mhurhangee/ep-ind-claims huggingface dataset:
A method of processing a workpiece with a laser beam, being characterised by the following steps: - providing at least one first laser beam from at least one first optical feed fiber connected to at least one first laser device; - providing at least one second laser beam from at least one second optical feed fiber connected to at least one second laser device; - combining said first and second laser beams in a multi-core optical fiber (12; 50) by aligning said at least one first optical feed fiber with a first core of said multi-core optical fiber and said at least one second optical feed fiber with a second core of said multi-core optical fiber; wherein said first core of said multi-core optical fiber has a circular cross-section, and said second core has an annular shape concentric to said first core, and - directing a composite laser beam comprising first and second output beams from said multi-core optical fiber (12; 50) to a workpiece with overlapping elements (3a, 3b) to be welded, wherein at least one of said overlapping elements (3a, 3b) is coated, the first output laser beam causes an opening for releasing pressure caused by vaporizing coating and the second output laser beam substantially causes welding of the plates. - providing at least one first laser beam from at least one first optical feed fiber connected to at least one first laser device; - providing at least one second laser beam from at least one second optical feed fiber connected to at least one second laser device; - combining said first and second laser beams in a multi-core optical fiber (12; 50) by aligning said at least one first optical feed fiber with a first core of said multi-core optical fiber and said at least one second optical feed fiber with a second core of said multi-core optical fiber; wherein said first core of said multi-core optical fiber has a circular cross-section, and said second core has an annular shape concentric to said first core, and - directing a composite laser beam comprising first and second output beams from said multi-core optical fiber (12; 50) to a workpiece with overlapping elements (3a, 3b) to be welded, wherein at least one of said overlapping elements (3a, 3b) is coated, the first output laser beam causes an opening for releasing pressure caused by vaporizing coating and the second output laser beam substantially causes welding of the plates.
A system for modifying an electronic document, the system including an application used to view, generate, and/or edit the electronic document, comprising: a processor and a memory having computer-executable instructions stored thereupon which, when executed by the processor, cause the system to: while a user is editing the electronic document on a canvas of the application, receive a trigger event related to an electronic pen, the trigger event causing the pen type to be switched, the electronic pen having one or more associated attributes, wherein the trigger event is inferred based upon the user's previous history with the system; in response to the trigger event, determine which of a plurality of advanced productivity actions related to editing to apply to the electronic document based upon at least one of the associated attributes; and modify the electronic document in accordance with the determined advanced productivity action. while a user is editing the electronic document on a canvas of the application, receive a trigger event related to an electronic pen, the trigger event causing the pen type to be switched, the electronic pen having one or more associated attributes, wherein the trigger event is inferred based upon the user's previous history with the system; in response to the trigger event, determine which of a plurality of advanced productivity actions related to editing to apply to the electronic document based upon at least one of the associated attributes; and modify the electronic document in accordance with the determined advanced productivity action.
An electric apparatus using electric power comprising: a communication unit configured to receive power information including electric rate information or power demand information relating to a plurality of time zones from outside of the electric apparatus; a timer configured to determine a user unused time period in which a user does not use the electric apparatus during operation of the electric apparatus; a shifting time period setting unit configured to determine a variable mode shifting reference time period, the mode shifting reference time period depending on the electric rate information or the power demand information; and a control unit configured to determine if the user unused time period is greater than or equal to the mode shifting reference time period, and to shift the electric apparatus to a power saving mode with reference to the power information received through the communication unit for enabling the electric apparatus to perform power saving when the user unused time period is greater than or equal to the mode shifting reference time period. a communication unit configured to receive power information including electric rate information or power demand information relating to a plurality of time zones from outside of the electric apparatus; a timer configured to determine a user unused time period in which a user does not use the electric apparatus during operation of the electric apparatus; a shifting time period setting unit configured to determine a variable mode shifting reference time period, the mode shifting reference time period depending on the electric rate information or the power demand information; and a control unit configured to determine if the user unused time period is greater than or equal to the mode shifting reference time period, and to shift the electric apparatus to a power saving mode with reference to the power information received through the communication unit for enabling the electric apparatus to perform power saving when the user unused time period is greater than or equal to the mode shifting reference time period.
