mhurhangee/ep-ind-claims huggingface dataset:
Method for washing laundry in a laundry washing machine (1; 300; 400) comprising a washing tub external to a rotatable washing drum suited to receive laundry, the method comprising: - a washing phase in which laundry loaded into said washing drum is washed with water and detergent; - a rinsing phase in which said laundry is rinsed by clean water; and - a spinning phase in which said washing drum is rotated in such a way to extract water from said loaded laundry, the method further comprising, between said rinsing phase and said spinning phase, a heating phase in which said laundry is heated, wherein said heating phase comprises heating the residual clean water contained in said laundry load after said rinsing phase by a source of hot air, or of infrared rays or by a microwave generator or said heating phase comprises heating the clean or substantially clean water that wets said loaded laundry or said heating phase comprises heating said loaded laundry with steam, said heating phase comprising heating the clean or substantially clean water that wets said loaded laundry comprises the steps of: - after the rinsing phase, introducing in the tub a prefixed quantity of clean water Qw set to reach a first level L1 in the tub covering an electrical resistor placed on the bottom of the tub, and wetting the lower portion of the laundry, then - activating said electrical resistor heating the clean water Qw at level L1 to heat the laundry which is partially immersed therein; wherein said method further comprises re-circulating the water in the washing tub during said heating phase. - a washing phase in which laundry loaded into said washing drum is washed with water and detergent; - a rinsing phase in which said laundry is rinsed by clean water; and - a spinning phase in which said washing drum is rotated in such a way to extract water from said loaded laundry, - after the rinsing phase, introducing in the tub a prefixed quantity of clean water Qw set to reach a first level L1 in the tub covering an electrical resistor placed on the bottom of the tub, and wetting the lower portion of the laundry, then - activating said electrical resistor heating the clean water Qw at level L1 to heat the laundry which is partially immersed therein;
Drive (A1; A101; A201), in particular gas-control-valve drive, comprising a motor flange (51; 151; 251), a control rod (53; 153; 253) which is guided through the motor flange (51; 151; 251), a movement generator, and a motor housing which forms an accommodating space (61; 161) for the movement generator, and also a seal space (D9; D109) which is arranged before the motor flange (51; 151; 251), wherein the seal space (D9; D109) is de-aerated, wherein the drive (A1; A101; A201) comprises a bearing bushing (52; 152; 252) which is accommodated in an opening (54; 154; 254) of the motor flange (51; 151; 251) and which has an opening (55; 155) in which the control rod (53; 153; 253) is guided, characterized in that the bearing bushing (52; 152; 252) and/or the motor flange (51; 151; 251) are/is shaped in such a way that, between the motor flange (51; 151; 251) and the bearing bushing (52; 152; 252), there is formed at least one groove (52b; 152b; 251b) which is arranged eccentrically in relation to a displacement axis (V53; V153; V253) of the control rod (53; 153; 253) and by way of which the accommodating space (61; 161) and the seal space (D9; D109) are connected for de-aeration.
A method for controlling an injection molding machine having a mold forming a mold cavity, the injection molding machine being controlled according to an injection cycle, the method comprising: injecting a molten polymer into the mold cavity according to the injection cycle using a screw that moves from a first position to a second position; upon completion of the injection cycle, commencing a recovery profile in which the screw is moved to the first position; measuring, using a sensor, at least one variable during the recovery profile; and adjusting at least one operational parameter of the injection molding machine based on the at least one measured variable during the recovery profile characterized in that the at least one variable comprises a nozzle pressure, and the operational parameter comprises a back pressure, the back pressure being adjusted according to the sensed nozzle pressure. injecting a molten polymer into the mold cavity according to the injection cycle using a screw that moves from a first position to a second position; upon completion of the injection cycle, commencing a recovery profile in which the screw is moved to the first position; measuring, using a sensor, at least one variable during the recovery profile; and adjusting at least one operational parameter of the injection molding machine based on the at least one measured variable during the recovery profile characterized in that the at least one variable comprises a nozzle pressure, and the operational parameter comprises a back pressure, the back pressure being adjusted according to the sensed nozzle pressure.
