mhurhangee/ep-ind-claims huggingface dataset:
Squirrel cage for a squirrel-cage rotor, the squirrel cage having: a plurality of cage rods, which extend in the axial direction of the squirrel cage; a first short-circuit ring; at least one cage rod of the plurality of cage rods being connected at a first end to the first short-circuit ring via a mechanical connection; characterized in that the mechanical connection of at least one cage rod of the plurality of cage rods to the first short-circuit ring has a first connecting section and a second connecting section; wherein the first connecting section is a welded connection and the second connecting section is a brazed connection. a plurality of cage rods, which extend in the axial direction of the squirrel cage; a first short-circuit ring; at least one cage rod of the plurality of cage rods being connected at a first end to the first short-circuit ring via a mechanical connection; characterized in that the mechanical connection of at least one cage rod of the plurality of cage rods to the first short-circuit ring has a first connecting section and a second connecting section; wherein the first connecting section is a welded connection and the second connecting section is a brazed connection.
A moisture adjustment module comprising a plurality of composite membranes adjacent to one another with spacers therebetween, the composite membranes comprising: a pair of porous membranes; and a moisture-permeable air-impermeable resin layer interposed between said pair of porous membranes, wherein the porous membranes are expanded polytetrafluoroethylene membranes having a maximum pore diameter of 5 μm or less, a mean pore diameter of 0.05 μm or greater, and a void content of 50% or greater and 90% or less, the mean thickness of the resin layer is less than 5μm, at least part of the resin layer is embedded in the porous membranes, said resin comprises a water-resistant resin, and said resin comprises a crosslinked polyvinyl alcohol or an ionomeric polymer. a pair of porous membranes; and a moisture-permeable air-impermeable resin layer interposed between said pair of porous membranes, wherein the porous membranes are expanded polytetrafluoroethylene membranes having a maximum pore diameter of 5 μm or less, a mean pore diameter of 0.05 μm or greater, and a void content of 50% or greater and 90% or less, the mean thickness of the resin layer is less than 5μm, at least part of the resin layer is embedded in the porous membranes, said resin comprises a water-resistant resin, and said resin comprises a crosslinked polyvinyl alcohol or an ionomeric polymer.
A method for changing graphics processing resolution according to a scenario, comprising: determining a first display scenario as a scenario in which energy can be saved; reducing graphics processing resolution of a graphics processing unit; rendering, by the graphics processing unit, at least one target graphics frame in the first display scenario according to the reduced graphics processing resolution, to obtain at least one target image frame; adapting the at least one target image frame according to screen display resolution; and displaying the at least one target image frame adapted; wherein the determining a first display scenario as a scenario in which energy can be saved comprises: obtaining a first graphics frame sequence in the first display scenario; calculating an eigenvalue of the first graphics frame sequence; and determining a display scenario type of the first graphics frame sequence according to the eigenvalue of the first graphics frame sequence, wherein the display scenario type comprises a rapidly changing scenario or a slowly changing scenario, and the rapidly changing scenario is a scenario in which energy can be saved. determining a first display scenario as a scenario in which energy can be saved; reducing graphics processing resolution of a graphics processing unit; rendering, by the graphics processing unit, at least one target graphics frame in the first display scenario according to the reduced graphics processing resolution, to obtain at least one target image frame; adapting the at least one target image frame according to screen display resolution; and displaying the at least one target image frame adapted; wherein the determining a first display scenario as a scenario in which energy can be saved comprises: obtaining a first graphics frame sequence in the first display scenario; calculating an eigenvalue of the first graphics frame sequence; and determining a display scenario type of the first graphics frame sequence according to the eigenvalue of the first graphics frame sequence, wherein the display scenario type comprises a rapidly changing scenario or a slowly changing scenario, and the rapidly changing scenario is a scenario in which energy can be saved. obtaining a first graphics frame sequence in the first display scenario; calculating an eigenvalue of the first graphics frame sequence; and determining a display scenario type of the first graphics frame sequence according to the eigenvalue of the first graphics frame sequence, wherein the display scenario type comprises a rapidly changing scenario or a slowly changing scenario, and the rapidly changing scenario is a scenario in which energy can be saved.
