mhurhangee/ep-ind-claims huggingface dataset:
A spectral sensor for near-infrared spectroscopy, which is used for distinguishing and/or recognizing objects and/or materials, wherein the spectral sensor comprises a computing device, a photosensor and a light source or a plurality of light sources for illuminating the object and/or material to be measured, wherein the spectral sensor is configured to operate in a learning mode, wherein the spectral sensor is configured to perform one or more measurements of intensity values of a first spectrum of wavelengths in the learning mode, wherein the spectral sensor is configured to determine the wavelengths of a second spectrum itself, wherein the second spectrum is fully included in the first spectrum but comprises fewer wavelengths than the first spectrum, wherein the spectral sensor is configured to select the wavelengths of the second spectrum with the aid of a machine learning method, characterized in that the spectral sensor is configured to operate in an operating mode and to carry out at least one measurement of intensity values of the second spectrum of wavelengths in the operating mode, with the spectral sensor being configured to collect only intensity values for wavelengths of the second spectrum in the operating mode, with the computing device enabling the learning mode and the operating mode. wherein the spectral sensor is configured to determine the wavelengths of a second spectrum itself, wherein the second spectrum is fully included in the first spectrum but comprises fewer wavelengths than the first spectrum, wherein the spectral sensor is configured to select the wavelengths of the second spectrum with the aid of a machine learning method, characterized in that the spectral sensor is configured to operate in an operating mode and to carry out at least one measurement of intensity values of the second spectrum of wavelengths in the operating mode, with the spectral sensor being configured to collect only intensity values for wavelengths of the second spectrum in the operating mode, with the computing device enabling the learning mode and the operating mode.
Charging device of a machine in the tobacco processing industry, in particular a cigarette rod making machine, having a sluice chamber for receiving tobacco, which sluice chamber has a pivotable flap, in particular a bottom flap, characterised in that the flap has at least one air nozzle, and the air nozzle is used to blow tobacco particles adhered to the flap away.
A computer-implemented method of volume rendering comprising: (a) obtaining data representative of a first composited plane of one or more opaque structures along ray cast lines; (b) calculating data of a second composited plane by determining a single measure of depth of the one or more opaque structures along each ray cast line from a view location of the first composited plane; (c) determining color value data between two different colorization palettes as a function of the measure of depth of the one or more opaque structures along the ray cast lines; and (d) applying the data of the second composited plane to the first composited plane for generating a volume rendering image, wherein applying the data of the second composited plane includes applying the color value data for generating the volume rendering image with colorization depending on depth. (a) obtaining data representative of a first composited plane of one or more opaque structures along ray cast lines; (b) calculating data of a second composited plane by determining a single measure of depth of the one or more opaque structures along each ray cast line from a view location of the first composited plane; (c) determining color value data between two different colorization palettes as a function of the measure of depth of the one or more opaque structures along the ray cast lines; and (d) applying the data of the second composited plane to the first composited plane for generating a volume rendering image, wherein applying the data of the second composited plane includes applying the color value data for generating the volume rendering image with colorization depending on depth.
An apparatus configured to be employed within a user equipment, UE, comprising one or more processors configured to: generate a UE capability information, wherein the UE capability information comprises a list of shortened transmission time interval, S-TTI, configurations supported by the UE; transmit the UE capability information to an evolved NodeB, eNB; receive, from the eNB, a radio resource control, RRC, message to reconfigure a RRC connection of the UE, wherein the RRC connection reconfiguration message configures the S-TTI for uplink, UL, and downlink, DL; and process a S-TTI, configured by the RRC connection reconfiguration message, to enable a data transmission in the UL or a data reception in the DL, wherein the S-TTI comprises 2, 3, 4 or 7 orthogonal frequency-division multiplexing, OFDM, symbols. generate a UE capability information, wherein the UE capability information comprises a list of shortened transmission time interval, S-TTI, configurations supported by the UE; transmit the UE capability information to an evolved NodeB, eNB; receive, from the eNB, a radio resource control, RRC, message to reconfigure a RRC connection of the UE, wherein the RRC connection reconfiguration message configures the S-TTI for uplink, UL, and downlink, DL; and process a S-TTI, configured by the RRC connection reconfiguration message, to enable a data transmission in the UL or a data reception in the DL, wherein the S-TTI comprises 2, 3, 4 or 7 orthogonal frequency-division multiplexing, OFDM, symbols.
