mhurhangee/ep-ind-claims huggingface dataset:
Fire protection composition with a component A, which contains at least one epoxy resin, with a component B, which contains at least one thio compound as hardener, and with a component C, which contains at least one ablative fire protection additive, which is selected from the group consisting of LiNO 3 ·3H 2 O, Na2CO3H2O (thermonatrite), Na 2 CO 3 ·7H 2 O, Na 2 CO 3 ·10H 2 O (soda), Na 2 Ca(CO 3) 2 ·2H 2 O (pirssonite), Na 2 Ca(CO 3) 2 ·5H 2 O (gaylussite), Na(HCO 3)Na 2 CO 3 ·2H 2 O (trona), Na 2 S 2 O 3 ·5H 2 O, Na 2 O 3 Si·5H 2 O, KF·2H 2 O, CaBr 2 ·2H 2 O, CaBr 2 ·6H 2 O, CaSO 4 ·2H 2 O (gypsum), Ca(SO 4)·1⁄2H 2 O (bassanite), Ba 2 ·8H 2 O, Ni(NO 3) 2 ·6H 2 O, Ni(NO 3) 2 ·4H 2 O, Ni(NO 3) 2 ·2H 2 O, Zn(NO 3) 2 ·4H 2 O, Zn(NO 3) 2 ·6H 2 O, (ZnO) 2 (B 2 O 3) 2 ·3H 2 O, Mg(NO 3) 2 ·6H 2 O (US 5985013 A), MgSO 4 ·7H 2 O (EP1069172A), Mg 2, Al 3, Al 3 ·3H 2 O, AIOOH (boehmite), Al 2 [SO 4] 3 ·nH 2 O with n = 14 - 18 (US 4,462,831 B), optionally in a mixture with AlNH 4 (SO 4) 2 ·12H 2 O (US5104917A), KAl(SO 4) 2 ·12H 2 O (EP1069172A), CaO·Al 2 O 3 ·10H 2 O (nesquehonite), MgCO 3 ·3H 2 O (wermlandite), Ca 2 Mg 14 (Al,Fe) 4 CO 3 42 ·29H 2 O (thaumasite), Ca 3 Si 6 (SO 4)(CO 3)·12H 2 O (artinite), Mg 2 2 CO 3 ·H 2 O (ettringite), 3CaO·Al 2 O 3 ·3CaSO 4 ·32H 2 O (hydromagnesite), Mg 5 2 (CO 3) 4 ·4H 2 O (hydrocalumite), Ca 4 Al 2 14 ·6H 2 O (hydrotalcite), Mg 6 Al 2 16 CO 3 ·4H 2 O alumohydrocalcite, CaAl 2 4 (CO 3) 2 ·3H 2 O scarbroite, Al 14 (CO 3) 3 36 hydrogarnet, 3CaO·Al 2 O 3 ·6H 2 O dawsonite, NaAl CO 3, aqueous zeolites, vermiculites, colemanite, perlites, mica, alkaline silicates, borax, modified carbons, graphites, silicic acids and mixtures of them, in which the proportion of the ablative fire protection additive n the total formulation is 40 to 80% by weight.
A method for controlling an induction heating cooking apparatus, comprising the steps of - transforming a supply current (I in) having a base frequency, for example 50 Hz or 60 Hz, into an induction current (I w) having a higher frequency than the base frequency of the supply current (I in), - feeding the induction current (I w) into at least one inductor of the induction heating cooking apparatus to generate a magnetic induction field, and - adapting the induction current (I w) or the electrical power associated with the induction current (I w), characterized by the step of - detecting a deviation or distortion of the actual shape or frequency spectrum of the supply current (I in) or a rectified supply current from a predetermined admissible shape or frequency spectrum lying outside of a pre-given tolerance range, wherein - the induction current (I w) or the electrical power associated with the induction current (I w), respectively, is adapted until the detected deviation or distortion of the actual shape or frequency spectrum of the supply current (I in) or a rectified supply current from the predetermined shape or frequency spectrum lies within the pre-given tolerance range again. - transforming a supply current (I in) having a base frequency, for example 50 Hz or 60 Hz, into an induction current (I w) having a higher frequency than the base frequency of the supply current (I in), - feeding the induction current (I w) into at least one inductor of the induction heating cooking apparatus to generate a magnetic induction field, and - adapting the induction current (I w) or the electrical power associated with the induction current (I w), - detecting a deviation or distortion of the actual shape or frequency spectrum of the supply current (I in) or a rectified supply current from a predetermined admissible shape or frequency spectrum lying outside of a pre-given tolerance range, wherein - the induction current (I w) or the electrical power associated with the induction current (I w), respectively, is adapted until the detected deviation or distortion of the actual shape or frequency spectrum of the supply current (I in) or a rectified supply current from the predetermined shape or frequency spectrum lies within the pre-given tolerance range again.
