mhurhangee/ep-ind-claims huggingface dataset:
A hoisting machinery for an elevator, comprising: a frame with a stator flange, wherein the frame constitutes a part of a hoisting machinery housing, a stator supported at the stator flange, stator windings arranged at the stator, and a cooling system having an evaporator part and a condenser part, wherein a cooling medium can circulate through the cooling system, wherein the evaporator part is arranged at the stator flange in a manner to allow the cooling medium to receive heat generated by the stator windings, the condenser part is arranged at the frame in a manner to be in contact with ambient air, characterized in that the cooling system further comprises an expansion tank, wherein the expansion tank is arranged at the frame in a manner to allow the condensed cooling medium to be collected, the evaporator part is arranged inside the hoisting machinery housing, and the condenser part and the expansion tank are arranged outside the hoisting machinery housing. a frame with a stator flange, wherein the frame constitutes a part of a hoisting machinery housing, a stator supported at the stator flange, stator windings arranged at the stator, and a cooling system having an evaporator part and a condenser part, wherein a cooling medium can circulate through the cooling system, wherein the evaporator part is arranged at the stator flange in a manner to allow the cooling medium to receive heat generated by the stator windings, the condenser part is arranged at the frame in a manner to be in contact with ambient air, characterized in that the cooling system further comprises an expansion tank, wherein the expansion tank is arranged at the frame in a manner to allow the condensed cooling medium to be collected, the evaporator part is arranged inside the hoisting machinery housing, and the condenser part and the expansion tank are arranged outside the hoisting machinery housing.
A construction machine with an upper slewing body and having a catwalk (16, 17), the catwalk (16, 17) being a passage extending and installed along a side surface of the upper slewing body, the catwalk (16, 17) comprising: a movable portion provided at an end portion of the catwalk (16, 17) corresponding to a radially outermost side with respect to a slewing center of the upper slewing body, the movable portion being mounted so as to be pivotable between horizontal and vertical directions about an axis positioned on a side surface side of the upper slewing body below a passage surface of the movable portion; wherein the passage surface of the movable portion is formed outside and away from the side surface of the upper slewing body, characterized in that a fixed passage surface is provided at a position closer to the side surface than said passage surface of the movable portion, and a bumper serving as a buffer member is mounted so as to face obliquely downward at an outer end portion of the passage surface away from the side surface of the upper slewing body. a movable portion provided at an end portion of the catwalk (16, 17) corresponding to a radially outermost side with respect to a slewing center of the upper slewing body, the movable portion being mounted so as to be pivotable between horizontal and vertical directions about an axis positioned on a side surface side of the upper slewing body below a passage surface of the movable portion; wherein the passage surface of the movable portion is formed outside and away from the side surface of the upper slewing body, characterized in that a fixed passage surface is provided at a position closer to the side surface than said passage surface of the movable portion, and a bumper serving as a buffer member is mounted so as to face obliquely downward at an outer end portion of the passage surface away from the side surface of the upper slewing body.
