mhurhangee/ep-ind-claims huggingface dataset:
A heater comprising: a heat generating element; and a protective layer configured to cover the heat generating element, at least part of a surface of the protective layer having a convex surface that is convex toward the heat generating element, characterized in that: the heat generating element comprises a heat generating resistive member which is segmented into a plurality of resistive members in a direction perpendicular to the conveyance direction of a sheet, both ends of each of the resistive members being connected to electrodes; and the surface of the protective layer has a concave surface to be faced with a pressure roller. a heat generating element; and a protective layer configured to cover the heat generating element, at least part of a surface of the protective layer having a convex surface that is convex toward the heat generating element, characterized in that: the heat generating element comprises a heat generating resistive member which is segmented into a plurality of resistive members in a direction perpendicular to the conveyance direction of a sheet, both ends of each of the resistive members being connected to electrodes; and the surface of the protective layer has a concave surface to be faced with a pressure roller. the heat generating element comprises a heat generating resistive member which is segmented into a plurality of resistive members in a direction perpendicular to the conveyance direction of a sheet, both ends of each of the resistive members being connected to electrodes; and the surface of the protective layer has a concave surface to be faced with a pressure roller.
A high-strength steel sheet, comprising a component composition containing, on a percent by mass basis: C: 0.12% to 0.30%, Si: 0.5% to 3.0%, Mn: 2.0% to 4.0%, P: 0.100% or less, S: 0.02% or less, Al: 0.01% to 1.50%, and at least one selected from V: 0.1% to 1.5%, Mo: 0.1% to 1.5%, Ti: 0.005% to 0.10%, and Nb: 0.005% to 0.10%, optionally at least one element selected from Cr: 0.005% to 2.0%, Ni: 0.005% to 2.0%, Cu: 0.005% to 2.0%, B: 0.0003% to 0.0050%, Ca: 0.001% to 0.005%, REM: 0.001% to 0.005%, Sn: 0.005% to 0.50%, and Sb: 0.005% to 0.50%, the balance being Fe and incidental impurities; and a steel microstructure containing, on an area percent basis, 1% to 35% ferrite having an aspect ratio of 2.0 or more, 10% or less ferrite having an aspect ratio of less than 2.0, less than 5% non-recrystallized ferrite, 40% to 80% in total of bainite and martensite containing carbide, 5% to 35% in total of fresh martensite and retained austenite, and 3% to 35% retained austenite, the retained austenite having a C content of 0.40% to 0.70% by mass, measured with the methods as of the description. C: 0.12% to 0.30%, Si: 0.5% to 3.0%, Mn: 2.0% to 4.0%, P: 0.100% or less, S: 0.02% or less, Al: 0.01% to 1.50%, and at least one selected from V: 0.1% to 1.5%, Mo: 0.1% to 1.5%, Ti: 0.005% to 0.10%, and Nb: 0.005% to 0.10%, optionally at least one element selected from Cr: 0.005% to 2.0%, Ni: 0.005% to 2.0%, Cu: 0.005% to 2.0%, B: 0.0003% to 0.0050%, Ca: 0.001% to 0.005%, REM: 0.001% to 0.005%, Sn: 0.005% to 0.50%, and Sb: 0.005% to 0.50%, the balance being Fe and incidental impurities; and a steel microstructure containing, on an area percent basis, 1% to 35% ferrite having an aspect ratio of 2.0 or more, 10% or less ferrite having an aspect ratio of less than 2.0, less than 5% non-recrystallized ferrite, 40% to 80% in total of bainite and martensite containing carbide, 5% to 35% in total of fresh martensite and retained austenite, and 3% to 35% retained austenite, the retained austenite having a C content of 0.40% to 0.70% by mass, measured with the methods as of the description.
A method for coating one or more objects, comprising; introducing a first precursor to a reaction chamber (2, 40); introducing a second precursor to the reaction chamber (2, 40); and exposing an object to alternately repeating surface reactions of two or more gaseous precursors inside the reaction chamber (2, 40), characterized in that the method comprises - forming two or more distinct precursor regions of different precursors, wherein only one precursor occupies one region inside the reaction chamber, and - causing translational, essentially mechanically unsupported and unsuspended, motion of an object inside the reaction chamber (2, 40), relative to the reaction chamber (2, 40), for bringing the surface of the object into contact with a gaseous precursor, and for moving the object essentially through the two or more distinct precursor regions inside the reaction chamber, and in that the method comprises the step of - feeding inert gas into the reaction space through an inlet for the inert gas located in between an inlet for a first precursor and an inlet for a second precursor, such that flow of the inert gas inside the reaction space is divided between a first outlet and a second outlet located at a distance from each other, for keeping the main flow paths of the first precursor and of the second precursor separated inside the reaction space. - forming two or more distinct precursor regions of different precursors, wherein only one precursor occupies one region inside the reaction chamber, and - causing translational, essentially mechanically unsupported and unsuspended, motion of an object inside the reaction chamber (2, 40), relative to the reaction chamber (2, 40), for bringing the surface of the object into contact with a gaseous precursor, and for moving the object essentially through the two or more distinct precursor regions inside the reaction chamber, and in that the method comprises the step of - feeding inert gas into the reaction space through an inlet for the inert gas located in between an inlet for a first precursor and an inlet for a second precursor, such that flow of the inert gas inside the reaction space is divided between a first outlet and a second outlet located at a distance from each other, for keeping the main flow paths of the first precursor and of the second precursor separated inside the reaction space.
