mhurhangee/ep-ind-claims huggingface dataset:
A method for the evaluation of signals from a range finder, in particular a laser range finder, wherein the range finder carries out measurements cyclically, wherein for each measurement, the range finder outputs a plurality of measuring points (20a, 20b, 22, 25a, 25b, 25c), wherein each measuring point indicates a distance, wherein the range finder measures distances in a plurality of directions and a horizontal angle is associated with each measuring point (20a, 20b, 22, 25a, 25b, 25c), wherein a plurality of the measuring points (20a, 20b, 22, 25a, 25b, 25c) are differentiated into meaningful signals and interfering signals on the basis of the distance, wherein measuring points (20a, 20b, 22, 25a, 25b, 25c) with a distance below a first limiting value are identified as interfering signals (20a, 20b, 25a, 25b, 25c) and measuring points above the first limiting value are identified as meaningful signals, wherein the number of interfering signals is determined and a warning signal is emitted when the number of interfering signals satisfies a predetermined condition, wherein interfering signals are differentiated into dust signals (20a, 20b) and debris signals (25a, 25b, 25c), wherein interfering signals (20a, 20b, 25a, 25b, 25c) with a distance below a second limiting value are identified as debris signals (25a, 25b, 25c) and interfering signals (20a, 20b, 25a, 25b, 25c) above the second limiting value are identified as dust signals (20a, 20b). wherein the range finder carries out measurements cyclically, wherein for each measurement, the range finder outputs a plurality of measuring points (20a, 20b, 22, 25a, 25b, 25c), wherein each measuring point indicates a distance, wherein the range finder measures distances in a plurality of directions and a horizontal angle is associated with each measuring point (20a, 20b, 22, 25a, 25b, 25c), wherein a plurality of the measuring points (20a, 20b, 22, 25a, 25b, 25c) are differentiated into meaningful signals and interfering signals on the basis of the distance, wherein measuring points (20a, 20b, 22, 25a, 25b, 25c) with a distance below a first limiting value are identified as interfering signals (20a, 20b, 25a, 25b, 25c) and measuring points above the first limiting value are identified as meaningful signals, wherein the number of interfering signals is determined and a warning signal is emitted when the number of interfering signals satisfies a predetermined condition, wherein interfering signals are differentiated into dust signals (20a, 20b) and debris signals (25a, 25b, 25c), wherein interfering signals (20a, 20b, 25a, 25b, 25c) with a distance below a second limiting value are identified as debris signals (25a, 25b, 25c) and interfering signals (20a, 20b, 25a, 25b, 25c) above the second limiting value are identified as dust signals (20a, 20b).
A back coating composition for forming a back coating film on the back side of a mirror, which comprises a thermosetting resin, a pigment and a dispersant, wherein as the dispersant, an amino group-containing polymer having an amine value of at least 20 mgKOH/g and having no acid group, is contained, wherein the amine value is a value which is measured by JIS K7237, the acid value is a value which is measured by JIS K2501, and the acid value of the amino group-containing polymer is 0 mgKOH/g, and wherein as the thermosetting resin, an epoxy resin is contained, and further, as a curing agent for the epoxy resin, an amine-type curing agent is contained.
A cryogenic liquid storage tank, comprising: a vessel for containing a cryogenic liquid, said vessel including an ullage; a fill pipe in communication with the vessel wherein the vessel is filled with incoming cryogenic liquid via the fill pipe; a heat exchanger located within the ullage of the vessel, the heat exchanger having a coiled or serpentine heat exchanger passageway in fluid communication with the fill pipe so that incoming cryogenic liquid flows through the coiled or serpentine heat exchanger passageway, wherein the heat exchanger is configured so that when cryogenic liquid flows through the coiled or serpentine heat exchanger passageway during filling of the vessel the heat exchanger condenses hotter gas around the heat exchanger so as to reduce vapor pressure within the tank; and the heat exchanger includes an outlet end in fluid communication with the coiled or serpentine heat exchanger passageway, the outlet end being located below the ullage and being configured to dispense incoming cryogenic liquid into an existing volume of the liquid in the vessel. a vessel for containing a cryogenic liquid, said vessel including an ullage; a fill pipe in communication with the vessel wherein the vessel is filled with incoming cryogenic liquid via the fill pipe; a heat exchanger located within the ullage of the vessel, the heat exchanger having a coiled or serpentine heat exchanger passageway in fluid communication with the fill pipe so that incoming cryogenic liquid flows through the coiled or serpentine heat exchanger passageway, wherein the heat exchanger is configured so that when cryogenic liquid flows through the coiled or serpentine heat exchanger passageway during filling of the vessel the heat exchanger condenses hotter gas around the heat exchanger so as to reduce vapor pressure within the tank; and the heat exchanger includes an outlet end in fluid communication with the coiled or serpentine heat exchanger passageway, the outlet end being located below the ullage and being configured to dispense incoming cryogenic liquid into an existing volume of the liquid in the vessel.
