mhurhangee/ep-ind-claims huggingface dataset:
Mechatronic system comprising: - a single-phase or multi-phase electric motor; - a frequency converter for operating the motor, comprising a rectifier that can be connected to an AC network via a feed line, an inverter having controlled half bridges (14u, 14v, 14w) for switching on and off the current supply for the one or more windings (16u, 16v, 16w) of the motor, and a control device for activating the half bridges (14u, 14v, 14w); - a detecting device (15u, 15v, 15w) for each of the windings (16u, 16v, 16w) for detecting their individual phase current (Iu, Iv, Iw); - a damping element in the feed line for damping harmonics back-indexed into the feed line, the damping element being designed to be just under the permissible temperature limit at maximum continuous output of the motor; wherein the control device is set up - to determine a total current using the individually detected phase currents (Iu, Iv, Iw); and - to stop or interrupt the current supply to the individual windings (16u, 16v, 16w) by switching off the half bridges (14u, 14v, 14w) if the total current exceeds a maximum permissible current (IDCmax), the exceeding of which causes impermissible overheating of the damping element. - a single-phase or multi-phase electric motor; - a frequency converter for operating the motor, comprising a rectifier that can be connected to an AC network via a feed line, an inverter having controlled half bridges (14u, 14v, 14w) for switching on and off the current supply for the one or more windings (16u, 16v, 16w) of the motor, and a control device for activating the half bridges (14u, 14v, 14w); - a detecting device (15u, 15v, 15w) for each of the windings (16u, 16v, 16w) for detecting their individual phase current (Iu, Iv, Iw); - a damping element in the feed line for damping harmonics back-indexed into the feed line, the damping element being designed to be just under the permissible temperature limit at maximum continuous output of the motor; - to determine a total current using the individually detected phase currents (Iu, Iv, Iw); and - to stop or interrupt the current supply to the individual windings (16u, 16v, 16w) by switching off the half bridges (14u, 14v, 14w) if the total current exceeds a maximum permissible current (IDCmax), the exceeding of which causes impermissible overheating of the damping element.
An exhaust gas recirculation, in short EGR, pump system comprising: an EGR pump assembly including an electric motor coupled to a transmission assembly, a roots device coupled to the electric motor through the transmission assembly, the roots device including a housing defining an internal volume and rotors disposed in the internal volume and connected to the transmission assembly; an EGR locking mechanism (42; 142) attached to the EGR pump assembly, the EGR locking mechanism (42; 142) selectively connected to the transmission assembly locking the transmission assembly and preventing rotation of the rotors. an EGR pump assembly including an electric motor coupled to a transmission assembly, a roots device coupled to the electric motor through the transmission assembly, the roots device including a housing defining an internal volume and rotors disposed in the internal volume and connected to the transmission assembly; an EGR locking mechanism (42; 142) attached to the EGR pump assembly, the EGR locking mechanism (42; 142) selectively connected to the transmission assembly locking the transmission assembly and preventing rotation of the rotors.
A composition comprising: (a) single stranded RNA; and (b) polyethyleneimine, wherein the single stranded RNA and the polyethyleneimine are present in polyplex particles and wherein the molar ratio of the number of nitrogen atoms in the polyethyleneimine to the number of phosphor atoms in the single stranded RNA (N:P ratio) is 2.0 to 15.0; for use as a pharmaceutical and wherein the use comprises administration of the composition to muscle cells or muscle tissue, preferably by intramuscular injection into muscle tissue. (a) single stranded RNA; and (b) polyethyleneimine,
A method for wireless communication, performed by a network node, the method comprising: receiving, from a wireless device, a system information, SI, request at a reception time, wherein the SI request uses a preamble or random access channel, RACH, resources based on the reception time; determining, based on the reception time, a group of SI messages for which the SI request is made; grouping SI messages into a plurality of SI groups, wherein the plurality of SI groups comprises the group of SI messages; and broadcasting information corresponding to the grouping into the plurality of SI groups. receiving, from a wireless device, a system information, SI, request at a reception time, wherein the SI request uses a preamble or random access channel, RACH, resources based on the reception time; determining, based on the reception time, a group of SI messages for which the SI request is made; grouping SI messages into a plurality of SI groups, wherein the plurality of SI groups comprises the group of SI messages; and broadcasting information corresponding to the grouping into the plurality of SI groups.