A composite cathode for a metal air cell comprising: a layer comprising porous particles; and a first electrolyte disposed between porous particles of the layer comprising porous particles, wherein the first electrolyte is disposed on at least a portion of a surface of the layer comprising porous particles, and wherein a weight ratio of the porous particles to the first electrolyte is higher than 1:3.7; wherein the first electrolyte comprises a solid electrolyte; and wherein the porous particles are carbon-based. a layer comprising porous particles; and a first electrolyte disposed between porous particles of the layer comprising porous particles, wherein the first electrolyte is disposed on at least a portion of a surface of the layer comprising porous particles, and wherein a weight ratio of the porous particles to the first electrolyte is higher than 1:3.7; wherein the first electrolyte comprises a solid electrolyte; and wherein the porous particles are carbon-based.
Hydrostatic drive system of a mobile work machine, having a working hydraulics system and a working hydraulics system pump which is driven by an internal combustion engine and in a pumping operation by way of a suction side suctions pressurizing medium from a vessel and by way of a conveying side conveys said pressurizing medium into a conveying line routed to the working hydraulics system, wherein a hydraulic start/stop function for starting the switched-off internal combustion engine is provided, in which start/stop function the working hydraulics system pump is able to be operated in an engine operation, wherein the working hydraulics system pump in the engine operation is driven by pressurizing medium which from a pressurizing medium reservoir is fed to the suction side of the working hydraulics system pump, wherein a bypass valve is provided, by way of which bypass valve in the engine operation of the working hydraulics system pump, for starting the switched-off internal combustion engine, the volumetric flow that is delivered to the conveying side by the working hydraulics system pump operated in the engine operation is able to be discharged to the vessel, wherein the bypass valve in the engine operation, for starting the switched-off internal combustion engine, is impinged to an opening position that connects the conveying side of the working hydraulics system pump to the vessel, characterized in that the conveying line routed to the working hydraulics system is assigned a circulation pressure compensator, wherein the bypass valve is assigned to the conveying line so as to be upstream of the circulation pressure compensator.
Radiofrequency communication device comprising: - a gripping support body (1a- 1e) having a surface, - an electronic and/or electrical circuit (23, 24, 26) extending in the gripping support body, wherein said circuit has a contact and radiofrequency mode, - at least one detachable radiofrequency antenna (3a-3e), - a connecting circuit (18a, 18b) for connection to the detachable antenna, arranged at least in part in the support body (1a- 1e) and extending from the electronic circuit (23, 24, 26) to connection points of the antenna, wherein said connection points of the antenna are accessible from the outside of the support body, characterised in that the device comprises a connector with contacts or tracks (20, 21), wherein said connector is configured in order to: - connect said electronic and/or electrical circuit to a port of a terminal, in contact mode, - connect the detachable antenna, in radiofrequency mode. - a gripping support body (1a- 1e) having a surface, - an electronic and/or electrical circuit (23, 24, 26) extending in the gripping support body, wherein said circuit has a contact and radiofrequency mode, - at least one detachable radiofrequency antenna (3a-3e), - a connecting circuit (18a, 18b) for connection to the detachable antenna, arranged at least in part in the support body (1a- 1e) and extending from the electronic circuit (23, 24, 26) to connection points of the antenna, wherein said connection points of the antenna are accessible from the outside of the support body, - connect said electronic and/or electrical circuit to a port of a terminal, in contact mode, - connect the detachable antenna, in radiofrequency mode.
