mhurhangee/ep-ind-claims huggingface dataset:
A method for implementing a set of universal quantum gates, wherein the set of universal quantum gates comprises a controlled-SWAP (c-SWAP) gate and/or an exponential-SWAP (e-SWAP) gate between a plurality of cavities comprising a first cavity and a second cavity, a first qubit being encoded in the first cavity and a second qubit being encoded in the second cavity, the method comprising: performing, by applying microwave radiation to a coupling transmon that is dispersively coupled to both the first cavity and the second cavity, a first and a second beam splitter operation between the first cavity and the second cavity; performing, by applying microwave radiation to an ancilla transmon that is dispersively coupled to the second cavity but not coupled to the first cavity, a first and/or a second controlled phase shift operation between the second cavity and the ancilla transmon; and performing, by applying microwave radiation to the ancilla transmon, a rotation operation on the ancilla transmon. performing, by applying microwave radiation to a coupling transmon that is dispersively coupled to both the first cavity and the second cavity, a first and a second beam splitter operation between the first cavity and the second cavity; performing, by applying microwave radiation to an ancilla transmon that is dispersively coupled to the second cavity but not coupled to the first cavity, a first and/or a second controlled phase shift operation between the second cavity and the ancilla transmon; and performing, by applying microwave radiation to the ancilla transmon, a rotation operation on the ancilla transmon.
A server comprising: a request receiver that receives a request in which image ID information and a parameter for image processing are specified, from a terminal (211, 212, 200); an image processor that acquires an image (601, 602, 603) based on the ID information that was specified in the received request, and by using the parameter that was specified in the received request to apply, on the acquired image (601, 602, 603), the image processing including character recognition, outputs extracted information indicating a recognized character string that was extracted from inside the image (601, 602, 603); and a response transmitter that transmits a response in which the extracted information that was outputted by the image processor is specified, to the terminal (211, 212, 200); wherein after the extracted information has been extracted, the image processor associates and caches the extracted information with the image ID information and the parameter; and when the extracted information that is associated with the ID information and the parameter that were specified in the received request is cached, the image processor, instead of acquiring the image (601, 602, 603) and applying the image processing, obtains the cached extracted information, and outputs the obtained extracted information. a request receiver that receives a request in which image ID information and a parameter for image processing are specified, from a terminal (211, 212, 200); an image processor that acquires an image (601, 602, 603) based on the ID information that was specified in the received request, and by using the parameter that was specified in the received request to apply, on the acquired image (601, 602, 603), the image processing including character recognition, outputs extracted information indicating a recognized character string that was extracted from inside the image (601, 602, 603); and a response transmitter that transmits a response in which the extracted information that was outputted by the image processor is specified, to the terminal (211, 212, 200); wherein after the extracted information has been extracted, the image processor associates and caches the extracted information with the image ID information and the parameter; and when the extracted information that is associated with the ID information and the parameter that were specified in the received request is cached, the image processor, instead of acquiring the image (601, 602, 603) and applying the image processing, obtains the cached extracted information, and outputs the obtained extracted information.
A moving robot comprising: a main body; a driving unit configured to move the main body; an image acquisition unit configured to obtain an image around the main body; a communication unit configured to communicate with at least one light device disposed in a driving area; and a control unit configured to control the driving unit so that the main body moves within the driving area, and to perform turning on or off of the light device through the communication unit, characterized in that: while moving the main body to a location where illuminance is changed, the control unit is configured to determine a location of the light device based on an illuminance change in the image obtained by the image acquisition unit. a main body; a driving unit configured to move the main body; an image acquisition unit configured to obtain an image around the main body; a communication unit configured to communicate with at least one light device disposed in a driving area; and a control unit configured to control the driving unit so that the main body moves within the driving area, and to perform turning on or off of the light device through the communication unit, characterized in that: while moving the main body to a location where illuminance is changed, the control unit is configured to determine a location of the light device based on an illuminance change in the image obtained by the image acquisition unit.
A method for reversing a tubular knitted article, wherein: the tubular knitted article, engaged at a first end thereof by a pick-up device and hanging with a second end thereof from the pick-up device, is introduced in a reversing tube, the reversing tube comprising a lower end, an upper end and a side wall extending from the lower end to the upper end; the reversing tube is moved through the pick-up device so as to project with the upper end thereof above the pick-up device; and the reversing tube is moved reciprocatingly up and down between an upper position and a lower position, while co-acting with a top clamping device and a bottom clamping device until the tubular knitted article is entirely everted on the outer surface of the reversing tube. the tubular knitted article, engaged at a first end thereof by a pick-up device and hanging with a second end thereof from the pick-up device, is introduced in a reversing tube, the reversing tube comprising a lower end, an upper end and a side wall extending from the lower end to the upper end; the reversing tube is moved through the pick-up device so as to project with the upper end thereof above the pick-up device; and the reversing tube is moved reciprocatingly up and down between an upper position and a lower position, while co-acting with a top clamping device and a bottom clamping device until the tubular knitted article is entirely everted on the outer surface of the reversing tube.
