mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a photovoltaic system, the photovoltaic system comprising a photovoltaic output device, an inverter device, an AC interface device, a control device and an AC load, wherein a supply terminal of the AC load is connected to an AC output side of the inverter device, and a control terminal of the AC load is connected to the control device, and the method for controlling the photovoltaic system is applied to the control device; and the method for controlling the photovoltaic system comprises: controlling the AC interface device to maintain the inverter device being disconnected from an electrical grid; starting the inverter device and then starting the AC load; determining whether a grid connection condition is met for the photovoltaic system; and controlling the AC interface device to connect the inverter device to the electrical grid, in a case where it is determined that the grid connection condition is met for the photovoltaic system, characterized in that the grid connection condition is used to determine whether power output by the photovoltaic output device is capable of maintaining the stable operation of the inverter device and the AC load, wherein the AC load comprises any one or more of a fan, a heater and a dehumidifier. controlling the AC interface device to maintain the inverter device being disconnected from an electrical grid; starting the inverter device and then starting the AC load; determining whether a grid connection condition is met for the photovoltaic system; and controlling the AC interface device to connect the inverter device to the electrical grid, in a case where it is determined that the grid connection condition is met for the photovoltaic system, characterized in that the grid connection condition is used to determine whether power output by the photovoltaic output device is capable of maintaining the stable operation of the inverter device and the AC load, wherein the AC load comprises any one or more of a fan, a heater and a dehumidifier.
A method performed by a wireless device (100, 1111) in a first core network, comprising: - sending a message via a first radio access node (101A, 1120) to a control plane entity in the first core network, the message indicating the wireless device (100, 1111) supports Single radio voice call continuity, SRVCC, from a second core network to a third core network; - receiving, from the first radio access node (101A, 1120) or from the first core network, an instruction to connect to a neighboring radio access node for connecting to the second core network; and - connecting to the second core network via the neighboring radio access node, wherein receiving the instruction comprises receiving a handover command, a handover order, a release with redirect or a registration reject message, and wherein the first core network is a 5th generation core network, 5GCN, and the second core network is an evolved packet core, EPC, and the third core network is a circuit switched core network. - sending a message via a first radio access node (101A, 1120) to a control plane entity in the first core network, the message indicating the wireless device (100, 1111) supports Single radio voice call continuity, SRVCC, from a second core network to a third core network; - receiving, from the first radio access node (101A, 1120) or from the first core network, an instruction to connect to a neighboring radio access node for connecting to the second core network; and - connecting to the second core network via the neighboring radio access node, wherein receiving the instruction comprises receiving a handover command, a handover order, a release with redirect or a registration reject message, and wherein the first core network is a 5th generation core network, 5GCN, and the second core network is an evolved packet core, EPC, and the third core network is a circuit switched core network. wherein receiving the instruction comprises receiving a handover command, a handover order, a release with redirect or a registration reject message, and wherein the first core network is a 5th generation core network, 5GCN, and the second core network is an evolved packet core, EPC, and the third core network is a circuit switched core network.
A cleaning robot comprising: a navigation unit configured to move the cleaning robot; a plurality of light receivers configured to receive a modulated infrared ray output from a remote controller, the remote controller being configured to output, in accordance with a control command of a user, the modulated infrared ray and to output visible light to thereby form a light spot; and a controller configured to control the navigation unit to move the cleaning robot along an automatic cleaning path, and in response to receiving a drag command from the remote controller while moving along the automatic cleaning path, leave the automatic cleaning path and track the light spot, characterized in that the controller is configured to: in response to receiving an intensive cleaning command from the remote controller while tracking the light spot, clean a position indicated by the light spot and then return to the automatic cleaning path. a navigation unit configured to move the cleaning robot; a plurality of light receivers configured to receive a modulated infrared ray output from a remote controller, the remote controller being configured to output, in accordance with a control command of a user, the modulated infrared ray and to output visible light to thereby form a light spot; and a controller configured to control the navigation unit to move the cleaning robot along an automatic cleaning path, and in response to receiving a drag command from the remote controller while moving along the automatic cleaning path, leave the automatic cleaning path and track the light spot, characterized in that the controller is configured to: in response to receiving an intensive cleaning command from the remote controller while tracking the light spot, clean a position indicated by the light spot and then return to the automatic cleaning path.
Compositions comprising at least one film-forming agent able to adhere in a stable manner to the mucosa of oral cavity, esophagus and upper airways, obtainable by cross-linking salts of hyaluronic acid or of alginic acid in the presence of anthocyanidins or proanthocyanidins in free or glycosylated form, or in the presence of extracts obtained from medicinal plants containing anthocyanidins or proanthocyanidins.
