mhurhangee/ep-ind-claims huggingface dataset:
End for a container, the end comprising: (a) a central panel, that defines an x-y-plane, a z-direction being perpendicular to the x-y-plane; (b) a tab attached to the end, wherein the tab comprises a front portion and a rear portion, and wherein the tab extends in a positive z-direction; (c) a depression, that is formed in the end and wherein the depression extends in a negative z-direction, the depression being shaped and positioned to allow a human finger to reach at least in part below the rear portion of the tab; (d) at least one first bead, that is shaped in the end and wherein the first bead extends in the negative z-direction; (e) wherein the depression and the first bead are shaped and positioned such that when the end is positioned on a flat surface while the depression and the first bead contact the flat surface, the x-y-plane defined by the central panel is parallel ±2.0 ° to the flat surface; characterized in that the end comprises a stabilizing bead that is shaped in the end, wherein the stabilizing bead extends in the positive z-direction, and the extension (sT) of the tab in the positive z-direction is equal to the extension (sPB) of the stabilizing bead in the positive z-direction ±0.3 mm. (a) a central panel, that defines an x-y-plane, a z-direction being perpendicular to the x-y-plane; (b) a tab attached to the end, wherein the tab comprises a front portion and a rear portion, and wherein the tab extends in a positive z-direction; (c) a depression, that is formed in the end and wherein the depression extends in a negative z-direction, the depression being shaped and positioned to allow a human finger to reach at least in part below the rear portion of the tab; (d) at least one first bead, that is shaped in the end and wherein the first bead extends in the negative z-direction; (e) wherein the depression and the first bead are shaped and positioned such that when the end is positioned on a flat surface while the depression and the first bead contact the flat surface, the x-y-plane defined by the central panel is parallel ±2.0 ° to the flat surface; the end comprises a stabilizing bead that is shaped in the end, wherein the stabilizing bead extends in the positive z-direction, and the extension (sT) of the tab in the positive z-direction is equal to the extension (sPB) of the stabilizing bead in the positive z-direction ±0.3 mm.
A controller for controlling behavior of a straddle-type vehicle, the controller comprising: an acquisition section that acquires trigger information during travel of the straddle-type vehicle; and an execution section that initiates a control mode according to the trigger information, in the control mode, behavior control operation to make the straddle-type vehicle automatically decelerate or automatically accelerate being performed, characterized in that the acquisition section further acquires yaw rate information of the traveling straddle-type vehicle, in the control mode, the execution section changes the behavior control operation according to the yaw rate information, which is acquired by the acquisition section, and in the control mode, at an initiation of the automatic deceleration or the automatic acceleration, or during the execution of the automatic deceleration or the automatic acceleration, the execution section changes a second-order differential value of a vehicle body speed according to the yaw rate information. an acquisition section that acquires trigger information during travel of the straddle-type vehicle; and an execution section that initiates a control mode according to the trigger information, in the control mode, behavior control operation to make the straddle-type vehicle automatically decelerate or automatically accelerate being performed, characterized in that the acquisition section further acquires yaw rate information of the traveling straddle-type vehicle, in the control mode, the execution section changes the behavior control operation according to the yaw rate information, which is acquired by the acquisition section, and in the control mode, at an initiation of the automatic deceleration or the automatic acceleration, or during the execution of the automatic deceleration or the automatic acceleration, the execution section changes a second-order differential value of a vehicle body speed according to the yaw rate information. in the control mode, the execution section changes the behavior control operation according to the yaw rate information, which is acquired by the acquisition section, and in the control mode, at an initiation of the automatic deceleration or the automatic acceleration, or during the execution of the automatic deceleration or the automatic acceleration, the execution section changes a second-order differential value of a vehicle body speed according to the yaw rate information.
A wind turbine rotor blade with an electrical heating device for heating a heatable surface region of the wind turbine rotor blade, wherein the electrical heating device has a plurality of heating conductors (34-42, 46) that are insulated from each other, and whose area density dictates an area output of the electrical heating device, and two supply lines (28, 30) that run substantially in a longitudinal direction of the wind turbine rotor blade and are connectable to an electrical voltage source, wherein the heating conductors (34-42, 46) are parallel-connected and connect the two supply lines (28, 30) to each other at a predetermined radial position of the wind turbine rotor blade, characterized in that the electrical heating device is designed so that, while the heating device is operating, a maximum temperature is achieved in a section of the wind turbine rotor blade close to the blade root in which a temperature sensor is arranged.
