mhurhangee/ep-ind-claims huggingface dataset:
A device for determining a position of an object, in particular a moving object, comprising - at least two switchable transmitting antenna arrays, each transmitting antenna array having a number of transmitting antennas which differ from one another as regards their main beam directions, - a receiving antenna arrangement comprising a plurality of receiving antennas, wherein the transmitting antennas and the receiving antennas are made in the form of patch antennas which extend in an x-y-plane, wherein the main beam directions of transmitting antennas differ from one another as regards the y-direction and wherein the receiving antennas in x-direction are arranged next to one another in a continuous row starting from a first and ending at a last, the transmitting antenna arrays being arranged such that the distance between two transmitting antennas with the same main beam direction as regards the y-direction - is equal to the distance between the first receiving antennas and the last receiving antenna or - is equal to the sum of the distance between the first receiving antennas and the last receiving antenna and of the distance (dx) between two adjacent receiving antennas, wherein the transmitting antennas are arranged in any position to the side of opposite the receiving antennas within the x-y-plane, wherein the distances respectively relating to the focal points of the transmitting antennas and the receiving antennas and respectively to a direction running from the last to the first. - at least two switchable transmitting antenna arrays, each transmitting antenna array having a number of transmitting antennas which differ from one another as regards their main beam directions, - a receiving antenna arrangement comprising a plurality of receiving antennas, wherein the transmitting antennas and the receiving antennas are made in the form of patch antennas which extend in an x-y-plane, wherein the main beam directions of transmitting antennas differ from one another as regards the y-direction and wherein the receiving antennas in x-direction are arranged next to one another in a continuous row starting from a first and ending at a last, the transmitting antenna arrays being arranged such that the distance between two transmitting antennas with the same main beam direction as regards the y-direction - is equal to the distance between the first receiving antennas and the last receiving antenna or - is equal to the sum of the distance between the first receiving antennas and the last receiving antenna and of the distance (dx) between two adjacent receiving antennas,
A terminal apparatus comprising: a reception unit configured to receive a physical downlink shared channel, PDSCH; and a transmission unit; wherein at least one OFDM symbol of multiple OFDM symbols to which a first physical uplink control channel, PUCCH, resource for a first channel state information, CSI, is mapped is identical to one OFDM symbol of multiple OFDM symbols to which a second PUCCH resource for a HARQ-ACK corresponding to the PDSCH is mapped, at least one OFDM symbol of multiple OFDM symbols to which a third PUCCH resource for a second CSI is mapped is identical to the one OFDM symbol of the multiple OFDM symbols to which the second PUCCH resource is mapped, the first CSI has higher priority than the second CSI, each OFDM symbol of the multiple OFDM symbols to which the first PUCCH resource is mapped is different from each OFDM symbol of the multiple OFDM symbols to which the third PUCCH resource is mapped, the transmission unit does not multiplex the second CSI with the first CSI and the HARQ-ACK, and multiplexes the first CSI and the HARQ-ACK, in a first case in which a higher layer parameter multi-CSI-PUCCH-ResourceList is not configured, and the transmission unit multiplexes the second CSI with the first CSI and the HARQ-ACK, in a second case in which the higher layer parameter multi-CSI-PUCCH-ResourceList is configured. a reception unit configured to receive a physical downlink shared channel, PDSCH; and a transmission unit; wherein at least one OFDM symbol of multiple OFDM symbols to which a first physical uplink control channel, PUCCH, resource for a first channel state information, CSI, is mapped is identical to one OFDM symbol of multiple OFDM symbols to which a second PUCCH resource for a HARQ-ACK corresponding to the PDSCH is mapped, at least one OFDM symbol of multiple OFDM symbols to which a third PUCCH resource for a second CSI is mapped is identical to the one OFDM symbol of the multiple OFDM symbols to which the second PUCCH resource is mapped, the first CSI has higher priority than the second CSI, each OFDM symbol of the multiple OFDM symbols to which the first PUCCH resource is mapped is different from each OFDM symbol of the multiple OFDM symbols to which the third PUCCH resource is mapped, the transmission unit does not multiplex the second CSI with the first CSI and the HARQ-ACK, and multiplexes the first CSI and the HARQ-ACK, in a first case in which a higher layer parameter multi-CSI-PUCCH-ResourceList is not configured, and the transmission unit multiplexes the second CSI with the first CSI and the HARQ-ACK, in a second case in which the higher layer parameter multi-CSI-PUCCH-ResourceList is configured.
A control handle for operating a prosthesis having an actively controllable stent lattice, the handle comprising a jack engine configured to control rotation of a jack assembly of the stent lattice of the prosthesis when the prosthesis is releasably coupled to the handle, wherein the jack engine includes a motor (11650, 11670) and a drive wire arranged to be rotated by the motor to rotate the jack assembly, and wherein the jack engine is configured to limit the torque of the motor to prevent breaking of the lattice.