A surgical stapler, comprising: a drive system; an electric motor mechanically coupled to the drive system; a battery electrically couplable to the electric motor; and a control system electrically connected to the electric motor, wherein the control system is configured to control a force applied to the drive system based on a current, characterized in that the control system comprises: an H-bridge circuit comprising a high side and a low side, wherein the low side of the H-bridge circuit comprises first and second switching devices (3114, 3116) and first and second legs; an electrically resistive element electrically connected in series with the first switching device; and an electrically inductive element electrically connected in parallel with the electrically resistive element, wherein the electrically resistive element and the electrically inductive element are electrically connected to one of the first and second legs of the H-bridge circuit, wherein the control system is configured to control the force applied to the drive system based on the current downstream of the electrically resistive element. a drive system; an electric motor mechanically coupled to the drive system; a battery electrically couplable to the electric motor; and a control system electrically connected to the electric motor, wherein the control system is configured to control a force applied to the drive system based on a current, characterized in that the control system comprises: an H-bridge circuit comprising a high side and a low side, wherein the low side of the H-bridge circuit comprises first and second switching devices (3114, 3116) and first and second legs; an electrically resistive element electrically connected in series with the first switching device; and an electrically inductive element electrically connected in parallel with the electrically resistive element, an H-bridge circuit comprising a high side and a low side, wherein the low side of the H-bridge circuit comprises first and second switching devices (3114, 3116) and first and second legs; an electrically resistive element electrically connected in series with the first switching device; and an electrically inductive element electrically connected in parallel with the electrically resistive element, wherein the electrically resistive element and the electrically inductive element are electrically connected to one of the first and second legs of the H-bridge circuit, wherein the control system is configured to control the force applied to the drive system based on the current downstream of the electrically resistive element.
A disposable glove for a human hand, comprising: a sensing circuit loop printed on the disposable glove, the sensing circuit loop including: an inductive coil printed on a wrist portion of the disposable glove, and one or more of a capacitive sensor element and a resistive sensor element printed on a finger joint portion of the disposable glove, wherein the capacitive sensor element and/or the resistive sensor element comprise a first layer of conductive material adjacent to a second layer of conductive material, and wherein the first and the second layers of conductive material are electrically insulated by a dielectric layer. an inductive coil printed on a wrist portion of the disposable glove, and one or more of a capacitive sensor element and a resistive sensor element printed on a finger joint portion of the disposable glove, wherein the capacitive sensor element and/or the resistive sensor element comprise a first layer of conductive material adjacent to a second layer of conductive material, and wherein the first and the second layers of conductive material are electrically insulated by a dielectric layer.
A method for wireless communication performed by a user equipment, UE, the method comprising: obtaining, group control information in a group common physical downlink shared channel, PDSCH, from a base station; receiving, from the base station, grouping information in radio resource control, RRC, signaling; determining that the UE belongs to a particular group based on the grouping information; determining an index within the group for receiving the resources of the shared channel, wherein the group control information includes grants for scheduled UEs in the particular group and excludes grants for unscheduled UEs in the particular group, wherein the grants for scheduled UEs in the particular group are sorted according to the index in the particular group; determining resources for communicating on a shared channel based on the group control information; and communicating with the base station on the resources of the shared channel. obtaining, group control information in a group common physical downlink shared channel, PDSCH, from a base station; receiving, from the base station, grouping information in radio resource control, RRC, signaling; determining that the UE belongs to a particular group based on the grouping information; determining an index within the group for receiving the resources of the shared channel, wherein the group control information includes grants for scheduled UEs in the particular group and excludes grants for unscheduled UEs in the particular group, wherein the grants for scheduled UEs in the particular group are sorted according to the index in the particular group; determining resources for communicating on a shared channel based on the group control information; and communicating with the base station on the resources of the shared channel.
Magnet assembly for a solenoid valve, having a housing which comprises a housing jacket as the iron circuit upper part and a covering disk, which is pressed into the housing jacket, as the iron circuit lower part, and a coil former which is arranged inside the housing and comprises a winding support which is wound with a coil winding, with tolerance-compensation means being arranged on the coil former, said tolerance-compensation means being designed such that the winding support is pushed against the pressed-in covering disk by means of a lower flange such that a boundary surface (124.1) of the lower flange rests substantially without a gap against a boundary surface (114.1) of the covering disk in order to form a thermal contact resistance which is as low as possible, characterized in that an air gap is present between an upper flange of the coil former and the housing jacket, wherein the tolerance-compensation means are designed as at least one lug which is integrally formed as a lateral step on the lower flange of the winding support, wherein the at least one lug rests against a cutout in the housing jacket after the covering disk is pressed into the housing jacket, with tolerance compensation being performed by virtue of the elasticity of the at least one lug.