A roof window, particularly for installation in an inclined roof surface, comprising a frame having a plurality of frame members including a frame top member with an outer surface, and a reinforcement member formed as a separate element and connected to the outer surface of the frame top member, the reinforcement member having a length dimension and a width dimension covering a substantial part of the outer surface of the frame top member, characterised in that the reinforcement member comprises at least a first profile of a metal material and a second profile of a plastic material releasably connected to each other, wherein the first profile comprises a base portion configured to extend substantially in parallel with the outer surface of the frame top member in the mounted condition and a leg portion extending substantially perpendicular to the base portion and said leg portion comprising a first flange portion and a second flange portion, the first flange portion extending between the base portion and an upper edge and the second flange portion extending between the upper edge and a lower edge.
A combination of at least one carbonation tower and at least one container, for appliances beverage dispenser, more specifically for preparing and delivering appliances of carbonated instant drinks, wherein the container cooperates with the at least one carbonation tower and a power supply of carbon dioxide/CO2, wherein said carbonation tower comprises: - a substantially elongated body comprised of only one cylindrical pipe provided with at least two orifices and secured to a base comprising at least one nozzle, said base further comprising a lid of a lower compartment; wherein the water and carbon dioxide/CO2 are sucked by the center of the carbonation tower by the upper edge of the pipe and/or the orifices and expelled in a path orthogonal to the suction axis through the at least one nozzle, wherein said lower compartment comprises at least one electric engine cooperating with at least one propeller which acts as a centrifuge to suck CO2 and water from the interior of the cylindrical pipe and dispensing the water + CO2 mixture into the container by means of the at least one nozzle, and wherein said lid further comprises, on its perimeter wall, a portion provided with a toroidal contoured rib which forms a thread for coupling the carbonation tower to a lower nozzle of the container. - a substantially elongated body comprised of only one cylindrical pipe provided with at least two orifices and secured to a base comprising at least one nozzle, said base further comprising a lid of a lower compartment;
A cascade source including: • a cathode housing; • a number of cascade plates insulated from each other and stacked on top of each other; • insulating plates that are positioned between the cascade plates and that provide the insulation between the cascade plates; • at least one plasma channel that is bounded by the number of cascade plates; • an anode plate connecting to the plasma channel; • one cathode per plasma channel, which cathode comprises an electrode which is adjustable relative to the cathode housing in the direction of the plasma channel; and the plasma channel is wholly bounded by parts (6, 33) manufactured from a material which is harmless to a substrate to be treated with the cascade source, characterised in that the anode plate is provided with an outflow opening and inserts are placed inside the insulating plates, wherein the inserts bound the plasma channel and are manufactured from a material which is harmless to the substrate. • a cathode housing; • a number of cascade plates insulated from each other and stacked on top of each other; • insulating plates that are positioned between the cascade plates and that provide the insulation between the cascade plates; • at least one plasma channel that is bounded by the number of cascade plates; • an anode plate connecting to the plasma channel; • one cathode per plasma channel, which cathode comprises an electrode which is adjustable relative to the cathode housing in the direction of the plasma channel; and
Screen plate for removing undersize for a separating device for classifying bulk material, comprising a profile region which has a profile having depressions and elevations extending in the direction of a takeoff side, where the profile is describable by a circle arc of a first circle K1 and by a circle arc of a second circle K2, and the circles K1 and K2 are disposed adjacent to one another, where the circle arc of the first circle K1 with a radius r1 describes the elevations and the circle arc of the second circle K2 with a radius r2 describes the depressions, with each depression in a takeoff region undergoing transition into an opening which expands in the direction of the takeoff side, where the transition between depression and opening is formed by an opening edge with a width corresponding to the length of the radius r2 to 2*r2, where either - r1 + r2 = e, where e corresponds to the distance between the circle center point M1 of K1 and the circle center point M2 of K2, and K1 and K2 contact one another at a point T0 at which the circle arcs merge, and where 0° < α < 65°, where α is an angle which defines the position of M2 relative to M1 in a cartesian coordinate system, if M1 and M2 are vertices of a right-angled triangle and e corresponds to the hypotenuse of the triangle; or - r1 + r2 < e and K1 and K2 do not contact one another, where the circle arcs are joined to one another by a common tangent through a point T1 of K1 and a point T2 of K2, and where -65° < α < 65°, characterized in that the profile is subject to r2 < r1, with 0 < r2 / r1 < 1. - r1 + r2 = e, where e corresponds to the distance between the circle center point M1 of K1 and the circle center point M2 of K2, and K1 and K2 contact one another at a point T0 at which the circle arcs merge, and where 0° < α < 65°, where α is an angle which defines the position of M2 relative to M1 in a cartesian coordinate system, if M1 and M2 are vertices of a right-angled triangle and e corresponds to the hypotenuse of the triangle; or - r1 + r2 < e and K1 and K2 do not contact one another, where the circle arcs are joined to one another by a common tangent through a point T1 of K1 and a point T2 of K2, and where -65° < α < 65°,