Sensor (1, 400) for current flowing in a primary conductor, carrying out a measurement of the circulation of a magnetic field generated by the current flowing in said primary conductor, comprising: • two magnetic transducers (2, 3, 42, 43), each magnetic transducer (2, 3, 42, 43) comprising at least one elongate coil (5, 6, 421, 422, 431, 432) extending around a flexible support, said magnetic transducer (2, 3, 42, 43) forming a loop surrounding the primary conductor; • at least one closure mechanism for the loops of the magnetic transducers (2, 3, 42, 43) making it possible to hold two ends of elongate coils (5, 6, 421, 422, 431, 432) of a magnetic transducer (2, 3, 42, 43), while characterized in that the closure mechanism ensures: - a mechanical gap (23, 33) less than or equal to zero between the two ends of elongate coils (5, 6, 421, 422, 431, 432) closing each loop, along a first elongation axis Y of the coils (5, 6, 421, 422, 431, 432), said elongation axis Y being substantially tangent to said ends; - an offset of each end of coil (5, 6, 421, 422, 431, 432) of a loop with respect to the other end of coil of the loop, along an offset axis X different from the first elongation axis Y; - a mechanical inversion of the offsets between the loops. • two magnetic transducers (2, 3, 42, 43), each magnetic transducer (2, 3, 42, 43) comprising at least one elongate coil (5, 6, 421, 422, 431, 432) extending around a flexible support, said magnetic transducer (2, 3, 42, 43) forming a loop surrounding the primary conductor; • at least one closure mechanism for the loops of the magnetic transducers (2, 3, 42, 43) making it possible to hold two ends of elongate coils (5, 6, 421, 422, 431, 432) of a magnetic transducer (2, 3, 42, 43), - a mechanical gap (23, 33) less than or equal to zero between the two ends of elongate coils (5, 6, 421, 422, 431, 432) closing each loop, along a first elongation axis Y of the coils (5, 6, 421, 422, 431, 432), said elongation axis Y being substantially tangent to said ends; - an offset of each end of coil (5, 6, 421, 422, 431, 432) of a loop with respect to the other end of coil of the loop, along an offset axis X different from the first elongation axis Y; - a mechanical inversion of the offsets between the loops.
A hand-held phototherapy device comprising: an elongated tubular structure including a concave reflective end, a plurality of radiant lamps operatively disposed to communicate radiant energy from the concave reflective end to a user treatment area, wherein the concave reflective end disperses the radiant energy over the user treatment area, wherein the concave reflective end provides an inclined treatment applicator surface, which is angularly offset 15 degrees to 75 degrees from a longitudinal axis of the elongated structure, wherein the plurality of radiant lamps are mounted and aligned to substantially the angular offset from the longitudinal axis of the elongated structure, and further comprising a removable end cap which covers the concave reflective end. an elongated tubular structure including a concave reflective end, a plurality of radiant lamps operatively disposed to communicate radiant energy from the concave reflective end to a user treatment area, wherein the concave reflective end disperses the radiant energy over the user treatment area, wherein the concave reflective end provides an inclined treatment applicator surface, which is angularly offset 15 degrees to 75 degrees from a longitudinal axis of the elongated structure, wherein the plurality of radiant lamps are mounted and aligned to substantially the angular offset from the longitudinal axis of the elongated structure, and further comprising a removable end cap which covers the concave reflective end.
A method for displaying a message box, comprising: acquiring a context object corresponding to an application in response to a start of the application, and creating a message box object, wherein the context object carries a screen identity of a screen object; transmitting the context object into the message box object; adding the message box object to a notification management service, NMS, through a preset enqueue interface, and reading the screen identity in the message box object by the NMS through a set screen interface, wherein the screen interface and the preset enqueue interface are interfaces allowing the NMS to communicate with the message box object, and the screen interface is configured to be called by the NMS to acquire the screen identity from the message box object; and displaying the message box object on a screen corresponding to the screen identity through the NMS. acquiring a context object corresponding to an application in response to a start of the application, and creating a message box object, wherein the context object carries a screen identity of a screen object; transmitting the context object into the message box object; adding the message box object to a notification management service, NMS, through a preset enqueue interface, and reading the screen identity in the message box object by the NMS through a set screen interface, wherein the screen interface and the preset enqueue interface are interfaces allowing the NMS to communicate with the message box object, and the screen interface is configured to be called by the NMS to acquire the screen identity from the message box object; and displaying the message box object on a screen corresponding to the screen identity through the NMS.