A method to image an in vivo object in an eye comprising: illuminating an object in the eye by a light source; axially displacing one or more detectors so as to receive light from a conjugate plane behind a confocal plane of said object, said conjugate plane acting as a light screen; receiving at said one or more detectors a backscattered light from said light source which has been refracted at least in part by said object before being backscattered from said light screen to provide a detector data; and processing said detector data over a time period by a computer to generate information including an internal structure of said object or a type of said object. illuminating an object in the eye by a light source; axially displacing one or more detectors so as to receive light from a conjugate plane behind a confocal plane of said object, said conjugate plane acting as a light screen; receiving at said one or more detectors a backscattered light from said light source which has been refracted at least in part by said object before being backscattered from said light screen to provide a detector data; and processing said detector data over a time period by a computer to generate information including an internal structure of said object or a type of said object.
Method for weight determination of a load lifted by an actuator, where the weight determination is based on at least one upward and one downward displacement of the actuator, where the actuator is displaced due to a flow initiated in a hydraulic tubing system, where the hydraulic pressure is measured by means of a pressure gauge, whereby a pressure signal is generated, and that a deviation-dependent parameter is generated via a flow signal, which is based on the actuator displacement speed, and via a setpoint, and that a regulation parameter is generated based on this for regulation of the actuator, characterized in that a deviation-dependent parameter is recorded by means of a regulation parameter, and in that the weight determination is performed depending on the deviation-dependent parameter and on the regulation parameter.
A method performed by a node of a network, the method comprising: monitoring data transmissions between a plurality of resources, wherein the plurality of resources comprises at least one processing instance and multiple data sources accessible by the at least one processing instance, wherein the monitored data transmissions are associated with access by the at least one processing instance to the multiple data sources; generating a model that includes a multidimensional communication pattern matrix, wherein a first dimension of the communication pattern matrix represents the at least one processing instance and wherein the remaining dimensions of the communication pattern matrix represent keyspaces of access keys of respective ones of the multiple data sources accessible by the at least one processing instance, wherein access keys belonging to a same data source partition form a block of consecutive indices, and wherein each one of multiple cells of the communication pattern matrix for one of the at least one processing instance defines the frequency with which the processing instance accesses a respective combination of keys from the multiple data sources; identifying, from the generated model, a pattern in the monitored data transmissions between the plurality of resources; and adapting a distribution of the plurality of resources at the node of the network based on the identified pattern in the monitored data transmissions. monitoring data transmissions between a plurality of resources, wherein the plurality of resources comprises at least one processing instance and multiple data sources accessible by the at least one processing instance, wherein the monitored data transmissions are associated with access by the at least one processing instance to the multiple data sources; generating a model that includes a multidimensional communication pattern matrix, wherein a first dimension of the communication pattern matrix represents the at least one processing instance and wherein the remaining dimensions of the communication pattern matrix represent keyspaces of access keys of respective ones of the multiple data sources accessible by the at least one processing instance, wherein access keys belonging to a same data source partition form a block of consecutive indices, and wherein each one of multiple cells of the communication pattern matrix for one of the at least one processing instance defines the frequency with which the processing instance accesses a respective combination of keys from the multiple data sources; identifying, from the generated model, a pattern in the monitored data transmissions between the plurality of resources; and adapting a distribution of the plurality of resources at the node of the network based on the identified pattern in the monitored data transmissions.
An ester compound represented by the formula: wherein R represents a C1-C4 alkyl group or a C3-C4 alkenyl group, and A represents a single bond or an oxygen atom.
A method for providing to a user a higher resolution media segment by enhancing a low-resolution media segment, the method being performed by an edge delivery node, a set-top-box or a user device and comprising: - obtaining the low-resolution media segment; - obtaining a neural network operative to enhance media segments from a network service; - using the neural network to enhance the low-resolution media segment into the higher resolution media segment; and - providing the higher resolution media segment to the user. - obtaining the low-resolution media segment; - obtaining a neural network operative to enhance media segments from a network service; - using the neural network to enhance the low-resolution media segment into the higher resolution media segment; and - providing the higher resolution media segment to the user.
