mhurhangee/ep-ind-claims huggingface dataset:
An outdoor device of an air conditioner including a compressor, an outdoor fan, and an outdoor control board, the outdoor device comprising: a control unit configured to control the compressor and the outdoor fan; and a temperature detector configured to detect an ambient temperature of an electric component provided on the outdoor control board or a temperature of the outdoor control board, characterized in that: the control unit is configured to, when the compressor is stopped, stop the outdoor fan and then determine whether a temperature detected by the temperature detector is equal to or higher than a threshold, and, when it is determined that the temperature detected by the temperature detector is equal to or higher than the threshold, operate the outdoor fan at a protective rotation number that is lower than a rotation number of the outdoor fan while the compressor is in operation so as to circulate air, thereby cooling the outdoor control board; and the electric component includes a capacitor. a control unit configured to control the compressor and the outdoor fan; and a temperature detector configured to detect an ambient temperature of an electric component provided on the outdoor control board or a temperature of the outdoor control board, characterized in that: the control unit is configured to, when the compressor is stopped, stop the outdoor fan and then determine whether a temperature detected by the temperature detector is equal to or higher than a threshold, and, when it is determined that the temperature detected by the temperature detector is equal to or higher than the threshold, operate the outdoor fan at a protective rotation number that is lower than a rotation number of the outdoor fan while the compressor is in operation so as to circulate air, thereby cooling the outdoor control board; and the electric component includes a capacitor. the control unit is configured to, when the compressor is stopped, stop the outdoor fan and then determine whether a temperature detected by the temperature detector is equal to or higher than a threshold, and, when it is determined that the temperature detected by the temperature detector is equal to or higher than the threshold, operate the outdoor fan at a protective rotation number that is lower than a rotation number of the outdoor fan while the compressor is in operation so as to circulate air, thereby cooling the outdoor control board; and when the compressor is stopped, stop the outdoor fan and then determine whether a temperature detected by the temperature detector is equal to or higher than a threshold, and, when it is determined that the temperature detected by the temperature detector is equal to or higher than the threshold, operate the outdoor fan at a protective rotation number that is lower than a rotation number of the outdoor fan while the compressor is in operation so as to circulate air, thereby cooling the outdoor control board; and the electric component includes a capacitor.
An additive manufacturing method, the method comprising: making pre-sintered globules (100; 200; 300; 400; 500; 600) for the additive manufacturing method, the method of making the pre-sintered globules comprising: introducing a plurality of additive manufacturing stock particles of submicron size into a spray chamber; wetting surfaces of the plurality of additive manufacturing stock particles with a binder by spraying the binder into the spray chamber and intersecting a flow of additive manufacturing stock particles with a flow of binder, wherein the binder material includes water; agglomerating the plurality of additive manufacturing stock particles into globules having sizes of less than 10 microns and greater than 1 micron; and strengthening the globules by pre-sintering the globules wherein pre-sintering the globules includes completely evaporating the binder from the globules; depositing the plurality of pre-sintered globules into a development module of a powder bed fusing system; compressing the plurality of globules within the development module; and selectively applying thermal energy to the plurality of globules using an electron beam or laser system. introducing a plurality of additive manufacturing stock particles of submicron size into a spray chamber; wetting surfaces of the plurality of additive manufacturing stock particles with a binder by spraying the binder into the spray chamber and intersecting a flow of additive manufacturing stock particles with a flow of binder, wherein the binder material includes water; agglomerating the plurality of additive manufacturing stock particles into globules having sizes of less than 10 microns and greater than 1 micron; and strengthening the globules by pre-sintering the globules wherein pre-sintering the globules includes completely evaporating the binder from the globules; depositing the plurality of pre-sintered globules into a development module of a powder bed fusing system; compressing the plurality of globules within the development module; and selectively applying thermal energy to the plurality of globules using an electron beam or laser system.
A tamper protection cover of a surge protection device for installation on a busbar system, wherein the tamper protection cover includes a base body defining a receiving partial space for a switching operation lever of an electrical component received by the surge protection device, wherein the tamper protection cover includes a lateral extension which is separably connected to the base body by means of at least one predetermined breaking point, and wherein the lateral extension defines an additional space which, together with the receiving partial space of the base body, defines a common receiving space for the switching operation lever that is larger than the receiving partial space defined by the base body.