A valve assembly, comprising: a tubular poppet comprising a first end, a second end opposite the first end, a hollow internal central region open at the first end and enclosed at the second end, and a poppet seat located at the second end; a hole set comprising at least one hole in the tubular poppet located towards the second end; a cylindrical control sleeve attached to the second end, the control sleeve configured to slide between the second end to a control sleeve stopping point on the tubular poppet towards the first end in an open position, wherein when the control sleeve is in the open position at least a portion of the hole set is exposed creating an unrestrained main flow channel between the central region and an outside region of the poppet through the hole set, wherein the control sleeve comprises a control face facing the first end and an opposing parallel forward face, the forward face and the control face having substantially equal outer diameters; and a spring positioned around the tubular poppet and configured such that the spring naturally pushes the control sleeve towards the second end in a closed position so when the control sleeve is in the closed position the control sleeve circumferentially abuts the poppet seat which stops further movement of the control sleeve towards the second end forming a seal which extinguishes the unrestrained main flow channel, wherein the inside diameter of the spring exceeds the outside diameter of the tubular poppet, characterised in that the control sleeve further comprises a passage configured to enable flow through the control sleeve.
A packet data transmission method of a mobile station including a plurality of antennas (180, 190), in an orthogonal frequency division multiplex access, OFDMA, system, the packet data transmission method comprising: a) generating a random access channel, RACH, burst; b) selecting a first antenna among the plurality of antennas (180, 190) and transmitting the RACH burst to a base station through the first antenna; c) receiving a signal including information on whether the base station allows data transmission, in response to the RACH burst; and d) when receiving a signal indicating that the data transmission is allowed, transmitting user packet data through the first antenna, wherein when receiving a signal indicating that the data transmission is not allowed, selecting a second antenna that is different from the first antenna and transmitting the RACH burst through the second antenna. a) generating a random access channel, RACH, burst; b) selecting a first antenna among the plurality of antennas (180, 190) and transmitting the RACH burst to a base station through the first antenna; c) receiving a signal including information on whether the base station allows data transmission, in response to the RACH burst; and d) when receiving a signal indicating that the data transmission is allowed, transmitting user packet data through the first antenna, wherein when receiving a signal indicating that the data transmission is not allowed, selecting a second antenna that is different from the first antenna and transmitting the RACH burst through the second antenna.
A method characterised by: determining a level of a first buffer (125a, 125b) at a predetermined position of a data frame sequence, said first buffer storing data samples; and synchronizing (250,280) a vocoder and a modem of a mobile station based on the determined level of the first buffer (125a, 125b) at said predetermined position of said data frame sequence. determining a level of a first buffer (125a, 125b) at a predetermined position of a data frame sequence, said first buffer storing data samples; and synchronizing (250,280) a vocoder and a modem of a mobile station based on the determined level of the first buffer (125a, 125b) at said predetermined position of said data frame sequence.
A monitoring system for an energy system, comprising: N > 1 optical sensors (S1, S2, SN), each optical sensor operating within a different wavelength range and emanating output light in response to input light, the output light having a centroid wavelength that changes in response to a sensed parameter of the energy system; a plurality of photodetectors comprising N pairs of photodetectors, each photodetector configured to generate an electrical signal in response to light incident on a light sensitive surface of the photodetector; and an optical coupler including at least one input waveguide configured to receive light from the optical sensors and a plurality of output waveguides comprising N pairs of output waveguides (645a-b, 646a-b, 64Na-b), the optical coupler configured to spatially disperse light from the input waveguide to the N pairs of output waveguides according to wavelength so that the output light emanating from each optical sensor is optically coupled to a pair of photodetectors through a pair of output waveguides, wherein the output waveguides in the pair are arranged and configured to allow crosstalk between the pair of output waveguides so that the amount of optical signal carried by each output waveguide of the pair changes as a result of the centroid wavelength of the optical signal changing, and wherein the electrical signal generated by the photodetector in response to the sensor output light provides information about the sensed parameter of the energy system. N > 1 optical sensors (S1, S2, SN), each optical sensor operating within a different wavelength range and emanating output light in response to input light, the output light having a centroid wavelength that changes in response to a sensed parameter of the energy system; a plurality of photodetectors comprising N pairs of photodetectors, each photodetector configured to generate an electrical signal in response to light incident on a light sensitive surface of the photodetector; and an optical coupler including at least one input waveguide configured to receive light from the optical sensors and a plurality of output waveguides comprising N pairs of output waveguides (645a-b, 646a-b, 64Na-b), the optical coupler configured to spatially disperse light from the input waveguide to the N pairs of output waveguides according to wavelength so that the output light emanating from each optical sensor is optically coupled to a pair of photodetectors through a pair of output waveguides, wherein the output waveguides in the pair are arranged and configured to allow crosstalk between the pair of output waveguides so that the amount of optical signal carried by each output waveguide of the pair changes as a result of the centroid wavelength of the optical signal changing, and wherein the electrical signal generated by the photodetector in response to the sensor output light provides information about the sensed parameter of the energy system.
