mhurhangee/ep-ind-claims huggingface dataset:
A system for providing functional safety monitoring of relay contacts (116, 118), the system comprising: a relay including at least two contacts (116, 118), a contactless sensor circuit and processor, characterized in that the contactless sensor circuit includes: an output signal antenna positioned in the contactless sensor circuit to extend between the at least two contacts (116, 118) of the relay; and first and second input signal antennas (112, 114) positioned in the contactless sensor circuit respectively adjacent the at least two contacts (116, 118) of the relay, such that the output signal antenna and the at least two contacts (116, 118) of the relay are positioned between the first and second input signal antennas (112, 114); and in that the processor is configured to cause the output signal antenna to output a wireless signal capable of being received by the first and second input signal antennas (112, 114) while the processor monitors wireless signals received by the first and second input signals antennas (112, 114), wherein the processor is configured to determine that the relay has a fault based on the wireless signals received by the first and second input signal antennas (112, 114), and responsive thereto output at least one communication indicative of a fault with the relay being detected. a relay including at least two contacts (116, 118), a contactless sensor circuit and processor, characterized in that the contactless sensor circuit includes: an output signal antenna positioned in the contactless sensor circuit to extend between the at least two contacts (116, 118) of the relay; and first and second input signal antennas (112, 114) positioned in the contactless sensor circuit respectively adjacent the at least two contacts (116, 118) of the relay, such that the output signal antenna and the at least two contacts (116, 118) of the relay are positioned between the first and second input signal antennas (112, 114); an output signal antenna positioned in the contactless sensor circuit to extend between the at least two contacts (116, 118) of the relay; and first and second input signal antennas (112, 114) positioned in the contactless sensor circuit respectively adjacent the at least two contacts (116, 118) of the relay, such that the output signal antenna and the at least two contacts (116, 118) of the relay are positioned between the first and second input signal antennas (112, 114); and in that the processor is configured to cause the output signal antenna to output a wireless signal capable of being received by the first and second input signal antennas (112, 114) while the processor monitors wireless signals received by the first and second input signals antennas (112, 114), wherein the processor is configured to determine that the relay has a fault based on the wireless signals received by the first and second input signal antennas (112, 114), and responsive thereto output at least one communication indicative of a fault with the relay being detected.
A truck or trailer body including a side curtain, said curtain having a bottom edge in the shape of a series of intersecting concave curves, characterised in that a respective point of intersection or apex between each of successive adjoining curves is at or near the lowermost points of said curtain and provide attachment points for tensioning said curtain in a vertical direction, wherein the truck or trailer body further includes tensioning means actuatable at each point of intersection or apex whereby each attachment point is engaged to apply a downward force by which said curtain is tensioned in a vertical direction; further including an aperture in said curtain at each point of intersection or apex, and a rope or cable is slidably enclosed in said curtain along said bottom edge and exposed at each aperture to form a respective said attachment point, whereby said tensioning means actuatable at each point of intersection or apex is able to apply a downward force on said rope or cable by which said curtain is tensioned in a vertical direction; and further wherein said tensioning means comprises a power actuated hook at each point of intersection or apex adapted to pass through said aperture and engage said rope or cable and then move so as to tension said curtain in a vertical direction.
Pharmaceutical composition, comprising 0.15 mM to 0.5 mM TNFR:Fc, a citrate buffer at a concentration from 25 mM to 120 mM at a pH from 6.2 to 6.4, and an amino acid at a concentration from 15 mM to 100 mM selected from the group consisting of lysine and proline and their pharmaceutical acceptable salts; wherein TNFR:Fc is etanercept.
An oral care composition comprising an orally acceptable carrier comprising water from 15% by wt or more, from 0.05 to 10% by weight zinc phosphate, from 0.01% to 5% stannous fluoride, from 0.1% to 6% by wt arginine, and from 0.1 to 5.0% by weight of an organic acid buffer system, wherein the organic buffer system comprises citric acid and a sodium citrate salt.
