mhurhangee/ep-ind-claims huggingface dataset:
Device for depositing a material by pulsed laser deposition, the device comprising: - a vacuum chamber; - at least one substrate holder with a substrate, arranged inside the vacuum chamber, the substrate having a first, second and third direction, each of the three directions perpendicular to each other, wherein the substrate is movable by the substrate holder in the first direction; - a target holder with a target, arranged inside the vacuum chamber and wherein the target extends over substantially the full length in the second direction of the substrate and parallel to the substrate; - at least one laser for irradiating the target, thereby creating a plasma of material that deposits on the substrate, wherein the position of incidence of the laser on the target is moveable parallel to the second direction of the substrate; and - a controller for controlling the movement of the substrate holder and the movement of the position of incidence of the laser on the target wherein the controller resets the position of incidence of the laser, when viewed in the direction of movement, to the closest edge of the substrate upon arriving at the distal edge of the substrate, characterized by - blocking means for blocking deposition of the plasma plume on the substrate during resetting of the position of incidence of the laser on the target. - a vacuum chamber; - at least one substrate holder with a substrate, arranged inside the vacuum chamber, the substrate having a first, second and third direction, each of the three directions perpendicular to each other, wherein the substrate is movable by the substrate holder in the first direction; - a target holder with a target, arranged inside the vacuum chamber and wherein the target extends over substantially the full length in the second direction of the substrate and parallel to the substrate; - at least one laser for irradiating the target, thereby creating a plasma of material that deposits on the substrate, wherein the position of incidence of the laser on the target is moveable parallel to the second direction of the substrate; and - a controller for controlling the movement of the substrate holder and the movement of the position of incidence of the laser on the target - blocking means for blocking deposition of the plasma plume on the substrate during resetting of the position of incidence of the laser on the target.
Use of a solvent welding agent for welding a first polymer surface of a first membrane, for the building sector, made of a first polymer, with a second polymer surface of a second membrane, from the building sector, made of a second polymer, wherein the first polymer and the second polymer are thermoplastic polyurethane, wherein the solvent welding agent contains a solvent for dissolving a polymer, characterised in that the solvent welding agent comprises a material transport-promoting agent for promoting the material transport of the solvent from a contact zone between the polymer surfaces, wherein the solvent is dimethyl sulfoxide (DMSO), n-methylpyrrolidone or dimethylformamide, and wherein the material transport-promoting agent is selected from the group of alcohols, ketones, ethers, esters, aromatics and/or aliphatics, wherein the mass fraction of the solvent in the solvent welding agent is at most 40 wt.% and at least 25 wt.%., and wherein the mass fraction of the material transport-promoting agent in the solvent welding agent is at most 75 wt.% and at least 60 wt.%.
An electronic device, comprising: a display panel; a processor; and display driving integrated circuitry, DDIC, configured to control the display panel, the DDIC including an internal memory, wherein the DDIC is configured to: while the processor operates in an active state, receive, from the processor, a first content including a plurality of images to be sequentially displayed based on a specified order through the display panel while the processor operates in a low-power state; store the first content in the internal memory; change a timing for outputting a signal corresponding to a state capable of receiving a second content from the processor operating in the active state, based on a change of a location where an image among the plurality of images is displayed while the processor operates in the low-power state; and output the signal to the processor based on the changed timing, wherein the image among the plurality of images is displayed at a predetermined partial area of the display panel and a location of the predetermined partial area is changed by the DDIC. a display panel; a processor; and display driving integrated circuitry, DDIC, configured to control the display panel, the DDIC including an internal memory, wherein the DDIC is configured to: while the processor operates in an active state, receive, from the processor, a first content including a plurality of images to be sequentially displayed based on a specified order through the display panel while the processor operates in a low-power state; store the first content in the internal memory; change a timing for outputting a signal corresponding to a state capable of receiving a second content from the processor operating in the active state, based on a change of a location where an image among the plurality of images is displayed while the processor operates in the low-power state; and output the signal to the processor based on the changed timing, wherein the image among the plurality of images is displayed at a predetermined partial area of the display panel and a location of the predetermined partial area is changed by the DDIC. while the processor operates in an active state, receive, from the processor, a first content including a plurality of images to be sequentially displayed based on a specified order through the display panel while the processor operates in a low-power state; store the first content in the internal memory; change a timing for outputting a signal corresponding to a state capable of receiving a second content from the processor operating in the active state, based on a change of a location where an image among the plurality of images is displayed while the processor operates in the low-power state; and output the signal to the processor based on the changed timing, wherein the image among the plurality of images is displayed at a predetermined partial area of the display panel and a location of the predetermined partial area is changed by the DDIC.