Method for the operation of a machine for producing and/or processing a material web, wherein the machine comprises at least one drive unit (5, 6, 7) with a drive motor and a converter, wherein - a first drive unit (5, 6, 7) is supplied by the assigned converter with a current having a basic waveform for the continuous movement of the material web, - a vibration propagating over the material web during the movement of the material web is captured by means of the first drive unit (5, 6, 7), - the vibration of the material web is measured by the converter of the first drive unit and transformed into an electrical measurement signal, - the electrical measurement signal is examined by an evaluation device for the presence of a signature which differs from the basic waveform of the current for the continuous movement of the material web, - a web tear is identified if the signature propagating over the material web is missing during the evaluation of the electrical measurement signal. - a first drive unit (5, 6, 7) is supplied by the assigned converter with a current having a basic waveform for the continuous movement of the material web, - a vibration propagating over the material web during the movement of the material web is captured by means of the first drive unit (5, 6, 7), - the vibration of the material web is measured by the converter of the first drive unit and transformed into an electrical measurement signal, - the electrical measurement signal is examined by an evaluation device for the presence of a signature which differs from the basic waveform of the current for the continuous movement of the material web, - a web tear is identified if the signature propagating over the material web is missing during the evaluation of the electrical measurement signal.
Drawer guide for the displaceable arrangement of a drawer configured to be pulled out of a carcass in a pull-out direction, comprising at least two guide rails (102, 104, 106), which are displaceable relative to one another along the pull-out direction by means of rolling elements, and at least one functional device for influencing a relative movement of at least one of the at least two guide rails (102, 104, 106) relative to at least one further one of the at least two guide rails (102, 104, 106), wherein at least two substantially C-shaped guide rails (102, 104, 106) are provided, which in each case have a rail back (107, 108, 114), which connects at least two legs to one another, on which at least one rolling element track is configured in each case, wherein at least two C-shaped guide rails (102, 104, 106) are arranged in such a way that their rail backs (107, 108, 114) are arranged facing away from one another, characterised in that the drawer guide comprises at least one receiving element to at least partially receive at least one functional device, at least one receiving element being arranged on an outer side (127, 143), which faces away from the legs of the guide rail (102, 104), of a rail back (107, 108) of a guide rail (102, 104) and/or on an outer side, which faces away from the at least one rolling element track, of a leg of a guide rail (102, 104).
Method for digital triggering of a recording of one or more signals on a digital oscilloscope, in which to determine a trigger point in each case a level comparison is carried out between two successive sample values (S i, j, S i, j-1) of a reference signal (S i) and a threshold value (SW i) and at least one additional sample value (S i, j', S i, j") of the reference signal (S i) is determined by means of interpolation between two successive sample values (S i, j, S i, j-1) of the reference signal (S i), characterised in that a) even if the threshold value (SW i) lies above or below two successive sample values (S i, j, S i, j-1) of the reference signal (S i), additional sample values (S i, j") of the reference signal (S i) are calculated by means of interpolation between the two successive sample values (S i, j, S i, j-1) of the reference signal (S i); and b) the additional sample value (S i, j") of the reference signal (S i) and the adjacent sample value (S i, j, S i, j-1) of the reference signal (S i) on the left and right hand side is in each case compared with the threshold value (SW i) to identify an overshoot or undershoot of the threshold value (SW i) by the reference signal (S i) between the additional sample value (S i, j") of the reference signal (S i) and in each case the adjacent sample value (S i, j, S i, j-1) of the reference signal (S i) on the left and right hand side. a) even if the threshold value (SW i) lies above or below two successive sample values (S i, j, S i, j-1) of the reference signal (S i), additional sample values (S i, j") of the reference signal (S i) are calculated by means of interpolation between the two successive sample values (S i, j, S i, j-1) of the reference signal (S i); and b) the additional sample value (S i, j") of the reference signal (S i) and the adjacent sample value (S i, j, S i, j-1) of the reference signal (S i) on the left and right hand side is in each case compared with the threshold value (SW i) to identify an overshoot or undershoot of the threshold value (SW i) by the reference signal (S i) between the additional sample value (S i, j") of the reference signal (S i) and in each case the adjacent sample value (S i, j, S i, j-1) of the reference signal (S i) on the left and right hand side.
