mhurhangee/ep-ind-claims huggingface dataset:
A laundry washing and drying machine comprising a drum for placing laundry therein, a tub wherein the drum is configured to move, a circulation duct wherein the processing air circulation is performed, a process fan for providing circulation of the processing air, a heater, a temperature sensor measuring the processing air temperature, an air-cooled condenser disposed in the circulation duct, a cooling fan and a cooling channel configured to that cool the condenser by delivering the cooling air sucked from the outside environment to the condenser and a control unit configured to regulate a laundry drying process to be realised by performing a preheating phase, then a thermal spin phase, then a main drying phase, and then a cooling phase, characterized in that the control unit is configured to regulate the laundry drying process so that: - the heater and the process fan are operated in the preheating phase to increase the temperature of the laundry before the thermal spin phase; - the laundry is spin-dried while the heater, the process fan, and the cooling fan are not operated during the thermal spin phase; and that the control unit is configured to delay the operation of the cooling fan until the processing air temperature detected by the temperature sensor reaches the temperature value predetermined and recorded in the memory thereof at the beginning of the main drying phase following the thermal spin phase. - the heater and the process fan are operated in the preheating phase to increase the temperature of the laundry before the thermal spin phase; - the laundry is spin-dried while the heater, the process fan, and the cooling fan are not operated during the thermal spin phase; and that the control unit is configured to delay the operation of the cooling fan until the processing air temperature detected by the temperature sensor reaches the temperature value predetermined and recorded in the memory thereof at the beginning of the main drying phase following the thermal spin phase.
Method for determining an optimal interconnection topology of a system including service nodes (N ij) interconnected using links some of which are routers with ports, and belonging to at least one level, characterised in that it includes at least one step in which a structure is chosen for an optimal interconnection topology to be determined from among a set of structures each defined by at least one structural constraint, and at least one topology parameter is then chosen from among a maximum number of ports of the routers, a number of levels of routers, a number of service nodes (N ij) connected to a router belonging to the first level and called hereinafter a "leaf router", a number of service nodes of a level i-1 connected to a given router of a level i, a number of routers of a level i connected to a given service node of a level i-1, a number of links between a router of a level i and a service node (N i-1j) of a level i -1, and a second step in which one determines by means of a solver the said optimal interconnection topology defined by at least one corresponding structural constraint and each chosen topology parameter and at least one chosen optimisation criterion.
A power protection and distribution assembly comprising an arc flash protection system and a trip system, the trip system configured to conditionally trip an upstream circuit breaker to isolate a power distribution bus or one of its component parts from a power source, wherein the trip system comprises: a status circuit configured to generate a current status signal indicating whether or not current characteristic of an arc event is detected; a full-duplex signaling module comprising a transmitter in series with a receiver between a pair of conductors, wherein the pair of conductors is configured to couple the trip system to the arc flash protection system, wherein the assembly is characterized in that: the transmitter is configured to send the current status signal to the arc flash protection system by modulating the magnitude of a voltage across the pair of conductors; and the receiver is configured to receive a control signal from the arc flash protection system by demodulating the magnitude of a current through the pair of conductors, as distinctively modulated by the arc flash protection system; and a driver configured to trip the upstream breaker in accordance with the control signal. a status circuit configured to generate a current status signal indicating whether or not current characteristic of an arc event is detected; a full-duplex signaling module comprising a transmitter in series with a receiver between a pair of conductors, wherein the pair of conductors is configured to couple the trip system to the arc flash protection system, wherein the assembly is characterized in that: the transmitter is configured to send the current status signal to the arc flash protection system by modulating the magnitude of a voltage across the pair of conductors; and the receiver is configured to receive a control signal from the arc flash protection system by demodulating the magnitude of a current through the pair of conductors, as distinctively modulated by the arc flash protection system; and the transmitter is configured to send the current status signal to the arc flash protection system by modulating the magnitude of a voltage across the pair of conductors; and the receiver is configured to receive a control signal from the arc flash protection system by demodulating the magnitude of a current through the pair of conductors, as distinctively modulated by the arc flash protection system; and a driver configured to trip the upstream breaker in accordance with the control signal.