A lighting device comprising: a light source module comprising at least one light source disposed on a printed circuit board, and a resin layer on the printed circuit board so that the light source is embedded; an indirect light emission unit which is formed in at least any one of one side and another side of the light source module and which reflects light irradiated from the light source; and a diffusion plate having an upper surface which is in contact with an upper part of the light source module, characterized in that the diffusion plate further comprises a side wall which is integrally formed with the upper surface and formed to extend in a lower side direction and which is adhered onto an outer side surface of the indirect light emission unit, wherein the indirect light emission unit comprises: a light reflection member in at least any one of the one side and the another side of the resin layer; and an indirect light-emission separated space formed between the light source module and the light reflection member. a light source module comprising at least one light source disposed on a printed circuit board, and a resin layer on the printed circuit board so that the light source is embedded; an indirect light emission unit which is formed in at least any one of one side and another side of the light source module and which reflects light irradiated from the light source; and a diffusion plate having an upper surface which is in contact with an upper part of the light source module,
A selector for an automatically operated gearbox, the selector including: - a casing, - a control member mounted within said casing in an oscillating manner around a first axis of rotation, the control member being movable through a plurality of operative positions (P, R, N, D) associated to respective operating conditions of the gearbox, - a prevention device of the selection of an undesired operative position of said selector, wherein the prevention device includes a rocker mounted within said casing in a rotatable manner around a second axis of rotation, said rocker being operable in rotation around said second axis of rotation by means of an actuator member between a resting position and a working position in which it is configured to inhibit the selection of said undesired operative position, the selector being characterized in that said rocker includes a first portion and a second portion, wherein the first portion is connected to the actuator member and wherein in the working position of the rocker the second portion is configured to block said control member upon the occurrence of a selection manoeuvre of said undesired operative position so as to inhibit the selection thereof, and in that the first portion and the second portion are coupled to one another by means of an articulated joint configured to enable a rotation of said second portion relative to said first portion upon exceeding of a predetermined value of an actuation force applied to said control member during said selection manoeuvre of said undesired position, thereby allowing said control member to override the block provided by the second portion, and accordingly enable the selection of said undesired operative position currently inhibited. - a casing, - a control member mounted within said casing in an oscillating manner around a first axis of rotation, the control member being movable through a plurality of operative positions (P, R, N, D) associated to respective operating conditions of the gearbox, - a prevention device of the selection of an undesired operative position of said selector,
A vehicular heads-up display device including: a case body formed with an opening; and a light-emitting body housed in the case body, wherein an outgoing light from the light-emitting body is caused to go out toward the outside of the case body through the opening and reflect by a predetermined reflecting member so as to allow a user of a vehicle to visually identify a virtual image obtained by the reflection, comprising: a cover disposed on the opening configured to attenuate light; a diffusing means configured to diffuse outside light incident on and entering the case body through the cover between the light-emitting body and the cover; and characterised by a display portion having: a predetermined display design, and a background portion forming a background of the display portion on a front surface or a back surface of the cover; and wherein the predetermined display design is formed of a void portion where a printed layer which forms the background portion is not formed. a case body formed with an opening; and a light-emitting body housed in the case body, wherein an outgoing light from the light-emitting body is caused to go out toward the outside of the case body through the opening and reflect by a predetermined reflecting member so as to allow a user of a vehicle to visually identify a virtual image obtained by the reflection, comprising: a cover disposed on the opening configured to attenuate light; a diffusing means configured to diffuse outside light incident on and entering the case body through the cover between the light-emitting body and the cover; and characterised by a display portion having: a predetermined display design, and a background portion forming a background of the display portion on a front surface or a back surface of the cover; and wherein the predetermined display design is formed of a void portion where a printed layer which forms the background portion is not formed. a cover disposed on the opening configured to attenuate light; a diffusing means configured to diffuse outside light incident on and entering the case body through the cover between the light-emitting body and the cover; and characterised by a display portion having: a predetermined display design, and a background portion forming a background of the display portion on a front surface or a back surface of the cover; and wherein the predetermined display design is formed of a void portion where a printed layer which forms the background portion is not formed.
