mhurhangee/patent-ind-claim-en huggingface dataset:
Module for a plug-in contact element for the intercept-proof supply of an IT component with electrical energy, the plug-in contact element comprising a housing with a plug-in contact for the electrical connection of the IT component as well as an electrical connector extending out of the housing for connection to a power source such as a domestic power socket, characterized in that the module can be inserted into the housing of the plug-in contact element and comprises an electrically conductive end cover with a tube which encloses a filter element so that said filter element is shielded on four sides, as well as a plurality of EMC gaskets , wherein the filter element is adapted to decouple the power source from the power distribution network formed via the plug-in contact , wherein a wiring zone between the filter element and the end cover is also shielded so that signals of the IT component or filter element cannot be coupled into a wiring on the filter-element output side, and wherein the end cover can be connected to a housing body of the housing via one of the EMC gaskets .
A composition comprising the following components: A) an ethylene/alpha-olefin/diene interpolymer with MV (1+4, 125°C) ≥ 50; B) an ethylene/alpha-olefin copolymer with MV(1+4, 125°C) ≤ 80; C) MgO; D) at least one carbon black filler; E) at least one hindered amine antioxidant; F) at least one peroxide wherein the weight ratio of component D to component C is from 2.0 to 20; wherein the weight ratio of component A to component B is from 0.2 to 4.0; wherein the weight ratio of component C to component E is from 1.0 to 10; and wherein MV (1 +4, 125°C) is measured in accordance with ASTM 1646-04 as set out in the Test Methods section in the description. A) an ethylene/alpha-olefin/diene interpolymer with MV (1+4, 125°C) ≥ 50; B) an ethylene/alpha-olefin copolymer with MV(1+4, 125°C) ≤ 80; C) MgO; D) at least one carbon black filler; E) at least one hindered amine antioxidant; F) at least one peroxide wherein the weight ratio of component D to component C is from 2.0 to 20; wherein the weight ratio of component A to component B is from 0.2 to 4.0; wherein the weight ratio of component C to component E is from 1.0 to 10; and wherein MV (1 +4, 125°C) is measured in accordance with ASTM 1646-04 as set out in the Test Methods section in the description.
A webpage loading method for application on an edge server in a content delivery network, comprising: after enabling a front end optimization function, obtaining an original loading list of a to-be-loaded page according to a page loading request from a user terminal, wherein the loading list is a HTML document; optimizing the original loading list to obtain an optimized loading list; sending the optimized loading list to the user terminal; determining whether there is an error in loading the to-be-loaded page on the user terminal; if there is an error in loading the to-be-loaded page on the user terminal, sending the original loading list to the user terminal; receiving a page loading request for the to-be-loaded page from the user terminal; determining , based on cookie-recorded information included in the page loading request, if the user terminal has previously received the original loading list due to a loading error; if the user terminal has previously received the original loading list due to a loading error, sending the original loading list to the user terminal; if the user terminal has not previously received the original loading list due to a loading error, optimizing the original loading list to obtain an optimized loading list and sending the optimized loading list to the user terminal. after enabling a front end optimization function, obtaining an original loading list of a to-be-loaded page according to a page loading request from a user terminal, wherein the loading list is a HTML document; optimizing the original loading list to obtain an optimized loading list; sending the optimized loading list to the user terminal; determining whether there is an error in loading the to-be-loaded page on the user terminal; if there is an error in loading the to-be-loaded page on the user terminal, sending the original loading list to the user terminal; receiving a page loading request for the to-be-loaded page from the user terminal; determining , based on cookie-recorded information included in the page loading request, if the user terminal has previously received the original loading list due to a loading error; if the user terminal has previously received the original loading list due to a loading error, sending the original loading list to the user terminal; if the user terminal has not previously received the original loading list due to a loading error, optimizing the original loading list to obtain an optimized loading list and sending the optimized loading list to the user terminal.
Heating system for a building, wherein the heating system comprises a heater and an exhaust gas feed pipe system , wherein the exhaust gas feed pipe system can be connected by means of a connection element to the heater , wherein on the one hand the connection element can be connected mechanically to the heater by means of a bayonet connection , wherein the bayonet connection comprises a latching element arrangement , by means of which, after closing the bayonet connection by a predeterminable rotational angle, the opening of the bayonet connection can be blocked, wherein on the other hand the connection element can be connected mechanically to at least one portion of the exhaust gas feed pipe system by means of at least one fixing element , and wherein the at least one fixing element comprises at least one form-fitting fixing element which is configured and/or arranged so that it secures the exhaust gas feed pipe system axially with respect to the connection element .
