mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting data between two devices (4, 5), wherein for the intended use thereof, both devices (4, 5) have means for sending and/or receiving signals by means of a carrier wave, especially an electromagnetic carrier wave, in the low-frequency range, wherein the signal transmitted between said two devices (4, 5) includes a datum consisting of bits, and wherein the signal is modulated by means of a phase-shift keying method so that the change of one bit in the datum is coded by the discrete modification of the phase in the manner of a phase shift of the carrier wave, characterized in that the one device can be switched between an activated state in which some functionality is enabled and a sleep state in which only reduced functionality with respect to the activated state, possibly with reduced energy consumption, is enabled, in that the signal emitted by the other device switches the one device between the sleep state and the activated state, in particular transitioning the same in the manner of a wake-up signal from the sleep state into the activated state, and in that the wake-up signal is phase-shift coded.
An apparatus having a plurality of transmit antennas and a plurality of receive antennas, the apparatus being configured to: form a multi-user multiple-input and multiple-output, MU-MIMO, group, wherein the MU-MIMO group comprises a plurality of wireless devices (12, 20, 22, 28); transmit, using the plurality of transmit antennas, data packets to the plurality of wireless devices (12, 20, 22, 28) using the same time and frequency resources; and decide whether to maintain the MU-MIMO group or to form a different MU-MIMO group, based on acknowledgement messages of the plurality of wireless devices (12, 20, 22, 28); wherein the apparatus is a wireless local area network, WLAN, access point; and the apparatus is configured to replace previously used frequency-domain precoders with time-domain precoders, if less than all but one of the wireless devices (12, 20, 22, 28) support delayed block acknowledgement, BA. form a multi-user multiple-input and multiple-output, MU-MIMO, group, wherein the MU-MIMO group comprises a plurality of wireless devices (12, 20, 22, 28); transmit, using the plurality of transmit antennas, data packets to the plurality of wireless devices (12, 20, 22, 28) using the same time and frequency resources; and decide whether to maintain the MU-MIMO group or to form a different MU-MIMO group, based on acknowledgement messages of the plurality of wireless devices (12, 20, 22, 28); wherein the apparatus is a wireless local area network, WLAN, access point; and the apparatus is configured to replace previously used frequency-domain precoders with time-domain precoders, if less than all but one of the wireless devices (12, 20, 22, 28) support delayed block acknowledgement, BA.
A rubber composition that is based upon a cross-linkable elastomer composition, the cross-linkable elastomer composition comprising, per 100 parts by weight of rubber (phr): between 70 phr and 100 phr of an epoxidized rubber component selected from an epoxidized polybutadiene rubber (eBR), an epoxidized styrene-butadiene rubber (eSBR), or combinations thereof, wherein the epoxidized rubber component has a Tg of between -80 °C and -110 °C and an epoxy-function content of between 1 mol% and 25 mol%; between 30 phr and 150 phr of a plasticizing resin; silica; and a coupling agent that is a monohydroxysilane polysulfide having a form wherein radicals R, identical or different, are hydrocarbon groups, radicals R', identical or different, are divalent linking groups and x is equal to or greater than 2. between 70 phr and 100 phr of an epoxidized rubber component selected from an epoxidized polybutadiene rubber (eBR), an epoxidized styrene-butadiene rubber (eSBR), or combinations thereof, wherein the epoxidized rubber component has a Tg of between -80 °C and -110 °C and an epoxy-function content of between 1 mol% and 25 mol%; between 30 phr and 150 phr of a plasticizing resin; silica; and a coupling agent that is a monohydroxysilane polysulfide having a form wherein radicals R, identical or different, are hydrocarbon groups, radicals R', identical or different, are divalent linking groups and x is equal to or greater than 2.