A Hexabenzocoronene-based compound of following formula I: wherein R 1, R 3, R 4 and R 6 are independently from each other chosen among a carboxylic (-COOH) group, a cyano (-C ≡ N) group, an isocyano (-N + ≡ C -) group, a cyanate (-O-C ≡ N) group and a -F atom, preferably R 1, R 3, R 4 and R 6 are identical, and more preferably R 1, R 3, R 4 and R 6 are identical and are carboxylic groups; R 2 and R 5 are, independently from each other, chosen among a poly(3-oxypentylthiophene) (P3OPT) substituent and a poly(3-hexylthiophene) (P3HT) substituent, preferably R 2 and R 5 are identical and more preferably R 2 and R 5 are identical and are both a poly(3-oxypentylthiophene) substituent. wherein R 1, R 3, R 4 and R 6 are independently from each other chosen among a carboxylic (-COOH) group, a cyano (-C ≡ N) group, an isocyano (-N + ≡ C -) group, a cyanate (-O-C ≡ N) group and a -F atom, preferably R 1, R 3, R 4 and R 6 are identical, and more preferably R 1, R 3, R 4 and R 6 are identical and are carboxylic groups; R 2 and R 5 are, independently from each other, chosen among a poly(3-oxypentylthiophene) (P3OPT) substituent and a poly(3-hexylthiophene) (P3HT) substituent, preferably R 2 and R 5 are identical and more preferably R 2 and R 5 are identical and are both a poly(3-oxypentylthiophene) substituent.
An apparatus for measuring a load on an aircraft component, the apparatus including a controllable source of light, and a detector able to detect light emitted from said source, wherein the source and the detector are situated in a housing that defines a protected region, the apparatus is arranged so that, when the housing is subjected to a load of the type to be measured, relative movement of the detector and the position of the light from the source in the region of the detector is caused, and the detector, adapted to, in use, generate, in response to light received from the source, a signal that depends on the relative positions of the detector and the light from the source in the region of the detector, the signal being suitable for conversion into an output signal that depends on the load sustained by the aircraft component wherein the region in which the source and the detector are situated is defined by a housing wherein the housing is in the form of a watertight sealed container, having first and second sections, one of the first and second sections accommodating the source and one of the first and second sections accommodating the detector, wherein the detector comprises a plurality of spaced apart sensors, which in use generate in response to light received from said source a signal or signals that in use are received by the processing unit, which signal or signals being dependent on the relative positions of the sensors and the light from the source in the region of the sensors, and characterised in that the first and second sections are joined by a flexible joint such that the first section of housing is freely moveable in three orthogonal directions relative to the second section of housing.
A painting robot configured to discharge paint from nozzles towards a painting object to perform painting, the painting robot comprising: a nozzle head comprising a plurality of the nozzles and discharging the paint from the nozzles by a driving of a piezoelectric substrate; a power supplier for supplying power for driving the piezoelectric substrate; and a robot arm with a front end to which the nozzle head can be mounted and moving the mounted nozzle head, wherein the nozzle head is provided, in a state in which a nozzle discharging surface is exposed to the outside, within an explosion-proof housing that covers portions other than the nozzle discharging surface, a heat-release unit releasing heat generated from the nozzle head is mounted, within the explosion-proof housing, to the nozzle head, and a temperature measuring unit measuring a temperature of the heat-release unit is mounted, within the explosion-proof housing, to the heat-release unit, wherein the painting robot is provided with a power cut-off device which, in response to the temperature measuring unit detecting that a predetermined temperature has been reached, cuts off a power supply from the power supplier to the piezoelectric substrate based on a detection signal from the temperature measuring unit. a nozzle head comprising a plurality of the nozzles and discharging the paint from the nozzles by a driving of a piezoelectric substrate; a power supplier for supplying power for driving the piezoelectric substrate; and a robot arm with a front end to which the nozzle head can be mounted and moving the mounted nozzle head, wherein the nozzle head is provided, in a state in which a nozzle discharging surface is exposed to the outside, within an explosion-proof housing that covers portions other than the nozzle discharging surface, a heat-release unit releasing heat generated from the nozzle head is mounted, within the explosion-proof housing, to the nozzle head, and a temperature measuring unit measuring a temperature of the heat-release unit is mounted, within the explosion-proof housing, to the heat-release unit, wherein the painting robot is provided with a power cut-off device which, in response to the temperature measuring unit detecting that a predetermined temperature has been reached, cuts off a power supply from the power supplier to the piezoelectric substrate based on a detection signal from the temperature measuring unit.
A room in a building with a heating element, which is affixed onto a wall of the room, and has a two-dimensional substrate consisting of a flexible textile, into which contacts are incorporated, and onto which carbon nano-tubes are applied in an aqueous dispersion, wherein the water is evaporated, and wherein for purposes of infrared emission the carbon nano-tubes can be excited by the application of an electrical voltage onto the contacts, characterised in that the substrate is a glass fibre reinforcement mesh and is filled.
