arrangement includes at least partially rigidized preform ceramic matrix composite plies, and wherein the at least partially rigidized preform ceramic matrix composite plies include both the core wrap plies and the blade plies; applying ceramic matrix composite tip plies on the preform ceramic matrix composite arrangement to substantially fill the cavity and form the tip region within the tip cavity ; and densifying the ceramic matrix composite tip plies to form the tip region of the composite component . positioning core wrap plies on a mandrel; surrounding the core wrap plies with blade plies; at least partially rigidizing the core wrap plies and blade plies to form a preform ceramic matrix composite arrangement defining a tip cavity and a hollow region , wherein the at least partially rigidized preform ceramic matrix composite arrangement includes at least partially rigidized preform ceramic matrix composite plies, and wherein the at least partially rigidized preform ceramic matrix composite plies include both the core wrap plies and the blade plies; applying ceramic matrix composite tip plies on the preform ceramic matrix composite arrangement to substantially fill the cavity and form the tip region within the tip cavity ; and densifying the ceramic matrix composite tip plies to form the tip region of the composite component .
Method for managing the electrical energy passing through a metal-air battery comprising at least one cell comprising: - a negative electrode ; - a first positive electrode forming an air electrode of the cell; and - a second positive electrode forming a power electrode of the cell; characterized in that, the cell further comprising an oxygen-evolution third positive electrode , the method comprises: * a first cell-charging phase in which a charging voltage is applied to the cell, the charging voltage causing current to travel between the negative electrode and the second positive electrode, the first and third positive electrodes being electrically inactive; and * a second cell-charging phase in which the charging voltage is applied to the cell, the charging voltage causing current to travel between the negative electrode and said oxygen-evolution third positive electrode, the first and second positive electrodes being electrically inactive. - a negative electrode ; - a first positive electrode forming an air electrode of the cell; and - a second positive electrode forming a power electrode of the cell; characterized in that, the cell further comprising an oxygen-evolution third positive electrode , the method comprises: * a first cell-charging phase in which a charging voltage is applied to the cell, the charging voltage causing current to travel between the negative electrode and the second positive electrode, the first and third positive electrodes being electrically inactive; and * a second cell-charging phase in which the charging voltage is applied to the cell, the charging voltage causing current to travel between the negative electrode and said oxygen-evolution third positive electrode, the first and second positive electrodes being electrically inactive. * a first cell-charging phase in which a charging voltage is applied to the cell, the charging voltage causing current to travel between the negative electrode and the second positive electrode, the first and third positive electrodes being electrically inactive; and * a second cell-charging phase in which the charging voltage is applied to the cell, the charging voltage causing current to travel between the negative electrode and said oxygen-evolution third positive electrode, the first and second positive electrodes being electrically inactive.