A clutch (1000; 1000'; 2000; 3000; 4000) for a seat-belt tensioner in a vehicle, comprising a driving element (1002; 2002; 3002; 4002) adapted for being rotated in a driving direction and in a releasing direction and a driven element (1006; 2006; 3006; 4006) connectable with a seat-belt spool, the driving element (1002; 2002; 3002; 4002) and the driven element (1006; 2006; 3006; 4006) having a common rotation axis and the driven element (1006; 2006; 3006; 4006) having several teeth at an outer circumference, a pawl (1016; 2016; 3016; 4016) being pivotally held on the driving element (1002; 2002; 3002; 4002) and adapted for being pivoted around a pivoting axis (1018; 2018; 3018; 4018), the pawl (1016; 2016; 3016; 4016) being adapted to assume a neutral position in which the pawl (1016; 2016; 3016; 4016) is not in engagement with the driven element (1006; 2006; 3006; 4006) and from which it can be pivoted radially inwards by turning the driving element (1002; 2002; 3002; 4002) in the driving direction, and an engaged position in which the pawl (1016; 2016; 3016; 4016) engages the driven element (1006; 2006; 3006; 4006) and couples the driving element (1002; 2002; 3002; 4002) with the driven element (1006; 2006; 3006; 4006), in the engaged position at least one tooth arranged on the pawl (1016; 2016; 3016; 4016) meshes with the teeth of the driven element (1006; 2006; 3006; 4006), a clutch disk element (1022; 2022; 3022; 4022) having a clutch disk ring (1024; 2024; 3024; 4024) with an outer essentially circular circumference, characterized in that the clutch disk element (1022; 2022; 3022; 4022) has a clutch disk arm (1036; 2036; 3036; 4036) extending inwardly from the clutch disk ring (1024; 2024; 3024; 4024), the clutch disk arm (1024; 2024; 3024; 4024) having a guiding geometry (1038; 2038; 3038; 4038) that interacts with a guiding geometry (1040; 2040: 3040; 4040) provided on the pawl (1016; 2016; 3016; 4016) to guide the pawl (1016; 2016; 3016; 4016), a retainer ring (1054; 2054; 3054; 4054) surrounding the outer circumference of the clutch disk ring (1024; 2024; 3024; 4024) and being coupled by friction with the clutch disk ring (1024; 2024; 3024; 4024), the retainer ring (1054; 2054; 3054; 4054) being configured for a limited rotation relative to a retaining structure (1058; 2058; 3058; 4058) arranged immovably on a clutch housing (1061; 4061), the guiding geometries (1038, 1040; 2038, 2040; 3038, 3040; 4038, 4040) being adapted for guiding the pawl (1016; 2016; 3016; 4016) inwardly from the neutral position so that a first tooth of the pawl (1016; 2016; 3016; 4016) moves continuously radially inwardly when the clutch is engaged, wherein the first tooth of the pawl that comes into engagement with the teeth of the driven element is the first tooth adjacent to a free end of the pawl.
An image inspection device that detects an abnormality of a formed image by comparing imaged data obtained by imaging the formed image and original image data of the formed image, the image inspection device comprising: an adjuster (10, 11) that adjusts the original image data so as to reduce sharpness of the original image data; and a detector (10, 11) that detects the abnormality by comparing the adjusted original image data and the imaged data, wherein the adjuster is able to partly restrict the reduction of the sharpness, characterized in that in adjusting the original image data, the adjuster limits a maximum value of an amount of change caused by the adjustment, thereby partly restricting the reduction of the sharpness. an adjuster (10, 11) that adjusts the original image data so as to reduce sharpness of the original image data; and a detector (10, 11) that detects the abnormality by comparing the adjusted original image data and the imaged data, wherein the adjuster is able to partly restrict the reduction of the sharpness,
A method of storing potatoes, the method comprising the steps of: i. providing a plurality of dormant potatoes, wherein the potatoes have been cured after harvesting; ii. treating the potatoes with 1-methylcyclopropene, the treatment comprising exposing the potatoes, which are at a first treatment temperature within the range of from 10 to 30°C, to 1-methylcyclopropene; iii. storing the potatoes at a second storage temperature within the range of from greater than 6 to up to 15°C for a storage period within a potato store, wherein the storage period extends continuously until at least 1 week after initiation of eye movement in at least one of the potatoes, and wherein during the storage period the potatoes are stored in atmospheric air free of an external supply of ethylene sprout suppressant. i. providing a plurality of dormant potatoes, wherein the potatoes have been cured after harvesting; ii. treating the potatoes with 1-methylcyclopropene, the treatment comprising exposing the potatoes, which are at a first treatment temperature within the range of from 10 to 30°C, to 1-methylcyclopropene; iii. storing the potatoes at a second storage temperature within the range of from greater than 6 to up to 15°C for a storage period within a potato store, wherein the storage period extends continuously until at least 1 week after initiation of eye movement in at least one of the potatoes, and wherein during the storage period the potatoes are stored in atmospheric air free of an external supply of ethylene sprout suppressant.