A unified lift vehicle for maneuvering a payload, comprising: a plurality of individual lift vehicles, each individual lift vehicle operative to perform controlled three-axis flight; and a plurality of connection mechanisms rigidly and communicatively connecting the plurality of individual lift vehicles in a lifting array formation (301, 303, 501, 601, to create the unified lift vehicle operative to perform three-axis flight, characterized in that each individual lift vehicle comprises connector junctions and each connection mechanism comprises: a first half, a second half, associated fasteners securing the first and second halves together, connection apertures defined by the first and second halves (1504, 1506), when joined together, and sized and shaped to receive connector junctions of the individual lift vehicles, and a signal transfer line for transferring electrical and/or data signals between adjacent individual lift vehicles, wherein each connection aperture has at least one connector (1512, 1514) for communicatively coupling the signal transfer line to distribution lines of the adjacent individual lift vehicles. a plurality of individual lift vehicles, each individual lift vehicle operative to perform controlled three-axis flight; and a plurality of connection mechanisms rigidly and communicatively connecting the plurality of individual lift vehicles in a lifting array formation (301, 303, 501, 601, to create the unified lift vehicle operative to perform three-axis flight, characterized in that each individual lift vehicle comprises connector junctions and each connection mechanism comprises: a first half, a second half, associated fasteners securing the first and second halves together, connection apertures defined by the first and second halves (1504, 1506), when joined together, and sized and shaped to receive connector junctions of the individual lift vehicles, and a signal transfer line for transferring electrical and/or data signals between adjacent individual lift vehicles, wherein each connection aperture has at least one connector (1512, 1514) for communicatively coupling the signal transfer line to distribution lines of the adjacent individual lift vehicles. a first half, a second half, associated fasteners securing the first and second halves together, connection apertures defined by the first and second halves (1504, 1506), when joined together, and sized and shaped to receive connector junctions of the individual lift vehicles, and a signal transfer line for transferring electrical and/or data signals between adjacent individual lift vehicles, wherein each connection aperture has at least one connector (1512, 1514) for communicatively coupling the signal transfer line to distribution lines of the adjacent individual lift vehicles.
A method (100, 200, 300) of preparing a subsequent secured authentication of a physical object or group of physical objects (PO(s)) by a recipient (B, B') thereof, the method comprising: receiving or generating predicted context data representing a predicted future location relating to a designated next recipient (B; B') of the physical object or group of physical objects (PO(s)) and a related future time of presence of the physical object or group of physical objects (PO(s)) at that future location; receiving or generating random context data indicating a random location and a random time; combining, according to a first predetermined combination scheme, the predicted context data and the random context data to thereby derive modified context data representing a modified random location and a modified random time, each resulting from the combining; encrypting the modified context data to obtain a secured start data package (SSDP) representing the modified context data; and storing said secured start data package (SSDP), or causing it to be stored, to a first data storage and providing the secured data package (SSDP) for a subsequent secured authentication of a physical object or group of physical objects (PO(s)). receiving or generating predicted context data representing a predicted future location relating to a designated next recipient (B; B') of the physical object or group of physical objects (PO(s)) and a related future time of presence of the physical object or group of physical objects (PO(s)) at that future location; receiving or generating random context data indicating a random location and a random time; combining, according to a first predetermined combination scheme, the predicted context data and the random context data to thereby derive modified context data representing a modified random location and a modified random time, each resulting from the combining; encrypting the modified context data to obtain a secured start data package (SSDP) representing the modified context data; and storing said secured start data package (SSDP), or causing it to be stored, to a first data storage and providing the secured data package (SSDP) for a subsequent secured authentication of a physical object or group of physical objects (PO(s)).
A one-step process for the production of chlorinated and/fluorinated propenes comprising: reacting i) a chloroethylene or a chlorofluoroethylene having the formula CHCl=CX 2 wherein each X is independently Cl or F; and ii) a methane, chloromethane, fluoromethane or chlorofluoromethane having the formula CH 4-a-b Cl a F b, wherein a is 0-3 and b is 0-3 and 4-a-b is greater than 0, to provide at least one chlorinated and/or fluorinated propene, wherein the process is carried out at a temperature of less than 450 °C, and a pressure of greater than ambient, wherein the chlorinated and/or fluorinated propene has the formula: CCl c F 2-c =CH-CH 3-e-f Cl e F f wherein c is 0-2, e is 0-3, and f is 0-3, and 3-e-f>=0. i) a chloroethylene or a chlorofluoroethylene having the formula CHCl=CX 2 wherein each X is independently Cl or F; and ii) a methane, chloromethane, fluoromethane or chlorofluoromethane having the formula CH 4-a-b Cl a F b,
A method for communicating information for use in a communication network using network function virtualization (NFV-based communication network), said method comprising: sending a communication from a first entity of said NFV-based communication network, said first entity being a sender; and receiving said communication by a second entity of said NFV-based communication network, said second entity being a receiver; wherein said communication comprises: an identification of said sender of said communication, and an identification of said receiver of said communication; an identification of a function associated with said NFV-based communication network; and an authorization associating at least one of said sender and said receiver with said function; wherein the communication is sent from the sender to the receiver directly; wherein a supervising entity supervises the communication between the sender and receiver and the supervising entity comprises a security module; wherein the sender obtains the security module from the supervising entity; wherein the security module operated by the sender registers itself with the supervising entity; and wherein the receiver is enabled to authenticate with the security module operated by the supervising entity the communication received from the sender. sending a communication from a first entity of said NFV-based communication network, said first entity being a sender; and receiving said communication by a second entity of said NFV-based communication network, said second entity being a receiver; wherein said communication comprises: an identification of said sender of said communication, and an identification of said receiver of said communication; an identification of a function associated with said NFV-based communication network; and an authorization associating at least one of said sender and said receiver with said function; an identification of said sender of said communication, and an identification of said receiver of said communication; an identification of a function associated with said NFV-based communication network; and an authorization associating at least one of said sender and said receiver with said function; wherein the communication is sent from the sender to the receiver directly; wherein a supervising entity supervises the communication between the sender and receiver and the supervising entity comprises a security module; wherein the sender obtains the security module from the supervising entity; wherein the security module operated by the sender registers itself with the supervising entity; and wherein the receiver is enabled to authenticate with the security module operated by the supervising entity the communication received from the sender.