Method for controlling operation of a microbial fuel cell arrangement having at least one microbial fuel cell unit, which unit comprises an anode and a cathode, which are connected with each other via an external electrical circuit, the method comprising - feeding an influent flow of liquid medium, which comprises organic substance(s), to the microbial fuel cell unit, - converting at least a part of the organic substance(s) into electrical energy in the microbial fuel cell unit by using microorganisms, - measuring potential of the anode against a reference electrode and obtaining measurement value(s), and - using the measured value(s) for controlling the feed of the influent flow to the microbial fuel cell unit, and - removing an effluent flow of treated liquid medium from the microbial fuel cell unit. - feeding an influent flow of liquid medium, which comprises organic substance(s), to the microbial fuel cell unit, - converting at least a part of the organic substance(s) into electrical energy in the microbial fuel cell unit by using microorganisms, - measuring potential of the anode against a reference electrode and obtaining measurement value(s), and - using the measured value(s) for controlling the feed of the influent flow to the microbial fuel cell unit, and - removing an effluent flow of treated liquid medium from the microbial fuel cell unit.
Steam sterilizer having a pressure vessel and having a steam generator which can be connected in terms of flow to the pressure vessel, wherein the steam generator has a liquid basin and a heating element which is arranged in the liquid basin, wherein the heating element has a heating section, which serves for heat output and comprises the entirety of all the surfaces of the heating element that serve for heat transfer, and has a connection section, which serves for connection to the steam generator, characterized in that a thread is formed in the connection section, with the aid of which thread the heating element is screwed into a heating element receiving part of the steam generator, in that the connection section has an axis of rotation about which a movement of the heating element for screwing into the heating element receiving part or for screwing out of the heating element receiving part is realized, in that a bottom side, extending along the axis of rotation, of the heating section is spaced apart further from the axis of rotation than a top side, extending along the axis of rotation, of the heating section, and in that the heating element is in the form of a tubular heater with at least one heating tube.
A method of fabricating a vacuum insulated refrigerator cabinet, the method comprising: providing a first sheet of material, the first sheet comprising a metal layer; providing a retaining structure that forms a barrier with respect to gases and water vapour; positioning porous filler material between the first sheet and the retaining structure; sealing the first sheet and retaining structure together to form a seal line that extends around the porous filler material to form an air-tight space containing the porous filler material; forming a vacuum in the airtight space; and folding the first sheet to form the vacuum insulated refrigerator cabinet with the first sheet of material forming an outer cabinet skin of the refrigerator cabinet; characterized in that: the first sheet further comprises a thermoplastic polymer layer laminated to the metal layer. providing a first sheet of material, the first sheet comprising a metal layer; providing a retaining structure that forms a barrier with respect to gases and water vapour; positioning porous filler material between the first sheet and the retaining structure; sealing the first sheet and retaining structure together to form a seal line that extends around the porous filler material to form an air-tight space containing the porous filler material; forming a vacuum in the airtight space; and folding the first sheet to form the vacuum insulated refrigerator cabinet with the first sheet of material forming an outer cabinet skin of the refrigerator cabinet; characterized in that: the first sheet further comprises a thermoplastic polymer layer laminated to the metal layer. the first sheet further comprises a thermoplastic polymer layer laminated to the metal layer.
An ultrasonic test head for the non-destructive materials testing of a component, with an ultrasonic transducer arrangement, which is designed to be coupled to the component, which arrangement comprises a multiplicity of individual transducers arranged spaced apart from one another and in a two-dimensional array, wherein at least one of the individual transducers of the array is arranged at an acute angle with respect to a bearing surface of the array which is pre-definable in such a manner that the sound waves which can be emitted by the at least one individual transducer can be coupled in in a preferred direction, which deviates from a surface normal running perpendicular to the bearing surface, when the ultrasonic test head is placed onto the component, characterized in that the at least one individual transducer has a lateral extent and a vertical extent running perpendicular thereto, wherein the lateral extent runs parallel to the bearing surface and the vertical extent runs at an acute angle with respect to the bearing surface, wherein the vertical extent has a magnitude, which is greater than the magnitude of the lateral extent.