A folding joint for attaching a rear view display device to a vehicle, comprising: a first hinge section and a second hinge section , wherein the first and second hinge sections are adapted to be rotational relative to each other around an axis of rotation ; a spring biased cam section, which is adapted to interact with at least one detent or recessed surface for adjustably locking the rotational movement of the first and second hinge sections relative to each other, and the detent or recessed surface comprises at least two depressions (12a-c) or recesses (122a-c, 611a-c) corresponding to locking positions for adjustably locking the rotational movement of the first and second hinge sections relative to each other; and a hinge pin at least in part coinciding with the axis of rotation , wherein the hinge pin is adapted to rotatably connect the first and second hinge sections , characterized in that the hinge pin comprises a guide pin , extending essentially perpendicularly from the hinge pin , a spring biased clamping bolt provides the spring biased cam section, and the spring biased clamping bolt is arranged on the guide pin . a first hinge section and a second hinge section , wherein the first and second hinge sections are adapted to be rotational relative to each other around an axis of rotation ; a spring biased cam section, which is adapted to interact with at least one detent or recessed surface for adjustably locking the rotational movement of the first and second hinge sections relative to each other, and the detent or recessed surface comprises at least two depressions (12a-c) or recesses (122a-c, 611a-c) corresponding to locking positions for adjustably locking the rotational movement of the first and second hinge sections relative to each other; and a hinge pin at least in part coinciding with the axis of rotation , wherein the hinge pin is adapted to rotatably connect the first and second hinge sections , characterized in that the hinge pin comprises a guide pin , extending essentially perpendicularly from the hinge pin , a spring biased clamping bolt provides the spring biased cam section, and the spring biased clamping bolt is arranged on the guide pin .
Industrial accelerometer which is suitable for supplying measurements along three measurement axes of a rectangular trihedron, in particular for monitoring the vibrations of an industrial machine (E, E'), the accelerometer comprising first and second micro-electromechanical integrated circuits (MEMS1, MEMS2) which are arranged on a planar printed circuit ; - the first integrated circuit (MEMS1) extending in a first plane and constituting a first triaxial sensor which is suitable for supplying acceleration signals along the three measurement axes (I, J, K), two measurement axes (I, J) being in the first plane; - the second integrated circuit (MEMS2) extending in a second plane and constituting a second monoaxial sensor which is suitable for providing an acceleration signal along a single measurement axis (A) in the second plane, the second monoaxial sensor (MEMS2) having at least one improved characteristic in comparison to the characteristics of the first triaxial sensor (MEMS1); the first and second planes both being coplanar with the printed circuit, and the first and second integrated circuits (MEMS1, MEMS2) being arranged on the planar printed circuit so that the single measurement axis (A) of the second sensor (MEMS2) is parallel to one of the two measurement axes (I; J) in the first plane of the first sensor (MEMS1), the two other axes (J, K; I, K) being designated as the "preserved axes", the measurements provided by the industrial accelerometer being composed of the acceleration signal of the second sensor (MEMS2) and of the two acceleration signals along the two preserved axes (J, K; I, K) of the first sensor (MEMS1). - the first integrated circuit (MEMS1) extending in a first plane and constituting a first triaxial sensor which is suitable for supplying acceleration signals along the three measurement axes (I, J, K), two measurement axes (I, J) being in the first plane; - the second integrated circuit (MEMS2) extending in a second plane and constituting a second monoaxial sensor which is suitable for providing an acceleration signal along a single measurement axis (A) in the second plane, the second monoaxial sensor (MEMS2) having at least one improved characteristic in comparison to the characteristics of the first triaxial sensor (MEMS1);
A turbine rotor assembly including a unitary body including at least one inlet for inlet of a fluid into the rotor assembly and a plurality of radially enclosed flow channels extending through the unitary body and terminating in an outlet portion , the at least one inlet in fluid communication with each of the plurality of flow channels , the respective outlet portions of each of the plurality of flow channels are provided on a lateral side edge of a lip of the body, oriented substantially tangentially to the lip in order to create rotational force as the working fluid exits the outlet portions , and each of the plurality of flow channels is arcuate and continuous without restriction between the inlet and a converging-diverging nozzle in order to translate axial flow of the working fluid into the rotor assembly into radial flow to provide rotation of the rotor assembly , characterised in that the body is substantially circular when viewed in one orientation and bell-shaped having an arcuate waist when viewed in a perpendicular orientation. the respective outlet portions of each of the plurality of flow channels are provided on a lateral side edge of a lip of the body, oriented substantially tangentially to the lip in order to create rotational force as the working fluid exits the outlet portions , and each of the plurality of flow channels is arcuate and continuous without restriction between the inlet and a converging-diverging nozzle in order to translate axial flow of the working fluid into the rotor assembly into radial flow to provide rotation of the rotor assembly , characterised in that the body is substantially circular when viewed in one orientation and bell-shaped having an arcuate waist when viewed in a perpendicular orientation.