Sterilization device for packaging material, comprising an electron beam emitter and a power supply comprising a housing and an electric system, wherein the housing is filled with an insulation gas, wherein the insulation gas is adapted to electrically insulate the electric system; and wherein the electric system is arranged within the housing and adapted to provide a high output voltage to an high voltage output connector attached to the housing and connected to the electron beam emitter, wherein the power supply unit comprises a heat absorber unit, the heat absorber unit comprising at least one plate, wherein the heat absorber unit in turn comprises at least one heat exchange element, the heat exchange element being arranged at the at least one plate, wherein the housing comprises at least one heat source being part of the electric system, wherein the means for conveying the insulation gas are adapted to establish an insulation gas flow that is directed at least from the at least one heat source to the at least one heat exchange element characterized in that the housing comprises means for conveying the insulation gas throughout the housing, in particular a fan, wherein the conveyed insulation gas provides a cooling effect onto the electric system and wherein the insulation gas flow is a circulating insulation gas flow.
A method for determining impedance characteristics of an electrical load, the method comprising; applying a test voltage signal to the load, receiving a load current which flows in the load, differentiating the load current and an auxiliary voltage signal, said auxiliary voltage signal having the same frequency as the test voltage signal and zero phase shift, to produce derivative signals, heterodyning the derivative signals to produce heterodyned output signals, and extracting from the heterodyned output signals a phase angle between the derivative of the load current and the derivative of the auxiliary voltage signal which is equivalent to a phase shift between the test voltage signal applied to the load and the load current flowing in the load.
Compressor for producing a pressurised fluid with a linear drive and at least one axially-driven piston-cylinder unit, which includes - a cylinder, - a piston which can be moved back and forth along the axial direction of the cylinder, between a first piston position in which the cylinder chamber enclosed between the piston and the cylinder is largest, and a second piston position in which this cylinder chamber is smallest, wherein - a drive element of the linear drive which can be moved back and forth along the axial direction of the cylinder is mechanically joined to the piston via a piston rod, characterised in that - the piston rod is joined to the piston or the drive element, at its first end and/or its second end (4") respectively, by means of an elastic device, in such a way that it can move axially relative to the piston or the drive element respectively, against the pretensioning force of the elastic device so that if, when the piston moves into the second piston position at the top end face wall, the piston head lands on the top end face wall of the cylinder bore, then the further movement of the drive element is made against the force of the elastic device, and thus the drive element is braked. - a cylinder, - a piston which can be moved back and forth along the axial direction of the cylinder, between a first piston position in which the cylinder chamber enclosed between the piston and the cylinder is largest, and a second piston position in which this cylinder chamber is smallest, wherein - a drive element of the linear drive which can be moved back and forth along the axial direction of the cylinder is mechanically joined to the piston via a piston rod, characterised in that - the piston rod is joined to the piston or the drive element, at its first end and/or its second end (4") respectively, by means of an elastic device, in such a way that it can move axially relative to the piston or the drive element respectively, against the pretensioning force of the elastic device so that if, when the piston moves into the second piston position at the top end face wall, the piston head lands on the top end face wall of the cylinder bore, then the further movement of the drive element is made against the force of the elastic device, and thus the drive element is braked.