A method for labeling specifically living bacteria of a given category of bacteria in a sample comprising bacteria, the method comprising the steps of: a) incubating said bacteria of said sample with at least one analog of a monosaccharide compound, said monosaccharide being an endogenous monosaccharide residue of glycans of the outer membrane of such given category of bacteria, the said endogenous monosaccharide residue comprising an ulosonic acid or ulosonate salt residue, the said analog of a monosaccharide compound being a modified monosaccharide substituted at a given position by a first reactive chemical group capable to react with a second reactive group of a labeling molecule, the said given position being preferably a position which comprises a free group in the said endogenous monosaccharide residue incorporated within said glycans of the outer membrane of the bacteria, b) contacting said bacteria with a said labeling molecule comprising a said second reactive group, for generating the reaction of said first reactive group of said analog residue incorporated within said glycans of the outer membrane of said living bacteria with said second reactive group of said labeling molecule. a) incubating said bacteria of said sample with at least one analog of a monosaccharide compound, said monosaccharide being an endogenous monosaccharide residue of glycans of the outer membrane of such given category of bacteria, the said endogenous monosaccharide residue comprising an ulosonic acid or ulosonate salt residue, the said analog of a monosaccharide compound being a modified monosaccharide substituted at a given position by a first reactive chemical group capable to react with a second reactive group of a labeling molecule, the said given position being preferably a position which comprises a free group in the said endogenous monosaccharide residue incorporated within said glycans of the outer membrane of the bacteria, b) contacting said bacteria with a said labeling molecule comprising a said second reactive group, for generating the reaction of said first reactive group of said analog residue incorporated within said glycans of the outer membrane of said living bacteria with said second reactive group of said labeling molecule.
A lens apparatus, comprising: a first optical unit configured to change a field curvature amount of a projection optical system by shifting in an optical axis direction of the projection optical system; a second optical unit (2, 3) including a focus adjustment sub unit configured to move during focusing and a zoom adjustment sub unit configured to move during zooming, the second optical unit being configured to change projection magnification and a focus position of the projection optical system by shifting in the optical axis direction of the projection optical system; a first detection unit for detecting a position of the first optical unit; a memory configured to store change information regarding changes in projection magnification and focus position of the projection optical system through the shift of the first optical unit; and a control unit configured to control the second optical unit to shift so as to reduce the changes in projection magnification and focus position of the projection optical system, which is caused due to the shift of the first optical unit, when the field curvature amount of the projection optical system is changed, based on the position of the first optical unit detected by the first detection unit and the change information stored in the memory. a first optical unit configured to change a field curvature amount of a projection optical system by shifting in an optical axis direction of the projection optical system; a second optical unit (2, 3) including a focus adjustment sub unit configured to move during focusing and a zoom adjustment sub unit configured to move during zooming, the second optical unit being configured to change projection magnification and a focus position of the projection optical system by shifting in the optical axis direction of the projection optical system; a first detection unit for detecting a position of the first optical unit; a memory configured to store change information regarding changes in projection magnification and focus position of the projection optical system through the shift of the first optical unit; and a control unit configured to control the second optical unit to shift so as to reduce the changes in projection magnification and focus position of the projection optical system, which is caused due to the shift of the first optical unit, when the field curvature amount of the projection optical system is changed, based on the position of the first optical unit detected by the first detection unit and the change information stored in the memory.