A method of monitoring an electromechanical actuator system including at least one inverter, a motor powered by the inverter, and an actuator driven by the motor, the method comprising the steps of:. estimating (100, 200) the drop of voltage in the power supply to the motor associated with defects of the inverter by means of a Kalman filter taking account of operational data including at least one electric current delivered by the inverter to the motor, at least one control voltage of the inverter, and at least one speed of rotation of the outlet shaft of the motor;. estimating at least the electromagnetic torque coefficient of the motor by taking account of the estimated voltage drop and the operational data including the current delivered by the inverter to the motor, the control voltage of the inverter, the derivative of the current delivered by the inverter to the motor, and the speed of rotation of the outlet shaft of the motor; and. calculating the electromagnetic torque of the motor from the electromagnetic torque coefficient of the motor and the operational data constituted by the electric current delivered by the inverter to the motor.. estimating (100, 200) the drop of voltage in the power supply to the motor associated with defects of the inverter by means of a Kalman filter taking account of operational data including at least one electric current delivered by the inverter to the motor, at least one control voltage of the inverter, and at least one speed of rotation of the outlet shaft of the motor;. estimating at least the electromagnetic torque coefficient of the motor by taking account of the estimated voltage drop and the operational data including the current delivered by the inverter to the motor, the control voltage of the inverter, the derivative of the current delivered by the inverter to the motor, and the speed of rotation of the outlet shaft of the motor; and. calculating the electromagnetic torque of the motor from the electromagnetic torque coefficient of the motor and the operational data constituted by the electric current delivered by the inverter to the motor.
A computer-implemented method comprising: extracting a feature (F11-F14) from an image captured by a capturing device; determining a direction of a gravitational force with respect to the feature (F11-F14) by projecting the gravitational force into the image based on a measured orientation of the capturing device and intrinsic parameters of the capturing device; and assigning a descriptor (d) to the feature (F11-F14) based on the direction of the gravitational force. extracting a feature (F11-F14) from an image captured by a capturing device; determining a direction of a gravitational force with respect to the feature (F11-F14) by projecting the gravitational force into the image based on a measured orientation of the capturing device and intrinsic parameters of the capturing device; and assigning a descriptor (d) to the feature (F11-F14) based on the direction of the gravitational force.
A quick connector coupling for making a severable connection with a male member and a female tube in a fluid line, the quick connector coupling comprising: a connector body having a through bore for receiving the male member having a tubular shape sized to extend into the through bore of the connector body and having an upset; a retainer releasably securing the male member within the connector body; and a verifier coupled to the connector body and moving between a latched position and an unlatched position inside the connector body; wherein one of the connector body and the verifier includes a radio frequency identification (RFID) chip, and the other of the connector body and the verifier includes an antenna having a contact point; wherein a signal of the RFID chip is enabled to read through the antenna when the contact point of the antenna contacts the RFID chip in the latched position of the verifier. a connector body having a through bore for receiving the male member having a tubular shape sized to extend into the through bore of the connector body and having an upset; a retainer releasably securing the male member within the connector body; and a verifier coupled to the connector body and moving between a latched position and an unlatched position inside the connector body; wherein one of the connector body and the verifier includes a radio frequency identification (RFID) chip, and the other of the connector body and the verifier includes an antenna having a contact point; wherein a signal of the RFID chip is enabled to read through the antenna when the contact point of the antenna contacts the RFID chip in the latched position of the verifier.