A paint package lid (14, 114), comprising: a base wall having a lid base wall upper surface (56, 156) and a lid base wall lower surface; a container coupling rim disposed radially outwardly with respect to the base wall and having a rim upper surface, and including a bight; a pry flange extending radially outwardly from the bight; and a container coupling skirt extending axially downwardly from the pry flange; and a closure well (64, 164) disposed radially inwardly with respect to the base wall and including: a radially outer wall extending downwardly with respect to the base wall; a lower wall extending radially inwardly with respect to the radially outer wall and establishing a lowermost surface of the lid; and a neck (86, 186) disposed radially inwardly with respect to the radially outer wall and extending upwardly from the lower wall and having a closure coupling, wherein the bight of the container coupling rim establishes the rim upper surface, and the neck of the closure well terminates in a neck upper surface (90, 190) that is axially recessed with respect to the rim upper surface, and wherein the container coupling skirt of the container coupling rim has a skirt lower surface; characterized in that the lowermost surface of the lid is axially spaced below the skirt lower surface. a base wall having a lid base wall upper surface (56, 156) and a lid base wall lower surface; a container coupling rim disposed radially outwardly with respect to the base wall and having a rim upper surface, and including a bight; a pry flange extending radially outwardly from the bight; and a container coupling skirt extending axially downwardly from the pry flange; and a bight; a pry flange extending radially outwardly from the bight; and a container coupling skirt extending axially downwardly from the pry flange; and a closure well (64, 164) disposed radially inwardly with respect to the base wall and including: a radially outer wall extending downwardly with respect to the base wall; a lower wall extending radially inwardly with respect to the radially outer wall and establishing a lowermost surface of the lid; and a neck (86, 186) disposed radially inwardly with respect to the radially outer wall and extending upwardly from the lower wall and having a closure coupling, a radially outer wall extending downwardly with respect to the base wall; a lower wall extending radially inwardly with respect to the radially outer wall and establishing a lowermost surface of the lid; and a neck (86, 186) disposed radially inwardly with respect to the radially outer wall and extending upwardly from the lower wall and having a closure coupling, wherein the bight of the container coupling rim establishes the rim upper surface, and the neck of the closure well terminates in a neck upper surface (90, 190) that is axially recessed with respect to the rim upper surface, and wherein the container coupling skirt of the container coupling rim has a skirt lower surface; characterized in that the lowermost surface of the lid is axially spaced below the skirt lower surface.
Method for updating data embedded in an electronic device comprising a communication interface (ETHIF) and being suitable to be controlled remotely by a remote control device, said electronic device comprising a mechanical cabinet and being configurable into at least one standby mode and one normal mode, said mechanical cabinet comprising a receptacle for storing said remote control device, said method being such that it comprises the steps of: - configuring said electronic device in said standby mode when a presence of said remote control device in said receptacle (RCSOC) is detected; - updating embedded data via said communication interface. - configuring said electronic device in said standby mode when a presence of said remote control device in said receptacle (RCSOC) is detected; - updating embedded data via said communication interface.
A sliding component comprising a pair of sliding parts each having a sealing surface, wherein in use the sealing surfaces of the sliding parts are sliding relative to each other, wherein on one sealing face of the pair of sliding parts there are multiple positive pressure-generating mechanisms separately arranged in a circumferential direction, wherein the multiple positive pressure generating mechanisms comprise extremely shallow parallel grooves extending in parallel with said one sealing face and having submicron-level height differences; wherein the extremely shallow parallel grooves are further arranged such that to be connected to a high-pressure fluid side, but to be isolated from a low-pressure fluid side by a seal area of said one sealing face; wherein extremely shallow thin grooves having predetermined pitch p of 1 to 500 μm are formed at a bottom of the extremely shallow parallel grooves, wherein the extremely shallow parallel grooves have a depth h of 10 nm to 1 μm, while the extremely shallow thin grooves have a depth a of 10 nm to 1 μm.
A fluid handling tube, comprising a tube body and a cap, the tube body comprising an exterior surface and an interior surface; the cap comprising a proximal surface, a distal surface, a cap rim, a cap rim exterior surface, and a tubular sealing member protruding from the distal surface; the sealing member comprising a distal terminus opposite the distal surface of the cap, an interior surface, and a substantially smooth exterior surface configured to seal with the interior surface of the tube body; the cap comprising an anterior tube fastener member comprising an operator engagement surface; and characterized in that the cap comprises one or more grooves (843, 843A, 843B) disposed between the sealing member and the fastener member, wherein each of the one or more grooves (843, 843A, 843B) terminates at the cap rim exterior surface. the tube body comprising an exterior surface and an interior surface; the cap comprising a proximal surface, a distal surface, a cap rim, a cap rim exterior surface, and a tubular sealing member protruding from the distal surface; the sealing member comprising a distal terminus opposite the distal surface of the cap, an interior surface, and a substantially smooth exterior surface configured to seal with the interior surface of the tube body; the cap comprising an anterior tube fastener member comprising an operator engagement surface; and characterized in that the cap comprises one or more grooves (843, 843A, 843B) disposed between the sealing member and the fastener member, wherein each of the one or more grooves (843, 843A, 843B) terminates at the cap rim exterior surface.