An electronic cigarette, comprising a microcontroller, a light emitting unit and a power supply unit, wherein the microcontroller is electrically connected to the power supply unit, the light emitting unit is electrically connected to the microcontroller and the power supply unit; the power supply unit is configured to supply power to the microcontroller and the light emitting unit; the microcontroller is configured to control the light emitting unit to be in different light emitting states, so as to indicate different smoking states of the electronic cigarette; characterized in that the different light emitting states of the light emitting unit includes: gradually brightening to a preset first brightness, gradually darkening from the preset first brightness to a preset second brightness and maintaining the second brightness within a preset period of time, and stopping emitting light; wherein the light emitting unit includes a light emitting diode (Dl); wherein the microcontroller is configured to receive a first smoking signal, and then control the light emitting diode to brighten gradually until the brightness of the light emitting diode reaches a preset first brightness; the microcontroller is further configured to determine whether the first smoking signal stops, if stops, then controls the light emitting diode to darken gradually until the brightness of the light emitting diode reaches a preset second brightness; the microcontroller is further configured to begin to timekeeping when the brightness of the light emitting diode reaches the preset second brightness; if the length of timekeeping is less than or equal to the preset period of time, and the microcontroller receivers a second smoking signal, then the microcontroller controls the light emitting diode to brighten gradually from the second brightness, until the brightness of the light emitting diode reaches the preset first brightness; if the length of timekeeping is more than the preset period of time, and the microcontroller has not received the second smoking signal yet, then the microcontroller controls the light emitting diode to stop emitting light.
A method for signaling passage of an object through a central flow bore of a tool comprising: a. dropping an object through said central flow bore past an indicating device, wherein said indicating device comprises: (i) a body member connected to said tool having a first chamber in pressure communication with said central flow bore, a second chamber at substantially atmospheric pressure, and a substantially solid and non-magnetic pressure sealing barrier (36, 38) disposed between said first and second chambers, wherein said barrier isolates said first and second chambers from each other; (ii) a trigger pivotally mounted within said first chamber, wherein said trigger does not extend beyond said barrier but at least a portion of said trigger extends into said central flow bore; (iii) a sensor wholly disposed within said second chamber, adapted to sense when said magnetic field changes across said barrier; b. rotationally displacing said trigger when said launched object passes said trigger, thereby causing a change in magnetic field across said barrier; c. sensing said change in magnetic field using said sensor; and d. emitting a signal using a signal device. a. dropping an object through said central flow bore past an indicating device, wherein said indicating device comprises: (i) a body member connected to said tool having a first chamber in pressure communication with said central flow bore, a second chamber at substantially atmospheric pressure, and a substantially solid and non-magnetic pressure sealing barrier (36, 38) disposed between said first and second chambers, wherein said barrier isolates said first and second chambers from each other; (ii) a trigger pivotally mounted within said first chamber, wherein said trigger does not extend beyond said barrier but at least a portion of said trigger extends into said central flow bore; (iii) a sensor wholly disposed within said second chamber, adapted to sense when said magnetic field changes across said barrier; (i) a body member connected to said tool having a first chamber in pressure communication with said central flow bore, a second chamber at substantially atmospheric pressure, and a substantially solid and non-magnetic pressure sealing barrier (36, 38) disposed between said first and second chambers, wherein said barrier isolates said first and second chambers from each other; (ii) a trigger pivotally mounted within said first chamber, wherein said trigger does not extend beyond said barrier but at least a portion of said trigger extends into said central flow bore; (iii) a sensor wholly disposed within said second chamber, adapted to sense when said magnetic field changes across said barrier; b. rotationally displacing said trigger when said launched object passes said trigger, thereby causing a change in magnetic field across said barrier; c. sensing said change in magnetic field using said sensor; and d. emitting a signal using a signal device.