A light emitting device comprising: a substrate; a buffer layer on the substrate; a first conductivity type layer on the buffer layer; an active layer on the first conductivity type layer; and a third conductivity type semiconductor layer on the active layer, wherein the first conductivity type layer comprises: a first conductivity type semiconductor layer including a first dopant causing a tensile stress; and a second conductivity type semiconductor layer provided on the first conductivity type semiconductor layer and including a second dopant causing a compressive stress, characterized in that: a top surface of the buffer layer includes a first concavo-convex section, wherein the first conductivity type semiconductor layer has a shape corresponding to the first concavo-convex section, wherein a top surface of the first conductivity type semiconductor layer includes a second concavo-convex section, wherein the second conductivity type semiconductor layer has a shape corresponding to the second concavo-convex section, and wherein the second concave size of the surface of the second conductivity type semiconductor layer is less than that of the surface of the first conductivity type semiconductor layer. a substrate; a buffer layer on the substrate; a first conductivity type layer on the buffer layer; an active layer on the first conductivity type layer; and a third conductivity type semiconductor layer on the active layer, a first conductivity type semiconductor layer including a first dopant causing a tensile stress; and a second conductivity type semiconductor layer provided on the first conductivity type semiconductor layer and including a second dopant causing a compressive stress, a top surface of the buffer layer includes a first concavo-convex section, wherein the first conductivity type semiconductor layer has a shape corresponding to the first concavo-convex section,
Aircraft, with a multifunction pod releasably fastened to the aircraft, the pod comprising at least two regions (3, 4) that are separate from one another; at least one first region of the pod being provided for receiving fuel, the first region of the pod for receiving fuel being arranged in the front region of the pod; a second region of the pod comprising at least one receiving device for releasably attaching at least one additional load; the additional load being releasably attachable to the receiving device via a loading opening comprised on the side of the pod facing away from the aircraft, a third region of the pod being provided for receiving fuel, the third region of the pod being arranged in the rear region of the pod, the second region being arranged between the first region and the third region in the longitudinal direction of the pod, the multifunction pod being releasable from the aircraft during flight, characterized in that the regions (3, 5) for receiving fuel, on the side of the pod facing the aircraft, extend at least partially into the second region, and the receiving device being arranged between the regions (3, 5) for receiving fuel that extend at least partially into the second region.
A helicopter load hook, comprising a housing, a hook and release mechanism that can be mounted in a fixed position in the housing for purposes of a controllable identification and release of a swivel movement of the hook about a hook axis of rotation, wherein the release mechanism comprises a magnetic switch and a drum that can rotate, characterised in that, the release mechanism comprises at least one latching piece that can be swivelled about a latching piece axis of rotation, and a force receiver that can be swivelled about a swivel axis, together with a pin, wherein the pin can be operatively connected with a locking lug on the drum together with a hook follower on the hook, such that an indirect connection between the hook and the drum, or more particularly, the magnetic switch, can be achieved, and any direct contact between the hook and the magnetic switch is eliminated, wherein in the closed position of the hook the pin makes any swivelling movement of the hook impossible.
A display device, comprising: a growth substrate; a plurality of semiconductor light emitting devices grown on the growth substrate and disposed on one surface of the growth substrate; a plurality of through holes passing through the growth substrate at positions overlapping with the semiconductor light emitting devices; a wavelength conversion material filled into the through holes to convert a wavelength of light emitted from corresponding semiconductor light emitting devices; and a wiring substrate electrically connected to an electrode (1152,1156) of the semiconductor light emitting devices disposed at an opposite side of the growth substrate by interposing the semiconductor light emitting devices therebetween, characterized in that a protective layer for filling between the semiconductor light emitting devices is formed on the one surface of the growth substrate, wherein reflective particles are mixed into the protective layer, and wherein at least part of a corresponding through hole from the plurality of through holes overlaps with the protective layer in a thickness direction of the growth substrate. a growth substrate; a plurality of semiconductor light emitting devices grown on the growth substrate and disposed on one surface of the growth substrate; a plurality of through holes passing through the growth substrate at positions overlapping with the semiconductor light emitting devices; a wavelength conversion material filled into the through holes to convert a wavelength of light emitted from corresponding semiconductor light emitting devices; and a wiring substrate electrically connected to an electrode (1152,1156) of the semiconductor light emitting devices disposed at an opposite side of the growth substrate by interposing the semiconductor light emitting devices therebetween, characterized in that a protective layer for filling between the semiconductor light emitting devices is formed on the one surface of the growth substrate, wherein reflective particles are mixed into the protective layer, and wherein at least part of a corresponding through hole from the plurality of through holes overlaps with the protective layer in a thickness direction of the growth substrate.
