mhurhangee/ep-ind-claims huggingface dataset:
Device for sealed transfer between two enclosed volumes, comprising - a first and a second flange (10, 20) delimiting a passage opening in the enclosed volumes, wherein said first and second flanges (10, 20) are capable of being secured to each other by a first bayonet connection, - a first and a second door (11, 21) closing the passage openings, wherein said first and second doors (11, 21) are able to be secured to each other by a second bayonet connection, - the first door being mounted articulated on the first flange by means of a hinge, wherein said hinge comprises a hinge pin and a plate fixed to the first door and integral with said hinge pin, characterized in that it includes an external manual control lever secured to a rotary axis passing through the first flange and coupled to the hinge pin such that the actuation of the control lever drives the hinge pin and thus the opening or closing of the first door, as well as a second rotation axis coupled by drive means (43, 44) to the rotary axis passing through the first flange on the one hand and to the hinge pin on the other hand. - a first and a second flange (10, 20) delimiting a passage opening in the enclosed volumes, wherein said first and second flanges (10, 20) are capable of being secured to each other by a first bayonet connection, - a first and a second door (11, 21) closing the passage openings, wherein said first and second doors (11, 21) are able to be secured to each other by a second bayonet connection, - the first door being mounted articulated on the first flange by means of a hinge, wherein said hinge comprises a hinge pin and a plate fixed to the first door and integral with said hinge pin,
An attachment device for attaching a module in an opening of a wall of a vehicle, wherein the attachment device comprises the following features: - a carrier element for resting on the wall, and - a holding element with at least one holding blade (3.1) for attaching the attachment device in the opening (1.1) of the wall, wherein the holding element is pivoted for attaching the attachment device opposite the carrier element, - characterized in that - on the holding element, at least one rotary blade (3.2) is arranged which comprises a contact surface in the direction of rotation for attaching the attachment device, which is inclined (α) at least in the direction of rotation towards the direction of rotation and towards the wall. - a carrier element for resting on the wall, and - a holding element with at least one holding blade (3.1) for attaching the attachment device in the opening (1.1) of the wall, wherein the holding element is pivoted for attaching the attachment device opposite the carrier element, - characterized in that - on the holding element, at least one rotary blade (3.2) is arranged which comprises a contact surface in the direction of rotation for attaching the attachment device, which is inclined (α) at least in the direction of rotation towards the direction of rotation and towards the wall.
A hydrocarbon synthesis reaction apparatus, comprising: a reaction vessel configured to bring a synthesis gas having carbon monoxide gas and hydrogen gas as main components into contact with a slurry having a solid catalyst suspended in a liquid hydrocarbon compound to synthesize a liquid hydrocarbon compound using a Fischer-Tropsch reaction; a filter that is installed inside the reaction vessel and is configured to separate the liquid hydrocarbon compound from the catalyst; and a powdered catalyst particles-discharging device configured to discharge powdered catalyst particles in the solid catalyst in the slurry to the outside of the reaction vessel, wherein the powdered catalyst particles-discharging device includes: a first classifier configured to separate the powdered catalyst particles from the solid catalyst in the slurry, using a settling velocity difference of the particles in a liquid; an outflow passage configured that the powdered catalyst particles separated in the first classifier flows to the outside of the first classifier together with the liquid hydrocarbon compound therethrough; and a powdered catalyst particles separator that is provided in the outflow passage and is configured to trap the powdered catalyst particles. a reaction vessel configured to bring a synthesis gas having carbon monoxide gas and hydrogen gas as main components into contact with a slurry having a solid catalyst suspended in a liquid hydrocarbon compound to synthesize a liquid hydrocarbon compound using a Fischer-Tropsch reaction; a filter that is installed inside the reaction vessel and is configured to separate the liquid hydrocarbon compound from the catalyst; and a powdered catalyst particles-discharging device configured to discharge powdered catalyst particles in the solid catalyst in the slurry to the outside of the reaction vessel, wherein the powdered catalyst particles-discharging device includes: a first classifier configured to separate the powdered catalyst particles from the solid catalyst in the slurry, using a settling velocity difference of the particles in a liquid; an outflow passage configured that the powdered catalyst particles separated in the first classifier flows to the outside of the first classifier together with the liquid hydrocarbon compound therethrough; and a powdered catalyst particles separator that is provided in the outflow passage and is configured to trap the powdered catalyst particles. a first classifier configured to separate the powdered catalyst particles from the solid catalyst in the slurry, using a settling velocity difference of the particles in a liquid; an outflow passage configured that the powdered catalyst particles separated in the first classifier flows to the outside of the first classifier together with the liquid hydrocarbon compound therethrough; and a powdered catalyst particles separator that is provided in the outflow passage and is configured to trap the powdered catalyst particles.
