mhurhangee/ep-ind-claims huggingface dataset:
Cooking appliance light, in particular an oven light, which has a light lens on its upper side and is provided with a fitting underneath, wherein a geometric longitudinal central axis runs vertically through the fitting, - having a collar on the underside of the light lens, which supports at least one groove arrangement consisting of an axially extending vertical groove and a horizontal groove extending in the direction of the periphery of the collar that follows this, which are both radially open for the engagement of a latch, wherein - the vertical groove has an axially facing latch inlet opening and wherein - the horizontal groove is provided with an axially facing latch support surface, with a securing projection and with a movement limiting stop on its end facing away from the vertical groove, - having a fastening element, which forms a latch that is fixed to the fitting and engages radially in the groove arrangement, after completing a plug-in movement and rotational movement, in order to fix the light lens to the fitting, - having a bearing flange as part of the fitting on which the light lens rests, wherein - the fastening element has a spring element that supports the latch, characterised in that - the latch has a latch surface that faces axially downwards and that lies on the latch support surface that faces axially upwards, - the spring element exerts a force on the light lens that is directed axially downwards, in order to hold the light lens against the bearing flange. - having a collar on the underside of the light lens, which supports at least one groove arrangement consisting of an axially extending vertical groove and a horizontal groove extending in the direction of the periphery of the collar that follows this, which are both radially open for the engagement of a latch, wherein - the vertical groove has an axially facing latch inlet opening and wherein - the horizontal groove is provided with an axially facing latch support surface, with a securing projection and with a movement limiting stop on its end facing away from the vertical groove, - having a fastening element, which forms a latch that is fixed to the fitting and engages radially in the groove arrangement, after completing a plug-in movement and rotational movement, in order to fix the light lens to the fitting, - having a bearing flange as part of the fitting on which the light lens rests, wherein - the fastening element has a spring element that supports the latch, characterised in that - the latch has a latch surface that faces axially downwards and that lies on the latch support surface that faces axially upwards, - the spring element exerts a force on the light lens that is directed axially downwards, in order to hold the light lens against the bearing flange.
A package with a stack of flexible articles, the package comprising: a flexible outer cover, having a first lateral panel and a second lateral panel opposing the first lateral panel, the first and the second lateral panels being connected via a continuous wall, the continuous wall being divided into four side panels, a first end side panel and a second end side panel opposing the first end side panel, and a front side panel and a back side panel opposing the front side panel, said flexible outer cover enclosing a stack of flexible articles, the stack comprising two or more flexible articles, the stack having a first lateral side and a second lateral side opposing the first lateral side, a front side and a back opposing the front side, and a first end side being a first article of the stack and a second end side being a last article of the stack, the second end side opposing the first end side, characterized inthat the package further comprises: two stiffening elements, whereby one stiffening element is positioned against the interior surface of the first end side panel of the flexible outer cover and one stiffening element is positioned against the second end side panel of the flexible outer cover. a flexible outer cover, having a first lateral panel and a second lateral panel opposing the first lateral panel, the first and the second lateral panels being connected via a continuous wall, the continuous wall being divided into four side panels, a first end side panel and a second end side panel opposing the first end side panel, and a front side panel and a back side panel opposing the front side panel, said flexible outer cover enclosing a stack of flexible articles, the stack comprising two or more flexible articles, the stack having a first lateral side and a second lateral side opposing the first lateral side, a front side and a back opposing the front side, and a first end side being a first article of the stack and a second end side being a last article of the stack, the second end side opposing the first end side, two stiffening elements, whereby one stiffening element is positioned against the interior surface of the first end side panel of the flexible outer cover and one stiffening element is positioned against the second end side panel of the flexible outer cover.
Method for wear detection during operation of a conveying system, which is formed of at least one running gear circulating in a closed path, wherein the running gear contains transport rollers, which are moved on rails, and characterised in that a pick-up, which has a predefined distance (d) from the rail surface, is fastened to the running gear; and wherein the method has the following method steps: a) in the event of wear on the transport roller and/or on the rail which occurs due to operation, the pick-up touches the rail surface and is made to oscillate as a result; b) an oscillation sensor coupled to the pick-up registers the oscillations; c) the registered oscillations are transmitted (24, 26) wirelessly to a background system by the oscillation sensor, together with a time stamp and an identity of the oscillation sensor; d) in the background system, the data transmitted in method step c) is subjected to an analysis and, in the event of deviations, is detected as wear and signalled by a message. a) in the event of wear on the transport roller and/or on the rail which occurs due to operation, the pick-up touches the rail surface and is made to oscillate as a result; b) an oscillation sensor coupled to the pick-up registers the oscillations; c) the registered oscillations are transmitted (24, 26) wirelessly to a background system by the oscillation sensor, together with a time stamp and an identity of the oscillation sensor; d) in the background system, the data transmitted in method step c) is subjected to an analysis and, in the event of deviations, is detected as wear and signalled by a message.
