mhurhangee/ep-ind-claims huggingface dataset:
A crankshaft for an internal combustion engine of a motor vehicle, having: - a longitudinal central axis, along which the crankshaft extends between a control output and a shaft end remote from the control output, - a plurality of offsets (16, 18, 20, 22) for accommodating at least one connecting rod in each case, - a plurality of main bearing portions (15, 17, 19, 21, 23) for mounting the crankshaft on the engine case, wherein one main bearing portion (15, 17, 19, 21, 23) is arranged on both longitudinal-axial sides of each offset (16, 18, 20, 22), so that two outer main bearing portions (15, 23) and at least one inner main bearing portion (17, 19, 21) are provided, wherein in each case a counterweight (26, 28, 30, 32) for compensating for moments arising from the operation of the internal combustion engine is arranged on at least some of the offsets (16, 18, 20, 22), wherein a counterweight remote from the offset is arranged longitudinal-axially between the control output and the outer main bearing portion near to the control output, and characterised in that the crankshaft between the main bearing portion remote from the control output and the shaft end remote from the control output is formed with a centre of gravity which is arranged at least substantially on the longitudinal central axis. - a longitudinal central axis, along which the crankshaft extends between a control output and a shaft end remote from the control output, - a plurality of offsets (16, 18, 20, 22) for accommodating at least one connecting rod in each case, - a plurality of main bearing portions (15, 17, 19, 21, 23) for mounting the crankshaft on the engine case, wherein one main bearing portion (15, 17, 19, 21, 23) is arranged on both longitudinal-axial sides of each offset (16, 18, 20, 22), so that two outer main bearing portions (15, 23) and at least one inner main bearing portion (17, 19, 21) are provided,
A multipurpose assistance lamp comprising: a lighting unit (10, 10") which has an OLED lighting sheet having a curved surface, a transparent film having a curved surface that is in surface-to-surface contact with a front surface of the OLED lighting sheet while being stacked on the front surface of the OLED lighting sheet, and a casing plate (13, 13') having a curved surface that accommodates and supports the OLED lighting sheet and the transparent film using left and right edges in a state in which the casing plate (13, 13') is in surface-to-surface contact with a back surface of the OLED lighting sheet; a rotary body which is coupled to one end portion of the lighting unit (10, 10") and supports the lighting unit (10, 10"); and a base which is rotatably hingedly coupled to the rotary body, and accommodates therein a circuit part and a battery for operating the OLED lighting sheet. a lighting unit (10, 10") which has an OLED lighting sheet having a curved surface, a transparent film having a curved surface that is in surface-to-surface contact with a front surface of the OLED lighting sheet while being stacked on the front surface of the OLED lighting sheet, and a casing plate (13, 13') having a curved surface that accommodates and supports the OLED lighting sheet and the transparent film using left and right edges in a state in which the casing plate (13, 13') is in surface-to-surface contact with a back surface of the OLED lighting sheet; a rotary body which is coupled to one end portion of the lighting unit (10, 10") and supports the lighting unit (10, 10"); and a base which is rotatably hingedly coupled to the rotary body, and accommodates therein a circuit part and a battery for operating the OLED lighting sheet.
Device for removing at least ice or snow cover from at least one solar collector with at least one element for removal of ice or snow cover, which could be guided over at least a part of the at least one solar collector, whereas the at least one element is formed as a wiper arm and powered by at least one first servo motor and is enabled to make translational and/or gyrotary movement on the at least one solar collector characterized in, that a telescopable part of the wiper arm is driven by a second servo motor lengthwise to a wiper's arm section which is driven by the at least first servo motor.