A control element for a fluid flow control device, the fluid control device comprising a valve body including an inlet, an outlet, and a gallery disposed between the inlet and the outlet; and a cage mounted within the gallery and including a plurality of openings for allowing the passage of fluid through the cage and the gallery; the control element comprising: a stem comprising an elongated member with a first end and a second end, the first end adapted to be operably coupled to an actuator and the second end including a fastener recess including a plurality of internal threads; a plug disposed adjacent to the second end of the stem, the plug adapted to be slidably disposed within the cage for controlling the flow of fluid through the valve body; and a fastener fixing the plug to the stem, the fastener including a threaded portion extending from the plug and engaging the plurality of internal threads of the fastener recess, the control element being characterized in that the plug comprises a compression cap, a plug body, and a seal member disposed between the compression cap and the plug body, and wherein the engagement between the fastener and the fastener recess compresses the seal member between the compression cap and the plug body, such that the seal member expands radially and sealingly engages an inner surface of the cage, when the control element is disposed within the cage of the fluid control device. a stem comprising an elongated member with a first end and a second end, the first end adapted to be operably coupled to an actuator and the second end including a fastener recess including a plurality of internal threads; a plug disposed adjacent to the second end of the stem, the plug adapted to be slidably disposed within the cage for controlling the flow of fluid through the valve body; and a fastener fixing the plug to the stem, the fastener including a threaded portion extending from the plug and engaging the plurality of internal threads of the fastener recess, the control element being characterized in that the plug comprises a compression cap, a plug body, and a seal member disposed between the compression cap and the plug body, and wherein the engagement between the fastener and the fastener recess compresses the seal member between the compression cap and the plug body, such that the seal member expands radially and sealingly engages an inner surface of the cage, when the control element is disposed within the cage of the fluid control device.
A method performed by a handover node, the method comprising: receiving a first hardware device identifier transmitted by a hardware device, which is separate and distinct from the handover node, the first hardware device identifier identifying the hardware device; receiving a second hardware device identifier transmitted by a manager node, which is separate and distinct from the handover node and the hardware device, the second hardware device identifier identifying the hardware device; determining that the second hardware device identifier matches the first hardware device identifier; and as a result of determining that the second hardware device identifier matches the first hardware device identifier, transmitting contact information for the manager node to the hardware device, wherein the handover node instructs the hardware device to release the communication session established between the hardware device and the handover node and setup a new communication session with the manager node using the said contact information. receiving a first hardware device identifier transmitted by a hardware device, which is separate and distinct from the handover node, the first hardware device identifier identifying the hardware device; receiving a second hardware device identifier transmitted by a manager node, which is separate and distinct from the handover node and the hardware device, the second hardware device identifier identifying the hardware device; determining that the second hardware device identifier matches the first hardware device identifier; and as a result of determining that the second hardware device identifier matches the first hardware device identifier, transmitting contact information for the manager node to the hardware device, wherein the handover node instructs the hardware device to release the communication session established between the hardware device and the handover node and setup a new communication session with the manager node using the said contact information.
A cosmetic agent for the treatment of keratin fibers, containing, in a cosmetically acceptable carrier, based on the total weight of the cosmetic agent, a) 0.001 to 10 wt.% of at least one protein having a content of glutamic acid and/or aspartic acid of 10 to 60%, based on the total content of all the amino acids of the protein, and b) 0.01 to 10 wt.% of at least one salt comprising at least one divalent cation, and/or at least one salt which comprises at least one trivalent cation, characterized in that a salt from the group of aluminum salts of the formula MAl(SO 4) 2, in which M represents a potassium, sodium, guanidinium or ammonium ion, is contained as the salt comprising at least one trivalent cation. a) 0.001 to 10 wt.% of at least one protein having a content of glutamic acid and/or aspartic acid of 10 to 60%, based on the total content of all the amino acids of the protein, and b) 0.01 to 10 wt.% of at least one salt comprising at least one divalent cation, and/or at least one salt which comprises at least one trivalent cation,
A high temperature nickel-base-alloy composed of (in % by weight): C 0.04 - 0.1 % S max. 0.01 % N max. 0.05 % Cr 24 - 28 % Mn max. 0.3 % Si max. 0.3 % Mo 1 - 6 % Ti 0.5 - 3 % Nb 0.001 - 0.1 % Cu max. 0.2 % Fe 0.1 - 0.7% P max. 0.015 % Al 0.5 - 2 % Mg max. 0.01 % Ca max. 0.01 % V 0.01 - 0.5 % Zr max. 0.1 % W 0.2 - 2 % Co 17 - 21 % B max. 0.01 % O max. 0.01 % Ni rest as well as elaboration dependent impurities.
