mhurhangee/ep-ind-claims huggingface dataset:
A method (1000, 3000) of knitting a knitted component for an upper of an article of footwear using a flat knitting machine, the upper configured to receive a foot of a wearer, wherein the flat knitting machine includes a first needle bed with a plurality of first needles arranged along a longitudinal axis, and wherein the flat knitting machine includes a second needle bed with a plurality of second needles arranged along the longitudinal axis, characterised by the method (1000, 3000) comprising: performing a pass of a first and a second feeder (221, 223) along the longitudinal axis relative to the first and second needle beds (210, 216); feeding a first yarn with the first feeder and a second yarn with the second feeder during the pass; forming, during the pass, a plurality of first loops with the first yarn and with the first needles to define a first portion of the knitted component; forming, during the pass, a plurality of second loops with the second yarn and with the second needles to define a second portion of the knitted component; interlooping the first yarn and the second yarn during the pass to join the first portion and the second portion at a joined area of the knitted component; wherein the first portion defines an overfoot member of the upper, the overfoot member configured to cover over the foot of the wearer; and wherein the second portion defines an underfoot member of the upper, the underfoot member configured to extend under the foot of the wearer. performing a pass of a first and a second feeder (221, 223) along the longitudinal axis relative to the first and second needle beds (210, 216); feeding a first yarn with the first feeder and a second yarn with the second feeder during the pass; forming, during the pass, a plurality of first loops with the first yarn and with the first needles to define a first portion of the knitted component; forming, during the pass, a plurality of second loops with the second yarn and with the second needles to define a second portion of the knitted component; interlooping the first yarn and the second yarn during the pass to join the first portion and the second portion at a joined area of the knitted component; wherein the first portion defines an overfoot member of the upper, the overfoot member configured to cover over the foot of the wearer; and wherein the second portion defines an underfoot member of the upper, the underfoot member configured to extend under the foot of the wearer.
A method of operating a nanomechanical test system comprising a displaceable probe on a sample in a vacuum environment, the method comprising: providing an input signal to control a force applied along an axis (X, Y, Z) to the sample by the displaceable probe; providing an output signal representative of movement of the displaceable probe along the axis (X, Y, Z) in response to the input signal; providing active digital damping control comprising performing, using a processor, a frequency-dependent phase shift of the output signal, employing a transfer function which shifts the phase from 0 to -180 degrees from a low frequency to high frequency and has a unity magnitude for the entire frequency range and causing a negative 90 degree phase shift at a resonance frequency of the moveable probe, to provide a phase-shifted signal, and adjusting, using the processor, the phase-shifted signal by a gain value to provide a feedback signal; and providing an adjusted input signal by incorporating the feedback signal with the input signal such that at the resonance frequency of the moveable probe by increasing a magnitude of the gain value in the active digital damping control a mechanical damping of the displaceable probe is increased and a mechanical quality factor of the nanomechanical test system is decreased. providing an input signal to control a force applied along an axis (X, Y, Z) to the sample by the displaceable probe; providing an output signal representative of movement of the displaceable probe along the axis (X, Y, Z) in response to the input signal; providing active digital damping control comprising performing, using a processor, a frequency-dependent phase shift of the output signal, employing a transfer function which shifts the phase from 0 to -180 degrees from a low frequency to high frequency and has a unity magnitude for the entire frequency range and causing a negative 90 degree phase shift at a resonance frequency of the moveable probe, to provide a phase-shifted signal, and adjusting, using the processor, the phase-shifted signal by a gain value to provide a feedback signal; and providing an adjusted input signal by incorporating the feedback signal with the input signal such that at the resonance frequency of the moveable probe by increasing a magnitude of the gain value in the active digital damping control a mechanical damping of the displaceable probe is increased and a mechanical quality factor of the nanomechanical test system is decreased.