A connector assembly comprising: a main body having a single jack cavity within which a plurality of electrical contact members are disposed, the main body having a first retention structure, the main body being provided with a pair of cavities; and a removable latch member mounted to the main body, the removable latch member being formed as a flexible metal spring having a first portion joined to a second portion by a bent portion, the first portion having a locking rib structure at a free end opposite to the bent portion, the second portion having a retention structure and a pair of bent tabs configured to snap into the cavities located in the main body, the locking rib structure and the first retention structure being located on opposite sides of the main body such that the connector assembly can be received into a first opening having a height of 19.3 millimeters and into a second opening having a height of 20.6 millimeters; wherein the first portion and the locking rib structure can be depressed towards the main body. a main body having a single jack cavity within which a plurality of electrical contact members are disposed, the main body having a first retention structure, the main body being provided with a pair of cavities; and a removable latch member mounted to the main body, the removable latch member being formed as a flexible metal spring having a first portion joined to a second portion by a bent portion, the first portion having a locking rib structure at a free end opposite to the bent portion, the second portion having a retention structure and a pair of bent tabs configured to snap into the cavities located in the main body, the locking rib structure and the first retention structure being located on opposite sides of the main body such that the connector assembly can be received into a first opening having a height of 19.3 millimeters and into a second opening having a height of 20.6 millimeters; wherein the first portion and the locking rib structure can be depressed towards the main body.
A device for detecting the merchandise inventory of sales and / or storage facility by means of individual commodity units (3; 3') associated with RFID transponders, wherein an RFID reader unit can be positioned for reading the stored information in each RFID transponder by a robot device along a sensing area opposite to each RFID transponder, characterized in that the robot device, designed as a rope robot, comprises lifting cords (9a - 9d) disposed along the sensing area, which are oriented on one end to the RFID reader unit and on the other end to winches (8a - 8d) arranged at the edge of the sensing area and forming the corners of a rectangle, which are controllable for positioning the RFID reader unit in accordance with a common electronic control unit, to reach each point of the two-dimensional sensing surface.
A flame retardant thermoplastic polymer molding composition, comprising a) 0.1 to 99.8 wt.-% of at least one thermoplastic polymer, different from component B, as component A, b) 0.1 to 99.9 wt.-% of at least one thermoplastic polyester containing 1,2-bis[4-(2-hydroxyethoxy)phenyl]ethanone units, the thermoplastic polyester being based on at least one aromatic dicarboxylic acid, 1,2-bis[4-(2-hydroxyethoxy)phenyl]ethanone and at least one further diol, preferably aliphatic C 2-12 -diol as monomers, wherein the molar ratio of 1,2-bis[4-(2-hydroxyethoxy)phenyl]ethanone to further diol is in the range of from 0.1: 0.9 to 0.95: 0.05 as component B, c) 0.1 to 50 wt.-% of at least one flame retardant additive, selected from phosphorus containing flame retardant additives and halogen containing flame retardant additives, as component C, d) 0 to 25 wt.-% of at least one flame retardant synergist, different from component C, selected from nitrogen compounds, metal borates, metal stannates and metal oxides, as component D, e) 0 to 60 wt.-% of glass fibers as component E, f) 0 to 30 wt.-% of at least one further additive, as component F, wherein the total amount of components A to F is 100 wt.-%. a) 0.1 to 99.8 wt.-% of at least one thermoplastic polymer, different from component B, as component A, b) 0.1 to 99.9 wt.-% of at least one thermoplastic polyester containing 1,2-bis[4-(2-hydroxyethoxy)phenyl]ethanone units, the thermoplastic polyester being based on at least one aromatic dicarboxylic acid, 1,2-bis[4-(2-hydroxyethoxy)phenyl]ethanone and at least one further diol, preferably aliphatic C 2-12 -diol as monomers, wherein the molar ratio of 1,2-bis[4-(2-hydroxyethoxy)phenyl]ethanone to further diol is in the range of from 0.1: 0.9 to 0.95: 0.05 as component B, c) 0.1 to 50 wt.-% of at least one flame retardant additive, selected from phosphorus containing flame retardant additives and halogen containing flame retardant additives, as component C, d) 0 to 25 wt.-% of at least one flame retardant synergist, different from component C, selected from nitrogen compounds, metal borates, metal stannates and metal oxides, as component D, e) 0 to 60 wt.-% of glass fibers as component E, f) 0 to 30 wt.-% of at least one further additive, as component F,