Method for at least semi-autonomous manoeuvring of a motor vehicle, in which a parking space in a surrounding area of the motor vehicle is detected on the basis of sensor data of at least one ultrasound sensor, and a distance between the motor vehicle and an object bounding the parking space is determined, a travel trajectory for parking the motor vehicle in the parking space is determined when the motor vehicle is manoeuvred along the travel trajectory, and during the manoeuvring of the motor vehicle, at a predetermined position a first distance value is determined on the basis of odometry and the determined distance, and a second distance value is determined on the basis of the sensor data, wherein the first and the second distance values (a1, a2) each describe the distance between the motor vehicle and the object, wherein a correction value for correcting the travel trajectory is determined on the basis of a comparison of the first distance value and of the second distance value, characterized in that the determined correction value is stored in a memory unit, during at least one subsequent manoeuvre of the motor vehicle into a further parking space a further correction value is determined and stored in the memory unit, wherein during the respective manoeuvring of the motor vehicle into the parking space a type of parking space is determined and is stored together with the respective correction value in the memory unit, and the systematic error for the type of parking space is determined.
A method in a user equipment, UE, for transmitting on a first allocated physical uplink control channel, PUCCH, resource, the method comprising: receiving, at the UE, a downlink control channel carrying a PUCCH resource indicator, wherein the downlink control channel is associated with a demodulation reference signal, DMRS, antenna port; mapping the PUCCH resource indicator to a first offset; determining a second offset based on a position of the received downlink control channel normalized by a first value; determining an index of the DMRS antenna port associated with the downlink control channel; determining a third offset based on the determined index of the DMRS antenna port; mapping a linear combination of the first, second, and third offsets to an index identifying the first allocated PUCCH resource; and transmitting a PUCCH on the first allocated PUCCH resource. receiving, at the UE, a downlink control channel carrying a PUCCH resource indicator, wherein the downlink control channel is associated with a demodulation reference signal, DMRS, antenna port; mapping the PUCCH resource indicator to a first offset; determining a second offset based on a position of the received downlink control channel normalized by a first value; determining an index of the DMRS antenna port associated with the downlink control channel; determining a third offset based on the determined index of the DMRS antenna port; mapping a linear combination of the first, second, and third offsets to an index identifying the first allocated PUCCH resource; and transmitting a PUCCH on the first allocated PUCCH resource.
A method for transmitting a message for a recipient, the method being performed in a message transmitter of a sender, the sender being a user of the message transmitter, the method comprising the steps of: receiving user input for a new message, the new message comprising an identifier of a recipient physical space and payload data; reading a local identifier forming part of a physical device arranged at a sender physical space, the sender physical space being associated with the sender, wherein the local identifier forms part of an electronic lock (20a, 20b); and sending a request to a message server to transmit the new message to the recipient physical space, wherein the request comprises the new message. receiving user input for a new message, the new message comprising an identifier of a recipient physical space and payload data; reading a local identifier forming part of a physical device arranged at a sender physical space, the sender physical space being associated with the sender, wherein the local identifier forms part of an electronic lock (20a, 20b); and sending a request to a message server to transmit the new message to the recipient physical space, wherein the request comprises the new message.
An antibody directed against ICOS, wherein said antibody is selected from the group consisting of Icos 53-3, Icos 88-2 and Icos 92-17, respectively obtainable from the hybridoma deposited at the CNCM on July 2, 2009 under the accession numbers CNCM 1-4176, CNCM 1-4177, CNCM I 4178 and derivatives thereof.
An object-oriented data model description method for large-scale information exchange and processing, the method comprising the steps of: forming the extracted data into a data description file based on a data model description template, wherein the data description file comprises a system declaration part for defining basic information of data and a data block part for recording data to be recorded by the data description file, wherein the data block part comprises a data block start flag line for indicating a starting position of a data block recorded in the data description file, a data block header definition part for defining a structure type of the data block and entries of the data described therein, a data record part of the data block for recording the entries of data in the data block, and a data block end flag line for indicating an ending position of the data block recorded in the data description file; storing the data description file in a first storage unit; obtaining, by a transmitter, a data description file to be exchanged from the first storage unit and sending the data description file to be exchanged to a receiver; receiving, by the receiver, the data description file to be exchanged and storing the data description file in a second storage unit; and parsing the data description file received from the receiver based on the data model description template; wherein the model description template may be used to define a format for data content, to realize self-description of the data format. forming the extracted data into a data description file based on a data model description template, wherein the data description file comprises a system declaration part for defining basic information of data and a data block part for recording data to be recorded by the data description file, wherein the data block part comprises a data block start flag line for indicating a starting position of a data block recorded in the data description file, a data block header definition part for defining a structure type of the data block and entries of the data described therein, a data record part of the data block for recording the entries of data in the data block, and a data block end flag line for indicating an ending position of the data block recorded in the data description file; storing the data description file in a first storage unit; obtaining, by a transmitter, a data description file to be exchanged from the first storage unit and sending the data description file to be exchanged to a receiver; receiving, by the receiver, the data description file to be exchanged and storing the data description file in a second storage unit; and parsing the data description file received from the receiver based on the data model description template; wherein the model description template may be used to define a format for data content, to realize self-description of the data format.