Tanning unit comprising a drum, a separation device for separation of the tanning bath and solid waste generated in use in the drum, an electronic control unit and a plurality of sensors connected in data exchange with the control unit, characterised in that the control unit: a. is connected in data exchange with the plurality of sensors among which at least a flow sensor of the input water in the drum; a flow sensor for the output fluid discharged by the drum after the process; a meter for electric power absorbed by the drum and a solid waste weight sensor connected to a collecting device for the solid waste intercepted by the separation device; and b. is programmed to process data received via the sensors and possible other data received via a user interface or by means of a data acquisition process; and to provide life cycle assessment data and/ or life cycle cost data. a. is connected in data exchange with the plurality of sensors among which at least a flow sensor of the input water in the drum; a flow sensor for the output fluid discharged by the drum after the process; a meter for electric power absorbed by the drum and a solid waste weight sensor connected to a collecting device for the solid waste intercepted by the separation device; and b. is programmed to process data received via the sensors and possible other data received via a user interface or by means of a data acquisition process; and to provide life cycle assessment data and/ or life cycle cost data.
A system for performing laser cataract surgery comprising: a. a material property determining computational assembly, the assembly comprising a structured light source, a camera, and a slit scanning means, wherein the material property comprises: (a) a density of a cataract in the eye; whereby the density of the cataract is associated with a predetermined grade of cataract, thereby determining the grade of the cataract in the eye; and, (b) a relative location within the lens of different levels of increased density; b. a means for providing a therapeutic laser pattern (2101, 2102) based at least in part on the grade of the cataract in the eye. a. a material property determining computational assembly, the assembly comprising a structured light source, a camera, and a slit scanning means, wherein the material property comprises: (a) a density of a cataract in the eye; whereby the density of the cataract is associated with a predetermined grade of cataract, thereby determining the grade of the cataract in the eye; and, (b) a relative location within the lens of different levels of increased density; b. a means for providing a therapeutic laser pattern (2101, 2102) based at least in part on the grade of the cataract in the eye.
Milk frother comprising - a first milk channel for conducting milk or milk-like beverage liquid to a first milk outlet, - a first foaming section adapted to convert milk or milk-like beverage liquid in the first milk channel into milk foam upon actuation and to dispense the milk foam via the first milk outlet - a first actuator (44.1) for individually actuating the first foaming section, - a second milk passage for conducting milk or milk-like beverage liquid to a second milk outlet - a second foaming section adapted to convert milk or milk-like beverage liquid in the second milk passage into milk foam upon actuation and to discharge it through the second milk outlet - a second actuating member (46.1) for individually actuating the second foaming section, characterized by - a third actuating element (56.1) for coupled actuation of the first foaming section and the second foaming section. - a first milk channel for conducting milk or milk-like beverage liquid to a first milk outlet, - a first foaming section adapted to convert milk or milk-like beverage liquid in the first milk channel into milk foam upon actuation and to dispense the milk foam via the first milk outlet - a first actuator (44.1) for individually actuating the first foaming section, - a second milk passage for conducting milk or milk-like beverage liquid to a second milk outlet - a second foaming section adapted to convert milk or milk-like beverage liquid in the second milk passage into milk foam upon actuation and to discharge it through the second milk outlet - a second actuating member (46.1) for individually actuating the second foaming section, characterized by - a third actuating element (56.1) for coupled actuation of the first foaming section and the second foaming section.