A composite insulation covering (10, 20, 50, 150, 200, 250) positioned on an exhaust component (20, 80, 110, 260, 310) comprising: a braided tape (40, 60, 125, 255, 320) positioned on the exhaust component (30, 80, 110, 260, 310) and conforming to the component (30, 80, 110, 260, 310); a self-molding fiber cover (340, 440) comprising an elastic structure covering the braided tape positioned on the exhaust component (30, 80, 110, 260, 310) and providing compression around the exhaust component (30, 80, 110, 260, 310), wherein the self-molding fiber cover (340, 440) is formed as a sleeve tube; and one or more composite matrix solutions (330, 350, 360, 460) permeating at least a portion of the braided tape and the self-molding fiber cover positioned on the exhaust component (30, 80, 110, 260, 310), the one or more composite matrix solutions (330, 350, 360, 460) comprising a dispersion of ground thermoplastic polymer in an organic or non-organic solvent, and the one or more composite matrix solutions (330, 350, 360, 460) being heat-cured to thereby mechanically and chemically bond the braided tape (40, 60, 125, 255, 320) and the self-molding fiber cover (340, 440) to form the composite insulation covering. a braided tape (40, 60, 125, 255, 320) positioned on the exhaust component (30, 80, 110, 260, 310) and conforming to the component (30, 80, 110, 260, 310); a self-molding fiber cover (340, 440) comprising an elastic structure covering the braided tape positioned on the exhaust component (30, 80, 110, 260, 310) and providing compression around the exhaust component (30, 80, 110, 260, 310), wherein the self-molding fiber cover (340, 440) is formed as a sleeve tube; and one or more composite matrix solutions (330, 350, 360, 460) permeating at least a portion of the braided tape and the self-molding fiber cover positioned on the exhaust component (30, 80, 110, 260, 310), the one or more composite matrix solutions (330, 350, 360, 460) comprising a dispersion of ground thermoplastic polymer in an organic or non-organic solvent, and the one or more composite matrix solutions (330, 350, 360, 460) being heat-cured to thereby mechanically and chemically bond the braided tape (40, 60, 125, 255, 320) and the self-molding fiber cover (340, 440) to form the composite insulation covering.
An electrical connection device, which is provided for connecting an electrical conductor to an electrical assembly, wherein the connection device has a spring cage having a contact spring and an application region opposite to the contact spring, and also a retaining means, which is adjustable from a base state, in which the electrical conductor is insertable into the spring cage, into an installation state, in which the contact spring presses against the electrical conductor and clamps it in the spring cage, wherein the retaining means is arranged displaceably between the application region and the contact spring, characterized in that it has an insertion funnel for supplying the electrical conductor to the retaining means, and the retaining means has an application web, which is arranged in the base state between the electrical conductor and the contact spring and bends in the direction of the electrical conductor during the displacement of the retaining means.
A wind turbine system (1, 1A) comprising: a ring gear; a yaw drive unit including a pinion gear meshing with the ring gear, the yaw drive unit being configured to rotate the pinion gear; a yaw brake unit (130, 140) configured to generate a braking force for inhibiting rotation of the ring gear; a load information acquiring unit configured to acquire an external load applied to the ring gear; and a control unit (320, 320A) configured to release the braking force of the yaw brake unit (130, 140) when a rotational torque generated on the ring gear by the yaw drive unit has been larger than the external load acquired by the load information acquiring unit, in switching the ring gear from a stationary state to a rotating state. a ring gear; a yaw drive unit including a pinion gear meshing with the ring gear, the yaw drive unit being configured to rotate the pinion gear; a yaw brake unit (130, 140) configured to generate a braking force for inhibiting rotation of the ring gear; a load information acquiring unit configured to acquire an external load applied to the ring gear; and a control unit (320, 320A) configured to release the braking force of the yaw brake unit (130, 140) when a rotational torque generated on the ring gear by the yaw drive unit has been larger than the external load acquired by the load information acquiring unit, in switching the ring gear from a stationary state to a rotating state.