Method for repairing a gas turbine component, in which - a part of the gas turbine component is separated at a separation region and - a replacement part is welded to the gas turbine component, the welding being carried out by means of an electron beam or laser welding, tungsten inert gas welding, tungsten plasma beam welding, tungsten plasma arc welding or tungsten plasma beam arc welding, characterized in that - the cross-sectional area of the gas turbine component at the separating region is increased following the welding process by applying additional material in a cold gas spraying process. - a part of the gas turbine component is separated at a separation region and - a replacement part is welded to the gas turbine component, the welding being carried out by means of an electron beam or laser welding, tungsten inert gas welding, tungsten plasma beam welding, tungsten plasma arc welding or tungsten plasma beam arc welding, characterized in that - the cross-sectional area of the gas turbine component at the separating region is increased following the welding process by applying additional material in a cold gas spraying process.
A medical imaging system, comprising: a first tracking detector and a second tracking detector, wherein the first tracking detector is spaced from the second tracking detector to allow for an object to be present between the first tracking detector and the second tracking detector; a residual range detector (110, 500) adjacent the first tracking detector, the residual range detector having a monolithic design and including: a scintillator material (112, 502) having a first surface, wherein the first surface is at least partially covered with an anti-reflection material and wherein the first surface faces the first tracking detector; and at least two photon detectors (224, 512) coupled to the scintillator material at a second surface of the scintillator material different than the first surface; a proton source, wherein the proton source is configured to produce a pencil beam; and a scanning element that steers the pencil beam across the second tracking detector. a first tracking detector and a second tracking detector, wherein the first tracking detector is spaced from the second tracking detector to allow for an object to be present between the first tracking detector and the second tracking detector; a residual range detector (110, 500) adjacent the first tracking detector, the residual range detector having a monolithic design and including: a scintillator material (112, 502) having a first surface, wherein the first surface is at least partially covered with an anti-reflection material and wherein the first surface faces the first tracking detector; and at least two photon detectors (224, 512) coupled to the scintillator material at a second surface of the scintillator material different than the first surface; a proton source, wherein the proton source is configured to produce a pencil beam; and a scanning element that steers the pencil beam across the second tracking detector.
A method comprising: causing definition of a display window in a displayed virtual scene wherein the virtual scene comprises a portion of a virtual space that falls within a field of view of a user, wherein the field of view is centered upon an orientation of the user and the virtual space comprises a plurality of display windows distributed throughout the field of view at different orientations from the user; displaying window content inside the display window, in the displayed virtual scene wherein content is rendered into the display window to represent the display window as a substantially flat projection surface displaying the window content; in dependence upon a first user action, causing a first change in the window content displayed inside the display window to first window content different to the window content, without re-sizing the display window wherein the first window content is a distortion of content comprising the window content so that content in addition to the window content is viewed within the display window without variation to a size or resolution of the display window wherein the first window content is rendered into the display window to represent the display window as a curved projection surface displaying the first window content; and in dependence upon a second user action, causing a second change in the window content displayed in the display window to second window content, different to the first window content and the window content, and causing a variation in the display window to become a modified display window different to the display window. causing definition of a display window in a displayed virtual scene wherein the virtual scene comprises a portion of a virtual space that falls within a field of view of a user, wherein the field of view is centered upon an orientation of the user and the virtual space comprises a plurality of display windows distributed throughout the field of view at different orientations from the user; displaying window content inside the display window, in the displayed virtual scene wherein content is rendered into the display window to represent the display window as a substantially flat projection surface displaying the window content; in dependence upon a first user action, causing a first change in the window content displayed inside the display window to first window content different to the window content, without re-sizing the display window wherein the first window content is a distortion of content comprising the window content so that content in addition to the window content is viewed within the display window without variation to a size or resolution of the display window wherein the first window content is rendered into the display window to represent the display window as a curved projection surface displaying the first window content; and in dependence upon a second user action, causing a second change in the window content displayed in the display window to second window content, different to the first window content and the window content, and causing a variation in the display window to become a modified display window different to the display window.