Support for holding an ultra-high frequency sensor used as part of a method for measuring ultra-high frequency partial discharge, said measurement being made by said ultra-high frequency sensor at at least one point on an electricity substation beneath a metal housing, said support having means for fixing (F1, F) on a window providing for contact between the sensor and the window, said fixing means being detachable from the window, characterised in that the support has a side wall of a height greater than or equal to that of the sensor.
A phosphaplatin compound having a structure of formula II: or a pharmaceutically acceptable salt thereof, for use in the treatment of cancer wherein the phosphaplatin compound induces immunogenic cell death in a subject having cancer, wherein R 3 is selected from substituted or unsubstituted aliphatic diamines.
Method for programming an industrial robot by manually guiding a manipulator arm of the industrial robot into at least one pose, in which at least one control variable to be included in a robot program is recorded by a control device of the industrial robot and is saved as a parameter of an associated program command in the robot program, comprising the steps: - selecting a type of program command, to which assigned parameters are to be saved, - continuously recording and buffering the at least one control variable to be recorded in predefined time steps during a manually guided handling of the manipulator arm, - continuously detecting at least one position-related and/or motion-related variable of the respective current pose of the manipulator arm, in predetermined time steps during the manually guided handling of the manipulator arm, and also characterised by the steps: - the control device automatically comparing the position-related and/or motion-related variables recorded in predetermined time steps with predetermined position-related and/or motion-related variables representing a termination criterion, in order to recognise automatically a representative event, which is a characteristic movement of the manipulator arm or a characteristic standstill of the manipulator arm, which is automatically interpreted by the control device as a signal to save the desired control variable and - saving the desired control variable as a parameter of the selected program command in the robot program, when one of the continuously recorded position-related and/or motion-related variables satisfies the termination criterion. - selecting a type of program command, to which assigned parameters are to be saved, - continuously recording and buffering the at least one control variable to be recorded in predefined time steps during a manually guided handling of the manipulator arm, - continuously detecting at least one position-related and/or motion-related variable of the respective current pose of the manipulator arm, in predetermined time steps during the manually guided handling of the manipulator arm, and also characterised by the steps: - the control device automatically comparing the position-related and/or motion-related variables recorded in predetermined time steps with predetermined position-related and/or motion-related variables representing a termination criterion, in order to recognise automatically a representative event, which is a characteristic movement of the manipulator arm or a characteristic standstill of the manipulator arm, which is automatically interpreted by the control device as a signal to save the desired control variable and - saving the desired control variable as a parameter of the selected program command in the robot program, when one of the continuously recorded position-related and/or motion-related variables satisfies the termination criterion.
A body-mountable device (100, 300) comprising: a flexible substrate (110, 330) configured to be mounted to a skin surface; a first sensor (125, 362), wherein the first sensor is configured to detect a physiological property; a flexible input component disposed on the flexible substrate, wherein the input component comprises a second sensor configured to detect a physical variable, wherein the input component is flexible such that the input component curves according to the skin surface to which the flexible substrate is mounted, and wherein the input component comprises an electrode directly formed on the flexible substrate; and one or more electronic components (130, 350) disposed on the flexible substrate and configured to: (i) use the first sensor to obtain data related to the physiological property, (ii) use the input component to receive an input by operating the second sensor to detect the physical variable; and (iii) perform one or more actions based on the received input. a flexible substrate (110, 330) configured to be mounted to a skin surface; a first sensor (125, 362), wherein the first sensor is configured to detect a physiological property; a flexible input component disposed on the flexible substrate, wherein the input component comprises a second sensor configured to detect a physical variable, wherein the input component is flexible such that the input component curves according to the skin surface to which the flexible substrate is mounted, and wherein the input component comprises an electrode directly formed on the flexible substrate; and one or more electronic components (130, 350) disposed on the flexible substrate and configured to: (i) use the first sensor to obtain data related to the physiological property, (ii) use the input component to receive an input by operating the second sensor to detect the physical variable; and (iii) perform one or more actions based on the received input.