A method for controlling uplink transmissions on Discontinuous reception, DRX, operation in a wireless communication system, performed by a wireless device, the method comprising: determining, at a first subframe prior to a second subframe, whether or not an onDurationTimer is to be active at the second subframe according to timers for the DRX operation and whether or not radio resource allocation information is received through a physical downlink control channel, PDCCH, at the first subframe; and controlling the uplink transmissions so as not to report a Channel Quality Indicator, CQI, a Precoding Matrix Index, PMI, a Rank Indicator, RI, and a Precoding Type Indicator, PTI, on a Physical Uplink Control Channel, PUCCH, at the second subframe if the onDurationTimer is determined, at the first subframe, to be not active at the second subframe, wherein the CQI, the PMI, the RI and the PTI on the PUCCH is configured by a CQI-masking setup to be reported when the onDurationTimer is active. determining, at a first subframe prior to a second subframe, whether or not an onDurationTimer is to be active at the second subframe according to timers for the DRX operation and whether or not radio resource allocation information is received through a physical downlink control channel, PDCCH, at the first subframe; and controlling the uplink transmissions so as not to report a Channel Quality Indicator, CQI, a Precoding Matrix Index, PMI, a Rank Indicator, RI, and a Precoding Type Indicator, PTI, on a Physical Uplink Control Channel, PUCCH, at the second subframe if the onDurationTimer is determined, at the first subframe, to be not active at the second subframe,
A stream recomposition device (5.1) according to the DVB-T2 or related standard, characterized in that it comprises: - means for receiving a first T2-MI stream (5.2, 6.1) containing a plurality of physical layer pipes, the first T2-MI stream being constituted by frames (6.5) constituted by baseband blocks (6.3); - means for receiving a second T2-MI stream (5.3, 6.2) containing at least one physical layer pipe, the second T2-MI stream being constituted by frames (6.6) of duration identical to the frames of the first T2-MI stream, the baseband blocks (6.4) of the frames (6.6) constituting the second T2-MI stream (5.3, 6.2) being of size identical to the size of the baseband blocks (6.3) of the frames (6.6) constituting the first T2-MI stream (5.2, 6.1); - means (5.6) for synchronizing the frames of the two T2-MI streams, - means (5.7) for replacing, in the first T2-MI stream synchronized with the second T2-MI stream, the baseband blocks of a first physical layer pipe contained in the first T2-MI stream by the baseband blocks of a second physical layer pipe contained in the second T2-MI stream. - means for receiving a first T2-MI stream (5.2, 6.1) containing a plurality of physical layer pipes, the first T2-MI stream being constituted by frames (6.5) constituted by baseband blocks (6.3); - means for receiving a second T2-MI stream (5.3, 6.2) containing at least one physical layer pipe, the second T2-MI stream being constituted by frames (6.6) of duration identical to the frames of the first T2-MI stream, the baseband blocks (6.4) of the frames (6.6) constituting the second T2-MI stream (5.3, 6.2) being of size identical to the size of the baseband blocks (6.3) of the frames (6.6) constituting the first T2-MI stream (5.2, 6.1); - means (5.6) for synchronizing the frames of the two T2-MI streams, - means (5.7) for replacing, in the first T2-MI stream synchronized with the second T2-MI stream, the baseband blocks of a first physical layer pipe contained in the first T2-MI stream by the baseband blocks of a second physical layer pipe contained in the second T2-MI stream.
A component mounting apparatus, comprising: a component mounting unit including a mounting nozzle and a distance detector for optically detecting a distance between a component (301, 1202) held by the mounting nozzle and a board (123, 1301), wherein the distance detector is adapted to form an illuminated region on the board, which is located in a vicinity of a portion obtained by projecting the mounting nozzle onto the board, and wherein the component mounting unit includes a plurality of nozzles (302, 302...) attached to a rotor and a nozzle selecting unit (806, 810) for selecting the mounting nozzle from the plurality of nozzles (302, 302...), the nozzle selecting unit (806, 810) includes a nozzle moving unit that moves the selected mounting nozzle vertically and a nozzle selection motor that rotates the nozzle moving unit, in operation the distance detector moves to a position near the selected mounting nozzle by rotating at substantially the same angle as a rotation angle of the nozzle moving unit by an operation of the nozzle selection motor, and the vicinity is a positional relationship that a distance between the illuminated region and the portion obtained by projecting the selected mounting nozzle onto the board (123, 1301) is smaller than a distance between the illuminated region and a portion obtained by projecting any one of the plurality of nozzles (302, 302...) except the selected mounting nozzle onto the board (123, 1301). a component mounting unit including a mounting nozzle and a distance detector for optically detecting a distance between a component (301, 1202) held by the mounting nozzle and a board (123, 1301), wherein the distance detector is adapted to form an illuminated region on the board, which is located in a vicinity of a portion obtained by projecting the mounting nozzle onto the board, and wherein the component mounting unit includes a plurality of nozzles (302, 302...) attached to a rotor and a nozzle selecting unit (806, 810) for selecting the mounting nozzle from the plurality of nozzles (302, 302...), the nozzle selecting unit (806, 810) includes a nozzle moving unit that moves the selected mounting nozzle vertically and a nozzle selection motor that rotates the nozzle moving unit, in operation the distance detector moves to a position near the selected mounting nozzle by rotating at substantially the same angle as a rotation angle of the nozzle moving unit by an operation of the nozzle selection motor, and the vicinity is a positional relationship that a distance between the illuminated region and the portion obtained by projecting the selected mounting nozzle onto the board (123, 1301) is smaller than a distance between the illuminated region and a portion obtained by projecting any one of the plurality of nozzles (302, 302...) except the selected mounting nozzle onto the board (123, 1301).