Apparatus for calculating receive parameters for an MIMO system comprising a plurality of individual transmission sections (S 1, S 2, S 3), a transmission section having a sector antenna array and a transmit filter circuit being adjustable by a transmit parameter, and a plurality of individual users, a user having a receive filter circuit being adjustable by a receive parameter, characterized by a calculator for calculating a receive parameter for a first selected data stream for a first user (U 1) of the plurality of users using a channel information for a transmission channel between the user and a sector antenna array of a first individual transmission section, to which the user is associated, and for calculating a receive parameter for a second selected data stream for a second user (U 2) of the plurality of users associated with a sector antenna array of a second different individual transmission section using a channel information between the first user and the sector antenna array of the second individual transmission section, to which the second user is associated with, wherein an interference caused by the transmission of the sector antenna array of the first individual transmission section at the second user in the second individual transmission section is reduced or eliminated, wherein the calculator is configured for calculating a projector matrix depending on a channel information ( H ks) between the first user (k) and the second individual transmission section (s), and the receive parameter ( u m) for the first user, and for using the projector matrix together with the channel information between each user and its associated individual transmission section, for calculating the receive parameter for the second user, and wherein the calculator is configured for calculating the projector matrix based on the following equation: P s m + 1 = P s m - P s m ⁢ H ks H ⁢ u m ⁢ u m H ⁢ H ks ⁢ P s m u m H ⁢ H ks ⁢ P s m ⁢ H ks H ⁢ u m ∀ s ∈ S. wherein s indicates an individual transmission section from the plurality of individual transmission sections S, P (m+1) is an updated projector matrix for step m+1, P (m) is a projector matrix of an earlier updating step m, H ks is a channel matrix between a user k and an individual transmission section s, to which the user is not associated with, u m is a vector having a receive parameter or more receive parameters calculated for one or more preceding steps, and H indicates a conjugate complex transpose operation.
Arrangement having a device or an insect trap (1, 40, 50, 60, 70, 80) for attracting or for attracting and killing insects, comprising a device having a pyramid-shaped net or an insect trap selected from a group consisting of slit trap, bark beetle slit trap, dry or wet trap with baffles, segment funnel trap, trap lampion, sticky trap, such as sticky trap having three-sided prism and wing trap, characterized in that the device or the insect trap (1, 40, 50, 60, 70, 80) has at least one reflective area that reflects sunlight in a reflection spectrum that substantially corresponds to the reflection spectrum of a host of insects to be attracted/killed.
A combing machine having a plurality of combing units (X1-X8), which are mounted in a row on a longitudinal beam of a frame, each having a nipper assembly, a combing cylinder, a detaching apparatus and a driven means forming a fiber fleece, said driven means has openings for an air passage on its periphery, and its interior is connected by at least one suction pipe to a first vacuum power source and is also connected to a suction channel assigned to the respective combing unit for carrying away the constituents that have been combed out, and this suction channel opens into a common collecting channel, which is connected to a second vacuum power source, wherein the respective suction pipe of the driven means of the combing units (X1-X8) forming the fiber fleece opens into a common suction channel, which is connected to the first vacuum power source, wherein the suction channel and the collecting channel run side by side and in the longitudinal direction of the longitudinal beam and are mounted beneath the combing units (X1-X8).
A grinding jig for holding an edged tool in a grinding machine, said grinding jig comprising: a base having a plane support surface for supporting a section of the face of an edged tool; a clamping means, arranged to clamp a section of the face of an edged tool against the flat support surface; and a first and a second support leg (130, 140) extending from opposite ends of the base, each support leg (130, 140) comprising an opening (131, 141) adapted to slidably and rotationally receiving a support bar of a grinding machine, characterized in that one support leg is pivotally attached to the base around an axis parallel with an extension of the plane support surface and in that the grinding jig comprises a first adjustable stop means for adjustably limiting the pivotal movement of the support leg in a first direction and a second adjustable stop means for adjustably limiting the pivotal movement of the support leg in a second direction. a base having a plane support surface for supporting a section of the face of an edged tool; a clamping means, arranged to clamp a section of the face of an edged tool against the flat support surface; and a first and a second support leg (130, 140) extending from opposite ends of the base, each support leg (130, 140) comprising an opening (131, 141) adapted to slidably and rotationally receiving a support bar of a grinding machine, characterized in that one support leg is pivotally attached to the base around an axis parallel with an extension of the plane support surface and in that the grinding jig comprises a first adjustable stop means for adjustably limiting the pivotal movement of the support leg in a first direction and a second adjustable stop means for adjustably limiting the pivotal movement of the support leg in a second direction.
An integrated program development system to perform late bound programmatic assistance, the system comprising: a dynamic type component that identifies one or more candidate types for late bound programmatic constructs, the dynamic type component further comprising: (a) a static type analysis component, that performs program flow analysis to determine one or more candidate types; and (b) an execution analysis component that identifies a precise dynamic type by retrieving information from design-time program execution in the background during program specification; and an assistance component that receives type information produced by the dynamic type component and provides feedback based thereon, wherein the feedback includes suggestions regarding code specification or completion, and the suggestions include members of the identified type, the members corresponding to variables, fields, methods and functions. a dynamic type component that identifies one or more candidate types for late bound programmatic constructs, the dynamic type component further comprising: (a) a static type analysis component, that performs program flow analysis to determine one or more candidate types; and (b) an execution analysis component that identifies a precise dynamic type by retrieving information from design-time program execution in the background during program specification; and (a) a static type analysis component, that performs program flow analysis to determine one or more candidate types; and (b) an execution analysis component that identifies a precise dynamic type by retrieving information from design-time program execution in the background during program specification; and an assistance component that receives type information produced by the dynamic type component and provides feedback based thereon, wherein the feedback includes suggestions regarding code specification or completion, and the suggestions include members of the identified type, the members corresponding to variables, fields, methods and functions.