An underwater wing (9,10,11) of an energy plant for capturing energy from water flow with reciprocating direction into reciprocating motion of the underwater wing, wherein the underwater wing (9,10,11) has a non-planar profile, the underwater wing is arranged to provide reciprocating movement in a direction which is closer to a plane which is orthogonal to the water flow than to the direction of the water flow wherein the underwater wing is asymmetric and wherein the underwater wing profile has two leading edges mirrored at the opposite sides of the wing profile.
A method for the prediction or prognosis of the progression of a patient, who has shown a clinically isolated syndrome, to multiple sclerosis, which comprises: a) detecting the level of the soluble isoform of IFNAR-2 in an isolated biological serum sample from a patient who has shown a clinically isolated syndrome, b) comparing the amounts obtained in step (a) with a reference amount, and assigning the patient of step (a) to the group of individuals who will progress to multiple sclerosis when they have greater and significant levels with respect to a reference sample. a) detecting the level of the soluble isoform of IFNAR-2 in an isolated biological serum sample from a patient who has shown a clinically isolated syndrome, b) comparing the amounts obtained in step (a) with a reference amount,
An apparatus for wireless communication at a wireless device, comprising: a memory; and at least one processor coupled to the memory and configured to: reserve a set of periodic resources for sidelink transmission, wherein the reserved set of periodic resources include reserved resources for sidelink control information, SCI, and reserved resources for data; and transmit the SCI without a data transmission in a periodic resource for a period, wherein the SCI includes an indication that there is no data transmission associated with the SCI, and wherein the indication is comprised in a first portion of the SCI that is transmitted on a physical sidelink control channel, PSCCH. a memory; and at least one processor coupled to the memory and configured to: reserve a set of periodic resources for sidelink transmission, wherein the reserved set of periodic resources include reserved resources for sidelink control information, SCI, and reserved resources for data; and transmit the SCI without a data transmission in a periodic resource for a period, wherein the SCI includes an indication that there is no data transmission associated with the SCI, and wherein the indication is comprised in a first portion of the SCI that is transmitted on a physical sidelink control channel, PSCCH. reserve a set of periodic resources for sidelink transmission, wherein the reserved set of periodic resources include reserved resources for sidelink control information, SCI, and reserved resources for data; and transmit the SCI without a data transmission in a periodic resource for a period, wherein the SCI includes an indication that there is no data transmission associated with the SCI, and wherein the indication is comprised in a first portion of the SCI that is transmitted on a physical sidelink control channel, PSCCH.
A volumetric pump, comprising: - at least one deformable enclosure, which defines at least two variable-volume chambers (12, 13, 14, 15), each of said at least two chambers (12, 13, 14, 15) being provided with an intake passage and with an outflow passage, - drive means comprising an electric motor that is adapted to move a rod-and-crank system, which comprises a crank element and at least two opposing rod elements, said rod elements each supporting a first magnetic body (32, 34), - magnetically-actuated means, which act on portions of said deformable closure in order to deform said deformable enclosure between an extended configuration, having a larger volume, and a compressed configuration, having a smaller volume, said magnetically-actuated means comprise, for each one of variable-volume chambers (12, 13, 14, 15), two magnetic bodies (32, 33, 34, 35), two (32, 33) for the first chamber, and two (34, 35), for the adjacent second chamber, which are preset to attract or repel each other mutually wherein said magnetically-actuated means comprises the first magnetic body (32, 34), which is moved by the drive means in an interspace and a second magnetic body (33, 35), which is fixed to the enclosure in such a position as to undergo the magnetic attraction or repulsion of the first magnetic body (32, 34) when the latter is substantially at the second magnetic body (33, 35), and - a load-bearing frame on which said at least one deformable enclosure and said drive means are mounted. - at least one deformable enclosure, which defines at least two variable-volume chambers (12, 13, 14, 15), each of said at least two chambers (12, 13, 14, 15) being provided with an intake passage and with an outflow passage, - drive means comprising an electric motor that is adapted to move a rod-and-crank system, which comprises a crank element and at least two opposing rod elements, said rod elements each supporting a first magnetic body (32, 34), - magnetically-actuated means, which act on portions of said deformable closure in order to deform said deformable enclosure between an extended configuration, having a larger volume, and a compressed configuration, having a smaller volume, said magnetically-actuated means comprise, for each one of variable-volume chambers (12, 13, 14, 15), two magnetic bodies (32, 33, 34, 35), two (32, 33) for the first chamber, and two (34, 35), for the adjacent second chamber, which are preset to attract or repel each other mutually wherein said magnetically-actuated means comprises the first magnetic body (32, 34), which is moved by the drive means in an interspace and a second magnetic body (33, 35), which is fixed to the enclosure in such a position as to undergo the magnetic attraction or repulsion of the first magnetic body (32, 34) when the latter is substantially at the second magnetic body (33, 35), and - a load-bearing frame on which said at least one deformable enclosure and said drive means are mounted.