Goods feeding system for receiving and presenting goods with: - goods feeding attachments for automatic forwarding of goods in a goods feeding direction W, - support surfaces for receiving and holding said goods feeding attachments having an inclination angle, whereby the goods feeding system has a support surface length along the goods feeding direction, and the support surface can be pulled out at least partially along the support surface length in the goods feeding direction, and wherein a) the support surfaces on a guide side that faces away from the support surface side have at least one guide groove (5, 5'), b) at least one guide rail (2, 2') corresponding to said at least one guide groove (5, 5') and for receiving and guiding said guide rail (2, 2') in the goods feeding direction, characterized in that several adjacent goods feeding attachments and/or several adjacent support surfaces are connected to a group. - goods feeding attachments for automatic forwarding of goods in a goods feeding direction W, - support surfaces for receiving and holding said goods feeding attachments having an inclination angle, whereby the goods feeding system has a support surface length along the goods feeding direction, and the support surface can be pulled out at least partially along the support surface length in the goods feeding direction, and wherein a) the support surfaces on a guide side that faces away from the support surface side have at least one guide groove (5, 5'), b) at least one guide rail (2, 2') corresponding to said at least one guide groove (5, 5') and for receiving and guiding said guide rail (2, 2') in the goods feeding direction, characterized in that several adjacent goods feeding attachments and/or several adjacent support surfaces are connected to a group. a) the support surfaces on a guide side that faces away from the support surface side have at least one guide groove (5, 5'), b) at least one guide rail (2, 2') corresponding to said at least one guide groove (5, 5') and for receiving and guiding said guide rail (2, 2') in the goods feeding direction, characterized in that several adjacent goods feeding attachments and/or several adjacent support surfaces are connected to a group.
A rotorcraft with an obstacle and terrain warning radar system that comprises a plurality of radar units, said rotorcraft having at least one main rotor with an axis of rotation that is parallel to an elevation direction of the at least one main rotor, at least two blades, and a rotor head, each radar unit transmitting a radar beam with beam width in azimuth (α) of at least 5° and beam width in elevation (ε) of at least 5°, the elevation direction being along said axis of rotation of said main rotor, and the zone scanned in azimuth by said radar beam being in a plane perpendicular to said axis of rotation, wherein the radar system comprises at least two assemblies positioned and fixed mounted in regular manner around said axis of rotation on said rotor head between said blades, each assembly having at least one radar unit and being positioned in the elevation direction between the blades level with dampers on the main rotor, each radar unit transmitting a centrifugal radar beam that does not intersect with the blades of the main rotor, said radar system scanning the surroundings around said rotorcraft electronically in elevation with an angular coverage of at least +/-15° and automatically in azimuth with an angular coverage of 360° during the rotation of the said main rotor, and wherein each radar unit of the radar system operates as an active unit that is supplied from a control and synchronization unit with control and synchronization information related to starting of rotation of the at least one main rotor, direction and speed of the rotation of the at least one main rotor, and starting of each 360° turn of the at least one main rotor, wherein each radar unit synchronizes each electronic scan in elevation in order to ensure that the surroundings around the rotorcraft are scanned completely over one revolution of the main rotor using this control and synchronization information.
A method for collision warning, the method comprising: determining a danger value (x(Δt)) which is indicative of a potential collision of a first vehicle and a second vehicle; and generating by the first vehicle a warning signal, if the danger value (x(Δt)) crosses a predefined threshold (xref), wherein the danger value (x(Δt)) is determined by the first vehicle, the warning signal is perceivable to a driver of the second vehicle, the warning signal includes a visual warning signal that is projected onto the driving surface between the first vehicle and the second vehicle at a display distance (d CW (Δt)) behind the first vehicle, and the display distance (d CW (Δt)) is variable depending on the velocity of the first vehicle, the velocity of the second vehicle and the acceleration of the second vehicle and corresponds to a distance between the first vehicle and the second vehicle at which a collision may still be prevented by the driver of the second vehicle by performing a braking maneuver. determining a danger value (x(Δt)) which is indicative of a potential collision of a first vehicle and a second vehicle; and generating by the first vehicle a warning signal, if the danger value (x(Δt)) crosses a predefined threshold (xref), wherein the danger value (x(Δt)) is determined by the first vehicle, the warning signal is perceivable to a driver of the second vehicle, the warning signal includes a visual warning signal that is projected onto the driving surface between the first vehicle and the second vehicle at a display distance (d CW (Δt)) behind the first vehicle, and the display distance (d CW (Δt)) is variable depending on the velocity of the first vehicle, the velocity of the second vehicle and the acceleration of the second vehicle and corresponds to a distance between the first vehicle and the second vehicle at which a collision may still be prevented by the driver of the second vehicle by performing a braking maneuver.
