mhurhangee/ep-ind-claims huggingface dataset:
A container handling vehicle for lifting a storage container from an underlying framework structure, the vehicle comprises a container lifting assembly (3,5,7a,7b) for lifting the storage container and a vehicle body; the container lifting assembly (3, 5, 7a, 7b) comprises a lifting frame for releasable connection to a storage container, a lifting shaft assembly (7a,7b) and a plurality of lifting bands, the lifting bands are connected to the lifting frame and the lifting shaft assembly (7a,7b) such that the lifting frame may be raised or lowered by operating the lifting shaft assembly (7a,7b); and the vehicle body comprises a sidewall and a cantilevered section from which the lifting frame depends, the cantilevered section extends laterally from an upper end of the sidewall; wherein the container lifting assembly (3, 5, 7a, 7b) features a lifting frame guide assembly comprising a first guide device and a cooperating second guide device; the first guide device is provided on the lifting frame; characterized in that: the second guide device is slidably connected to the sidewall via at least one vertically extending rail, such that the second guide device can move in a vertical direction relative to the sidewall; the first guide device and the second guide device are arranged to interact with each other when the lifting frame is adjacent the sidewall, such that horizontal movement of the lifting frame relative to the vehicle body is restricted. the container lifting assembly (3, 5, 7a, 7b) comprises a lifting frame for releasable connection to a storage container, a lifting shaft assembly (7a,7b) and a plurality of lifting bands, the lifting bands are connected to the lifting frame and the lifting shaft assembly (7a,7b) such that the lifting frame may be raised or lowered by operating the lifting shaft assembly (7a,7b); and the vehicle body comprises a sidewall and a cantilevered section from which the lifting frame depends, the cantilevered section extends laterally from an upper end of the sidewall; wherein the container lifting assembly (3, 5, 7a, 7b) features a lifting frame guide assembly comprising a first guide device and a cooperating second guide device; the first guide device is provided on the lifting frame; characterized in that: the second guide device is slidably connected to the sidewall via at least one vertically extending rail, such that the second guide device can move in a vertical direction relative to the sidewall; the first guide device and the second guide device are arranged to interact with each other when the lifting frame is adjacent the sidewall, such that horizontal movement of the lifting frame relative to the vehicle body is restricted. the second guide device is slidably connected to the sidewall via at least one vertically extending rail, such that the second guide device can move in a vertical direction relative to the sidewall; the first guide device and the second guide device are arranged to interact with each other when the lifting frame is adjacent the sidewall, such that horizontal movement of the lifting frame relative to the vehicle body is restricted.
A gas meter, comprising: an enclosure defining an inlet port, an outlet port, and an interior cavity; a manifold located within the interior cavity of the enclosure, comprising a first connector, a second connector, and a third connector, wherein the manifold is connected to the outlet port to exhaust gas through the outlet port; a valve connected to the manifold to regulate gas flow from the manifold to the outlet port; a sensor module, connected to the first connector of the manifold, and configured to measure a first gas flowrate from the interior cavity of the enclosure, through the sensor module, through the manifold and out the outlet port; a bypass module (110, 112, 114) connected to the second connector of the manifold, to direct a second gas flow having a second gas flowrate from the interior cavity of the enclosure, through the bypass module, through the manifold, and out the outlet port; and a plug connected to the third connector, to block gas flow from entering the manifold through the third connector; and a processor to compute a total gas flowrate through the gas meter using inputs comprising: a measured gas flowrate through the sensor module; and an adjustment factor, the adjustment factor being based on the measured gas flowrate; wherein the adjustment factor is obtained by: using a plurality of values for the factor for each of a respective plurality of measured second gas flowrates. an enclosure defining an inlet port, an outlet port, and an interior cavity; a manifold located within the interior cavity of the enclosure, comprising a first connector, a second connector, and a third connector, wherein the manifold is connected to the outlet port to exhaust gas through the outlet port; a valve connected to the manifold to regulate gas flow from the manifold to the outlet port; a sensor module, connected to the first connector of the manifold, and configured to measure a first gas flowrate from the interior cavity of the enclosure, through the sensor module, through the manifold and out the outlet port; a bypass module (110, 112, 114) connected to the second connector of the manifold, to direct a second gas flow having a second gas flowrate from the interior cavity of the enclosure, through the bypass module, through the manifold, and out the outlet port; and a plug connected to the third connector, to block gas flow from entering the manifold through the third connector; and a processor to compute a total gas flowrate through the gas meter using inputs comprising: a measured gas flowrate through the sensor module; and an adjustment factor, the adjustment factor being based on the measured gas flowrate; wherein the adjustment factor is obtained by: using a plurality of values for the factor for each of a respective plurality of measured second gas flowrates. a measured gas flowrate through the sensor module; and an adjustment factor, the adjustment factor being based on the measured gas flowrate; wherein the adjustment factor is obtained by: using a plurality of values for the factor for each of a respective plurality of measured second gas flowrates.