Torsional resonance testing device for biasing a test specimen with a torsional load comprising a) an accommodation for the test specimen, b) a torsional oscillating system coupled to the accommodation, c) an actuator by which it is possible to excite the torsional oscillating system with a resonance frequency of the torsional oscillating system for executing torsional oscillations, the torsional oscillations of the torsional oscillating system inducing a dynamic test load component of the torsional load and d) a pretensioning device which generates a static test load component of the torsional load, e) the static test load component and the dynamic test load component acting in a superimposed way as the torsional load on the accommodation and so on the test specimen, characterised in that f) the torsional oscillating system is a mechanical-fluidic torsional oscillating system. a) an accommodation for the test specimen, b) a torsional oscillating system coupled to the accommodation, c) an actuator by which it is possible to excite the torsional oscillating system with a resonance frequency of the torsional oscillating system for executing torsional oscillations, the torsional oscillations of the torsional oscillating system inducing a dynamic test load component of the torsional load and d) a pretensioning device which generates a static test load component of the torsional load, e) the static test load component and the dynamic test load component acting in a superimposed way as the torsional load on the accommodation and so on the test specimen, f) the torsional oscillating system is a mechanical-fluidic torsional oscillating system.
A heating system comprising a flame detection system including - a heating device, - a metering pump fluidly connected to the heating device so that fuel can be delivered to the heating device at least during a line filling process, - a control device for controlling the heating device and the metering pump, wherein the control device controls the metering pump depending on the flame detection during the line filling process, and - wherein the control device terminates the line filling process by controlling the metering pump after the flame detection, characterised in that a value of a minimum filling volume is preset for the control device, and in that the line filling process is initiated depending on the flame detection after the minimum filling volume is reached. - a heating device, - a metering pump fluidly connected to the heating device so that fuel can be delivered to the heating device at least during a line filling process, - a control device for controlling the heating device and the metering pump, wherein the control device controls the metering pump depending on the flame detection during the line filling process, and - wherein the control device terminates the line filling process by controlling the metering pump after the flame detection, characterised in that a value of a minimum filling volume is preset for the control device, and in that the line filling process is initiated depending on the flame detection after the minimum filling volume is reached.
Method for operating a spinning position of a spinning machine, in particular a rotor spinning machine, in which a fiber material is opened up into individual fibers by means of an opening device and the individual fibers are spun into a yarn by means of a spinning device, wherein the opening device contains an opening roller which is rotatably mounted in an opening housing and can be driven by means of an individual drive, wherein the spinning device is connected to a negative pressure channel of the spinning machine and is acted upon with negative pressure, and wherein the opening housing is connected to the spinning device via a feeding channel, characterized in that, during a standstill of the spinning position, the opening roller is driven at least once briefly by means of its individual drive and is stopped again, or in that, during a standstill of the spinning position, the opening roller is driven at a minimum rotational speed by means of its individual drive.
A method for producing a soft magnetic material, comprising: preparing an alloy having a composition represented by the following Compositional Formula 1 or Compositional Formula 2 and containing 50% by volume or more of an amorphous phase, and heating the alloy at a rate of temperature rise of 10°C/sec or more to the crystallization starting temperature or higher and holding for 0 to 80 seconds at a temperature equal to or higher than the crystallization starting temperature and lower than the temperature at which Fe-B compounds start to form; wherein, the Compositional Formula 1 is Fe 100-x-y B x M y, M represents at least one element selected from Nb, Mo, Ta, W, Ni, Co and Sn, and x and y are in atomic percent (at%) and satisfy the relational expressions of 10≤x≤16 and 0.2≤y≤8, and the Compositional Formula 2 is Fe 100-a-b-c B a Cu b M' c, M' represents at least one element selected from Nb, Mo, Ta, W, Ni and Co, and a, b and c are in atomic percent (at%) and satisfy the relational expressions 10≤a≤16, 0<b≤2 and 0.2≤c≤8. preparing an alloy having a composition represented by the following Compositional Formula 1 or Compositional Formula 2 and containing 50% by volume or more of an amorphous phase, and heating the alloy at a rate of temperature rise of 10°C/sec or more to the crystallization starting temperature or higher and holding for 0 to 80 seconds at a temperature equal to or higher than the crystallization starting temperature and lower than the temperature at which Fe-B compounds start to form; wherein, the Compositional Formula 1 is Fe 100-x-y B x M y, M represents at least one element selected from Nb, Mo, Ta, W, Ni, Co and Sn, and x and y are in atomic percent (at%) and satisfy the relational expressions of 10≤x≤16 and 0.2≤y≤8, and the Compositional Formula 2 is Fe 100-a-b-c B a Cu b M' c, M' represents at least one element selected from Nb, Mo, Ta, W, Ni and Co, and a, b and c are in atomic percent (at%) and satisfy the relational expressions 10≤a≤16, 0<b≤2 and 0.2≤c≤8.