A three-arm tube system for a ventilation appliance suitable for invasive ventilation, wherein the ventilation appliance comprises an actively controlled inhalation valve and an actively controlled exhalation valve, wherein the tube system comprises: - an inhalation tube arm configured for connecting to the actively controlled inhalation valve of the ventilation appliance; and - an exhalation tube arm configured for connecting to the actively controlled exhalation valve of the ventilation appliance, and - a ventilation tube arm configured for connecting to a mask or a respiratory tube; - as well as a flow sensor configured to be arranged or arranged at the ventilation tube arm for measuring the inhalation volume and the exhalation volume, characterized in that, - a defined leakage is formed in the ventilation tube arm, and - the flow sensor is arranged or is to be arranged between the leakage and the mask or the respiratory tube. - an inhalation tube arm configured for connecting to the actively controlled inhalation valve of the ventilation appliance; and - an exhalation tube arm configured for connecting to the actively controlled exhalation valve of the ventilation appliance, and - a ventilation tube arm configured for connecting to a mask or a respiratory tube; - as well as a flow sensor configured to be arranged or arranged at the ventilation tube arm for measuring the inhalation volume and the exhalation volume, - a defined leakage is formed in the ventilation tube arm, and - the flow sensor is arranged or is to be arranged between the leakage and the mask or the respiratory tube.
A trailer for moving over ground and for launching a lightweight boat comprising a motorized supporting undercarriage configured to support at least a hull of the boat, extended by at least one longitudinal edge ending in a drawbar comprising an operating handle, the longitudinal edge being arranged transversely, or generally transversely, with respect to the axle of the supporting undercarriage, said supporting undercarriage comprising - a support frame, in particular a tubular frame, arranged transversely with respect to the longitudinal axle of the trailer, characterized in that the supporting undercarriage further comprises: - at least one sealed electric motor, in particular a geared motor unit, fixed to the frame, - two sets of wheels (112, 113) arranged on the supporting undercarriage, each wheel assembly comprising at least two different wheels, - the longitudinal edge being fixed to the frame of the supporting undercarriage by its opposite end to the one extended by the drawbar, said drawbar comprising control means to control the operation of the sealed electric motor. - a support frame, in particular a tubular frame, arranged transversely with respect to the longitudinal axle of the trailer, characterized in that the supporting undercarriage further comprises: - at least one sealed electric motor, in particular a geared motor unit, fixed to the frame, - two sets of wheels (112, 113) arranged on the supporting undercarriage, each wheel assembly comprising at least two different wheels, - the longitudinal edge being fixed to the frame of the supporting undercarriage by its opposite end to the one extended by the drawbar, said drawbar comprising control means to control the operation of the sealed electric motor.
A sleep staging system comprising: one or more sensors configured to generate output signals conveying information related to one or more breathing parameters of subject; and one or more physical computer processors operatively connected with the one or more sensors, the one or more physical computer processors configured by computer readable instructions to: determine, based on the output signals, one or more breathing features of individual breaths of the subject; detect presence or absence of a breathing event disrupting the respiration in each of a plurality of epochs of fixed time duration, based on the output signals; determine a distribution of the one or more breathing features over each of a plurality of moving time windows of different pre-determined time lengths, each time window moving between positions centered on the different epochs; determine sleep states of the subject for each of the epochs with a sleep stage classifier model based upon the distribution of the breathing features and the one or more breathing events; and provide feedback indicating the sleep states. one or more sensors configured to generate output signals conveying information related to one or more breathing parameters of subject; and one or more physical computer processors operatively connected with the one or more sensors, the one or more physical computer processors configured by computer readable instructions to: determine, based on the output signals, one or more breathing features of individual breaths of the subject; detect presence or absence of a breathing event disrupting the respiration in each of a plurality of epochs of fixed time duration, based on the output signals; determine a distribution of the one or more breathing features over each of a plurality of moving time windows of different pre-determined time lengths, each time window moving between positions centered on the different epochs; determine sleep states of the subject for each of the epochs with a sleep stage classifier model based upon the distribution of the breathing features and the one or more breathing events; and provide feedback indicating the sleep states. determine, based on the output signals, one or more breathing features of individual breaths of the subject; detect presence or absence of a breathing event disrupting the respiration in each of a plurality of epochs of fixed time duration, based on the output signals; determine a distribution of the one or more breathing features over each of a plurality of moving time windows of different pre-determined time lengths, each time window moving between positions centered on the different epochs; determine sleep states of the subject for each of the epochs with a sleep stage classifier model based upon the distribution of the breathing features and the one or more breathing events; and provide feedback indicating the sleep states.