A brake testing system of testing a brake of a vehicle which is driven on a bench having a rotating body, comprising: a rotation control unit that controls to make the rotating body rotate at a predetermined rotational speed; a torque acquiring unit that acquires a torque value generated on the rotating body by the brake of the vehicle being operated; a time period acquiring unit that acquires a time period during which the brake of the vehicle is operated; a braking work load calculating unit that calculates a work load of the brake based on the rotational speed of the rotating body controlled by the rotation control unit, the torque value acquired by the torque acquiring unit, and the time period acquired by the time period acquiring unit; a brake dust amount calculating unit that calculates a brake dust amount generated by the brake being operated; and a storing unit that associates and stores the brake dust amount calculated by the brake dust amount calculating unit and the work load of the brake calculated by the braking work load calculating unit. a rotation control unit that controls to make the rotating body rotate at a predetermined rotational speed; a torque acquiring unit that acquires a torque value generated on the rotating body by the brake of the vehicle being operated; a time period acquiring unit that acquires a time period during which the brake of the vehicle is operated; a braking work load calculating unit that calculates a work load of the brake based on the rotational speed of the rotating body controlled by the rotation control unit, the torque value acquired by the torque acquiring unit, and the time period acquired by the time period acquiring unit; a brake dust amount calculating unit that calculates a brake dust amount generated by the brake being operated; and a storing unit that associates and stores the brake dust amount calculated by the brake dust amount calculating unit and the work load of the brake calculated by the braking work load calculating unit.
An apparatus, comprising: at least one processor; and at least one memory including computer program code, and means (214A, 300) for controlling the establishment of a network connection between a mobile relay and the apparatus; means (214A, 300) for coordinating or controlling the activation, reactivation and setup of the connection of the mobile relay with cellular networks, which may serve the mobile relay as a handover candidate, the networks being controlled by more than one operator; means (214A, 300) for creating or reactivating and keeping update of a context of the mobile relay when the mobile relay has a connection established with a cellular network, the context comprising system information, identities and capabilities of the mobile relay; and means (214A, 300) for coordinating an inter-operator handover of the mobile relay based on the context of the mobile relay by communicating information of possible network candidates, handover triggers and other configuration and control information to the mobile relay, wherein the apparatus is an Access Network Discovery and Selection Function of a cellular network. at least one processor; and at least one memory including computer program code, and means (214A, 300) for controlling the establishment of a network connection between a mobile relay and the apparatus; means (214A, 300) for coordinating or controlling the activation, reactivation and setup of the connection of the mobile relay with cellular networks, which may serve the mobile relay as a handover candidate, the networks being controlled by more than one operator; means (214A, 300) for creating or reactivating and keeping update of a context of the mobile relay when the mobile relay has a connection established with a cellular network, the context comprising system information, identities and capabilities of the mobile relay; and means (214A, 300) for coordinating an inter-operator handover of the mobile relay based on the context of the mobile relay by communicating information of possible network candidates, handover triggers and other configuration and control information to the mobile relay, wherein the apparatus is an Access Network Discovery and Selection Function of a cellular network.