A radio resource control, RRC, connection management method, comprising: negotiating, by user equipment (110, 810, 900), UE, when in an RRC connected mode before entering an RRC idle mode, with an access network node (120, 820, 1000) on a target security parameter to be used next time the UE (110, 810, 900) enters the RRC connected mode, characterized in that the target security parameter has not been used previously in the RRC connected mode; performing, by the UE (110, 810, 900), security protection on uplink data by using the target security parameter obtained through the negotiation; sending, by the UE (110, 810, 900), when in the RRC idle mode, an uplink data request to the access network node (120, 820, 1000) by using a shared data sending resource, wherein the uplink data request comprises the uplink data and request information that is used for requesting to enter the RRC connected mode; and receiving, by the UE (110, 810, 900), an access network dedicated identifier from the access network node (120, 820, 1000). negotiating, by user equipment (110, 810, 900), UE, when in an RRC connected mode before entering an RRC idle mode, with an access network node (120, 820, 1000) on a target security parameter to be used next time the UE (110, 810, 900) enters the RRC connected mode, characterized in that the target security parameter has not been used previously in the RRC connected mode; performing, by the UE (110, 810, 900), security protection on uplink data by using the target security parameter obtained through the negotiation; sending, by the UE (110, 810, 900), when in the RRC idle mode, an uplink data request to the access network node (120, 820, 1000) by using a shared data sending resource, wherein the uplink data request comprises the uplink data and request information that is used for requesting to enter the RRC connected mode; and receiving, by the UE (110, 810, 900), an access network dedicated identifier from the access network node (120, 820, 1000).
A method of producing a variant-shaped laminated core by punching out core sheets of plural different types as regards at least one of outer shape and size from a strip to be processed, and by laminating and interlocking the plural types of core sheets, the method comprising: Step A of punching out a required number of core sheets for each of the plural types from the strip being transferred, to form the outlines of the core sheets, and push back the punched out core sheets into the strip; Step B of forming at least two opposed cutouts (28, 30, 32), the cutouts (28, 30, 32) reaching an outer periphery of each of outer plates (27, 29, 3 1), the outer plates (27, 29, 31) being the same in outer shape and respectively containing thereinside the core sheets, the cutouts (28, 30,32) each having inner edges reaching each of the core sheets; Step C of forming caulking portions for interlocking in each of the core sheets; Step D of punching out the outer plates (27, 29, 31) from the strip to form the outlines of the outer plates (27, 29, 31) and laminating and interlocking the core sheets to form the variant-shaped laminated core; and Step E of removing the outer plates (27, 29, 31) located outside the laminated and interlocked variant-shaped core. Step A of punching out a required number of core sheets for each of the plural types from the strip being transferred, to form the outlines of the core sheets, and push back the punched out core sheets into the strip; Step B of forming at least two opposed cutouts (28, 30, 32), the cutouts (28, 30, 32) reaching an outer periphery of each of outer plates (27, 29, 3 1), the outer plates (27, 29, 31) being the same in outer shape and respectively containing thereinside the core sheets, the cutouts (28, 30,32) each having inner edges reaching each of the core sheets; Step C of forming caulking portions for interlocking in each of the core sheets; Step D of punching out the outer plates (27, 29, 31) from the strip to form the outlines of the outer plates (27, 29, 31) and laminating and interlocking the core sheets to form the variant-shaped laminated core; and Step E of removing the outer plates (27, 29, 31) located outside the laminated and interlocked variant-shaped core.
Method for operating a combined heat and power plant for providing electrical and thermal energy for at least one consumer unit (12, 14), characterized in that the heat output requested is increased by dissipating a proportion of the heat output provided when a threshold value for a difference between provided and requested heat output is exceeded, wherein the dissipation is effected by means of a heat exchanger which is coupled on the one hand to the combined heat and power plant and on the other hand to the soil and/or to stationary or running water.