A method for producing silk fibroin powder from silk products or filaments without sericin and dyes, characterised in that a processing cycle comprises at least the following phases: a) Introduction of said silk products or filaments into at least one very tightly-woven bag, of the bordered type sealed along the stitches whose pores have a size of about 5-10 μm, then closed and bordered at the closure in order to then be introduced into a tank, with a mixer; b) the treatment liquid has been previously introduced into the tank, preferably some dyeworks fresh water, brought to the temperature in the tank of about 96-97°C and to which powder soda is added in the preferred measure of 4 g/L; the stay time in the tank of said bags is of about 6h-10h; in this way, by combining temperature, pH and stay time, the silk from products or filaments is weakened in such a way that the fibrils are detached remaining whole and insoluble; c) a rinsing cycle is carried out, which comprises some phases in cold or lukewarm water, and at least one last phase with some acetic acid in order to bring the silk pH from a value of about 10.5 back to a pH of 5.5÷6; d) the bags that contain the so weakened silk products or filaments are subjected first to a centrifugation phase and then in a relaxed drying machine; e) said bags are opened and the material is thrown into the tumblers, suitable to carry out the tumbling in order to pulverize it, in such a way as to obtain a homogenous fragmentation and keep the fibrils whole, where said fibroin powder is comprised in a range of 10/30 μm. a) Introduction of said silk products or filaments into at least one very tightly-woven bag, of the bordered type sealed along the stitches whose pores have a size of about 5-10 μm, then closed and bordered at the closure in order to then be introduced into a tank, with a mixer; b) the treatment liquid has been previously introduced into the tank, preferably some dyeworks fresh water, brought to the temperature in the tank of about 96-97°C and to which powder soda is added in the preferred measure of 4 g/L; the stay time in the tank of said bags is of about 6h-10h; in this way, by combining temperature, pH and stay time, the silk from products or filaments is weakened in such a way that the fibrils are detached remaining whole and insoluble; c) a rinsing cycle is carried out, which comprises some phases in cold or lukewarm water, and at least one last phase with some acetic acid in order to bring the silk pH from a value of about 10.5 back to a pH of 5.5÷6; d) the bags that contain the so weakened silk products or filaments are subjected first to a centrifugation phase and then in a relaxed drying machine; e) said bags are opened and the material is thrown into the tumblers, suitable to carry out the tumbling in order to pulverize it, in such a way as to obtain a homogenous fragmentation and keep the fibrils whole, where said fibroin powder is comprised in a range of 10/30 μm.
A process for the production of olefins, characterized by contacting a stream containing at least 50 % by weight of one or more light alcohols with at least one ionic liquid, without the use of acid, in a reactor; wherein the reaction of the stream containing light alcohols with the at least one ionic liquid occurs at a temperature within the range of 30 to 180 °C and at a pressure of from 1 MPa to 20 MPa; wherein the said light alcohols contain 2 carbon atoms; and wherein the at least one ionic liquid is an organic compound of formula R 1 ImR 2.X, wherein R 1 is an alkyl group comprising from 1 to 20 carbon atoms, R 2 is an alkyl group comprising from 1 to 10 carbon atoms, Im is the imidazole ring (C 3 N 2 H 3) and X is an anion selected from the group consisting in [NO 3] -, [BF 4] -, [(R F)BF 3] -, [(R F) 2 BF 2] -, [(R F) 3 BF] -, [(R F) 4 B] -, [B 4] -, [PO 4] 3-, [alkyl-OPO 3] 2-, [(alkyl-O) 2 PO 2] -, [alkyl-PO 3] -, [R F PO 3] -, [(alkyl) 2 PO 2] -, [(R F) 2 PO 2] -, [R F SO 3] -, [alkyl-SO 3] -, [aryl-SO 3] -, [alkyl-OSO 3] -, [R F C O] -, [(R F SO 2) 2 N] -, {[(R F) 2 P] 2 N} -, Cl - and/or Br -.