A pre-treatment composition for pre-treating a recording medium for receiving inkjet ink, said composition comprising: a. an aqueous liquid vehicle, b. a polyvalent metal salt as fixing agent, c. and a latex resin characterised in that: the latex resin has an acid number of less than 20; the latex resin is present in the pre-treatment composition in an amount representing from 10 to 70 wt % of the total weight of the pre-treatment composition; and the latex resin is selected from acrylic polymers or copolymers; vinyl acetate polymers or copolymers; polyester polymers or copolymers; vinylidene chloride polymers or copolymers; butadiene polymers or copolymers; styrene-butadiene polymers or copolymers; and acrylonitrile-butadiene polymers or copolymers. a. an aqueous liquid vehicle, b. a polyvalent metal salt as fixing agent, c. and a latex resin characterised in that: the latex resin has an acid number of less than 20; the latex resin is present in the pre-treatment composition in an amount representing from 10 to 70 wt % of the total weight of the pre-treatment composition; and the latex resin is selected from acrylic polymers or copolymers; vinyl acetate polymers or copolymers; polyester polymers or copolymers; vinylidene chloride polymers or copolymers; butadiene polymers or copolymers; styrene-butadiene polymers or copolymers; and acrylonitrile-butadiene polymers or copolymers. the latex resin has an acid number of less than 20; the latex resin is present in the pre-treatment composition in an amount representing from 10 to 70 wt % of the total weight of the pre-treatment composition; and the latex resin is selected from acrylic polymers or copolymers; vinyl acetate polymers or copolymers; polyester polymers or copolymers; vinylidene chloride polymers or copolymers; butadiene polymers or copolymers; styrene-butadiene polymers or copolymers; and acrylonitrile-butadiene polymers or copolymers.
A radar apparatus configured to receive a transmission wave reflected by a target object by a plurality of antennas, comprising: a signal analysis unit configured to analyze reception waves received by the respective antennas, and to obtain an amplitude and a phase of each of the reception waves received at the respective antennas, the amplitude and the phase being obtained at a frequency with which a reception strength shows a peak; a direction detection unit configured to detect a direction of the target object based on the phases of the reception waves received by the respective antennas; an estimated amplitude and phase output unit configured to output an estimated amplitude and an estimated phase of each of reception waves to be received by the respective antennas, assuming that the target object exists in the direction detected by the direction detection unit; and a comparison unit configured to compare at least one of the amplitudes and the phases for each of the antennas such that the amplitude obtained by the signal analysis unit is compared with the amplitude output by the estimated amplitude and phase output unit, and the phase obtained by the signal analysis unit is compared with the phase output by the estimated amplitude and phase output unit, and when determining that at least one of the amplitude and the phase shows a significant difference, or at least one of the amplitude ratio and the phase difference shows the significant difference, to determine that two or more of the radio waves come in the direction. a signal analysis unit configured to analyze reception waves received by the respective antennas, and to obtain an amplitude and a phase of each of the reception waves received at the respective antennas, the amplitude and the phase being obtained at a frequency with which a reception strength shows a peak; a direction detection unit configured to detect a direction of the target object based on the phases of the reception waves received by the respective antennas; an estimated amplitude and phase output unit configured to output an estimated amplitude and an estimated phase of each of reception waves to be received by the respective antennas, assuming that the target object exists in the direction detected by the direction detection unit; and a comparison unit configured to compare at least one of the amplitudes and the phases for each of the antennas such that the amplitude obtained by the signal analysis unit is compared with the amplitude output by the estimated amplitude and phase output unit, and the phase obtained by the signal analysis unit is compared with the phase output by the estimated amplitude and phase output unit, and when determining that at least one of the amplitude and the phase shows a significant difference, or at least one of the amplitude ratio and the phase difference shows the significant difference, to determine that two or more of the radio waves come in the direction.