A method for allocating at least one resource to a plurality of resource consumers in a cloud computing environment, wherein the method comprises the following steps: a. defining a maximum resource consumption boundary for each of the plurality of resource consumers; b. measuring a current resource consumption of each of the plurality of resource consumers; c. calculating based on the maximum resource consumption boundaries and the current resource consumptions an unutilized amount of the at least one resource; d. allocating at least a portion of the unutilized amount of the at least one resource to the plurality of resource consumers; e. defining a maximum resource consumption time and a minimum resource consumption time for each of the plurality of resource consumers and measuring a current resource consumption time of each of the plurality of resource consumers; and f. increasing the maximum resource consumption boundary of at least one resource consumer, if the current resource consumption of the at least one resource consumer exceeds the maximum resource consumption boundary of the at least one resource consumer longer than the maximum resource consumption time of the at least one resource consumer. a. defining a maximum resource consumption boundary for each of the plurality of resource consumers; b. measuring a current resource consumption of each of the plurality of resource consumers; c. calculating based on the maximum resource consumption boundaries and the current resource consumptions an unutilized amount of the at least one resource; d. allocating at least a portion of the unutilized amount of the at least one resource to the plurality of resource consumers; e. defining a maximum resource consumption time and a minimum resource consumption time for each of the plurality of resource consumers and measuring a current resource consumption time of each of the plurality of resource consumers; and f. increasing the maximum resource consumption boundary of at least one resource consumer, if the current resource consumption of the at least one resource consumer exceeds the maximum resource consumption boundary of the at least one resource consumer longer than the maximum resource consumption time of the at least one resource consumer.
Gutter element having a gutter body on the side walls (3, 4) of which closure means are provided, and having a covering, which is retained in a lockable manner on the gutter body, wherein the covering has at least one latching slide activated by a spring, characterized - in that the latching slide acts • on lateral guide surfaces of the covering and • on closure means on the side walls (3, 4) of the gutter body, on an introduction slope, - and arrests the covering in a clamp-like manner on the gutter body, - wherein the latching slide has a widened head for bearing, in the closed position, on the lateral guide surfaces at a respective clamping location of the covering, and - wherein a retaining nose in the lower region of the latching slide acts on the introduction slope in a pocket in the closure means, and thus arrests the covering in a clamp-like manner on the gutter body, - wherein the guide surface on the covering and the introduction slope on a side wall (3, 4), the latching slide butting against said guide surface and side wall, are inclined in relation to one another, and - in that the spring, which acts on the latching slide, moves the latching slide automatically into a wedge-like form fit, wherein the latching slide is provided with a protrusion which butts against a stop on the covering when the latching slide is located in the open position. - in that the latching slide acts • on lateral guide surfaces of the covering and • on closure means on the side walls (3, 4) of the gutter body, on an introduction slope, • on lateral guide surfaces of the covering and • on closure means on the side walls (3, 4) of the gutter body, on an introduction slope, - and arrests the covering in a clamp-like manner on the gutter body, - wherein the latching slide has a widened head for bearing, in the closed position, on the lateral guide surfaces at a respective clamping location of the covering, and - wherein a retaining nose in the lower region of the latching slide acts on the introduction slope in a pocket in the closure means, and thus arrests the covering in a clamp-like manner on the gutter body, - wherein the guide surface on the covering and the introduction slope on a side wall (3, 4), the latching slide butting against said guide surface and side wall, are inclined in relation to one another, and - in that the spring, which acts on the latching slide, moves the latching slide automatically into a wedge-like form fit, wherein the latching slide is provided with a protrusion which butts against a stop on the covering when the latching slide is located in the open position.