A horizontal electric field liquid crystal display device comprising a plurality of pixels including a reflection portion and a transmission portion in each pixel the reflection portion comprising: a thin film transistor comprising: a gate electrode; a semiconductor layer; and a gate insulating layer separating the gate electrode and the semiconductor layer; a first insulating layer over the thin film transistor; a first wiring on the first insulating layer and in direct contact with the semiconductor layer through a first opening in the first insulating layer; a second wiring on the first insulating layer and in direct contact with the semiconductor layer through a second opening in the first insulating layer; a second insulating layer over the first wiring and the second wiring; a reflecting common electrode on the second insulating layer; a third insulating layer over the reflecting common electrode; and a pixel electrode on the third insulating layer, wherein the pixel electrode is in electrical contact with one of the first wiring and the second wiring through an opening in the third insulating layer and an opening in the second insulating layer, wherein the reflecting common electrode is in electrical contact with a third wiring on the first insulating layer and made of the same film as the first wiring and the second wiring, and wherein the third wiring is in electrical contact with a fourth wiring made of the same film as the gate electrode. a thin film transistor comprising: a gate electrode; a semiconductor layer; and a gate insulating layer separating the gate electrode and the semiconductor layer; a gate electrode; a semiconductor layer; and a gate insulating layer separating the gate electrode and the semiconductor layer; a first insulating layer over the thin film transistor; a first wiring on the first insulating layer and in direct contact with the semiconductor layer through a first opening in the first insulating layer; a second wiring on the first insulating layer and in direct contact with the semiconductor layer through a second opening in the first insulating layer; a second insulating layer over the first wiring and the second wiring; a reflecting common electrode on the second insulating layer; a third insulating layer over the reflecting common electrode; and a pixel electrode on the third insulating layer, wherein the pixel electrode is in electrical contact with one of the first wiring and the second wiring through an opening in the third insulating layer and an opening in the second insulating layer, wherein the reflecting common electrode is in electrical contact with a third wiring on the first insulating layer and made of the same film as the first wiring and the second wiring, and wherein the third wiring is in electrical contact with a fourth wiring made of the same film as the gate electrode.
Support head for video-photographic equipment comprising a base intended to be fixed to a support structure, at least one body (3, 4, 5) mounted on said base and rotating with respect to said base so as to rotate about a respective rotation axis (X, Y, Z) defined on said head, a telescopic activation device (30, 40, 50) for said at least one body (3, 4, 5) for rotating said body with respect to said rotation axis (X, Y, Z) comprising a shaft (31, 41) extending along a longitudinal axis (A, B) fixed at a first end thereof (31a, 41a) to said at least one body (3, 4, 5) and a handle (32, 42) associated with a second end (31b, 41b) of said shaft (31, 41) longitudinally opposite to said first end (31a, 41a), said handle (32, 42) being slidable with respect to said shaft (31, 41) so as to be displaceable along said longitudinal axis (A, B) between a working configuration, in which said handle (32, 42) is positioned for controlling the rotation of said at least one body (3, 4, 5) about said rotation axis (X, Y, Z) and a non-working configuration (W') of minimum size, in which said handle (32, 42) is in a position close to said at least one body (3, 4, 5), wherein said handle (32, 42) is provided with a friction element (36, 37) interposed between said shaft (31, 41) and said handle (32, 42) and arranged to friction the sliding of said shaft (31, 41) with respect to said handle (32, 42), wherein said friction element comprises at least one wedge-shaped element interposed between a wall of a cavity of said handle and said shaft and the head further comprises a spring located in said cavity so configured as to push said friction element (36, 37) against a wall of said cavity of of said handle to keep said friction element (36, 37) interposed in abutment against said wall and said shaft.
A room unit comprising a housing, the housing comprises a front cover, an electronic assembly inside the housing configured to dissipate heat, a first temperature sensor inside the housing, a second temperature sensor inside the housing, the second temperature sensor is arranged at a distance from the first temperature sensor such that the sensors (10, 11) are configured to measure different temperatures caused by a flow of heat from the electronic assembly towards the front cover, characterised in that the housing is sealed against the ambient such that any impact on the readings of the sensors (10, 11) caused by a flow of air into or out of the housing is reduced to a minimum or eliminate and wherein the room unit further comprises an anemometer configured to measure wind speed outside the housing.