A coating apparatus, comprising a rotary drum (1, 11) that accommodates particles to be treated therein and that is driven to rotate about its axis, characterized in that a measuring unit (3, 13) is provided at one end portion (1b, 11b) of the rotary drum (1, 11), wherein the measuring unit (3, 13) includes a light transmitting member (3a, 13a) arranged at the one end portion (1b, 11b) of the rotary drum (1, 11) so as to be in contact with a layer of the particles accommodated in an inside of the rotary drum (1, 11), and an optical sensor (3b, 13b) arranged in an inside of the measuring unit (3, 13), which is separated from the inside of the rotary drum (1, 11) by the light transmitting member (3a, 13a), so as to measure a property of the particles of the particle layer via the light transmitting member (3a, 13a).
An aqueous coating composition which is a composition obtained by dispersing a fluorocopolymer obtained by a solution polymerization method, in an aqueous medium, and which comprises the fluorocopolymer which is a copolymer containing the following units to, wherein a proportion of the repeating unit is from 1.4 mol% to 3.9 mol% based on the total repeating units, and an aqueous medium, wherein an amount of an organic solvent contained in the composition is from 0 to 1 mass%, wherein a nonionic emulsifier in an amount of from 0 to 3 parts by mass per 100 parts by mass of the solid content of the synthetic resin, or an anionic emulsifier in an amount of 0 to 1 part by mass per 100 parts by mass of the solid content of the synthetic resin is contained in the coating composition: Unit: a repeating unit of a fluoroolefin Unit: a repeating unit of a vinyl monomer or an allyl monomer, wherein a hydroxyl group and/or a carboxyl group which may form a salt, is not bonded to the unit Unit: a repeating unit of a vinyl monomer having a hydroxyl group bonded thereto or of an allyl monomer having a hydroxyl group bonded thereto, wherein a carboxyl group which may form a salt, is not bonded to the unit Unit: a repeating unit of a vinyl monomer or an allyl monomer, which is also a repeating unit to which a carboxylate group in which a part may be a carboxyl group, is bonded. Unit: a repeating unit of a fluoroolefin Unit: a repeating unit of a vinyl monomer or an allyl monomer, wherein a hydroxyl group and/or a carboxyl group which may form a salt, is not bonded to the unit Unit: a repeating unit of a vinyl monomer having a hydroxyl group bonded thereto or of an allyl monomer having a hydroxyl group bonded thereto, wherein a carboxyl group which may form a salt, is not bonded to the unit Unit: a repeating unit of a vinyl monomer or an allyl monomer, which is also a repeating unit to which a carboxylate group in which a part may be a carboxyl group, is bonded.
Method for operation of an exhaust gas combustor comprising at least the following steps: a) providing an air mass flow for the exhaust gas combustor and activating an ignition function of the exhaust gas combustor; b) providing a fuel mass flow for the exhaust gas combustor; c) periodical performance of a cleaning function of the exhaust gas combustor, in which the ratio between the fuel mass flow and the air mass flow is altered, d) terminating the provision of the fuel mass flow; e) terminating the provision of the air mass flow. a) providing an air mass flow for the exhaust gas combustor and activating an ignition function of the exhaust gas combustor; b) providing a fuel mass flow for the exhaust gas combustor; c) periodical performance of a cleaning function of the exhaust gas combustor, in which the ratio between the fuel mass flow and the air mass flow is altered, d) terminating the provision of the fuel mass flow; e) terminating the provision of the air mass flow.