An electronic display assembly comprising: a circuit board ; a first microlens layer on a first side of the circuit board, the first microlens layer comprising a first plurality of microlenses; a second microlens layer on an opposite side of the circuit board from the first microlens layer, the second microlens layer comprising a second plurality of microlenses; an image sensor layer adjacent to the first microlens layer, the image sensor layer comprising a plurality of sensor pixels configured to detect incoming light through the first plurality of microlenses; a display layer adjacent to the second microlens array, the display layer comprising a plurality of display pixels configured to emit light through the second plurality of microlenses; a logic unit layer coupled to the circuit board, the logic unit layer comprising one or more logic units configured to emulate transparency by directing signals from the plurality of sensor pixels to the plurality of display pixels, thereby emitting light from the second plurality of microlenses at angles that correspond to angles of the incoming light detected through the first plurality of microlenses. a circuit board ; a first microlens layer on a first side of the circuit board, the first microlens layer comprising a first plurality of microlenses; a second microlens layer on an opposite side of the circuit board from the first microlens layer, the second microlens layer comprising a second plurality of microlenses; an image sensor layer adjacent to the first microlens layer, the image sensor layer comprising a plurality of sensor pixels configured to detect incoming light through the first plurality of microlenses; a display layer adjacent to the second microlens array, the display layer comprising a plurality of display pixels configured to emit light through the second plurality of microlenses; a logic unit layer coupled to the circuit board, the logic unit layer comprising one or more logic units configured to emulate transparency by directing signals from the plurality of sensor pixels to the plurality of display pixels, thereby emitting light from the second plurality of microlenses at angles that correspond to angles of the incoming light detected through the first plurality of microlenses.
A method for operating a multi-engine rotorcraft to shed ice accumulation, the method comprising: when the rotorcraft is cruising in an asymmetric operating regime (AOR) in which at least one engine is an active engine and is operated in an active mode to provide motive power to the rotorcraft and at least one second engine is a standby engine and is operated in a standby mode to provide substantially no motive power to the rotorcraft , shedding any ice accumulation on the at least one second engine by at least one of increasing a power level of the at least one second engine and moving at least one variable geometry mechanism of the at least one second engine .
A method for producing at least one high-frequency contact element or a high-frequency contact element arrangement from at least one such high-frequency contact element with the following method steps: • Production of a main body part of each high-frequency contact element from a dielectric material by means of an additive manufacturing process, wherein the main body part has a feedthrough (4; 4 1 , 4 2 ) between a first end (6 1 ) and a second end (6 2 ) of a longitudinal extension of the main body part , • Coating the dielectric main body part with an electrically conductive layer, characterized by the further method step: • Removal of the electrically conductive layer in a region (9 1 , 9 2 ) surrounding the feedthrough (4; 4 1 , 4 2 ) on the first end (6 1 ) and on the second end (6 2 ) of the main body part in order to form an electrically conductive outer conductive-side coating (5 1 ) and an electrically conductive inner conductor-side coating (5 2 ). • Production of a main body part of each high-frequency contact element from a dielectric material by means of an additive manufacturing process, wherein the main body part has a feedthrough (4; 4 1 , 4 2 ) between a first end (6 1 ) and a second end (6 2 ) of a longitudinal extension of the main body part , • Coating the dielectric main body part with an electrically conductive layer, characterized by the further method step: • Removal of the electrically conductive layer in a region (9 1 , 9 2 ) surrounding the feedthrough (4; 4 1 , 4 2 ) on the first end (6 1 ) and on the second end (6 2 ) of the main body part in order to form an electrically conductive outer conductive-side coating (5 1 ) and an electrically conductive inner conductor-side coating (5 2 ).