A method for controlling different media types associated with a communication session with more than one media type, the method comprising: while in an ongoing session between a first device and a second device, wherein the ongoing session is connected via a network apparatus, sending a SIP REFER message, from the second device to the network apparatus for adding a new media type of the ongoing session at a third device, the SIP REFER message identifying the new media type to be added to the ongoing session and including a uniform resource indicator, the URI comprising an address of the third device to which the new media type should be directed and a header parameter known as "body" that specifies session description for the new media type, wherein the SIP REFER message causes the network apparatus to send a SIP INVITE to the address of the third device included in the URI, the SIP INVITE containing the session description for the new media type specified in the header parameter. while in an ongoing session between a first device and a second device, wherein the ongoing session is connected via a network apparatus, sending a SIP REFER message, from the second device to the network apparatus for adding a new media type of the ongoing session at a third device, the SIP REFER message identifying the new media type to be added to the ongoing session and including a uniform resource indicator, the URI comprising an address of the third device to which the new media type should be directed and a header parameter known as "body" that specifies session description for the new media type, wherein the SIP REFER message causes the network apparatus to send a SIP INVITE to the address of the third device included in the URI, the SIP INVITE containing the session description for the new media type specified in the header parameter. sending a SIP REFER message, from the second device to the network apparatus for adding a new media type of the ongoing session at a third device, the SIP REFER message identifying the new media type to be added to the ongoing session and including a uniform resource indicator, the URI comprising an address of the third device to which the new media type should be directed and a header parameter known as "body" that specifies session description for the new media type, wherein the SIP REFER message causes the network apparatus to send a SIP INVITE to the address of the third device included in the URI, the SIP INVITE containing the session description for the new media type specified in the header parameter.
A human-computer interface system comprising: a display portion that has a screen image; a pointing device with an input operation section that instructs destination of pointer movements on the screen image with a reactive force based on reactive force data that relates the reactive force with a location of the screen; and a data output means that displays the screen image for the display portion and, at the same time, outputs the reactive force data according to the screen image data, wherein: the pointing device has a delay means that delays the activation of second reactive force data when a first screen image with corresponding first reactive force data is replaced with a second screen image, if generation of the second screen image finishes later than the full reception of the second reactive force data by the pointing device, so that the display of the generated second screen image and the activation of the received second reactive force data synchronize with each other, characterized in that the delay means delays the activation of the second reactive force data by a predetermined amount of time according to the type of the second screen image after receiving the second reactive force data, wherein if the second screen image is a fixed format screen image the predetermined amount of time is set from the reception of the reactive force data to the activation of the reactive force data depending on the type of the fixed format screen image, and if the second screen image is an unfixed format screen image the predetermined amount of time is set based on the amount of the image data. a display portion that has a screen image; a pointing device with an input operation section that instructs destination of pointer movements on the screen image with a reactive force based on reactive force data that relates the reactive force with a location of the screen; and a data output means that displays the screen image for the display portion and, at the same time, outputs the reactive force data according to the screen image data, wherein: the pointing device has a delay means that delays the activation of second reactive force data when a first screen image with corresponding first reactive force data is replaced with a second screen image, if generation of the second screen image finishes later than the full reception of the second reactive force data by the pointing device, so that the display of the generated second screen image and the activation of the received second reactive force data synchronize with each other, the pointing device has a delay means that delays the activation of second reactive force data when a first screen image with corresponding first reactive force data is replaced with a second screen image, if generation of the second screen image finishes later than the full reception of the second reactive force data by the pointing device, so that the display of the generated second screen image and the activation of the received second reactive force data synchronize with each other,
An anti-fatigue composition which comprises an amino acid composition consisting of: 30-200 parts by weight of proline, 60-140 parts by weight of glycine, 25-260 parts by weight of alanine, 40-130 parts by weight of lysine, 20-75 parts by weight of tryptophan, 15-40 parts by weight of histidine, 3-75 parts by weight of tyrosine, 15-45 parts by weight of arginine, 30-55 parts by weight of valine, 35-60 parts by weight of leucine, and 25-60 parts by weight of isoleucine, wherein muscle fatigue and nervous fatigue are both prevented concurrently. 30-200 parts by weight of proline, 60-140 parts by weight of glycine, 25-260 parts by weight of alanine, 40-130 parts by weight of lysine, 20-75 parts by weight of tryptophan, 15-40 parts by weight of histidine, 3-75 parts by weight of tyrosine, 15-45 parts by weight of arginine, 30-55 parts by weight of valine, 35-60 parts by weight of leucine, and 25-60 parts by weight of isoleucine,
A battery pack having a plurality of air batteries (A1; A2; A3; A4; A5; A6; A7) stacked together, wherein each of the air batteries comprises an anode material (50; 50A; 50B; 50C), and a cathode constituting member with an electrically conductive liquid-tight air-permeable film, wherein the anode material (50; 50A; 50B; 50C) of the air battery is adapted such that at least a part of the anode material (50; 50A; 50B; 50C) of the air battery is brought into direct contact with an electrically conductive liquid-tight air-permeable film of a cathode constituting member of another air battery adjacent thereto.