A thermoplastic lignin polycondensate prepared by reacting a lactone-based compound with lignin and comprising a structure of Formula 1: wherein m, n, and p represent the numbers of repeating units and are integers of 1 or greater, and is a lignin monomer.
A method for alignment of an optical system having an SLM, the SLM having phase modulating elements, the method comprising: rendering a spatially coherent beam of light incident on the SLM displaying a first pixellated phase distribution; measuring the phase and/or amplitude distribution of the beam on the SLM; and performing relative movement between the beam and the SLM to achieve a desired alignment of a feature of the beam with respect to the SLM, wherein the measuring step comprises: in a measuring region of said SLM where it is required to measure the local amplitude and phase variations, causing the phase distribution to change to a new value while retaining the first phase distribution outside the measuring region; and in the Fourier plane, determining the change in intensity resulting from the change in phase distribution. rendering a spatially coherent beam of light incident on the SLM displaying a first pixellated phase distribution; measuring the phase and/or amplitude distribution of the beam on the SLM; and performing relative movement between the beam and the SLM to achieve a desired alignment of a feature of the beam with respect to the SLM, wherein the measuring step comprises: in a measuring region of said SLM where it is required to measure the local amplitude and phase variations, causing the phase distribution to change to a new value while retaining the first phase distribution outside the measuring region; and in the Fourier plane, determining the change in intensity resulting from the change in phase distribution. in a measuring region of said SLM where it is required to measure the local amplitude and phase variations, causing the phase distribution to change to a new value while retaining the first phase distribution outside the measuring region; and in the Fourier plane, determining the change in intensity resulting from the change in phase distribution.
A method of receiving a short transmission time interval, sTTI,-based downlink, DL, signal by a user equipment, UE, in a wireless communication system, the method comprising: receiving a cell specific reference signal, CRS, and a demodulation reference signal, DMRS, for a DL channel; receiving a channel state information reference signal, CSI-RS, with the DMRS; and demodulating the DL channel using the DMRS, wherein a first frequency shifted pattern for the DMRS is determined not to overlap with resource elements for the CRS based on legacy resource elements for the DMRS colliding the resource elements for the CRS in a first corresponding sTTI, wherein a second frequency shifted pattern for the DMRS is determined not to overlap with resource elements for the CSI-RS based on the legacy resource elements for the DMRS colliding the resource elements for the CSI-RS in a second corresponding sTTI, wherein the first frequency shifted pattern is determined based on a frequency shift value corresponding to a cell identity, and wherein the second frequency shifted pattern is determined based on a configuration of the resource elements for the CSI-RS. receiving a cell specific reference signal, CRS, and a demodulation reference signal, DMRS, for a DL channel; receiving a channel state information reference signal, CSI-RS, with the DMRS; and demodulating the DL channel using the DMRS, wherein a first frequency shifted pattern for the DMRS is determined not to overlap with resource elements for the CRS based on legacy resource elements for the DMRS colliding the resource elements for the CRS in a first corresponding sTTI, wherein a second frequency shifted pattern for the DMRS is determined not to overlap with resource elements for the CSI-RS based on the legacy resource elements for the DMRS colliding the resource elements for the CSI-RS in a second corresponding sTTI, wherein the first frequency shifted pattern is determined based on a frequency shift value corresponding to a cell identity, and wherein the second frequency shifted pattern is determined based on a configuration of the resource elements for the CSI-RS.