A non-volatile memory device, comprising: a memory cell array having a three-dimensional vertically stacked structure, the memory cell array including a semiconductor layer and a variable resistance layer, the memory cell array including a plurality of memory cells that each include a corresponding portion of the semiconductor layer and a corresponding portion of the variable resistance layer, and the plurality of memory cells including a non-selected memory cell, a compensation memory cell, and a selected memory cell, wherein the compensation memory cell and the selected memory cell are connected to each other in series; a bit line configured to apply a programming voltage to the memory cell array; and a control logic configured to apply an adjusted program voltage to the selected memory cell, the adjusted program voltage being dropped compared to the programming voltage due to the compensation memory cell, based on applying a first voltage to the compensation memory cell, a second voltage to the selected memory cell, and a third voltage to the non-selected memory cell, the first voltage allowing an electric current of a certain magnitude to flow to the compensation memory cell, the second voltage allowing the electric current to flow only to the corresponding portion of the variable resistance layer of the selected memory cell, and the third voltage allowing the electric current to flow only to the semiconductor layer of the non-selected memory cell. a memory cell array having a three-dimensional vertically stacked structure, the memory cell array including a semiconductor layer and a variable resistance layer, the memory cell array including a plurality of memory cells that each include a corresponding portion of the semiconductor layer and a corresponding portion of the variable resistance layer, and the plurality of memory cells including a non-selected memory cell, a compensation memory cell, and a selected memory cell, wherein the compensation memory cell and the selected memory cell are connected to each other in series; a bit line configured to apply a programming voltage to the memory cell array; and a control logic configured to apply an adjusted program voltage to the selected memory cell, the adjusted program voltage being dropped compared to the programming voltage due to the compensation memory cell, based on applying a first voltage to the compensation memory cell, a second voltage to the selected memory cell, and a third voltage to the non-selected memory cell, the first voltage allowing an electric current of a certain magnitude to flow to the compensation memory cell, the second voltage allowing the electric current to flow only to the corresponding portion of the variable resistance layer of the selected memory cell, and the third voltage allowing the electric current to flow only to the semiconductor layer of the non-selected memory cell.
A selective antagonist for use in a method of treatment of an individual mammal, the method comprising inhibiting recurrence of seizures by inhibiting leukocyte recruitment in the mammal, wherein the selective antagonist is an antibody that blocks P-selectin or PSGL-1 (P-selectin glycoprotein ligand-1) present on leukocytes or endothelial cells.
Plant for transporting persons or goods having at least one cableway vehicle formed with a chassis and with a vehicle cabin and having at least one transport cable, to which the cableway vehicle can be coupled, or with at least one support cable (3, 3a) or at least one track, on which the at least one cableway vehicle is moveable by means of a pulling cable, to which the chassis is coupled, wherein the at least one transport cable or the at least one support cable (3, 3a) or the track is followed by at least one further track (6, 6a), in particular at least one travelling rail (61, 61a) and furthermore at least one vehicle formed with a drive motor is provided, by way of which the cableway vehicle is moveable along the further track (6, 6a), characterized in that the at least one vehicle formed with a drive motor is moveable on the at least one following track (6, 6a) and that the chassis of the cableway vehicle can be driven up onto and fastened to said vehicle as carrier vehicle, as a result of which the cableway vehicle by means of the carrier vehicle is moveable alongside the at least one following track (6, 6a).
A bandwidth allocation method, wherein the method comprises: Receiving, by an optical line terminal, OLT, a bandwidth request sent by each optical network unit, ONU, wherein the ONU comprises an ONU1, the method characterized by: Generating, by the OLT, a bandwidth map, BWMap, message according to bandwidth requested by the ONU and bandwidth configured for the ONU, wherein the BWMap message comprises at least two first allocation identifiers, Alloc-IDls, each Alloc-IDl corresponds to a first time, and any two first times are different, and both the Alloc-ID1s are allocated to the ONU1 for use; wherein a location of the at least two Alloc-ID1s are fixed in the BWMap message in each period; and:Sending, by the OLT, the BWMap message to each ONU.