A fog removing device comprising: a separating means that separates a fog-containing image into a reflectance component and an illumination light component, a reflectance component fog removing means that removes fog based on a fog density separately determined for the separated reflectance component; an illumination light component fog removing means that removes fog based on the fog density for the separated illumination light component; and a synthesizing means that forms an image from which fog has been removed, by using a reflectance component after fog removal and an illumination light component after fog removal; wherein under a condition that there is not a reflectance component in airglow and that an atmospheric model holds true to the illumination light component, the atmospheric model being expressed by an equation of I(x) = J(x) t(x) + A (1 - t(x)) in which I denotes an image including fog and is defined by the product of an illumination light L and a reflectance R in a Retinex theory, J denotes an image not including fog, t denotes a fog density, x denotes the coordinate of a target pixel in the image and A denotes the airglow, the reflectance component fog removing means and the illumination light component fog removing means perform fog removal separately on the reflectance component and the illumination light component, by applying the Retinex theory to the above-mentioned I, J and A, as JR = (IR IL - (1 - t) AL) / (IL - (1 - t) AL) for the reflectance component and as JL = (IL - AL) / t + AL for the illumination light component, and wherein degrees of fog removal are different between the fog removal in the reflectance component fog removing means and the fog removal in the illumination light component fog removing means due to different values being used for fog densities or due to different weighting of the reflectance component after fog removal and the illumination light component after fog removal. a separating means that separates a fog-containing image into a reflectance component and an illumination light component, a reflectance component fog removing means that removes fog based on a fog density separately determined for the separated reflectance component; an illumination light component fog removing means that removes fog based on the fog density for the separated illumination light component; and a synthesizing means that forms an image from which fog has been removed, by using a reflectance component after fog removal and an illumination light component after fog removal;
A gas turbine airfoil blade comprising an airfoil having a leading edge and a trailing edge defining fore and aft points of an airfoil chord relative to a flowpath direction, the airfoil extending generally radially from a root to a tip and having a convex suction side and an opposite concave pressure side, the root of the airfoil intersecting a platform of the blade, a body of the airfoil composed of a plurality of airfoil sections stacked along a stacking line extending radially from the platform, each airfoil section having a height which is greater than or equal to 10% and less than 20% of the entire blade height, a root airfoil section (50 R) being the one of said airfoil sections intersecting the platform, the trailing edge at the root airfoil section being aft, in axial direction, of the trailing edge of the airfoil section (50 R+1) immediately radially outwardly adjacent to the root airfoil section (50 R); the blade being a turbofan blade; and further comprising a concavity defined by the trailing edge of the airfoil section (50 R+1) immediately radially outwardly adjacent of the root airfoil section (50 R), characterised by the suction side of the airfoil at the trailing edge intersecting the platform with a fillet radius, and the leading edge of the blade has a forward sweep at the tip. the blade being a turbofan blade; and further comprising a concavity defined by the trailing edge of the airfoil section (50 R+1) immediately radially outwardly adjacent of the root airfoil section (50 R), characterised by the suction side of the airfoil at the trailing edge intersecting the platform with a fillet radius, and the leading edge of the blade has a forward sweep at the tip.
Rubber mixtures containing at least one rubber, at least one filler and at least one compound of formula wherein R1, R3, R6 and R8 are identical or different and represent methyl or ethyl, R4 and R5 are identical or different and represent methyl or ethyl, R2 and R7 are identical or different and represent methyl or ethyl and x = 4. R1, R3, R6 and R8 are identical or different and represent methyl or ethyl, R4 and R5 are identical or different and represent methyl or ethyl, R2 and R7 are identical or different and represent methyl or ethyl and x = 4.
An adapter device for attachment to a main body device, the adapter device comprising: an attachment stage on which a fastening unit (221,222) for fastening the adapter device to a main body device is provided on an attachment surface of the adapter device in advance facing the attachment surface of the main body device; a main body unit provided with a connector; and a movement direction conversion unit (41, 23) configured to receive an operation force for producing a movement in an operation direction, convert the movement in an operation direction into an insertion and detachment direction of the connector that is perpendicular to the attachment surface, so as to move forward and backward the main body unit in the insertion and detachment direction of the connector with respect to the attachment stage in accordance with the operation force. an attachment stage on which a fastening unit (221,222) for fastening the adapter device to a main body device is provided on an attachment surface of the adapter device in advance facing the attachment surface of the main body device; a main body unit provided with a connector; and a movement direction conversion unit (41, 23) configured to receive an operation force for producing a movement in an operation direction, convert the movement in an operation direction into an insertion and detachment direction of the connector that is perpendicular to the attachment surface, so as to move forward and backward the main body unit in the insertion and detachment direction of the connector with respect to the attachment stage in accordance with the operation force.
A radio frequency electronic tag which comprises: a radio frequency chip, the radio frequency chip comprises antenna pins arranged on the radio frequency chip; antennas; and a sleeve in which the radio frequency chip is packaged; characterized in that, the antennas are connected to the antenna pins; the antenna pins are formed as a rod, and one end of each of the antenna pins is arranged inside the sleeve and this end is connected to the radio frequency chip, external screw threads or internal screw threads are provided on an opposite end of the antenna pins, and ends of the antennas are provided with screw connection structures matching the external screw threads or internal screw threads of the antenna pins. a radio frequency chip, the radio frequency chip comprises antenna pins arranged on the radio frequency chip; antennas; and a sleeve in which the radio frequency chip is packaged; characterized in that, the antennas are connected to the antenna pins; the antenna pins are formed as a rod, and one end of each of the antenna pins is arranged inside the sleeve and this end is connected to the radio frequency chip, external screw threads or internal screw threads are provided on an opposite end of the antenna pins, and ends of the antennas are provided with screw connection structures matching the external screw threads or internal screw threads of the antenna pins.