A lubricant deterioration sensor (137a, 137b, 139a, 139b) to be fixed to a machine to detect deterioration of a lubricant in a lubricant-containing space of the machine, the lubricant deterioration sensor (137a, 137b, 139a, 139b) comprising: a light emitting element configured to emit light; a color light reception element configured to receive the light emitted from the light emitting element and detect color of the received light; a gap forming member forming an oil gap being a gap in which the lubricant enters; a supporting member supporting the light emitting element, the color light reception element and the gap forming member; and a fixing member to be fixed to the machine, wherein the gap forming member is disposed such that, when the lubricant deterioration sensor (137a, 137b, 139a, 139b) is fixed to the machine, the gap forming member is in the lubricant-containing space of the machine such that lubricant enters the oil gap, the gap forming member transmits the light emitted from the light emitting element, and the oil gap is disposed on an optical path from the light emitting element to the color light reception element; characterized in that the fixing member supports the supporting member rotatably so that a direction of an opening of the oil gap changes when the supporting member rotates relative to the fixing member. a light emitting element configured to emit light; a color light reception element configured to receive the light emitted from the light emitting element and detect color of the received light; a gap forming member forming an oil gap being a gap in which the lubricant enters; a supporting member supporting the light emitting element, the color light reception element and the gap forming member; and a fixing member to be fixed to the machine, wherein the gap forming member is disposed such that, when the lubricant deterioration sensor (137a, 137b, 139a, 139b) is fixed to the machine, the gap forming member is in the lubricant-containing space of the machine such that lubricant enters the oil gap, the gap forming member transmits the light emitted from the light emitting element, and the oil gap is disposed on an optical path from the light emitting element to the color light reception element; characterized in that the fixing member supports the supporting member rotatably so that a direction of an opening of the oil gap changes when the supporting member rotates relative to the fixing member.
A key obtaining method, comprising: receiving, by a target access and mobility management function, AMF, entity, a first message for registering a terminal device; sending, by the target AMF entity, a second message to a source AMF entity after receiving the first message, wherein the second message includes an identifier of the terminal device; wherein the key obtaining method is characterized in comprising: receiving, by the target AMF entity, a third message from the source AMF entity, wherein the third message carries a first key obtained through a derivation based on a key between the source AMF entity and the terminal device; determining, by the target AMF entity, based on security related information, whether to use the first key; when determining to use the first key, determining, by the target AMF entity, a communication key between the target AMF entity and the terminal device based on the first key; and sending, by the target AMF entity, to the terminal device, a non-access stratum security mode command, NAS SMC, that carries first indication information indicating the terminal device to derive the first key. receiving, by a target access and mobility management function, AMF, entity, a first message for registering a terminal device; sending, by the target AMF entity, a second message to a source AMF entity after receiving the first message, wherein the second message includes an identifier of the terminal device; wherein the key obtaining method is characterized in comprising: receiving, by the target AMF entity, a third message from the source AMF entity, wherein the third message carries a first key obtained through a derivation based on a key between the source AMF entity and the terminal device; determining, by the target AMF entity, based on security related information, whether to use the first key; when determining to use the first key, determining, by the target AMF entity, a communication key between the target AMF entity and the terminal device based on the first key; and sending, by the target AMF entity, to the terminal device, a non-access stratum security mode command, NAS SMC, that carries first indication information indicating the terminal device to derive the first key. receiving, by the target AMF entity, a third message from the source AMF entity, wherein the third message carries a first key obtained through a derivation based on a key between the source AMF entity and the terminal device; determining, by the target AMF entity, based on security related information, whether to use the first key; when determining to use the first key, determining, by the target AMF entity, a communication key between the target AMF entity and the terminal device based on the first key; and sending, by the target AMF entity, to the terminal device, a non-access stratum security mode command, NAS SMC, that carries first indication information indicating the terminal device to derive the first key.
Compounds of the formula: wherein each m independently has a value of zero to 3, p has a value of zero to 20; each R is independently halogen, nitrile, nitro; C 1 -C 6 alkyl or C 1 -C 6 alkoxy, wherein the alkyl and alkoxy groups are optionally substituted with one or more halogen atoms, C 2 -C 6 alkenyl or C 2 -C 6 alkenyloxy groups; and each Q is independently hydrogen or C 1 -C 6 alkyl; or the R group may be a C 3 -C 4 alkylene group that optionally contains one or two double bonds and is bonded to two adjacent carbons on the ring to which it is attached. wherein each m independently has a value of zero to 3, p has a value of zero to 20; each R is independently halogen, nitrile, nitro; C 1 -C 6 alkyl or C 1 -C 6 alkoxy, wherein the alkyl and alkoxy groups are optionally substituted with one or more halogen atoms, C 2 -C 6 alkenyl or C 2 -C 6 alkenyloxy groups; and each Q is independently hydrogen or C 1 -C 6 alkyl; or the R group may be a C 3 -C 4 alkylene group that optionally contains one or two double bonds and is bonded to two adjacent carbons on the ring to which it is attached.