A disposable measurement tip for an optical instrument for measuring light absorbance in a sample (f') from a liquid sample (f), the disposable measurement tip comprising; i) a tip body (e); ii) a capillary filling channel (a) in the tip body (e) for holding the sample (f') to be analyzed and having an opening (a') on one end of the tip body (e) to receive the sample (f') to be analyzed; iii) a population of micro-particles (c) pre-deposited within the capillary filling channel (a) and which can be suspended within the sample (f') to be analyzed when the sample (f') to be analyzed is received in the capillary filling channel (a) by capillary force; iv) an attachment point (d) for an optical instrument on the other end of the tip body (e), wherein in use the sample (f') to be analyzed in the tip is illuminated by the optical instrument from the attachment point (d) and the illumination impinges on the micro-particles (c) whereby the illumination is reflected by the micro-particles (c) several times such that the light travels a distance through the sample (f') to be analyzed, to be absorbed by the sample (f') to be analyzed, before the light is reflected back to the attachment point (d) for detection by the optical instrument and to thereby enable the measurement of light absorbance. i) a tip body (e); ii) a capillary filling channel (a) in the tip body (e) for holding the sample (f') to be analyzed and having an opening (a') on one end of the tip body (e) to receive the sample (f') to be analyzed; iii) a population of micro-particles (c) pre-deposited within the capillary filling channel (a) and which can be suspended within the sample (f') to be analyzed when the sample (f') to be analyzed is received in the capillary filling channel (a) by capillary force; iv) an attachment point (d) for an optical instrument on the other end of the tip body (e), wherein in use the sample (f') to be analyzed in the tip is illuminated by the optical instrument from the attachment point (d) and the illumination impinges on the micro-particles (c) whereby the illumination is reflected by the micro-particles (c) several times such that the light travels a distance through the sample (f') to be analyzed, to be absorbed by the sample (f') to be analyzed, before the light is reflected back to the attachment point (d) for detection by the optical instrument and to thereby enable the measurement of light absorbance.
An apparatus comprising a processor, a memory, and communication circuitry, the apparatus being connected to a communications network via its communication circuitry, the apparatus further comprising computer-executable instructions stored in the memory of the apparatus which, when executed by the processor of the apparatus, cause the apparatus to perform logical channel prioritization for a new transmission by incrementing, a size, Bj, of a prioritized bucket of a Logical Channel, LCHj, by a product of a Prioritized Bit Rate, PBR, of the LCHj times a time interval between consecutive transmission opportunities, DTTI, where uplink data transmission with an uplink grant can take place, the transmission opportunities being chosen whether or not data from the LCHj is served at the transmission opportunities, and wherein a transmission opportunity for LCHj is defined as a time instant of uplink data transmission with an uplink grant that may serve LCHj.
A dining car for a railway vehicle, including first and second side faces laid out facing each other, and a first lower floor, the dining car comprising a first consumption area, a second preparation area, and a third technical area, wherein: - the first side face includes first supporting portions supporting a second upper floor, and - the first, second and third areas are all made on the first lower floor, and - the second upper floor extends transversely between a first side edge, assembled with each first supporting portion, and a second side edge, the second side edge being spaced apart from the second side face by a non-zero distance, so as to delimit a transverse aperture between this second side edge and this second side face, characterized in that the second side face includes second supporting portions, the dining car including horizontal cross-pieces, each connecting the second upper floor to the respective one of the second supporting portions. - the first side face includes first supporting portions supporting a second upper floor, and - the first, second and third areas are all made on the first lower floor, and - the second upper floor extends transversely between a first side edge, assembled with each first supporting portion, and a second side edge, the second side edge being spaced apart from the second side face by a non-zero distance, so as to delimit a transverse aperture between this second side edge and this second side face,
An electric drive unit for driving at least two wheels of a motor vehicle, which has an exclusively electrically drivable wheel axle, wherein the wheel axle is connected to at least one electric traction motor in order to transmit a drive torque and to a central brake in order to transmit a brake torque, characterized in that a transmission gear having at least two gear stages (17, 20a, 20b) and at least one intermediate gear shaft (18, 20) is arranged between the traction motor and the wheel axle, wherein the central brake is integrated in an intermediate gear shaft (18, 30) of the transmission gear.