Drive, in particular torque drive, - comprising a liquid-cooled electric motor having a motor housing, and - comprising a liquid-cooled converter having a converter housing, wherein the converter housing is detachably joined to the motor housing, and - comprising a cooling plate which is arranged outside the motor housing and which has a cooling duct with an inflow and an outflow, wherein the outflow is fluidically connected to an inflow of a cooling duct of the electric motor, wherein the cooling plate at least partially forms a wall of the converter housing, wherein the cooling plate is screwed to a retaining plate of the motor housing, and wherein the retaining plate partially engages around the converter housing. - comprising a liquid-cooled electric motor having a motor housing, and - comprising a liquid-cooled converter having a converter housing, wherein the converter housing is detachably joined to the motor housing, and - comprising a cooling plate which is arranged outside the motor housing and which has a cooling duct with an inflow and an outflow, wherein the outflow is fluidically connected to an inflow of a cooling duct of the electric motor, wherein the cooling plate at least partially forms a wall of the converter housing, wherein the cooling plate is screwed to a retaining plate of the motor housing, and wherein the retaining plate partially engages around the converter housing.
A device for charging an electric vehicle, the device comprising: a plurality of charging coils configured to charge the electric vehicle; and at least one control circuit configured to provide power to the plurality of charging coils in a first sequence and a second sequence, the first sequence configured to concurrently activate a first set of charging coils of the plurality of charging coils in a direction of travel of the electric vehicle in a first order with a first direction of current flow, and the second sequence configured to activate a second set of charging coils of the plurality of charging coils in the direction of travel of the electric vehicle with at least one of a different order or a different direction of current flow than the first sequence. a plurality of charging coils configured to charge the electric vehicle; and at least one control circuit configured to provide power to the plurality of charging coils in a first sequence and a second sequence, the first sequence configured to concurrently activate a first set of charging coils of the plurality of charging coils in a direction of travel of the electric vehicle in a first order with a first direction of current flow, and the second sequence configured to activate a second set of charging coils of the plurality of charging coils in the direction of travel of the electric vehicle with at least one of a different order or a different direction of current flow than the first sequence.
A multilayer film comprising a first surface layer and a second surface layer wherein the first surface layer comprises a cross-linked, partially neutralized copolymer of ethylene and one or more α,β-unsaturated C 3 to C 8 carboxylic acid; and the second surface layer comprises a polyamide, and wherein the polyamide has a melt flow index, when measured according to ASTM D1238, of from 0.1 to 15 g/10min at a temperature of when using a weight of 2.16 kg.
An orthotic joint alignment device (10, 52) comprising a first joint member (12,59); a second joint member (14, 58) connected to the first joint member (12, 59) for pivotal movement relative to the first joint member about a pivot joint (18, 64); a cam bushing (22, 68) rotatably retained relative to the first joint member to permit rotation of the cam bushing (22, 68) about a cam bushing axis, the cam bushing (22, 68) including an eccentric cam pin (32, 110) displaced at a fixed distance from the cam bushing axis in a radial direction perpendicular to the cam bushing axis to permit revolution of the eccentric cam pin (32, 110) around the cam bushing axis when the cam bushing (22, 68) rotates about the cam bushing axis; a cam slot (30, 112) in fixed relation to the second joint member (14, 58), the cam slot (30, 112) retaining the eccentric cam pin (32, 110), the cam slot (30, 112) configured to guide translational movement of the eccentric cam pin (32, 110) along a length of the cam slot (30, 112), and the second joint member (14, 58) being configured to impel said translational movement of the eccentric cam pin (32, 110) along the length of the cam slot (30, 112) and to impel revolution of the eccentric cam pin (32, 110) about the cam bushing axis when the second joint member (14, 58) is pivoted relative to the first joint member (12, 59); and a selectively engageable alignment locking mechanism, engagement of said alignment locking mechanism configured to frictionally restrain the cam bushing (22, 68) from rotating relative to the first joint member (12, 59) so that contact between the eccentric cam pin (32, 110) and cam slot (30, 112) restrains the second joint member (14, 58) from pivoting relative to the first joint member (12, 59).
External container for an implant holder, comprising a cylindrical body part and a lid closing the cylindrical body part, the lid being provided with a truncated cone-like element protruding into the cylindrical body part, characterized in that the truncated cone-like element has an abutment at its base and at least one annular means at its surface which is directed outwards, so as to axially hold an implant holder between the abutment and the annular means, the annular means being configured such as to releasably fix the implant holder in a stable position in the center of the interior space of the cylindrical body part.