A web page pushing method, wherein the method comprises: receiving, by a first terminal, a response packet, which is sent by a Domain Name System, DNS, server to the first terminal, for a request packet for visiting a target web page, wherein the response packet comprises an Internet Protocol IP address of the target web page; determining whether the first terminal stores the response packet; if the first terminal stores the response packet, forwarding the response packet to a second terminal; if the first terminal does not store the response packet, storing the response packet in the first terminal, and replacing the IP address of the target web page in the response packet with an IP address of a preset web page to obtain a target response packet; and sending the target response packet to the second terminal, so that the second terminal displays the preset web page according to the target response packet. receiving, by a first terminal, a response packet, which is sent by a Domain Name System, DNS, server to the first terminal, for a request packet for visiting a target web page, wherein the response packet comprises an Internet Protocol IP address of the target web page; determining whether the first terminal stores the response packet; if the first terminal stores the response packet, forwarding the response packet to a second terminal; if the first terminal does not store the response packet, storing the response packet in the first terminal, and replacing the IP address of the target web page in the response packet with an IP address of a preset web page to obtain a target response packet; and sending the target response packet to the second terminal, so that the second terminal displays the preset web page according to the target response packet.
A cleaner performing autonomous traveling, the cleaner comprising: a main body; a driving unit configured to move the main body within a cleaning area; a camera configured to capture an area around the main body; and a control unit configured to control, on the basis of an image captured by means of the camera, the driving unit such that a predetermined traveling mode is performed, wherein the control unit is configured to: perform a first recognition process for determining whether the image corresponds to any one of a plurality of obstacle types, perform a second recognition process for re-determining whether the image corresponds to the one obstacle type to verify a result of the first recognition process, and control the driving unit on the basis of the obstacle type determined through the first and second recognition processes such that the main body travels in a preset pattern. a main body; a driving unit configured to move the main body within a cleaning area; a camera configured to capture an area around the main body; and a control unit configured to control, on the basis of an image captured by means of the camera, the driving unit such that a predetermined traveling mode is performed, wherein the control unit is configured to: perform a first recognition process for determining whether the image corresponds to any one of a plurality of obstacle types, perform a second recognition process for re-determining whether the image corresponds to the one obstacle type to verify a result of the first recognition process, and control the driving unit on the basis of the obstacle type determined through the first and second recognition processes such that the main body travels in a preset pattern. perform a first recognition process for determining whether the image corresponds to any one of a plurality of obstacle types, perform a second recognition process for re-determining whether the image corresponds to the one obstacle type to verify a result of the first recognition process, and control the driving unit on the basis of the obstacle type determined through the first and second recognition processes such that the main body travels in a preset pattern.
Method for operating a tachograph, in which, following insertion of a smart card into a shaft, communication is first established between the smart card, which is inserted in the shaft, and the tachograph, and data is then transmitted to the smart card, characterized in that the transmission of data is monitored, wherein the data which is contained in the device and transmitted to the smart card is read out again immediately after transmission and is compared with the data contained in the device, and, when a fault is identified in the transmission of data, the smart card is moved a short way out of the shaft and drawn in again, and in that communication between the smart card, which is inserted in the shaft, and the tachograph is then established again, and in that the movement of the smart card out of the shaft and back into the shaft is executed twice immediately in succession.
An interactive toy comprising an active unique identifier tag (12, 14, 25) and an electrical circuit the electrical circuit comprising an identifier tag sensor and an interface that provides a means for the toy to communicate with a computer system characterised in that the electrical circuit is configured to operate in a first mode wherein the active unique identifier tag (12, 14) is activated to allocate and transmit a unique identifier tag and a second mode wherein the identifier tag sensor (13, 14) is activated to read and store unique identifiers.
Block-form pump housing of a vehicle brake system, having a top side manufactured to final dimensions and a bottom side manufactured to final dimensions, in which a blank in the form of a strand has been prepared by means of an extrusion process, characterized in that the final dimensions of the top side and of the bottom side have subsequently been produced by means of a non-cutting forming process from the blank, and the latter has subsequently been sawn into individual blocks, wherein the thickness dimension of the bocks has been determined with the final dimensions of the top side and of the bottom side in order to form openings therein.