An agricultural vehicle, in particular a tractor, with a vehicle body on which an engine as well as an engine cover which at least partially surrounds the engine are disposed, a front chassis and a rear chassis as well as a loader device for attaching an implement which can be pivoted into a position above the engine cover, wherein the agricultural vehicle comprises a guard device, which in particular has multiple parts, to be disposed on the front of the vehicle body of the vehicle part of which extends at least in a horizontal direction over the engine cover, characterized in that the guard device comprises a retaining device by means of which the guard device is releasably fastened to the vehicle body, wherein the retaining device is configured in the form of two guard brackets which are disposed on the front end of the vehicle body, and the guard device comprises at least one guard element which is pivotably disposed and/or releasably disposed on the retaining device.
A thermally insulating batt comprising: (i) 10 to 70% by weight of the total batt of a collection of first staple fibers that comprise staple flash spun plexifilamentary fibers, wherein the staple flash spun plexifilamentary fibers comprise a polyolefin polymer; (ii) 10 to 70% by weight of the total batt of a collection of second staple fibers; wherein the staple fibers comprise a polyester polymer, polyolefin polymer, polyamide polymer or viscose rayon; and (iii) 5 to 30% by weight of the batt of binding agent, wherein the binding agent comprises at least one polymeric component with a melting point below the melting point of the staple flash spun plexifilamentary fiber melting point and the staple fiber melting point. (i) 10 to 70% by weight of the total batt of a collection of first staple fibers that comprise staple flash spun plexifilamentary fibers, wherein the staple flash spun plexifilamentary fibers comprise a polyolefin polymer; (ii) 10 to 70% by weight of the total batt of a collection of second staple fibers; wherein the staple fibers comprise a polyester polymer, polyolefin polymer, polyamide polymer or viscose rayon; and (iii) 5 to 30% by weight of the batt of binding agent, wherein the binding agent comprises at least one polymeric component with a melting point below the melting point of the staple flash spun plexifilamentary fiber melting point and the staple fiber melting point.
Method for providing driver assistance, having the steps of: - recording at least one movement pattern of a vehicle together with activated vehicle functions by storing driving parameters together with those functions which have been initiated by the driver; and - providing the respective vehicle function on the basis of detection of at least one part of a movement pattern which has already been recorded during a journey, characterized by the step of: creating the movement pattern by means of odometry sensors. - recording at least one movement pattern of a vehicle together with activated vehicle functions by storing driving parameters together with those functions which have been initiated by the driver; and - providing the respective vehicle function on the basis of detection of at least one part of a movement pattern which has already been recorded during a journey, characterized by the step of: creating the movement pattern by means of odometry sensors.
A method for producing a composite particle containing hyaluronan and a peptide, the method comprising mixing an anionic polymer and a peptide in an aqueous solvent having a pH of 5 or less, wherein the peptide is one selected from the group consisting of a water-soluble collagen, oligopeptide-20, and polylysine, when the peptide is a water-soluble collagen, the aqueous solvent has a pH of 3 or less, when the peptide is oligopeptide-20, the aqueous solvent has a pH of 3.5 or less, when the peptide is polylysine, the aqueous solvent has a pH of 4.4 or less, and the composite particle has a particle diameter of less than 300 nm as measured by light scattering wherein the peptide is one selected from the group consisting of a water-soluble collagen, oligopeptide-20, and polylysine, when the peptide is a water-soluble collagen, the aqueous solvent has a pH of 3 or less, when the peptide is oligopeptide-20, the aqueous solvent has a pH of 3.5 or less, when the peptide is polylysine, the aqueous solvent has a pH of 4.4 or less, and the composite particle has a particle diameter of less than 300 nm as measured by light scattering