Sectional blade for a wind turbine, comprising at least a first blade section and a second blade section, which blade sections (2;3) extend in opposite direction from a blade joint, wherein each blade section (2;3) comprises a cavity in longitudinal direction, wherein the first blade section and second blade section are structurally connectable by at least one connecting beam or spar bridge which beam extends in the cavities of both blade sections (2;3), wherein each blade section (2;3) is at its first end near the blade joint provided with a first end rib and each blade section (2;3) is at its second end provided with a second end rib, wherein the first and second end rib (5;6) each have a shape which cooperates with the blade section, the connecting beam is hollow at both ends and wherein the second end rib is arranged for receiving the hollow end of the connecting beam for structurally connecting the connecting beam to the blade section, characterized in that a rim is provided on the second end rib, which rim is arranged for durable attachment of the inner side of the hollow end of the connecting beam and the first end rib is provided with an opening for partial passing of the connecting beam, wherein the rim of the opening and the connecting beam are arranged for durable attachment to each other.
A method comprising: determining a location and an orientation of docking modules attached to or inserted within respective modular docking bays (104a to 104f) of a workcell, wherein the respective modular docking bays are provided on a surface of the workcell and support attachment of the docking modules in a fixed geometric configuration, wherein each of the docking modules provides an electrical and mechanical interface between a respective peripheral and the workcell; determining, by one or more processors of the workcell, an identification of attached peripherals (106, 108) of the docking modules, wherein the identification indicates geometry information of the attached peripherals on the docking modules; and based on the location and the orientation of each of the docking modules and on the identification of the attached peripherals, determining a geometric calibration of the attached peripherals from a known set of calibration parameters matching to the configuration of the workcell, wherein the geometric calibration indicates the distances between the attached peripherals and poses of the attached peripherals that enable the attached peripherals to interact with each other. determining a location and an orientation of docking modules attached to or inserted within respective modular docking bays (104a to 104f) of a workcell, wherein the respective modular docking bays are provided on a surface of the workcell and support attachment of the docking modules in a fixed geometric configuration, wherein each of the docking modules provides an electrical and mechanical interface between a respective peripheral and the workcell; determining, by one or more processors of the workcell, an identification of attached peripherals (106, 108) of the docking modules, wherein the identification indicates geometry information of the attached peripherals on the docking modules; and based on the location and the orientation of each of the docking modules and on the identification of the attached peripherals, determining a geometric calibration of the attached peripherals from a known set of calibration parameters matching to the configuration of the workcell, wherein the geometric calibration indicates the distances between the attached peripherals and poses of the attached peripherals that enable the attached peripherals to interact with each other.
Housing element of electrical equipment, said housing element being configured to receive at least one electrical conductor (111, 112, 113) intended to form an external terminal of the electrical equipment, and said housing element comprising receiving members (5-12A, 5-12B) adapted to receive, by sliding, the electrical conductor (111, 112, 113), said housing element being characterised in that it is configured to receive at least one power electronic component, adapted to be electrically connected to the electrical conductor (111, 112, 113), and in that said receiving members (5-12A, 5-12B) are configured for force-fitting of the electrical conductor (111, 112, 113) by adding blocking portions in the receiving members (5-12A, 5-12B).
Device for supplying tubes of blood to whole blood analyzers, which comprises on the one hand a pre-analytical module comprising at least one tube agitator for homogenizing the blood before analysis, said pre-analytical module being disposed on a transfer fine between a storage zone for tubes to be analysed and at least one whole blood analyser operating in unitary mode and on the other hand means for automatically loading and unloading the tubes (27, 28, 29) disposed between the tube agitator and the mono-tube transfer line, characterised in that the transfer fine is a mono tube transfer fine and in that the pre-analytical module comprises in addition to the tube agitator a device for aerating and recognising the tubes which is supplied with tubes by automatic loading and unloading means for the tubes (26, 27, 28, 29) disposed respectively between the transfer fine and the device for aerating and recognizing the tubes and the tube agitation module, the device for aerating and recognizing the tubes comprising a device for piercing the tubes which enables them to be aerated and a reading device for recognizing the label information on the tubes.