A method performed by an accessing apparatus for use in a heterogeneous network, the method comprising: grouping access points, which can serve an accessing user equipment, into a plurality of competing groups, determining an access overhead of each competing group, and selecting a target competing group for the accessing user equipment from the competing groups, according to the determined access overhead; wherein the accessing user equipment can access each access point in the target competing group; and the access overhead of each competing group is determined according to a gain of unit information of the competing group, and access rates to be provided for the user equipment by the respective access points in the competing group, the method being characterized in that the access points in a competing group belong to at least two operators. grouping access points, which can serve an accessing user equipment, into a plurality of competing groups, determining an access overhead of each competing group, and selecting a target competing group for the accessing user equipment from the competing groups, according to the determined access overhead; wherein the accessing user equipment can access each access point in the target competing group; and the access overhead of each competing group is determined according to a gain of unit information of the competing group, and access rates to be provided for the user equipment by the respective access points in the competing group, the method being characterized in that the access points in a competing group belong to at least two operators.
A plasma polymerization method for producing a superamphiphobic coating on a substrate, said method comprising the steps of: a) providing a substrate, b) generating a plasma in a treatment space, under atmospheric pressure, using a dielectric barrier discharge, by supplying a plasma gas between at least a first and a second electrode (2 and 3) connected to alternating current power means, said electrodes (2 and 3) defining said treatment space, c) introducing into said plasma a coating forming material selected from the group consisting in fluoro-acrylate monomers, fluoro-alkyl acrylate monomers, fluoro-methacrylate monomers, fluoro-alkyl methacrylate monomers, fluroro-silane, monomers or a combination thereof, d) exposing at least a part of the surface of said substrate to said plasma comprising said coating forming material in multiple successive passes within said treatment space by moving said substrate and/or said at least first and/or second electrode (2, 3), without stopping, from one pass to another, the generation of the plasma and said introduction of said coating forming material into said plasma, the number of said multiple successive passes amounting to 40 at least. a) providing a substrate, b) generating a plasma in a treatment space, under atmospheric pressure, using a dielectric barrier discharge, by supplying a plasma gas between at least a first and a second electrode (2 and 3) connected to alternating current power means, said electrodes (2 and 3) defining said treatment space, c) introducing into said plasma a coating forming material selected from the group consisting in fluoro-acrylate monomers, fluoro-alkyl acrylate monomers, fluoro-methacrylate monomers, fluoro-alkyl methacrylate monomers, fluroro-silane, monomers or a combination thereof, d) exposing at least a part of the surface of said substrate to said plasma comprising said coating forming material in multiple successive passes within said treatment space by moving said substrate and/or said at least first and/or second electrode (2, 3), without stopping, from one pass to another, the generation of the plasma and said introduction of said coating forming material into said plasma, the number of said multiple successive passes amounting to 40 at least.
A method for a wireless system, comprising: a) sending a first packet from a first network device, wherein the first packet includes capability information; b) receiving an Aggregate MAC Protocol Data Unit, A-MPDU, frame by the first network device, wherein the A-MPDU frame includes an Aggregate MAC Service Data Unit, A-MSDU, data according to the capability information; and c) sending an acknowledgment from the first network device, wherein a bit field in the capability information indicates if receiving an A-MPDU frame including A-MSDU data carried in a Quality of Service, QoS, Data frame without a high throughput, HT, immediate block acknowledgment agreement is supported wherein the A-MPDU is transmitted outside a PSMP sequence by a TXOP holder or an RD responder including a potential immediate response. a) sending a first packet from a first network device, wherein the first packet includes capability information; b) receiving an Aggregate MAC Protocol Data Unit, A-MPDU, frame by the first network device, wherein the A-MPDU frame includes an Aggregate MAC Service Data Unit, A-MSDU, data according to the capability information; and c) sending an acknowledgment from the first network device,