Use of a chromatographic device comprising: A hollow body having an inlet and an outlet, the hollow body comprising a solid matrix, a porous frit, filter, fleece or membrane, placed between the outlet and the solid matrix, to retain the solid matrix within the chromatographic unit, allowing nucleic acids of any size to pass, a non-porous ring, placed between the porous frit, filter, fleece or membrane and the matrix, sealing the outer area of the frit, filter, fleece or membrane, to prevent the mobile phase from entering the frit without passing the matrix, wherein the solid matrix is a gel-forming polymer having a size exclusion limit of 150 to 500 bp for isolation or purification of genomic DNA from a lysate obtained by (i) mixing a cell-containing sample with a lysis buffer (ii) incubating the mixture to obtain a lysate comprising at least DNA, RNA and proteins (iii) optionally disintegrating the RNA present in the lysate (iv) selectively precipitating dissolved contaminants from the lysate, wherein the lysis buffer in step (i) is comprising a source of anionic surfactants, but is essentially free of a complexing or chelating agent, and selective precipitation in step (iv) is obtained by adding to the lysate a solution comprising monovalent ions of alkali metals and/or divalent ions of alkaline earth metals selected from the group Rb+, Cs+, Ca2+, Sr2+, Ba2+ or mixtures thereof. A hollow body having an inlet and an outlet, the hollow body comprising a solid matrix, a porous frit, filter, fleece or membrane, placed between the outlet and the solid matrix, to retain the solid matrix within the chromatographic unit, allowing nucleic acids of any size to pass, a non-porous ring, placed between the porous frit, filter, fleece or membrane and the matrix, sealing the outer area of the frit, filter, fleece or membrane, to prevent the mobile phase from entering the frit without passing the matrix, wherein the solid matrix is a gel-forming polymer having a size exclusion limit of 150 to 500 bp for isolation or purification of genomic DNA from a lysate obtained by (i) mixing a cell-containing sample with a lysis buffer (ii) incubating the mixture to obtain a lysate comprising at least DNA, RNA and proteins (iii) optionally disintegrating the RNA present in the lysate (iv) selectively precipitating dissolved contaminants from the lysate, (i) mixing a cell-containing sample with a lysis buffer (ii) incubating the mixture to obtain a lysate comprising at least DNA, RNA and proteins (iii) optionally disintegrating the RNA present in the lysate (iv) selectively precipitating dissolved contaminants from the lysate,
A method for obtaining an international mobile equipment identity of a mobile station, comprising: sending, by a base station controller, a request message to a core network device; receiving, by the base station controller, an accept message of the request message sent by the core network device; sending, by the base station controller, an identify request message to the mobile station, for obtaining the international mobile equipment identity of said mobile station; receiving, by the base station controller, an identify response message sent by the mobile station; and re-sending, by the base station controller, the request message to the core network device wherein each message comprises a frame sequence number (N), characterized by the frame sequence number of the identity request message is the same as the frame sequence number of the accept message and the frame sequence number of the re-sent request message is the same as the frame sequence number of the identify response message. sending, by a base station controller, a request message to a core network device; receiving, by the base station controller, an accept message of the request message sent by the core network device; sending, by the base station controller, an identify request message to the mobile station, for obtaining the international mobile equipment identity of said mobile station; receiving, by the base station controller, an identify response message sent by the mobile station; and re-sending, by the base station controller, the request message to the core network device wherein each message comprises a frame sequence number (N), characterized by the frame sequence number of the identity request message is the same as the frame sequence number of the accept message and the frame sequence number of the re-sent request message is the same as the frame sequence number of the identify response message.
A part made of composite material, in particular for an aircraft turbine engine, comprising: - a body made of fibres woven in three-dimensions and immersed in a resin, in particular an organic or polymer resin, - at least one crack sensor capable of detecting a crack in the part, and - at least one link element connected to the crack sensor and configured to transmit a signal, in particular to a member outside of the part, when a crack in the part is detected, characterised in that: - the crack sensor comprises at least one conductive wire woven with the fibres of the body and extending into an area of the body in which the presence of the crack is to be monitored, and - the link element is connected to ends of the conductive wire and is configured to measure the resistance of the conductive wire and to wirelessly transmit the signal, when the measured resistance of the conductive wire is above a predetermined threshold. - a body made of fibres woven in three-dimensions and immersed in a resin, in particular an organic or polymer resin, - at least one crack sensor capable of detecting a crack in the part, and - at least one link element connected to the crack sensor and configured to transmit a signal, in particular to a member outside of the part, when a crack in the part is detected, - the crack sensor comprises at least one conductive wire woven with the fibres of the body and extending into an area of the body in which the presence of the crack is to be monitored, and - the link element is connected to ends of the conductive wire and is configured to measure the resistance of the conductive wire and to wirelessly transmit the signal, when the measured resistance of the conductive wire is above a predetermined threshold.
Polymer complex obtained by polymerization of water-soluble monomers: in the presence of a host polymer comprising vinylamine functions and of a non-polymeric transfer agent, and in the absence of branching or crosslinking agent of ethylenic polyfunctional type.