A method performed by a user equipment, UE, for grant free transmissions, the method comprising: receiving, from a network equipment, a radio resource control, RRC, signaling indicating an uplink grant free transmission resource configuration, the uplink grant free transmission resource configuration including a number of transmission repetitions K for grant free transmissions, receiving, from the network equipment, a first downlink control information, DCI, message, wherein the first DCI message includes an activation indication indicating that the UE is permitted to perform uplink grant free data transmissions and a reference signal, RS, value for the UE assigned from a group of RS values, obtaining uplink grant free transmission resources based on the uplink grant free transmission resource configuration indicated in the RRC signaling and the first DCI message, and transmitting, to the network equipment, one or more repetitions of an uplink data transmission using the uplink grant free transmission resources, and using an RS determined based on the RS value. receiving, from a network equipment, a radio resource control, RRC, signaling indicating an uplink grant free transmission resource configuration, the uplink grant free transmission resource configuration including a number of transmission repetitions K for grant free transmissions, receiving, from the network equipment, a first downlink control information, DCI, message, wherein the first DCI message includes an activation indication indicating that the UE is permitted to perform uplink grant free data transmissions and a reference signal, RS, value for the UE assigned from a group of RS values, obtaining uplink grant free transmission resources based on the uplink grant free transmission resource configuration indicated in the RRC signaling and the first DCI message, and transmitting, to the network equipment, one or more repetitions of an uplink data transmission using the uplink grant free transmission resources, and using an RS determined based on the RS value.
Respiratory protection mask in the form of a preferably particle- and/or aerosol-filtering half mask and/or a preferably particle- and/or aerosol-filtering mouth-nose protection, preferably for preventing the transmission of pathogens by droplet infection or preferably for reducing the germ and virus load, wherein the respiratory protection mask has at least one air-permeable textile fabric, wherein the textile fabric is equipped with at least one antimicrobial biopolymer selected from chitosan and/or its derivative or salt, wherein the antimicrobial biopolymer has a weight-average molecular weight M w in the range of from 1,500 Da to 9,499 Da and wherein the antimicrobial biopolymer has a degree of acetylation of at least 5%, based on the acetylatable functional groups of the biopolymer, wherein the antimicrobial biopolymer is applied and/or coated onto the textile fabric, wherein the textile fabric contains the antimicrobial biopolymer in an amount in the range of from 0.001% to 20% by weight, based on the textile fabric, and/or wherein the textile fabric contains the antimicrobial biopolymer in an amount in the range of from 0.1 g/m 2 to 200 g/m 2, based on the textile fabric, and wherein the textile fabric comprises and/or is equipped with at least one additive, wherein the additive is selected from the group consisting of mandelic acid, salicylic acid, ascorbic acid and lactic acid. wherein the respiratory protection mask has at least one air-permeable textile fabric, wherein the textile fabric is equipped with at least one antimicrobial biopolymer selected from chitosan and/or its derivative or salt, wherein the antimicrobial biopolymer has a weight-average molecular weight M w in the range of from 1,500 Da to 9,499 Da and wherein the antimicrobial biopolymer has a degree of acetylation of at least 5%, based on the acetylatable functional groups of the biopolymer, wherein the antimicrobial biopolymer is applied and/or coated onto the textile fabric, wherein the textile fabric contains the antimicrobial biopolymer in an amount in the range of from 0.001% to 20% by weight, based on the textile fabric, and/or wherein the textile fabric contains the antimicrobial biopolymer in an amount in the range of from 0.1 g/m 2 to 200 g/m 2, based on the textile fabric, and wherein the textile fabric comprises and/or is equipped with at least one additive, wherein the additive is selected from the group consisting of mandelic acid, salicylic acid, ascorbic acid and lactic acid.