A position sensor circuit for determining the position of an actuator, the circuit comprising: an oscillator circuit comprising: a variable inductor; and a capacitor; said variable inductor being directly connected to the capacitor and the capacitor being directly connected to ground; wherein the variable inductor is in series with the capacitor; and wherein output of the oscillator circuit is used to indicate relative position of the actuator relative to the inductor. an oscillator circuit comprising: a variable inductor; and a capacitor; said variable inductor being directly connected to the capacitor and the capacitor being directly connected to ground; wherein the variable inductor is in series with the capacitor; a variable inductor; and a capacitor; said variable inductor being directly connected to the capacitor and the capacitor being directly connected to ground; wherein the variable inductor is in series with the capacitor;
A mushroom foundation for overhead power line pylons, having a mushroom base and a mushroom shaft, wherein the mushroom base has a mushroom base plate with stiffening elements and a central shaft joint for receiving a lower end of the mushroom shaft, and wherein the mushroom shaft is connected at an upper end to a connecting element which is configured to be connectable to the overhead power line pylon, characterized in that the lower end of the mushroom shaft is screwed to the shaft joint, wherein the shaft joint is formed of two L-sections canted perpendicularly to the mushroom base plate, and the mushroom shaft, correspondingly to the L-sections of the shaft joint, is configured as a cruciform section, and the cruciform section of the mushroom shaft is formed of two L-sections welded together at their corners.
A method for preparing a royal jelly fraction comprising: eluting a royal jelly with water to obtain a residue; eluting the obtained residue with 50% ethanol to obtain a residue, and eluting the obtained residue with 99.5% ethanol to obtain an elution fraction. eluting a royal jelly with water to obtain a residue; eluting the obtained residue with 50% ethanol to obtain a residue, and eluting the obtained residue with 99.5% ethanol to obtain an elution fraction.
A drill bit (21, 121) for rock drilling tools, comprising a drill bit head (23, 123) having a front surface (27, 127) comprising a face surface (29, 129) from which a plurality of cutting surfaces are adapted to extend, the face surface (29, 129) defining a forward-most end of the drill bit head (23, 123), the face surface (29, 129) having an outer edge (31, 131), a gauge (35, 135) surrounding the face surface (29, 129), the gauge (35, 135) having an inner edge (37, 137), a transition region (38, 138) extends in a direction of a longitudinal axis of the drill bit (21, 121) between the outer edge (31, 131) of the face surface (29, 129) and the inner edge (37, 137) of the gauge (35, 135), and characterized in that that an entirety of the face surface (29, 129) from which the cutting surfaces are adapted to extend is non-flat so that a center (33, 133) of the face surface (29, 129) is axially forward of the outer edge (31, 131) of the face surface (29, 129), wherein the gauge comprises a first gauge surface defining a first angle with the longitudinal axis over a first portion of a circumference of the gauge (35, 135) and a second gauge surface (135") defining a second angle with the longitudinal axis over a second portion of the circumference of the gauge (35, 135).
A method for determining attributes of communication channels of multi-user, MU, multiple input multiple output, MIMO, users in an orthogonal frequency division multiple access, OFDMA, system, the method comprising: receiving from a base station, for at least one sub-band of contiguous sub-carriers, scheduling information containing an indication of an estimate of the total number of MU-MIMO users, | S |, that will be co-scheduled by the base station on the at least one sub-band, wherein the scheduling information is received in scheduling intervals; determining a signal-to-interference-plus-noise ratio, SINR, for the at-least one sub-band based on the estimate of the total number of MU-MIMO users that will be co-scheduled by the base station on the at least one sub-band; and transmitting to the base station an indication of a channel quality index, CQI, that is based on the SINR. receiving from a base station, for at least one sub-band of contiguous sub-carriers, scheduling information containing an indication of an estimate of the total number of MU-MIMO users, | S |, that will be co-scheduled by the base station on the at least one sub-band, wherein the scheduling information is received in scheduling intervals; determining a signal-to-interference-plus-noise ratio, SINR, for the at-least one sub-band based on the estimate of the total number of MU-MIMO users that will be co-scheduled by the base station on the at least one sub-band; and transmitting to the base station an indication of a channel quality index, CQI, that is based on the SINR.
A method for purifying a monoclonal antibody from a composition comprising the monoclonal antibody and at least one contaminant, which method comprises the sequential steps of: a. passing the composition through a cation exchange membrane, wherein the monoclonal antibody and the membrane have opposite charge, at operating conditions comprised of a buffer having a pH of about 1 to about 5 pH units below the pI of the monoclonal antibody and a conductivity of ≤ about 40 mS/cm, which cause the membrane to bind the monoclonal antibody and the at least one contaminant, and b. recovering the purified monoclonal antibody from the effluent. a. passing the composition through a cation exchange membrane, wherein the monoclonal antibody and the membrane have opposite charge, at operating conditions comprised of a buffer having a pH of about 1 to about 5 pH units below the pI of the monoclonal antibody and a conductivity of ≤ about 40 mS/cm, which cause the membrane to bind the monoclonal antibody and the at least one contaminant, and b. recovering the purified monoclonal antibody from the effluent.