A fiber reinforced plastic plate spring comprising: a positive direction orientating unit having at least one positive direction orientating layer and a negative direction orientating unit having at least one negative direction orientating layer, wherein the spring has a layered structure in which the positive direction orientating unit and the negative direction orientating unit are alternately layered, fiber is orientated at an orientating angle (θ1) of positive direction against a longitudinal direction of the plate spring in the positive direction orientating layer, and fiber is orientated at an orientating angle (θ2) of negative direction against the longitudinal direction of the plate spring in the negative direction orientating layer, characterized in that an absolute value of the orientating angle (θ1) of the positive direction orientating layer and the orientating angle (θ2) of the negative direction orientating layer are set to within 20 to 30 degrees. a positive direction orientating unit having at least one positive direction orientating layer and a negative direction orientating unit having at least one negative direction orientating layer, wherein the spring has a layered structure in which the positive direction orientating unit and the negative direction orientating unit are alternately layered, fiber is orientated at an orientating angle (θ1) of positive direction against a longitudinal direction of the plate spring in the positive direction orientating layer, and fiber is orientated at an orientating angle (θ2) of negative direction against the longitudinal direction of the plate spring in the negative direction orientating layer, characterized in that an absolute value of the orientating angle (θ1) of the positive direction orientating layer and the orientating angle (θ2) of the negative direction orientating layer are set to within 20 to 30 degrees.
A display module comprising: a substrate; a plurality of inorganic light emitting diodes (119a, 119b, 119c) mounted on a mounting surface of the substrate; a module plate attached to a surface opposite to the mounting surface of the substrate; a boss mounting portion formed by the module plate mounted on the substrate of the display module and positioned on the surface opposite to the mounting surface of the substrate; and a module Printed Circuit Board, PCB, electrically connected to the surface opposite to the mounting surface of the substrate, characterized in that the module plate comprises an edge that exposes the boss mounting portion, a thickness of a first part of the display module, in which the boss mounting portion is formed, is less than a thickness of a second part of the display module, in which the module plate is arranged. the module plate is arranged between the substrate and the module PCB, and the module plate comprises a thermal conductive material having a thermal conductivity for heat dissipation corresponding to the display module. a substrate; a plurality of inorganic light emitting diodes (119a, 119b, 119c) mounted on a mounting surface of the substrate; a module plate attached to a surface opposite to the mounting surface of the substrate; a boss mounting portion formed by the module plate mounted on the substrate of the display module and positioned on the surface opposite to the mounting surface of the substrate; and a module Printed Circuit Board, PCB, electrically connected to the surface opposite to the mounting surface of the substrate, characterized in that the module plate comprises an edge that exposes the boss mounting portion, a thickness of a first part of the display module, in which the boss mounting portion is formed, is less than a thickness of a second part of the display module, in which the module plate is arranged. the module plate is arranged between the substrate and the module PCB, and the module plate comprises a thermal conductive material having a thermal conductivity for heat dissipation corresponding to the display module.
A precipitation hardening steel with the composition: C: 0.05-0.30 wt% Ni: 3-9 wt% Mo: 0.5-1.5 wt% Al: 1-3 wt% Cr: 2-14 wt% V: 0.25-1.5 wt% Co: 0-0.03 wt% Mn:0-0.3 wt% Si: 0-0.3 wt% remaining part up to 100 wt% is Fe and impurity elements, with the additional proviso that the amounts of Al and Ni also fulfil a formula Al = (Ni/3)±0.5 in wt%, and with the proviso that the amount of Al is 1 wt% if the formula results in an amount of Al lower than 1 wt% and that the amount of Al is 3 wt% if the formula results in an amount of Al exceeding 3 wt% wherein the precipitation hardening steel comprises a first type of precipitations comprising Al and Ni and a second type of precipitations comprising carbides of at least one selected from the group consisting of Cr, Mo and V wherein the precipitation hardening steel optionally comprises one or more of Ca, Mg, B, Pb, Ce in amounts of maximum 0.05 wt%, wherein impurities of nitrogen, oxygen, and sulfur are limited to 30 ppm each in the bulk. C: 0.05-0.30 wt% Ni: 3-9 wt% Mo: 0.5-1.5 wt% Al: 1-3 wt% Cr: 2-14 wt% V: 0.25-1.5 wt% Co: 0-0.03 wt% Mn:0-0.3 wt% Si: 0-0.3 wt% remaining part up to 100 wt% is Fe and impurity elements, with the additional proviso that the amounts of Al and Ni also fulfil a formula Al = (Ni/3)±0.5 in wt%, and with the proviso that the amount of Al is 1 wt% if the formula results in an amount of Al lower than 1 wt% and that the amount of Al is 3 wt% if the formula results in an amount of Al exceeding 3 wt% wherein the precipitation hardening steel comprises a first type of precipitations comprising Al and Ni and a second type of precipitations comprising carbides of at least one selected from the group consisting of Cr, Mo and V wherein the precipitation hardening steel optionally comprises one or more of Ca, Mg, B, Pb, Ce in amounts of maximum 0.05 wt%, wherein impurities of nitrogen, oxygen, and sulfur are limited to 30 ppm each in the bulk.