1. A heart valve prosthesis, for the treatment of an insufficient tricuspid valve, the heart valve prosthesis comprising a stent-type tubular support structure and a biological heart valve, wherein the stent-type support structure is configured to autonomously expand from a radially compressed state into a radially expanded state and has a fluid-tight tubular covering tubularly extending over at least portions of the stent-type support structure, wherein the heart valve is disposed in a lateral opening of the support structure, wherein the support structure forms a tubular wall, characterized in that the lateral opening of the support structure is disposed in a common plane with the tubular wall, and, thus, follows a curvature of the tubular wall, and that the heart valve is fixedly connected with the stent-type tubular support structure within the lateral opening.
A refrigeration system containing: at least one motor driven refrigerant compressor, at least one motor driven fan (308, 310), at least one temperature sensor, and a refrigeration system controller, at least one of the compressor or fan motors (308, 309, 310) being electronically commutated motors, and the refrigeration system controller containing at least one microprocessor commutating at least one of the electronically commutated motors driven from the system controller and the operation of any other motors in the refrigeration system and the operation of other ancillaries of the refrigeration system, the microprocessor additionally commutating at least said electronically commutated motor in relation to at least the temperature sensor output, characterised in the commutation of at least one motor being a primary microprocessor task and monitoring the sensors and reacting to their inputs being a secondary microprocessor task, wherein said secondary microprocessor task is interrupted by higher-priority interrupts related to the time-critical aspects of the commutation of the motors. at least one motor driven refrigerant compressor, at least one motor driven fan (308, 310), at least one temperature sensor, and a refrigeration system controller, at least one of the compressor or fan motors (308, 309, 310) being electronically commutated motors, and the refrigeration system controller containing at least one microprocessor commutating at least one of the electronically commutated motors driven from the system controller and the operation of any other motors in the refrigeration system and the operation of other ancillaries of the refrigeration system, the microprocessor additionally commutating at least said electronically commutated motor in relation to at least the temperature sensor output, characterised in the commutation of at least one motor being a primary microprocessor task and monitoring the sensors and reacting to their inputs being a secondary microprocessor task, wherein said secondary microprocessor task is interrupted by higher-priority interrupts related to the time-critical aspects of the commutation of the motors.
A method performed by a first interworking function, IWF, for communicating packets between a radio equipment, RE, and a radio equipment controller, REC, of a radio base station, RBS, comprising: receiving a packet sent from another IWF of the radio base station and having internal RBS interface information and residence time measurement, RTM, information that characterizes an asymmetry between processing times on links in different directions between the RE and the REC, wherein the packet includes an RTM header having the RTM information of the packet; determining an asymmetry compensation that compensates for the asymmetry using the RTM information; and applying the asymmetry compensation to a timestamp of the internal RBS interface information to obtain an updated internal RBS interface information; and transmitting the updated internal RBS interface information to one of the RE and the REC that is attached to the first IWF. receiving a packet sent from another IWF of the radio base station and having internal RBS interface information and residence time measurement, RTM, information that characterizes an asymmetry between processing times on links in different directions between the RE and the REC, wherein the packet includes an RTM header having the RTM information of the packet; determining an asymmetry compensation that compensates for the asymmetry using the RTM information; and applying the asymmetry compensation to a timestamp of the internal RBS interface information to obtain an updated internal RBS interface information; and transmitting the updated internal RBS interface information to one of the RE and the REC that is attached to the first IWF.
A child safety seat assembly adapted to be mounted on a vehicle seat with a safety belt unit that includes a first belt provided with a catch, and a second belt provided with a buckle for engaging the catch, said child safety seat assembly comprising: a seat body having two opposite lateral sides (111, 112) and a rear side interconnecting said lateral sides; and a buckle-positioning member that is provided on said seat body and that is operable to hold the buckle at one of said lateral sides of said seat body; said buckle positioning member includes a fastening belt with two end portions; wherein the two end portions of the fastening belt are fastened to either one of the two lateral sides (111, 112) of the seat body or fastened respectively to the lateral side and the rear side; characterised in that the two end portions of the fastening belt extend into the seat body and are sleeved on a pair of spaced-apart rods mounted in the seat body. a seat body having two opposite lateral sides (111, 112) and a rear side interconnecting said lateral sides; and a buckle-positioning member that is provided on said seat body and that is operable to hold the buckle at one of said lateral sides of said seat body; said buckle positioning member includes a fastening belt with two end portions; wherein the two end portions of the fastening belt are fastened to either one of the two lateral sides (111, 112) of the seat body or fastened respectively to the lateral side and the rear side; characterised in that the two end portions of the fastening belt extend into the seat body and are sleeved on a pair of spaced-apart rods mounted in the seat body.