mhurhangee/ep-ind-claims huggingface dataset:
A solar cell comprising: a substrate including a front surface; and front surface electrodes extending along the front surface, wherein the front surface electrodes comprise a plurality of elongate bus bar electrodes coupled to a plurality of first elongate finger electrodes (153 1) arranged in a parallel finger region and second elongate finger electrodes (153 2) arranged in a palm finger region, the first finger electrodes (153 1) being substantially parallel to each other and perpendicular to the bus bar electrodes, the second finger electrodes (153 2) originating from end regions of the bus bar electrodes and radially extending at least in portions thereof in directions non-perpendicular to the bus bar electrodes, wherein the second finger electrodes (153 2) divide into several branches (154 1, 154 2) upon extending radially away from an associated bus bar electrode, and wherein a palm-like group of neighboring second finger electrodes (153 2) and branches (154 1, 154 2) thereof originate from a same associated bus bar electrode and each electrode and branch of the palm-like group of neighboring second finger electrodes (153 2) and branches thereof (154 1, 154 2) radially extends at a different angle with respect to the bus bar electrodes compared to each other electrode and branch of the palm-like group of neighboring second finger electrodes (153 2) and branches thereof (154 1, 154 2). a substrate including a front surface; and front surface electrodes extending along the front surface, wherein the front surface electrodes comprise a plurality of elongate bus bar electrodes coupled to a plurality of first elongate finger electrodes (153 1) arranged in a parallel finger region and second elongate finger electrodes (153 2) arranged in a palm finger region, the first finger electrodes (153 1) being substantially parallel to each other and perpendicular to the bus bar electrodes, the second finger electrodes (153 2) originating from end regions of the bus bar electrodes and radially extending at least in portions thereof in directions non-perpendicular to the bus bar electrodes, wherein the second finger electrodes (153 2) divide into several branches (154 1, 154 2) upon extending radially away from an associated bus bar electrode, and wherein a palm-like group of neighboring second finger electrodes (153 2) and branches (154 1, 154 2) thereof originate from a same associated bus bar electrode and each electrode and branch of the palm-like group of neighboring second finger electrodes (153 2) and branches thereof (154 1, 154 2) radially extends at a different angle with respect to the bus bar electrodes compared to each other electrode and branch of the palm-like group of neighboring second finger electrodes (153 2) and branches thereof (154 1, 154 2).
An on-line health management device for an insulated gate bipolar transistor, wherein the on-line health management device comprises: a sampling module, configured to sample the operating condition parameters of the insulated gate bipolar transistor; an extremum detection module, configured to detect whether the operating condition parameters each are within a corresponding extremum range or not, wherein if the operating condition parameters each are within a corresponding extremum range, the operating condition parameters are sent to the electrothermal detection module; an electrothermal detection module, configured to detect a junction temperature and a temperature rise of the insulated gate bipolar transistor based on operating condition parameters of the insulated gate bipolar transistor in combination with a structure of the insulated gate bipolar transistor; a degradation detection module, configured to detect a performance degradation degree of the insulated gate bipolar transistor based on the operating condition parameters, the structure, the junction temperature and the temperature rise of the insulated gate bipolar transistor; and a lifetime detection module, configured to detect a consumed lifetime of the insulated gate bipolar transistor based on the performance degradation degree thereof. a sampling module, configured to sample the operating condition parameters of the insulated gate bipolar transistor; an extremum detection module, configured to detect whether the operating condition parameters each are within a corresponding extremum range or not, wherein if the operating condition parameters each are within a corresponding extremum range, the operating condition parameters are sent to the electrothermal detection module; an electrothermal detection module, configured to detect a junction temperature and a temperature rise of the insulated gate bipolar transistor based on operating condition parameters of the insulated gate bipolar transistor in combination with a structure of the insulated gate bipolar transistor; a degradation detection module, configured to detect a performance degradation degree of the insulated gate bipolar transistor based on the operating condition parameters, the structure, the junction temperature and the temperature rise of the insulated gate bipolar transistor; and a lifetime detection module, configured to detect a consumed lifetime of the insulated gate bipolar transistor based on the performance degradation degree thereof.