A method for measuring a fiber orientation degree comprising: a diffraction image acquisition process of irradiating a sample formed of a composite material containing discontinuous carbon fibers with an X-ray to acquire an X-ray diffraction image, characterized in that the method comprises: a peak angle calculation process of calculating an angle (2θ) A of a peak originating from a crystal face of graphite from an inflection point A of an integral value I(2θ) obtained by integrating the X-ray diffraction image with respect to an azimuth angle (φ); a correction coefficient calculation process of calculating a correction coefficient δ of a thickness of the sample, wherein the correction coefficient calculation process includes calculating the correction coefficient δ by Formula below: δ = 2 θ A − tan − 1 1 − t / L ⋅ tan 2 θ A in Expression, t indicates a thickness (mm) of the sample, and L indicates a distance (mm) from an incident plane of the X-ray of the sample to a film surface on which the X-ray diffraction image is projected; an upper limit calculation process of calculating an upper limit (2θ) B of the peak of the crystal face of graphite from an inflection point B of the integral value I(2θ); a diffraction sensitivity calculation process of calculating a diffraction sensitivity I c (φ) of the peak originating from the crystal face of graphite by correcting an integrating range with the correction coefficient δ and integrating the X-ray diffraction image with respect to a diffraction angle (2θ); and an orientation degree calculation process of calculating a fiber orientation degree Sd(β) by the method of Hermans from the diffraction sensitivity I c (φ). a peak angle calculation process of calculating an angle (2θ) A of a peak originating from a crystal face of graphite from an inflection point A of an integral value I(2θ) obtained by integrating the X-ray diffraction image with respect to an azimuth angle (φ); a correction coefficient calculation process of calculating a correction coefficient δ of a thickness of the sample, wherein the correction coefficient calculation process includes calculating the correction coefficient δ by Formula below: δ = 2 θ A − tan − 1 1 − t / L ⋅ tan 2 θ A in Expression, t indicates a thickness (mm) of the sample, and L indicates a distance (mm) from an incident plane of the X-ray of the sample to a film surface on which the X-ray diffraction image is projected; an upper limit calculation process of calculating an upper limit (2θ) B of the peak of the crystal face of graphite from an inflection point B of the integral value I(2θ); a diffraction sensitivity calculation process of calculating a diffraction sensitivity I c (φ) of the peak originating from the crystal face of graphite by correcting an integrating range with the correction coefficient δ and integrating the X-ray diffraction image with respect to a diffraction angle (2θ); and an orientation degree calculation process of calculating a fiber orientation degree Sd(β) by the method of Hermans from the diffraction sensitivity I c (φ).