A communication method, carried out at a target network device, the method comprising: acquiring, by the target network device, context information of a terminal device under a trigger of the terminal device when the terminal device in a Radio Resource Control, RRC, inactive state moves from a source Public Land Mobile Network, PLMN, to a target PLMN or moves from a source core network to a target core network, wherein the acquiring comprises receiving, by the target network device, the context information of the terminal device sent by the terminal device, and the target network device is a target core network device included in the target core network or a target PLMN device included in the target PLMN; performing, by the target network device, communication with the terminal device according to the context information; characterized by after receiving, by the target network device, the context information sent by the terminal device, sending, by the target network device, first indication information to the terminal device, wherein the first indication information is to instruct the terminal device to release the context information. acquiring, by the target network device, context information of a terminal device under a trigger of the terminal device when the terminal device in a Radio Resource Control, RRC, inactive state moves from a source Public Land Mobile Network, PLMN, to a target PLMN or moves from a source core network to a target core network, wherein the acquiring comprises receiving, by the target network device, the context information of the terminal device sent by the terminal device, and the target network device is a target core network device included in the target core network or a target PLMN device included in the target PLMN; performing, by the target network device, communication with the terminal device according to the context information; characterized by after receiving, by the target network device, the context information sent by the terminal device, sending, by the target network device, first indication information to the terminal device, wherein the first indication information is to instruct the terminal device to release the context information.
A cabin attendant seat system comprising: a housing; and a seat pivotally coupled to the housing; wherein a spring fixed to the housing on a first side of the spring and attached to the seat on a second side of the spring, wherein the spring is configured to bias the seat to a stowed position, wherein the spring is a torsion spring; a retention device being a spring loaded device that is coupled to a side surface of the seat, wherein the side surface is normal to a face of the seat, wherein the retention device is configured to move in the same hinged arc of travel as the seat and configured to engage a tapered ramp of a shaped housing, provided on the housing, for reducing the speed of the seat when moving to the stowed position. a housing; and a seat pivotally coupled to the housing; wherein a spring fixed to the housing on a first side of the spring and attached to the seat on a second side of the spring, wherein the spring is configured to bias the seat to a stowed position, wherein the spring is a torsion spring; a retention device being a spring loaded device that is coupled to a side surface of the seat, wherein the side surface is normal to a face of the seat, wherein the retention device is configured to move in the same hinged arc of travel as the seat and configured to engage a tapered ramp of a shaped housing, provided on the housing, for reducing the speed of the seat when moving to the stowed position.
An inkjet ink comprising: a colorant; a first resin; a second resin; an aminosilane; and an organic solvent; wherein the second resin is a styrene maleic anhydride and the second resin is different to the first resin. a colorant; a first resin; a second resin; an aminosilane; and an organic solvent; wherein the second resin is a styrene maleic anhydride and the second resin is different to the first resin.
A method of preparing a polycrystalline aluminum nitride material having defined characteristics, the method comprising: pressing aluminum nitride powder by applying a pressure of at least about 20.000 PSI (about 138 MPa) to form a pressed aluminum nitride slug; and sintering the pressed aluminum nitride slug by heating to a maximum temperature of at least about 1,500 °C at a heating rate of about 0.1 °C/minute to about 5 °C/minute in a non-oxidizing atmosphere to form a sintered aluminum nitride boule with a thickness of at least about 5.0 cm and with a diameter or length or width of at least about 5.0 cm; wherein the sintered polycrystalline aluminum nitride boule has a relative density of at least about 99% and an aluminum nitride purity of at least about 99% by weight, and wherein said pressing and said sintering are carried out in the express absence of any added sintering aid or binder. pressing aluminum nitride powder by applying a pressure of at least about 20.000 PSI (about 138 MPa) to form a pressed aluminum nitride slug; and sintering the pressed aluminum nitride slug by heating to a maximum temperature of at least about 1,500 °C at a heating rate of about 0.1 °C/minute to about 5 °C/minute in a non-oxidizing atmosphere to form a sintered aluminum nitride boule with a thickness of at least about 5.0 cm and with a diameter or length or width of at least about 5.0 cm;
A robot gripper comprising a first tubular part, and a gripping member comprising a movable part arranged linearly movable inside the first tubular part, and grip claws adapted to be opened and closed by means of linear movements of the movable part, wherein the grip claws are rigidly connected to the movable part and thereby are linearly movable in relation to the first tubular part between a retracted position and an extended position, and the grip claws are adapted to be opened in the extended position and closed in the retracted position, characterized by a telescopic arm comprising the first tubular part and a second tubular part, wherein the first tubular part is arranged linearly movable inside the second tubular part.
A photosensitive resin composition comprising: electrically conductive particles whose surfaces are coated with a carbon simple substance and/or a carbon compound; an alkali-soluble resin containing an acid-dissociation group; and a metal chelate compound. electrically conductive particles whose surfaces are coated with a carbon simple substance and/or a carbon compound; an alkali-soluble resin containing an acid-dissociation group; and a metal chelate compound.