A method of producing a laminate comprising a polypropylene adhesive layer and a substrate layer, the method comprising: a heat treatment step of performing a heat treatment under a temperature condition of 80 to 140°C for 5 to 120 minutes, wherein the laminate satisfies at least the following requirements to: the adhesive layer comprises 97 to 70% by weight of a propylene copolymer, and 3 to 30% by weight of a copolymer having a structural unit derived from butene relative to 100% by weight of the total of the copolymer and the copolymer, the copolymer has a melting point of 70 to 120°C measured with a differential scanning calorimeter as stated in the description, and includes less than 1 mol % of a structural unit derived from butene, the copolymer has a melting point of 130°C or less measured with a differential scanning calorimeter as stated in the description, and includes 1 mol % or more of the structural unit derived from butene, the adhesive layer comprises a polymer having a structural unit derived from at least one graft monomer selected from the group consisting of unsaturated carboxylic acids and derivatives thereof, and the substrate layer comprises a polyester resin. a heat treatment step of performing a heat treatment under a temperature condition of 80 to 140°C for 5 to 120 minutes, wherein the laminate satisfies at least the following requirements to: the adhesive layer comprises 97 to 70% by weight of a propylene copolymer, and 3 to 30% by weight of a copolymer having a structural unit derived from butene relative to 100% by weight of the total of the copolymer and the copolymer, the copolymer has a melting point of 70 to 120°C measured with a differential scanning calorimeter as stated in the description, and includes less than 1 mol % of a structural unit derived from butene, the copolymer has a melting point of 130°C or less measured with a differential scanning calorimeter as stated in the description, and includes 1 mol % or more of the structural unit derived from butene, the adhesive layer comprises a polymer having a structural unit derived from at least one graft monomer selected from the group consisting of unsaturated carboxylic acids and derivatives thereof, and the substrate layer comprises a polyester resin. the adhesive layer comprises 97 to 70% by weight of a propylene copolymer, and 3 to 30% by weight of a copolymer having a structural unit derived from butene relative to 100% by weight of the total of the copolymer and the copolymer, the copolymer has a melting point of 70 to 120°C measured with a differential scanning calorimeter as stated in the description, and includes less than 1 mol % of a structural unit derived from butene, the copolymer has a melting point of 130°C or less measured with a differential scanning calorimeter as stated in the description, and includes 1 mol % or more of the structural unit derived from butene, the adhesive layer comprises a polymer having a structural unit derived from at least one graft monomer selected from the group consisting of unsaturated carboxylic acids and derivatives thereof, and the substrate layer comprises a polyester resin.
A distributed power generation source, for operatively connecting to a distributed power generation network at a point of common coupling, said distributed power generation source comprising: - a voltage inverter, characterized in that said voltage inverter is provided within said distributed power generation source and enables said distributed power generation source to perform at least one of a plurality of static synchronous compensator functions, said distributed power generation source also including: - a control means that operates said voltage inverter, wherein a voltage at said point of common coupling is regulated by the control means, as a static synchronous compensator (STATCOM), when said distributed power generation source is providing less than its maximum rated active power to said network, and - an auxiliary damping controller receiving auxiliary signals indicative of oscillations on said network and causing said voltage inverter as said STATCOM to damp said oscillations, wherein said STATCOM prevents said voltage at said point of common coupling from exceeding a voltage rating when at least one more additional distributed power generation sources are operatively connected to said network. - a voltage inverter, characterized in that said voltage inverter is provided within said distributed power generation source and enables said distributed power generation source to perform at least one of a plurality of static synchronous compensator functions, - a control means that operates said voltage inverter, wherein a voltage at said point of common coupling is regulated by the control means, as a static synchronous compensator (STATCOM), when said distributed power generation source is providing less than its maximum rated active power to said network, and - an auxiliary damping controller receiving auxiliary signals indicative of oscillations on said network and causing said voltage inverter as said STATCOM to damp said oscillations,
A method for enhancing engraftment ability of haematopoetic stem cells (HSCs) by an ex vivo pretreatment of the HSCs which comprises following steps: a. admixing to a sample containing haematopoetic stem cells at least one prostacyclin analogue together with an unspecific cAMP activating agent, preferably selected from cholera toxin and forskolin, to obtain a mixture, b. incubating said mixture for a period of time sufficient to stimulate G alphas-signalling in said cells, and optionally c. isolating said stimulated cells. a. admixing to a sample containing haematopoetic stem cells at least one prostacyclin analogue together with an unspecific cAMP activating agent, preferably selected from cholera toxin and forskolin, to obtain a mixture, b. incubating said mixture for a period of time sufficient to stimulate G alphas-signalling in said cells, and optionally c. isolating said stimulated cells.