A method for measuring the end face diameter of a tree trunk and for quality control, said method comprising advancing the tree trunk in a direction normal to its longitudinal direction past a measuring apparatus, measuring the volume of the tree trunk by optical means and determining the diameter and/or the area of a three trunk end face by imaging of bark present on the outer surface of the tree trunk, characterized in that the end face of the tree trunk is illuminated with a light source containing wavelengths of red and blue light, the light coming from the tree trunk end face is received by a camera capable of colour separation, such as a colour matrix camera, and by examining the separation pattern of both blue and red light, the proportion of rot or other defect of wood present in the tree trunk end face is identified from the red/blue ratio in the signals of the camera, wherein the colour separation enables a separate identification of wood and a bark circle.
A rechargeable electrochemical cell, comprising: a positive electrode; a negative electrode; and an electrolyte having a total electrolyte volume V including a first quantity of water comprising a first fraction V1 of said total electrolyte volume V and including a second quantity of one or more organic cosolvents together comprising a second fraction V2 of said total electrolyte volume V; wherein V1/V > 0.02; wherein V2 > V1; wherein a particular one electrode of said electrodes includes a transition metal cyanide coordination compound (TMCCC) material; and wherein said electrolyte is a single phase. a positive electrode; a negative electrode; and an electrolyte having a total electrolyte volume V including a first quantity of water comprising a first fraction V1 of said total electrolyte volume V and including a second quantity of one or more organic cosolvents together comprising a second fraction V2 of said total electrolyte volume V; wherein V1/V > 0.02; wherein V2 > V1; wherein a particular one electrode of said electrodes includes a transition metal cyanide coordination compound (TMCCC) material; and wherein said electrolyte is a single phase.
A power converter to be used with an energy source, the power converter comprising a pair of input terminals (16a, 16b) and a pair of output terminals (18a, 18b), wherein the input terminals are adapted for connection in parallel with the input terminals of other power converters and are for connection to an output of the energy source, an input power monitor and a power converter circuit whose power converter conversion ratio is adjustable; characterized in that the converter is adapted to implement a sequence of operation in cooperation the other converter, in which the converter is adapted: in response to a communication signal from a preceding converter in the sequence, to perform an adjustment of the power converter conversion ratio of the power converter circuit; to observe whether there is improvement in maximum power point tracking caused by said adjustment; and then to provide a communication signal to a next converter in the sequence, wherein said communication signal is adapted to notify an increase or decrease of the power converter conversion ratio in the next converter, according to whether the improvement is observed. in response to a communication signal from a preceding converter in the sequence, to perform an adjustment of the power converter conversion ratio of the power converter circuit; to observe whether there is improvement in maximum power point tracking caused by said adjustment; and then to provide a communication signal to a next converter in the sequence, wherein said communication signal is adapted to notify an increase or decrease of the power converter conversion ratio in the next converter, according to whether the improvement is observed.
Separation device having a conveying-channel arrangement and having a transport-belt arrangement, wherein a material for conveyance is conveyable onto the transport-belt arrangement by means of the conveying-channel arrangement, wherein the conveying-channel arrangement has differently inclined regions, and wherein, by way of the differently inclined regions, a speed cascade of the material-for-conveyance stream is achievable, characterized in that the conveying-channel arrangement has at least two wedge-shaped channels (6, 7), specifically at least one first wedge-shaped channel and at least one second wedge-shaped channel, wherein the second wedge-shaped channel is arranged downstream of the first wedge-shaped channel, wherein the inclination of the wedge-shaped channels (6, 7) is settable, wherein the material for conveyance is conveyable onto the transport-belt arrangement from the second, in particular last, wedge-shaped channel, wherein the second wedge-shaped channel is arranged or arrangeable so as to be inclined to a greater extent than the first wedge-shaped channel, wherein a drop height for the material for conveyance between the second, in particular last, wedge-shaped channel and the transport-belt arrangement is smaller than a drop height for the material for conveyance between the first wedge-shaped channel and the second wedge-shaped channel, and wherein the drop height between the first and second wedge-shaped channels (6, 7) is greater than the respective grain size of the material for conveyance.