An EGR device configured to reflux part of exhaust gas of an engine as EGR gas into intake air of the engine, wherein an EGR valve configured to restrict a flow rate of the EGR gas is closed when a rotation speed of the engine is between a low-speed threshold (Na) and a high-speed threshold (Nb) and a fuel injection rate is between a low-injection rate threshold (Fa(n)) and a high-injection rate threshold (Fb(n)) that are set for each rotation speed, the EGR device includes an EGR valve, and the engine includes an engine rotation speed detection sensor, and an injection rate detection sensor, characterized in that a dead rotation speed width (Nh) and a dead injection rate width (Fh) are further set, and the EGR valve is closed when the rotation speed increases from a low-speed threshold (Na) by an amount larger than a dead rotation speed width (Nh) or the rotation speed decreases from the high-speed threshold (Nb) by an amount larger than the dead rotation speed width (Nh), and the injection rate increases from the low-injection rate threshold (Fa(n)) by an amount larger than the dead injection rate width (Fh) or the injection rate decreases from the high-injection rate threshold (Fb(n)) by an amount larger than the dead injection rate width (Fh), whereby the EGR valve is closed when the rotation speed is between a low-speed threshold (Na) and a high-speed threshold (Nb) for a predetermined time or longer, and the injection rate is between the low-injection rate threshold (Fa(n)) and the high-injection rate threshold for a predetermined time or longer. a dead rotation speed width (Nh) and a dead injection rate width (Fh) are further set, and the EGR valve is closed when the rotation speed increases from a low-speed threshold (Na) by an amount larger than a dead rotation speed width (Nh) or the rotation speed decreases from the high-speed threshold (Nb) by an amount larger than the dead rotation speed width (Nh), and the injection rate increases from the low-injection rate threshold (Fa(n)) by an amount larger than the dead injection rate width (Fh) or the injection rate decreases from the high-injection rate threshold (Fb(n)) by an amount larger than the dead injection rate width (Fh), whereby the EGR valve is closed when the rotation speed is between a low-speed threshold (Na) and a high-speed threshold (Nb) for a predetermined time or longer, and the injection rate is between the low-injection rate threshold (Fa(n)) and the high-injection rate threshold for a predetermined time or longer.
Clamping device, with a clamping chuck and a clamping element which can be secured to it, wherein the clamping chuck comprises a receiving opening for the clamping element and clamping bodies which engage at the clamping element in order to secure the clamping element in the receiving opening, characterized in that the clamping element is configured as longitudinal, and the receiving opening provided for receiving the clamping element in the clamping chuck is configured in the form of a slot, and that at least one spring-elastic yielding centring element is arranged at the clamping chuck in the inlet region of the receiving opening, which is configured such as to align the clamping element during the introduction into the receiving opening transversely to the longitudinal axis of the receiving opening.
A vehicle barrier apparatus comprising: a base (110, 310, 410, 610); a vehicle receiving member (109, 209, 309, 409a, 409b, 609) coupled (111, 211, 411) to the base and having proximal (115, 215, 115a, 115b) and distal (117, 117a, 117b) ends; and a deployable element (112, 412, 712) rotatably coupled to the base and coupled to the vehicle receiving member at a slide rod mechanical coupler (303, 403) extending from the deployable element and into a slot (319, 441) defined by the vehicle receiving member, the slide rod mechanical coupler located closer to the distal end than to the proximal end, the deployable element configured to receive a transfer force, from the vehicle receiving member, via the slide rod mechanical coupler, responsive to the vehicle receiving member receiving an applied force from a vehicle at the proximal end, the deployable element configured to deploy from a stored orientation to a deployed orientation responsive to the transfer force, and_the slide rod mechanical coupler configured to slide within the slot as the vehicle receiving member applies the transfer force to the deployable element. a base (110, 310, 410, 610); a vehicle receiving member (109, 209, 309, 409a, 409b, 609) coupled (111, 211, 411) to the base and having proximal (115, 215, 115a, 115b) and distal (117, 117a, 117b) ends; and a deployable element (112, 412, 712) rotatably coupled to the base and coupled to the vehicle receiving member at a slide rod mechanical coupler (303, 403) extending from the deployable element and into a slot (319, 441) defined by the vehicle receiving member, the slide rod mechanical coupler located closer to the distal end than to the proximal end, the deployable element configured to receive a transfer force, from the vehicle receiving member, via the slide rod mechanical coupler, responsive to the vehicle receiving member receiving an applied force from a vehicle at the proximal end, the deployable element configured to deploy from a stored orientation to a deployed orientation responsive to the transfer force, and_the slide rod mechanical coupler configured to slide within the slot as the vehicle receiving member applies the transfer force to the deployable element.