A method comprising the following steps: - a step of feeding pipes made of thermoplastic material of the PVC-O type into a station for receiving the pipe; - a step of heating a first end portion of the pipe, in a heating station; - a step of belling the first end portion of the pipe, after the step of heating the first end portion of the pipe; the method being characterised in that it also comprises: - a step of making an inner taper at a first end portion of the pipe, in a tapering station, said inner taper being performed before the heating step. - a step of feeding pipes made of thermoplastic material of the PVC-O type into a station for receiving the pipe; - a step of heating a first end portion of the pipe, in a heating station; - a step of belling the first end portion of the pipe, after the step of heating the first end portion of the pipe; - a step of making an inner taper at a first end portion of the pipe, in a tapering station, said inner taper being performed before the heating step.
An article comprising: a porous substrate having a coating on a surface thereof of a water soluble or water dispersible aminopolymer functionalized with guanidinyl groups, wherein the aminopolymer functionalized with guanidinyl groups is of the formula: wherein R 2 is a H, C 1 -C 12 alkyl, C 5 -C 12 (hetero)aryl, or a residue of the polymer chain; each R 3 is independently H, C 1 -C 12 alkyl, or C 5 -C 12 (hetero)aryl, each R 4 is H, C 1 -C 12 alkyl or alkylene, C 5 -C 12 (hetero)aryl or (hetero)arylene, cyano, or -C(=NH)-N(R 2)-Polymer, Polymer is the aminopolymer chain; and n is 1 or 2. a porous substrate having a coating on a surface thereof of a water soluble or water dispersible aminopolymer functionalized with guanidinyl groups, wherein the aminopolymer functionalized with guanidinyl groups is of the formula: wherein R 2 is a H, C 1 -C 12 alkyl, C 5 -C 12 (hetero)aryl, or a residue of the polymer chain; each R 3 is independently H, C 1 -C 12 alkyl, or C 5 -C 12 (hetero)aryl, each R 4 is H, C 1 -C 12 alkyl or alkylene, C 5 -C 12 (hetero)aryl or (hetero)arylene, cyano, or -C(=NH)-N(R 2)-Polymer, Polymer is the aminopolymer chain; and n is 1 or 2. R 2 is a H, C 1 -C 12 alkyl, C 5 -C 12 (hetero)aryl, or a residue of the polymer chain; each R 3 is independently H, C 1 -C 12 alkyl, or C 5 -C 12 (hetero)aryl, each R 4 is H, C 1 -C 12 alkyl or alkylene, C 5 -C 12 (hetero)aryl or (hetero)arylene, cyano, or -C(=NH)-N(R 2)-Polymer, Polymer is the aminopolymer chain; and n is 1 or 2.
An acousto-optic system comprising: a laser source (131, 231); an acousto-optic modulator coupled to said laser source (131, 231) and comprising an acousto-optic medium and a plurality of transducer electrodes (434a-434f, 434g-434k) carried thereby, wherein the acousto-optic system is characterized by; an interface board comprising a dielectric layer and a plurality of signal contacts (460a-460d) carried thereby; and a plurality of connections coupling respective signal contacts (460a-460d) with respective transducer electrodes (434a-434f, 434g-434k), each connection comprising a dielectric protrusion extending from said AOM, and an electrically conductive layer on said dielectric protrusion for coupling a respective transducer electrode (434a-434f, 434g-434k) to a respective signal contact (460a-460d). a laser source (131, 231); an acousto-optic modulator coupled to said laser source (131, 231) and comprising an acousto-optic medium and a plurality of transducer electrodes (434a-434f, 434g-434k) carried thereby, wherein the acousto-optic system is characterized by; an interface board comprising a dielectric layer and a plurality of signal contacts (460a-460d) carried thereby; and a plurality of connections coupling respective signal contacts (460a-460d) with respective transducer electrodes (434a-434f, 434g-434k), each connection comprising a dielectric protrusion extending from said AOM, and an electrically conductive layer on said dielectric protrusion for coupling a respective transducer electrode (434a-434f, 434g-434k) to a respective signal contact (460a-460d). a dielectric protrusion extending from said AOM, and an electrically conductive layer on said dielectric protrusion for coupling a respective transducer electrode (434a-434f, 434g-434k) to a respective signal contact (460a-460d).