A longitudinal luminaire comprising a cylindrical casing extending along a longitudinal direction (X), said casing being at least partly transparent, a lighting device disposed inside the casing , the lighting device and the casing being assembled only by means of a plurality of brackets , a cover mounted on one end of the casing , the cover being fastened to at least one bracket , and at least one switch which cooperates with the cover when the cover is mounted on the casing , wherein when the cover is mounted on the casing the switch is configured to supply the lighting device with electrical current while when the cover is disassembled from the casing , the switch is configured to isolate the lighting device .
A method comprising: identifying a first device associated with a first user, the first device having a public identity key; performing a key exchange between the first device and a second device associated with a second user, wherein the public identity key and a public session key are transmitted from the first device to the second device; and conducting a communication session between the first user and the second user, wherein a message transmitted from the second device to the first device during the communication session is encrypted with the public identity key and the public session key, wherein the public session key is configured to expire upon completion of the communication session, before a subsequent communication session, or during the communication session. identifying a first device associated with a first user, the first device having a public identity key; performing a key exchange between the first device and a second device associated with a second user, wherein the public identity key and a public session key are transmitted from the first device to the second device; and conducting a communication session between the first user and the second user, wherein a message transmitted from the second device to the first device during the communication session is encrypted with the public identity key and the public session key, performing a key exchange between the first device and a second device associated with a second user, wherein the public identity key and a public session key are transmitted from the first device to the second device; and conducting a communication session between the first user and the second user, wherein a message transmitted from the second device to the first device during the communication session is encrypted with the public identity key and the public session key, wherein the public session key is configured to expire upon completion of the communication session, before a subsequent communication session, or during the communication session.
A method of fabricating an organic light emitting device (OLED) on a substrate, comprising: providing a flexible mold having surface features, wherein the surface features are arranged to produce features on a substrate , and wherein the surface features are configured to enhance light extraction, and wherein the mold includes holes that provide access through the mold to the substrate; forming the substrate over the mold; fabricating an OLED over the substrate while the substrate is in the mold; and removing the mold from the substrate having the OLED fabricated thereon, wherein the mold is removed from the substrate by applying mechanical force through the holes in the mold, and wherein after removing the mold from the substrate, the substrate having the OLED fabricated thereon is flexible. providing a flexible mold having surface features, wherein the surface features are arranged to produce features on a substrate , and wherein the surface features are configured to enhance light extraction, and wherein the mold includes holes that provide access through the mold to the substrate; forming the substrate over the mold; fabricating an OLED over the substrate while the substrate is in the mold; and removing the mold from the substrate having the OLED fabricated thereon, wherein the mold is removed from the substrate by applying mechanical force through the holes in the mold, and wherein after removing the mold from the substrate, the substrate having the OLED fabricated thereon is flexible.
A battery container having at least one compartment suitable for receiving one or more battery plates, wherein the at least one compartment has a substantially planar pair of two opposing sidewalls which are arranged at right angles to one another such that the battery container is substantially square or rectangular when viewed from above, a substantially planar floor which extends between a lower end of the sidewalls and at least two guides or ribs arranged on a surface of at least one of the sidewalls , wherein the at least two guides or ribs extend from a respective sidewall and define in normal, relaxed or unloaded conditions, namely when no external object is placed in the container and/or contacts each guide or rib, at least one curved portion in a direction extending from the inner surface of a respective sidewall to a distalmost edge of the at least two guides or ribs which are distal from the sidewall and wherein at least a portion of a lower end or edge of each guide or rib does not extend the floor .
A hot melt adhesive comprising: (A) a thermoplastic block copolymer which is a block copolymer of a vinyl-based aromatic hydrocarbon and a conjugated diene compound; and (B) an amorphous wax modified with a carboxylic acid and/or a carboxylic anhydride. (A) a thermoplastic block copolymer which is a block copolymer of a vinyl-based aromatic hydrocarbon and a conjugated diene compound; and (B) an amorphous wax modified with a carboxylic acid and/or a carboxylic anhydride.