A lubricant composition comprising: (a) 40 to 95 percent by weight, or 58 to 80 percent by weight, of an oil having a kinematic viscosity at 100 °C by ASTM D445 of 3 to 7.5, or 3.6 to 6, or 3.5 to 5 mm 2/ s; (b) 0.3 to 2 percent by weight of an amine salt of a phosphorus compound, or mixtures thereof, obtained by reacting phosphorus pentasulfide with one or more alcohols having 4 to 13, or 4 to 8, or 6, carbon atoms, with an alkylene oxide, and further with phosphorus pentoxide, and salting the resulting material with one or more amines having 2 to 20 or 12 to 24 carbon atoms; and (c) a sulfurized olefin in an amount to provide 0.5 to 7, or 0.5 to 1.5, or 1.5 to 2, or 3 to 5, or 2 to 3, percent by weight sulfur to the composition; wherein said composition has a kinematic viscosity at 100 °C by ASTM D445 of up to about 7.5, or 3.5 to 7.0, or 4 to 6.5, or 4 to 6 mm 2 /s. (a) 40 to 95 percent by weight, or 58 to 80 percent by weight, of an oil having a kinematic viscosity at 100 °C by ASTM D445 of 3 to 7.5, or 3.6 to 6, or 3.5 to 5 mm 2/ s; (b) 0.3 to 2 percent by weight of an amine salt of a phosphorus compound, or mixtures thereof, obtained by reacting phosphorus pentasulfide with one or more alcohols having 4 to 13, or 4 to 8, or 6, carbon atoms, with an alkylene oxide, and further with phosphorus pentoxide, and salting the resulting material with one or more amines having 2 to 20 or 12 to 24 carbon atoms; and (c) a sulfurized olefin in an amount to provide 0.5 to 7, or 0.5 to 1.5, or 1.5 to 2, or 3 to 5, or 2 to 3, percent by weight sulfur to the composition; wherein said composition has a kinematic viscosity at 100 °C by ASTM D445 of up to about 7.5, or 3.5 to 7.0, or 4 to 6.5, or 4 to 6 mm 2 /s.
A method for adjusting the position of a magnet of an angle sensor relative to a stationary GMR sensor, comprising the magnet arranged on a rotatable rotor of a drive unit, which magnet is operatively connected to the GMR sensor, wherein the GMR sensor is formed together with an analysis circuit on a carrier plate, wherein a second magnetic field sensor for detecting a field strength of a variable magnetic field generated by the magnet is a component of the analysis circuit, wherein the GMR sensor is used to infer a position of the rotor by means of the analysis circuit from the variable magnetic field generated by the magnet attached to the rotor of the drive unit, characterised in that in order to adjust the position of the magnet attached to the rotor relative to the associated GMR sensor, the magnet is moved relative to the rotor and, at the same time, the changing magnetic field strength is continuously measured with the second magnetic field sensor, which is mounted at a small distance from the GMR sensor, wherein the magnetic field strength continuously measured by the second magnetic field sensor is compared with a magnetic field strength range specified for the GMR sensor and it is determined that the magnet is in an optimum operating range when it has reached a position at which the continuously measured field strength of the second magnetic field sensor remains within the specified field strength range of the GMR sensor.
A method for transmitting uplink control information by a communication apparatus in a situation in which a plurality of cells including a Primary Cell, PCell, and a Secondary Cell, SCell, is configured in a wireless communication system, the method comprising: receiving one or more Physical Downlink Shared Channels, PDSCHs, in a first subframe; and transmitting the reception response information corresponding to the one or more PDSCHs through a Physical Uplink Control Channel, PUCCH in a second subframe configured for Scheduling Request, SR, transmission, wherein, if one PDSCH is detected on only the PCell in the first subframe and if the second subframe is a positive SR subframe, the reception response information is transmitted using an SR PUCCH resource configured by Radio Resource Control, RRC, signaling, wherein, if one PDSCH is detected only on the PCell in the first subframe and if the second subframe is a negative SR subframe, the reception response information is transmitted using a first Hybrid Automatic Repeat Request Acknowledgement, HARQ-ACK, PUCCH resource linked with an index of a resource constituting a Physical Downlink Control Channel, PDCCH, corresponding to the PDSCH on the PCell, and wherein, if at least a PDSCH is detected on the SCell in the first subframe, the reception response information and one-bit information indicating a positive/negative SR are transmitted using a second HARQ-ACK PUCCH resource configured by the RRC signaling. receiving one or more Physical Downlink Shared Channels, PDSCHs, in a first subframe; and transmitting the reception response information corresponding to the one or more PDSCHs through a Physical Uplink Control Channel, PUCCH in a second subframe configured for Scheduling Request, SR, transmission, wherein, if one PDSCH is detected on only the PCell in the first subframe and if the second subframe is a positive SR subframe, the reception response information is transmitted using an SR PUCCH resource configured by Radio Resource Control, RRC, signaling, wherein, if one PDSCH is detected only on the PCell in the first subframe and if the second subframe is a negative SR subframe, the reception response information is transmitted using a first Hybrid Automatic Repeat Request Acknowledgement, HARQ-ACK, PUCCH resource linked with an index of a resource constituting a Physical Downlink Control Channel, PDCCH, corresponding to the PDSCH on the PCell, and wherein, if at least a PDSCH is detected on the SCell in the first subframe, the reception response information and one-bit information indicating a positive/negative SR are transmitted using a second HARQ-ACK PUCCH resource configured by the RRC signaling.