A lamp having - several grid elements designed reflectively, arranged in a plane wherein a light radiation direction is defined by the grid elements and - several LED light sources wherein each of the LED light sources is provided for the generation of a light and the lamp is thereby designed such that the light partially leaves at least one of the grid elements in the light radiation direction, wherein each of the LED light sources is arranged oriented in such a way that it emits the light generated by it into a half space, which is turned away from the light radiation direction, wherein each of the grid elements has a light emission opening pointing in the light radiation direction, wherein each of the grid elements has a light entry opening on the side opposite the light emission opening, wherein an optically effective element is arranged in the light entry opening, characterized in that the optically effective elements of the grid elements are designed differently such that they have a more broadly scattering effect in a peripheral area of the grid elements, than in a center area of the grid elements. - several grid elements designed reflectively, arranged in a plane wherein a light radiation direction is defined by the grid elements and - several LED light sources wherein each of the LED light sources is provided for the generation of a light and the lamp is thereby designed such that the light partially leaves at least one of the grid elements in the light radiation direction,
A surgical instrument support assembly for supporting surgical instruments, the assembly comprising: an enclosure including a plurality of sidewalls perimetrically bounding an interior volume and a base enclosing a bottom of said interior volume, said enclosure defining an opening adjacent to said interior volume; a light transmissive pane located at least partially across said opening and defining a support surface; and, light means located inside said interior volume of said enclosure for generating light to be transmitted through said light transmissive pane, characterized in a sterile light transmissive surgical instrument barrier disposed over at least a portion of said light transmissive pane, wherein portions of said sterile light transmissive surgical instrument barrier disposed over said light transmissive pane include demarcated regions and/or areas of color to designate areas for one or more supported surgical instruments with said demarcated regions and/or areas of color being light transmissive, and, wherein the light generated by said light means transmits through said light transmissive pane and said demarcated regions and/or areas of color to provide backlighting to any supported surgical instruments. an enclosure including a plurality of sidewalls perimetrically bounding an interior volume and a base enclosing a bottom of said interior volume, said enclosure defining an opening adjacent to said interior volume; a light transmissive pane located at least partially across said opening and defining a support surface; and, light means located inside said interior volume of said enclosure for generating light to be transmitted through said light transmissive pane, characterized in a sterile light transmissive surgical instrument barrier disposed over at least a portion of said light transmissive pane, wherein portions of said sterile light transmissive surgical instrument barrier disposed over said light transmissive pane include demarcated regions and/or areas of color to designate areas for one or more supported surgical instruments with said demarcated regions and/or areas of color being light transmissive, and, wherein the light generated by said light means transmits through said light transmissive pane and said demarcated regions and/or areas of color to provide backlighting to any supported surgical instruments.
A chassis for a trailer comprising two spaced apart elongate structural support beams spanning all or a substantial part of the length of the trailer, the two elongate structural support beams being mechanically coupled by spaced apart torsion boxes spanning between the elongate structural support beams along the length of the elongate structural support beams, the torsion boxes being configured to transfer load to the elongate structural support beams, the mechanical coupling joint between the torsion boxes and a web of the elongate structural support beams being reinforced by a wing gusset surrounding the mechanical coupling joint, the chassis further comprising a reinforcing means configured to reinforce the web of the elongate structural support beams of the chassis of the trailer, the reinforcing means being located on a mutually opposing portion of the web of the elongate structural support beams in engagement with the torsion boxes, wherein the reinforcing means extends less than the full heightwise distance between the bottom and the top of the elongate structural support beam characterized in that the reinforcing means comprises at least two upright web attachment portions (15, 16).
A pressure measuring device comprising a bracket supporting a pressure sensor which defines a first sealed enclosure with a first face of the bracket, with the bracket having a second face from which a mounting foot protrudes, with a first channel extending at least into the foot to open into the first enclosure, characterized in that: the pressure measuring device comprising a substrate having opposite faces (11.1, 11.2), opposite which a first deformable membrane and a second deformable membrane respectively extend, with the first membrane and the second membrane extending at a distance from the substrate while defining therewith a second sealed enclosure and a third sealed membrane, the first membrane defining also the first sealed enclosure, the pressure sensor comprising a cover extending opposite the second membrane in order to define a fourth sealed enclosure connected through a second channel to the first enclosure, with the pressure sensor comprising means (12, 13, 14, 16) for measuring the deformation of the first and the second deformable membranes.
A method for periodic measurement of measured values in a real time computer system, in particular in a distributed real time computer system, which real time computer system, in particular distributed real time computer system, comprises a plurality of sensors, in particular intelligent sensors, node computers and distributor units, wherein the sensors, in particular intelligent sensors, the node computers and the distributor units have access to a global time, and wherein real time data is transported in the real time computer system by means of time-triggered real time messages, wherein in the real time computer system periodically recurring global observation times are or are being determined at the start of a frame, and wherein each node computer controlling a sensor, in particular a physical sensor, emits a trigger signal to the sensor, in particular the physical sensor, characterised in that each node computer controlling a sensor emits the trigger signal to the sensor at a sensor-specific trigger time of the sensor controlled by the node computer, which specific trigger time is calculated from the difference between the global observation time minus a sensor-specific kick-off interval, and wherein in case a sensor, in particular intelligent sensor, producing a measured value has failed, this measured value is calculated on the basis of known natural-law relationships between the existing measured values recorded at an observation time.