A computer-implemented method for allocating resources of a distributed compute cluster for execution of a distributed compute job in the distributed compute cluster, the computer-implemented method comprising: obtaining duration information from historical runs indicative of an amount of time taken by each of one or more tasks of a distributed compute phase of the distributed compute job to execute; sorting the one or more tasks into one or more groups based on the duration information and determining a resource requirement for each of the one or more groups; and determining, based on the resource requirement for each of the one or more groups, a time-varying allocation of the resources of the distributed compute cluster for the phase. obtaining duration information from historical runs indicative of an amount of time taken by each of one or more tasks of a distributed compute phase of the distributed compute job to execute; sorting the one or more tasks into one or more groups based on the duration information and determining a resource requirement for each of the one or more groups; and determining, based on the resource requirement for each of the one or more groups, a time-varying allocation of the resources of the distributed compute cluster for the phase.
An air-conditioning apparatus including a refrigeration cycle circuit including a compressor, a heat source side heat exchanger, at least one expansion valve (16a - 16e), and an intermediate heat exchanger (15a, 15b) connected to one another via refrigerant pipes, the intermediate heat exchanger (15a, 15b) being configured to exchange heat between a refrigerant and a heat medium, a heat medium circulation circuit including the intermediate heat exchanger (15a, 15b), a pump (21a, 21b) configured to convey the heat medium, and a use side heat exchanger connected to one another via heat medium pipes, a fan provided to the use side heat exchanger, a temperature sensor (31a, 31b, 32a, 32b) configured to detect the temperature of the heat medium, a control device (100, 300) configured to control the compressor and the pump (21a, 21b); wherein the control device (100, 300) is configured to perform an air conditioning operation mode including a cooling operation mode and heating operation mode, and a heat medium temperature adjustment operation mode in which when the detection result of the heat medium temperature falls outside a predetermined temperature range while the compressor and the pump (21a, 21b) are temporarily kept stopped, the compressor and the pump (21a, 21b) are driven to cause the intermediate heat exchanger (15a, 15b) to exchange heat between the refrigerant and the heat medium so that the heat medium is heated or cooled to have a temperature that falls within the predetermined temperature range, characterized in that the control device (100, 300) is further configured to control the fan, and in the heat medium temperature adjustment operation mode, keep the fan stopped or operate the fan with a reduced amount of air.
A routing method, wherein the method comprises: receiving an access request of a user, wherein the access request points to a particular page; obtaining user attribute information of the user based on the access request; obtaining, based on at least a part of the user attribute information and according to a preset rule, a server cluster corresponding to the user attribute information, wherein the server cluster is configured to provide a service on the particular page for the user; and routing the access request to the server cluster, wherein the routing the access request to the server cluster comprises routing the access request to the server cluster through redirection using an HTTP status 302 or 301 when the access request is a stateless request and routing the access request to the server cluster through redirection using an HTTP status 308 or 307 when the access request is a stateful request. receiving an access request of a user, wherein the access request points to a particular page; obtaining user attribute information of the user based on the access request; obtaining, based on at least a part of the user attribute information and according to a preset rule, a server cluster corresponding to the user attribute information, wherein the server cluster is configured to provide a service on the particular page for the user; and routing the access request to the server cluster, wherein the routing the access request to the server cluster comprises routing the access request to the server cluster through redirection using an HTTP status 302 or 301 when the access request is a stateless request and routing the access request to the server cluster through redirection using an HTTP status 308 or 307 when the access request is a stateful request.
A method of link aggregation, adapted to aggregate links into a link aggregation group, LAG, for MAC frame transmission, comprising the steps of transmitting, by systems at two ends of a link, information of virtual local area networks, VLANs, of a port in a local end system to an opposite end system through message exchange, wherein the port belongs to a plurality of VLANs; and determining, by the systems at the two ends of the link, the VLAN of the link respectively according to the received information of the VLAN of the port in the opposite end system and the information of the VLAN of the port in the local end system, and performing link aggregation according to the VLAN of the link; wherein the determining the VLAN of the link comprises intersecting the VLANs of the ports at the two ends of the link and determining the VLAN in an intersection set as the VLAN of the link.