An axe comprising a blade, having a first side and a second side which are connected with a cutting edge at one end, and a handle, whereby the centre of gravity of the axe is located at a distance from the cutting edge of the axe and lies in a centre-of-gravity plane of the axe located at a distance from a blade plane of the axe parallel with both the centre-of-gravity plane and a normal working motion plane of the axe, whereby the cutting edge of the blade and the centre of gravity of the axe are arranged to cooperate when the blade hits wood and the cutting edge of the blade partly penetrates into the wood such that at least some of the impact force of the blade is converted into a rotational motion and a motion of the blade in a curvilinear trajectory, and the blade is attached to the handle, wherein on the opposite side to the blade plane on which the centre of gravity of the axe lies, the blade is equipped with a first stop element, wherein the first stop element is located at a distance from the cutting edge of the blade, and wherein the first stop element is arranged to stop the blade from penetrating too deeply into the wood before the rotational motion starts, characterized in that the handle is located outside the blade without the handle penetrating the blade and the handle lies at the first side of the blade so that the handle is uncircled by the blade, and in that on the side of the blade plane of the axe on which the centre of gravity of the axe lies, the axe is equipped with a second stop element arranged to hit the wood during the rotational motion of the blade and the motion of the blade in a curvilinear trajectory.
A transmitter, comprising: a driver to output a polar-modulated signal according to a phase-modulation signal and an amplitude-modulation signal; a voltage regulator connected to the driver, wherein the voltage regulator is a low dropout regulator a replica circuit that has a same circuit structure as the driver, but with a lower current consumption, which feeds into the voltage regulator, and which takes the amplitude-modulation signal as input; with the amplitude-modulation signal controlling an input of the voltage regulator and with the amplitude-modulation signal further being combined with an output of the voltage regulator to control an amplitude of the output of the driver to compensate for bandwidth cutoff noise in the voltage regulator, by combining the output of the voltage regulator with a replica of the amplitude modulation signal from the replica circuit before the combined signal is used to control the amplitude output of the driver. a driver to output a polar-modulated signal according to a phase-modulation signal and an amplitude-modulation signal; a voltage regulator connected to the driver, wherein the voltage regulator is a low dropout regulator a replica circuit that has a same circuit structure as the driver, but with a lower current consumption, which feeds into the voltage regulator, and which takes the amplitude-modulation signal as input; with the amplitude-modulation signal controlling an input of the voltage regulator and with the amplitude-modulation signal further being combined with an output of the voltage regulator to control an amplitude of the output of the driver to compensate for bandwidth cutoff noise in the voltage regulator, by combining the output of the voltage regulator with a replica of the amplitude modulation signal from the replica circuit before the combined signal is used to control the amplitude output of the driver.
Solenoid valve having: - a hollow fixed core made of a ferromagnetic material, extending along an axis, - a coil mounted around the fixed core, - a plunger core that is movable along the axis of the fixed core under the effect of the magnetic field generated by the coil, the fixed core having a thinned zone positioned axially between the axial ends of the plunger core, the thinned zone being delimited on the outside by a V-shaped annular groove, which is open radially toward the outside, the solenoid valve being characterized in that the groove is symmetric with respect to a median plane of symmetry perpendicular to the longitudinal axis of the fixed core. - a hollow fixed core made of a ferromagnetic material, extending along an axis, - a coil mounted around the fixed core, - a plunger core that is movable along the axis of the fixed core under the effect of the magnetic field generated by the coil,
Glazing panel for a display device, said glazing panel comprising an assembly of at least: - an external first transparent pane and an internal second transparent pane, each pane comprising an external face and an internal face, said glass panes being joined together by an interlayer made of a thermoformable material or by a multilayer sheet incorporating such an interlayer; - a protective layer made of an opaque material making contact with the internal face of the external first pane; - a masking layer made of an opaque material making contact with the internal face of the internal second pane, said masking layer comprising apertures forming pictograms; and - a uniform layer of a material doped with luminescent species chosen because they absorb light radiation produced by the source (3a, 3b) generating radiation in the UV or IR range, and re-emit light radiation in the visible range, said uniform layer being placed in the glazing panel, between said masking layer and said protective layer. - an external first transparent pane and an internal second transparent pane, each pane comprising an external face and an internal face, said glass panes being joined together by an interlayer made of a thermoformable material or by a multilayer sheet incorporating such an interlayer; - a protective layer made of an opaque material making contact with the internal face of the external first pane; - a masking layer made of an opaque material making contact with the internal face of the internal second pane, said masking layer comprising apertures forming pictograms; and - a uniform layer of a material doped with luminescent species chosen because they absorb light radiation produced by the source (3a, 3b) generating radiation in the UV or IR range, and re-emit light radiation in the visible range, said uniform layer being placed in the glazing panel, between said masking layer and said protective layer.