An organic light emitting device comprising a first electrode, a second electrode, and at least two organic material layers interposed therebetween, including a light emitting layer, wherein the organic material layers comprise at least one layer of a hole injecting layer, a hole transporting layer and a hole injecting and transporting layer, characterised in that at least one of the hole injecting layer, the hole transporting layer and the hole injecting and transporting layer comprises both of NPB and hexaazatriphenylene hexacarbonnitrile, and wherein hexaazatriphenylene hexacarbonnitrile can be mixed in a proportion ranging from 20 vol% to 80 vol% as NPB (NPB is N,N'-bis-(1-naphthyl)-N,N'-diphenyl-1,1'-biphenyl-4,4'-diamine).
An automated driving system for a motor vehicle comprising a visual communication interface intended to inform the driver of the status of said driving system and including an indicator light able to emit light signals on the steering wheel of said vehicle; said visual communication interface further comprising a heads-up display able to display other light signals in the field of vision of the driver beyond the windscreen of said vehicle, characterized in that it proposes two fully automated driving modes, with disengagement to the manual driving mode, in the event of non-compatibility of the driving context with their being pursued, at the end of two transition phases of different durations, the information relating to the status of one of said automated driving modes being transmitted by signals emitted solely by said indicator light on the steering wheel, while those concerning the status of the other of said automated driving modes are transmitted by signals emitted simultaneously by said indicator light on the steering wheel and said heads-up display.
A polyamide-imide copolymer film, comprising a copolymer resin in which a unit structure derived from TFDB (2,2'-bistrifluoromethyl-4,4'-biphenyl diamine), a unit structure derived from 6FDA (4,4'-(hexafluoroisopropylidene)diphthalic anhydride), a unit structure derived from BPDA (3,3',4,4'-biphenyltetracarboxylic dianhydride) and a unit structure derived from TPC (terephthaloyl chloride or 1,4-benzenedicarbonyl chloride) are copolymerized, wherein, in the copolymer resin, the unit structures are copolymerized such that the molar ratio of the unit structure derived from TFDB: the sum of the unit structure derived from 6FDA and the unit structure derived from BPDA: the unit structure derived from TPC is 1:0.2∼0.8:0.8∼0.2.
Container closure having a closure bottom part and a cap, and also a mouthpiece and means for piercing a closure film, wherein a tamper-evident band is provided which ensures that the closure film can be pierced by the means only when the tamper-evident band has been torn, wherein the tamper-evident band is arranged between the closure bottom part and the cap, wherein the tamper-evident band is connected to a bottom edge of the cap via at least one separable web, characterized in that the cap is mounted on the closure bottom part so as to be able to be rotated and pressed in respective regions, wherein the cap can be moved firstly in rotation and then linearly, and in that the tamper-evident band is designed as a closed ring, wherein the closed ring is mounted on the closure bottom part so as to be able to be moved axially but not in rotation.
A method of embedding particles in a substrate, comprising: applying to at least a portion of a conducting polymer substrate a fluid comprising a population of particles of disproportionate aspect ratio and having at least one characteristic dimension in the range of from about 0.1 nm to about 1cm and having conductive properties and comprising carbon nanowires, nanorods, nanotubes, or any combination thereof, wherein the substrate is softened to at least a degree that a plurality of particles is at least partially embedded in the softened portion of the substrate; and hardening at least a portion of the substrate to securely embed the plurality of particles in the substrate, wherein the fluid comprises a solvent that softens the substrate, and applying the fluid comprises softening the substrate. applying to at least a portion of a conducting polymer substrate a fluid comprising a population of particles of disproportionate aspect ratio and having at least one characteristic dimension in the range of from about 0.1 nm to about 1cm and having conductive properties and comprising carbon nanowires, nanorods, nanotubes, or any combination thereof, wherein the substrate is softened to at least a degree that a plurality of particles is at least partially embedded in the softened portion of the substrate; and hardening at least a portion of the substrate to securely embed the plurality of particles in the substrate, wherein the fluid comprises a solvent that softens the substrate, and applying the fluid comprises softening the substrate.