An electronic device including a flexible display, the flexible display comprising: a first layer including a first member; a second layer (601, 701) which is formed under the first layer and includes a second member; and a third layer (602, 702) which is formed between the first layer and the second layer (601, 701) and includes an adhesive member, comprising: a first adhesive member (6021, 7021) having a first attribute is disposed in a display area (area A) of the third layer (602, 702) configured not to be deformed, and a second adhesive member (6022, 7022) having a second attribute disposed in a foldable area (area B) of the third layer (602, 702), wherein the first attribute is configured for the first adhesive member to be harder than the second adhesive member, configured with the second attribute; and wherein the display area (area A) configured not to be deformed is disposed on either side of the foldable area (area B), and wherein a part of the first adhesive member overlaps the second adhesive member in the foldable area (area B), or a part of the second adhesive member overlaps the first adhesive member in the display area (area A), on either side of the foldable area (area B). a first layer including a first member; a second layer (601, 701) which is formed under the first layer and includes a second member; and a third layer (602, 702) which is formed between the first layer and the second layer (601, 701) and includes an adhesive member, comprising: a first adhesive member (6021, 7021) having a first attribute is disposed in a display area (area A) of the third layer (602, 702) configured not to be deformed, and a second adhesive member (6022, 7022) having a second attribute disposed in a foldable area (area B) of the third layer (602, 702), wherein the first attribute is configured for the first adhesive member to be harder than the second adhesive member, configured with the second attribute; and wherein the display area (area A) configured not to be deformed is disposed on either side of the foldable area (area B), and wherein a part of the first adhesive member overlaps the second adhesive member in the foldable area (area B), or a part of the second adhesive member overlaps the first adhesive member in the display area (area A), on either side of the foldable area (area B). a first adhesive member (6021, 7021) having a first attribute is disposed in a display area (area A) of the third layer (602, 702) configured not to be deformed, and a second adhesive member (6022, 7022) having a second attribute disposed in a foldable area (area B) of the third layer (602, 702), wherein the first attribute is configured for the first adhesive member to be harder than the second adhesive member, configured with the second attribute; and wherein the display area (area A) configured not to be deformed is disposed on either side of the foldable area (area B), and wherein a part of the first adhesive member overlaps the second adhesive member in the foldable area (area B), or a part of the second adhesive member overlaps the first adhesive member in the display area (area A), on either side of the foldable area (area B).
A composition comprising a modified mRNA encoding a VEGF-A polypeptide of SEQ ID NO: 2 and a citrate saline buffer, wherein the citrate saline buffer is free of divalent cations, wherein said composition is for use in a method of therapy.
A method, implemented by a wireless transmit/receive unit, WTRU, for controlling enhanced dedicated channel, E-DCH, transmissions, the method comprising: receiving an uplink scheduling absolute grant; processing the uplink scheduling absolute grant to calculate a serving grant; determining that a hybrid automatic repeat request, H-ARQ, process for scheduled data is not available or that scheduled data is not available; determining that a H-ARQ process for non-scheduled data and non-scheduled data is available; determining that there is no non-scheduled grant available; identifying a H-ARQ process to use for transmission in an upcoming transmission time interval, TTI; determining that there is a scheduling information triggering event; generating scheduling information bits in response to the scheduling information triggering event; calculating a remaining power available for the upcoming TTI based on a maximum allowed power for the WTRU; performing E-DCH transport format combination, E-TFC, restriction based on the remaining power; selecting an E-TFC from a set of E-TFCs remaining after E-TFC restriction; generating a medium access control for enhanced uplink, MAC-e, protocol data unit, PDU, that includes the scheduling information bits; and transmitting the MAC-e PDU in the upcoming TTI using the identified H-ARQ process. receiving an uplink scheduling absolute grant; processing the uplink scheduling absolute grant to calculate a serving grant; determining that a hybrid automatic repeat request, H-ARQ, process for scheduled data is not available or that scheduled data is not available; determining that a H-ARQ process for non-scheduled data and non-scheduled data is available; determining that there is no non-scheduled grant available; identifying a H-ARQ process to use for transmission in an upcoming transmission time interval, TTI; determining that there is a scheduling information triggering event; generating scheduling information bits in response to the scheduling information triggering event; calculating a remaining power available for the upcoming TTI based on a maximum allowed power for the WTRU; performing E-DCH transport format combination, E-TFC, restriction based on the remaining power; selecting an E-TFC from a set of E-TFCs remaining after E-TFC restriction; generating a medium access control for enhanced uplink, MAC-e, protocol data unit, PDU, that includes the scheduling information bits; and transmitting the MAC-e PDU in the upcoming TTI using the identified H-ARQ process.