A system for detecting a tunnel for a motor vehicle comprising: a radiofrequency signal receiver provided to receive a radiofrequency signal coming from a source external to the vehicle; a controller communicating with the radiofrequency signal receiver, the controller being configured to detect at least one variation in amplitude of the radiofrequency signal received by the receiver; characterized in that the tunnel detection system comprises at least one sensor of at least one weather condition, preferably a light sensor; the controller is configured to determine at least one match level representative of the difference between the detected variation in amplitude of the radiofrequency signal with at least one predetermined variation in amplitude of the reference signal representative of the signal amplitude variation received by the receiver when the receiver passes through a tunnel; the controller is configured to compare the determined match level with a predetermined minimum match threshold; and in that the controller is configured to detect the tunnel through which the detection system passes when the determined match level is greater than or equal to the predetermined minimum match threshold; the controller is configured to detect at least one variation in weather condition; the controller is configured to adjust the predetermined minimum match threshold according to the detected variation in weather condition. a radiofrequency signal receiver provided to receive a radiofrequency signal coming from a source external to the vehicle; a controller communicating with the radiofrequency signal receiver, the controller being configured to detect at least one variation in amplitude of the radiofrequency signal received by the receiver; characterized in that the tunnel detection system comprises at least one sensor of at least one weather condition, preferably a light sensor; the controller is configured to determine at least one match level representative of the difference between the detected variation in amplitude of the radiofrequency signal with at least one predetermined variation in amplitude of the reference signal representative of the signal amplitude variation received by the receiver when the receiver passes through a tunnel; the controller is configured to compare the determined match level with a predetermined minimum match threshold; and in that the controller is configured to detect the tunnel through which the detection system passes when the determined match level is greater than or equal to the predetermined minimum match threshold; the controller is configured to detect at least one variation in weather condition; the controller is configured to adjust the predetermined minimum match threshold according to the detected variation in weather condition.
Fluid distribution system for a battery module assembly with a number of battery modules (2.1-2.6), in which the battery modules (2.1-2.6) each have at least one first fluid connector and each have at least one second fluid connector, which fluid distribution system has: a first main line element from which at least one first branch line portion (7.1) branches off, preferably at right angles; a second main line element from which at least one second branch line portion (7.1') branches off, preferably at right angles; a first connection element (8.1) which is detachably connected or connectable to the branch line portion (7.1) of the first main line element; a second connection element (8.2) which is detachably connected or connectable to the branch line portion (7.1') of the second main line element; which first connection element (8.1) has a first curvature to match a routing direction of the first branch line portion (7.1) to a routing direction of the first fluid connector; which second connection element (8.2) has a second curvature to match a routing direction of the second branch line portion (7.1') to a routing direction of the second fluid connector; characterized by at least one flexible line element, preferably a corrugated hose, which is intended and made for the detachable connection of second first or second main line elements (6, 6'). a first main line element from which at least one first branch line portion (7.1) branches off, preferably at right angles; a second main line element from which at least one second branch line portion (7.1') branches off, preferably at right angles; a first connection element (8.1) which is detachably connected or connectable to the branch line portion (7.1) of the first main line element; a second connection element (8.2) which is detachably connected or connectable to the branch line portion (7.1') of the second main line element; which first connection element (8.1) has a first curvature to match a routing direction of the first branch line portion (7.1) to a routing direction of the first fluid connector; which second connection element (8.2) has a second curvature to match a routing direction of the second branch line portion (7.1') to a routing direction of the second fluid connector; characterized by at least one flexible line element, preferably a corrugated hose, which is intended and made for the detachable connection of second first or second main line elements (6, 6').
An apparatus (200, 300, 400) for characterizing precipitation, the apparatus (200, 300, 400) comprising a precipitation analyzer configured to receive an impedance signal that is indicative of the impedance in a predetermined area on a measurement surface (230, 330), derive, on basis of the impedance signal, a first precipitation rate that is descriptive of accumulated mass of precipitation particles falling on said predetermined area during a calculation period, receive an acoustic signal that is indicative of acoustic impacts caused by said precipitation particles in vicinity of said measurement surface (230, 330), derive, on basis of said acoustic signal, a second precipitation rate that is descriptive of accumulated mass of said precipitation particles during the calculation period, and designate, in response to receiving an indication regarding a presence of precipitation, current precipitation type as one of predetermined precipitation types at least in part on basis of a first precipitation indicator value derived as a ratio of the first and second precipitation rates.
A method, comprising: obtaining, by a controller, a first flow identifier, a first service identifier, and a first next-hop address, wherein the first flow identifier identifies a packet flow, the first service identifier is allocated to the packet flow, the first service identifier identifies a sequence of a plurality of service node instances that process the packet flow, and the first next-hop address identifies an address of a first service node instance of the plurality of service node instances that processes the packet flow; and sending, by the controller, the first flow identifier, the first service identifier and the first next-hop address to a service distribution node. obtaining, by a controller, a first flow identifier, a first service identifier, and a first next-hop address, wherein the first flow identifier identifies a packet flow, the first service identifier is allocated to the packet flow, the first service identifier identifies a sequence of a plurality of service node instances that process the packet flow, and the first next-hop address identifies an address of a first service node instance of the plurality of service node instances that processes the packet flow; and sending, by the controller, the first flow identifier, the first service identifier and the first next-hop address to a service distribution node.