A plastic pallet with an underside comprising skids (2, 2') and a top side, wherein a skid is a middle skid running along the middle of the plastic pallet and wherein one skid comprises a handle which is accessible from the underside of the pallet, characterized in that the middle skid comprises the handle, wherein the handle is arranged in the middle of the middle skid, in the geometric centre of the pallet, relative to the length and width of the pallet, wherein the handle is elongated and comprises a U-shaped cross-section, and wherein a cavity is provided for fingers between the handle and the top side of the plastic pallet in such a way that the pallet can be carried with one hand.
A shock absorber comprising a tubular first portion in the form of a shock absorber casing telescopically receiving a tubular second portion in the form of a piston, said first portion comprising an alignment member which encapsulates a friction element wrapped around said second portion and which is longitudinally movable in between a first stop bearing and a second stop bearing such that friction occurs in between the friction element and the piston during the oscillatory relative movement of said first and second portions, wherein the friction element which does not move with respect to the alignment member is entrapped within a closed volume, the outer ends of which are defined by the two stop bearings and, the movement of the shock absorber piston in the longitudinal axis within the casing being enabled by the casing stop bearing and the lock ring stop bearings guiding the piston in the inside of the casing and the lock ring, wherein the bearing within the shock absorber casing and the bearing within the lock ring bear the preferably tubular metal part of the shock absorber piston such that there will be a very slight contact, characterized in that the friction element has a plurality of tips or protrusions which extend, parallel to the longitudinal direction of said piston, towards at least one of the two bearings (18 or 19) and which hit either of said bearings (18 or 19) during the oscillatory back and forth movement of said alignment member during operation wherein the inner diameter of the alignment member is larger than the outer diameters of the two stop bearings (18,19) whereby it is ensured that the two stop bearings contact with the tips of the friction element during use of the shock absorber wherein said friction element is a longitudinal strip of a flexible material, and wherein the tips of the friction element, in use, deform in shape and fill the gaps in between neighbouring tips.
A work vehicle, comprising: a DPF system configured to collect particulate matter contained in exhaust gas from an engine; an SCR system configured to add, to the exhaust gas from the engine, a reductant stored in a reductant storage tank to reduce nitrogen oxide contained in the exhaust gas; and a control unit configured to execute a DPF renewal control whereby particulate matter collected and deposited in the DPF system is burned and removed by using the exhaust gas from the engine and an SCR reference operation restricting control to restrict an operating condition of the engine, the SCR reference operation restricting control executed when an amount of the reductant stored in the reductant storage tank is a preset amount or less, or when an abnormality occurs in the SCR system, characterized in that the control unit is configured to preferentially execute the DPF renewal control over the SCR reference operation restricting control. a DPF system configured to collect particulate matter contained in exhaust gas from an engine; an SCR system configured to add, to the exhaust gas from the engine, a reductant stored in a reductant storage tank to reduce nitrogen oxide contained in the exhaust gas; and a control unit configured to execute a DPF renewal control whereby particulate matter collected and deposited in the DPF system is burned and removed by using the exhaust gas from the engine and an SCR reference operation restricting control to restrict an operating condition of the engine, the SCR reference operation restricting control executed when an amount of the reductant stored in the reductant storage tank is a preset amount or less, or when an abnormality occurs in the SCR system, characterized in that the control unit is configured to preferentially execute the DPF renewal control over the SCR reference operation restricting control.
A method of handing over an ongoing real-time call involving a mobile station, from a circuit switched bearer in a current cell of a radio access network to a packet switched bearer in a target cell of the same or a different radio access network, the ongoing call having been established using the services of an IP Multimedia Subsystem, the method comprising: sending a handover instruction from the radio access network responsible for the current cell or from the mobile station to the IP Multimedia Subsystem, the instruction identifying the target cell; in response to receipt of said instruction at the IP Multimedia Subsystem, establishing a packet switched bearer in the target cell; and transferring the ongoing call from said circuit switched bearer to said packet switched bearer. sending a handover instruction from the radio access network responsible for the current cell or from the mobile station to the IP Multimedia Subsystem, the instruction identifying the target cell; in response to receipt of said instruction at the IP Multimedia Subsystem, establishing a packet switched bearer in the target cell; and transferring the ongoing call from said circuit switched bearer to said packet switched bearer.