A process for producing a useful substance, comprising culturing a microorganism belonging to coryneform bacteria in a medium, the microorganism having an enhanced ability to take a sugar, which is taken into a cell via a phosphotransferase system, into a cell via a system other than the PTS, and having an ability to produce a useful substance; forming and accumulating the useful substance in a culture; and collecting the useful substance from the culture, wherein the culturing is performed at 35°C to 38°C, and wherein the microorganism having an enhanced ability to take a sugar, which is taken into a cell via the PTS, into a cell via a system other than the PTS, and having an ability to produce a useful substance has an enhanced ability to produce a protein defined in any one of to below: a protein comprising the amino acid sequence shown in SEQ ID NO: 14; a protein consisting of an amino acid sequence, wherein one or more amino acid residues are added, deleted or substituted in the amino acid sequence shown in SEQ ID NO: 14, and having a myo-inositol transport activity; a protein encoded by DNA comprising the nucleotide sequence shown in SEQ ID NO: 15; a protein encoded by DNA which hybridizes with DNA comprising the nucleotide sequence complementary to the nucleotide sequence shown in SEQ ID NO: 15 under stringent conditions, and having a myo-inositol transport activity; and a protein encoded by DNA comprising a nucleotide sequence having 80% or more identity to the nucleotide sequence shown in SEQ ID NO: 15, and having a myo-inositol transport activity. a protein comprising the amino acid sequence shown in SEQ ID NO: 14; a protein consisting of an amino acid sequence, wherein one or more amino acid residues are added, deleted or substituted in the amino acid sequence shown in SEQ ID NO: 14, and having a myo-inositol transport activity; a protein encoded by DNA comprising the nucleotide sequence shown in SEQ ID NO: 15; a protein encoded by DNA which hybridizes with DNA comprising the nucleotide sequence complementary to the nucleotide sequence shown in SEQ ID NO: 15 under stringent conditions, and having a myo-inositol transport activity; and a protein encoded by DNA comprising a nucleotide sequence having 80% or more identity to the nucleotide sequence shown in SEQ ID NO: 15, and having a myo-inositol transport activity.
A method for managing a mobility pattern of a terminal, characterized by comprising: receiving, by a radio access network, RAN, node, a first mobility pattern of a terminal from a control plane function, CPF, entity, wherein the first mobility pattern comprises: a connection status and a location area list; determining, by the RAN node, a second mobility pattern of the terminal based on the first mobility pattern; and sending, by the RAN node, the determined second mobility pattern to the terminal; wherein the determining, by the RAN node, a second mobility pattern of the terminal based on the first mobility pattern comprises: pre-obtaining, by the RAN node, a mobility pattern supported by the RAN node; and either determining, by the RAN node, the first mobility pattern as the second mobility pattern in response to the RAN node supporting the first mobility pattern, wherein the second mobility pattern comprises RRC-INACTIVE and a location area list; or else selecting, by the RAN node, a default mobility pattern as the second mobility pattern in response to the RAN node not supporting the first mobility pattern. receiving, by a radio access network, RAN, node, a first mobility pattern of a terminal from a control plane function, CPF, entity, wherein the first mobility pattern comprises: a connection status and a location area list; determining, by the RAN node, a second mobility pattern of the terminal based on the first mobility pattern; and sending, by the RAN node, the determined second mobility pattern to the terminal; wherein the determining, by the RAN node, a second mobility pattern of the terminal based on the first mobility pattern comprises: pre-obtaining, by the RAN node, a mobility pattern supported by the RAN node; and either determining, by the RAN node, the first mobility pattern as the second mobility pattern in response to the RAN node supporting the first mobility pattern, wherein the second mobility pattern comprises RRC-INACTIVE and a location area list; or else selecting, by the RAN node, a default mobility pattern as the second mobility pattern in response to the RAN node not supporting the first mobility pattern. pre-obtaining, by the RAN node, a mobility pattern supported by the RAN node; and either determining, by the RAN node, the first mobility pattern as the second mobility pattern in response to the RAN node supporting the first mobility pattern, wherein the second mobility pattern comprises RRC-INACTIVE and a location area list; or else selecting, by the RAN node, a default mobility pattern as the second mobility pattern in response to the RAN node not supporting the first mobility pattern.