A laundry treating apparatus comprising: a cabinet defining an external appearance of the laundry treating apparatus; a tub disposed in the cabinet; a drum rotatably disposed in the tub, and having a cylindrical portion formed of a ferromagnetic material and a rear wall portion for closing an open rear end of the cylindrical portion, wherein the cylindrical portion has a plurality of through-holes formed therein and allows laundry to be loaded thereinto through an opening portion formed on a front surface; an induction heater disposed on the outer circumferential surface of the tub and configured to heat the drum by inducing an eddy current in the cylindrical portion; a duct disposed on an outer side of the tub, having an inlet communicating with the opening portion of the drum, and an outlet communicating with the tub through a side surface of the tub surrounding the cylindrical portion; and an air blower installed in the duct and configured to suction air into the inlet, wherein an air flow is introduced from the drum into the inlet of the duct and discharged into the tub through the outlet of the duct. a cabinet defining an external appearance of the laundry treating apparatus; a tub disposed in the cabinet; a drum rotatably disposed in the tub, and having a cylindrical portion formed of a ferromagnetic material and a rear wall portion for closing an open rear end of the cylindrical portion, wherein the cylindrical portion has a plurality of through-holes formed therein and allows laundry to be loaded thereinto through an opening portion formed on a front surface; an induction heater disposed on the outer circumferential surface of the tub and configured to heat the drum by inducing an eddy current in the cylindrical portion; a duct disposed on an outer side of the tub, having an inlet communicating with the opening portion of the drum, and an outlet communicating with the tub through a side surface of the tub surrounding the cylindrical portion; and an air blower installed in the duct and configured to suction air into the inlet, wherein an air flow is introduced from the drum into the inlet of the duct and discharged into the tub through the outlet of the duct.
Vehicle comprising an energy storage device, the vehicle being a unicycle or a bicycle, a stand for stability when parking the vehicle being arranged on the vehicle, the stand comprising a secondary winding from which energy can be supplied to the energy storage device of the vehicle, a central bar for transmitting force, i.e. for transmitting a portion of the weight force of the vehicle, being arranged in the region around which the secondary winding is wound, characterised in that ferrite parts, i.e. ferrite bars, are arranged radially between the central bar and the secondary winding.
A method of producing and isolating heteromeric immunoglobulin heavy and light chain complex comprising transfecting cells with a vector comprising a first nucleic acid sequence encoding a first immunoglobulin heavy chain or immunoglobulin light chain, wherein the transcription of said first nucleic acid sequence is operably linked to transcription of a second nucleic acid sequence encoding a first subunit of a selectable marker, and further comprising a third nucleic acid sequence encoding a second immunoglobulin light chain or immunoglobulin heavy chain wherein the immunoglobulin light chain is capable of associating with the first immunoglobulin heavy chain to form a heteromeric complex, wherein the transcription of said third nucleic acid sequence is operably linked to transcription of a fourth nucleic acid sequence which encodes a second subunit of a selectable marker, and wherein said second subunit associates with the first subunit of the selectable marker, to provide a selectable activity, and applying selection to the cells.
A liquid crystal polyester multifilament having an initial modulus variation of 3.0% or less and a tensile strength of 18 cN/dtex or more, wherein the initial modulus variation and the tensile strength are determined by the method disclosed in the description.
A safety automation system for an occupiable structure comprising: a computing management system including a computer processor, and a computer readable storage medium; and a detection device adapted to detect a hazard condition and output an associated signal to the computing management system, and wherein the computing management system is configured to send a hazard notification signal to a user interface device remotely located from the occupiable structure; wherein the user interface device is mobile and the computing management system includes a wireless communications circuitry capable of receiving and transmitting wireless signals to the user interface device; wherein the wireless signals include a current local weather report received by and transmitted from the computing management system to the user interface device; characterised in that: the wireless signals include a map of the occupiable structure and an expected occupant location from the computer readable storage medium. a computing management system including a computer processor, and a computer readable storage medium; and a detection device adapted to detect a hazard condition and output an associated signal to the computing management system, and wherein the computing management system is configured to send a hazard notification signal to a user interface device remotely located from the occupiable structure; wherein the user interface device is mobile and the computing management system includes a wireless communications circuitry capable of receiving and transmitting wireless signals to the user interface device; wherein the wireless signals include a current local weather report received by and transmitted from the computing management system to the user interface device; characterised in that: the wireless signals include a map of the occupiable structure and an expected occupant location from the computer readable storage medium.