A heterocyclic-substituted pyridinopyrimidinone derivative, that has the following Formula I or a pharmaceutically acceptable salt thereof: Wherein, R 1 represents hydrogen, C 1 -C 3 alkyl, or C 3 -C 7 cycloalkyl; R 2 represents C 1 -C 5 alkyl,or C 3 -C 7 cycloalkyl; R 3 and R 4 independently represent- hydrogen, C 1 -C 3 alkyl, C 3 -C 7 cycloalkyl, acetyl, halogen, trifluoromethyl, cyano or CONR 5 R 6; or R 3, R 4 together with the carbon atom to which they are attached form a C 3 -C 7 aliphatic ring; R 5 and R 6 independently represents hydrogen or methyl; X represents O, or S; n is 0 or 1. R 1 represents hydrogen, C 1 -C 3 alkyl, or C 3 -C 7 cycloalkyl; R 2 represents C 1 -C 5 alkyl,or C 3 -C 7 cycloalkyl; R 3 and R 4 independently represent- hydrogen, C 1 -C 3 alkyl, C 3 -C 7 cycloalkyl, acetyl, halogen, trifluoromethyl, cyano or CONR 5 R 6; or R 3, R 4 together with the carbon atom to which they are attached form a C 3 -C 7 aliphatic ring; R 5 and R 6 independently represents hydrogen or methyl; X represents O, or S; n is 0 or 1.
A fluorescent display formed from a glass/glass laminate with a side S facing the sunlight and a side B facing the observer of the fluorescent display, having at least one interlayer film containing UV absorbers, fluorophores and plasticized polyvinyl acetal, wherein the UV absorbers and the fluorophores in the interlayer film are spatially disposed in a manner such that the fluorophores can be excited by UV radiation without the UV absorbers absorbing said radiation, characterized in that the UV absorbers are disposed on the side S of the fluorescent display facing the sunlight and the interlayer film comprises: - at least one first layer of plasticized polyvinyl acetal containing a low molecular weight UV absorber which is disposed on the side S of the fluorescent display, - at least one thin film as a diffusion barrier for the fluorophore and the low molecular weight UV absorbers, and - at least one second layer of plasticized polyvinyl acetal containing the fluorophore, no low molecular weight UV absorbers nor a UV absorber which does not absorb at the selected excitation wavelength of the fluorophore, disposed on side B of the fluorescent display. - at least one first layer of plasticized polyvinyl acetal containing a low molecular weight UV absorber which is disposed on the side S of the fluorescent display, - at least one thin film as a diffusion barrier for the fluorophore and the low molecular weight UV absorbers, and - at least one second layer of plasticized polyvinyl acetal containing the fluorophore, no low molecular weight UV absorbers nor a UV absorber which does not absorb at the selected excitation wavelength of the fluorophore, disposed on side B of the fluorescent display.
A device, comprising: a plurality of ports to receive a plurality of audio or video, AV, streams; an electronic program guide, EPG, decoder to decode program names and information about the programs embedded in at least one of the plurality of AV streams; a port to receive input from a navigation device including an estimated time of arrival at a destination; an AV content control unit configured to recursively modify a playback length of a selected program of at least one of the plurality of AV streams by modifying a playback rate of the AV stream, in dependence on the selected program length, to fit the entire playback within an input time interval determined from the estimated time of arrival; an AV decoder to decode the selected program; and a memory buffer coupled to the AV decoder and the AV content control unit, wherein the memory buffer is used by the AV content control unit to buffer at least one of the plurality of AV streams. a plurality of ports to receive a plurality of audio or video, AV, streams; an electronic program guide, EPG, decoder to decode program names and information about the programs embedded in at least one of the plurality of AV streams; a port to receive input from a navigation device including an estimated time of arrival at a destination; an AV content control unit configured to recursively modify a playback length of a selected program of at least one of the plurality of AV streams by modifying a playback rate of the AV stream, in dependence on the selected program length, to fit the entire playback within an input time interval determined from the estimated time of arrival; an AV decoder to decode the selected program; and a memory buffer coupled to the AV decoder and the AV content control unit, wherein the memory buffer is used by the AV content control unit to buffer at least one of the plurality of AV streams.
A method comprising: receiving by a first gateway a data packet from a first host, wherein the data packet is in destination to a second host, the data packet comprising a MAC address of the second host as a destination MAC address and a MAC address of the first host as a source MAC address; replacing by the first gateway the destination MAC address with a MAC address of a second gateway serving the second host and replacing the source MAC address by a combination of a shortened identifier of the first host and a shortened identifier of the second host; transmitting by the first gateway the data packet in accordance with the destination MAC address of the second gateway serving the second host. receiving by a first gateway a data packet from a first host, wherein the data packet is in destination to a second host, the data packet comprising a MAC address of the second host as a destination MAC address and a MAC address of the first host as a source MAC address; replacing by the first gateway the destination MAC address with a MAC address of a second gateway serving the second host and replacing the source MAC address by a combination of a shortened identifier of the first host and a shortened identifier of the second host; transmitting by the first gateway the data packet in accordance with the destination MAC address of the second gateway serving the second host.
A liquid sealing actuator system (100; 300; 500; 700), comprising: an inner shaft (105; 515; 705) having a first end; a hollow outer shaft (110; 510; 710) having a first end that receives the first end of the inner shaft; and a mass attached to a distal end of either the inner shaft or the outer shaft; characterised in that the system further comprises at least one sealing ring (200; 1030) positioned adjacent an internal surface of the hollow outer shaft, wherein the at least one sealing ring has an outer diameter that is less than an inner diameter of the outer shaft, thereby defining an annular seal gap; and a pressure source that can inject a pressurised fluid into the hollow outer shaft, thereby applying a pressure against both the first end of the inner shaft and the at least one sealing ring that assists in lifting the mass; wherein the system (100; 300; 500; 700) is at least partially immersed in an external liquid such that the at least one sealing ring (200; 1030) is submerged in the external liquid and a head of the external liquid above the at least one sealing ring defines a backpressure in the annular seal gap that opposes the pressure applied by the pressure source. an inner shaft (105; 515; 705) having a first end; a hollow outer shaft (110; 510; 710) having a first end that receives the first end of the inner shaft; and a mass attached to a distal end of either the inner shaft or the outer shaft; characterised in that the system further comprises at least one sealing ring (200; 1030) positioned adjacent an internal surface of the hollow outer shaft, wherein the at least one sealing ring has an outer diameter that is less than an inner diameter of the outer shaft, thereby defining an annular seal gap; and a pressure source that can inject a pressurised fluid into the hollow outer shaft, thereby applying a pressure against both the first end of the inner shaft and the at least one sealing ring that assists in lifting the mass; wherein the system (100; 300; 500; 700) is at least partially immersed in an external liquid such that the at least one sealing ring (200; 1030) is submerged in the external liquid and a head of the external liquid above the at least one sealing ring defines a backpressure in the annular seal gap that opposes the pressure applied by the pressure source.
Method for monitoring a loading space in a vehicle, using an optical sensor installed in the loading space, a computer system having image processing software and a graphical user interface, characterized in that a raster R of the loading space is stored in the computer system, in that an image I (t 1) captured by the optical sensor at a point in time t 1 is converted in the computer system into a raster image RI, which depicts the occupancy, non-occupancy or occupancy change of the loading space according to the stored raster R, and in that the raster image RI is displayed on the graphical user interface.