A rotary charging device for a shaft furnace comprising: a stationary housing for mounting on the throat of the shaft furnace; a suspension rotor in said stationary housing that is supported so that it can rotate about a substantially vertical axis, said suspension rotor and stationary housing cooperating to form the main casing of said rotary charging device; a charge distributor pivotally suspended to said suspension rotor; rotary drive means for rotating the suspension rotor about its axis; tilting drive means for pivoting said charge distributor about a substantially horizontal pivoting axis, independently from said rotary drive means, wherein: said tilting drive means are mounted onto said suspension rotor and rotate therewith, a tilting motor (M B), preferably an electric motor, is installed inside said main casing and has a substantially horizontal output shaft, said tilting motor (M B) being arranged so as to rotate with said suspension rotor; a tilting input gear is driven by said tilting motor output shaft; and a tilting output gear is rotationally integral with a suspension arm of said charge distributor, said tilting input gear meshing with said tilting output gear. a stationary housing for mounting on the throat of the shaft furnace; a suspension rotor in said stationary housing that is supported so that it can rotate about a substantially vertical axis, said suspension rotor and stationary housing cooperating to form the main casing of said rotary charging device; a charge distributor pivotally suspended to said suspension rotor; rotary drive means for rotating the suspension rotor about its axis; tilting drive means for pivoting said charge distributor about a substantially horizontal pivoting axis, independently from said rotary drive means, wherein: said tilting drive means are mounted onto said suspension rotor and rotate therewith, a tilting motor (M B), preferably an electric motor, is installed inside said main casing and has a substantially horizontal output shaft, said tilting motor (M B) being arranged so as to rotate with said suspension rotor; a tilting input gear is driven by said tilting motor output shaft; and a tilting output gear is rotationally integral with a suspension arm of said charge distributor, said tilting input gear meshing with said tilting output gear. said tilting drive means are mounted onto said suspension rotor and rotate therewith, a tilting motor (M B), preferably an electric motor, is installed inside said main casing and has a substantially horizontal output shaft, said tilting motor (M B) being arranged so as to rotate with said suspension rotor; a tilting input gear is driven by said tilting motor output shaft; and a tilting output gear is rotationally integral with a suspension arm of said charge distributor, said tilting input gear meshing with said tilting output gear.
Method of enhancing reception at a receiving communication device in a communication system comprising a transmitting communication device and a receiving communication device, said method comprising: (a) receiving plural multipath signal components of a signal transmitted by the transmitting communication device; (b) correlating the plural multipath signal components with a spreading code to produce plural correlated multipath signals; (c) analyzing the correlated multipath signals to identify plural correlation peaks; (d) selecting those correlation peaks of the plural correlation peaks that exceed a multipath threshold; (e) combining the multipath signals corresponding to the selected correlation peaks to produce a combined signal; characterized in that the method further comprises: (f) detecting a synchronization event when the combined signal exceeds the synchronization threshold, including adjusting the synchronization threshold above a cross-correlation threshold that corresponds to a side-lobe signal strength in the presence of received signals. (a) receiving plural multipath signal components of a signal transmitted by the transmitting communication device; (b) correlating the plural multipath signal components with a spreading code to produce plural correlated multipath signals; (c) analyzing the correlated multipath signals to identify plural correlation peaks; (d) selecting those correlation peaks of the plural correlation peaks that exceed a multipath threshold; (e) combining the multipath signals corresponding to the selected correlation peaks to produce a combined signal; characterized in that the method further comprises: (f) detecting a synchronization event when the combined signal exceeds the synchronization threshold, including adjusting the synchronization threshold above a cross-correlation threshold that corresponds to a side-lobe signal strength in the presence of received signals.
A driving wheel degradation detection method for a running vehicle that travels with a driving wheel that is rotated by a running motor, comprising: obtaining a difference between a velocity of the driving wheel obtained based on a number of rotations of the driving wheel and a ground speed of the running vehicle as a slip velocity; and detecting degradation of the driving wheel based on a fact that torque of the running motor and the slip velocity have passed through a predetermined abnormal range in an at least two-dimensional space comprising a torque component and a slip velocity component, characterized in that the driving wheel is solid and made of synthetic resin. obtaining a difference between a velocity of the driving wheel obtained based on a number of rotations of the driving wheel and a ground speed of the running vehicle as a slip velocity; and detecting degradation of the driving wheel based on a fact that torque of the running motor and the slip velocity have passed through a predetermined abnormal range in an at least two-dimensional space comprising a torque component and a slip velocity component, characterized in that the driving wheel is solid and made of synthetic resin.
A gas turbine engine nose cone comprising a tapering spinner, the tapering spinner having a point at a first end and a circular base at a second end, the tapering spinner comprising a carbon fibre containing composite material layer, characterised in that an electrically insulating layer being arranged on an inner surface of the carbon fibre containing composite material layer, an electrically conducting layer being arranged on an inner surface of the electrically insulating layer and an electrically conducting member extending through the first end of the tapering spinner and being connected to the electrically conducting layer, the first end of the tapering spinner has a rubber tip and the electrically conducting member extends through the rubber tip, the electrically conducting member comprises a conical member, a disc member and a reduced cross-sectional area member extending coaxially between the conical member and the disc member and the rubber tip is positioned radially around the reduced cross-sectional area member and axially between the disc member and the conical member.
A hydraulic device adapted to control a prosthesis, comprising: a first member that pivots in a first direction; a first hydraulic system comprising a first cylinder and piston, a second cylinder and piston, and channels connecting the first cylinder to the second cylinder, the first hydraulic system filled with hydraulic fluid, wherein the transfer of fluid between the first cylinder and second cylinder pivots the first member; and wherein a constant volume of fluid is maintained between cylinders characterized in that the hydraulic device comprises a second member that pivots in a second direction orthogonal to the first direction; and a second hydraulic system comprising a third cylinder and piston, a fourth cylinder and piston and, channels connecting the third cylinder to the fourth cylinder, the second hydraulic system filled with hydraulic fluid, wherein the transfer of fluid between the third cylinder and fourth cylinder pivots the second member, wherein each cylinder comprises a piston in contact with a cam surface, wherein each cam surface provides movement of the pistons such that the force applied to the piston is parallel to the cylinder. a first member that pivots in a first direction; a first hydraulic system comprising a first cylinder and piston, a second cylinder and piston, and channels connecting the first cylinder to the second cylinder, the first hydraulic system filled with hydraulic fluid, wherein the transfer of fluid between the first cylinder and second cylinder pivots the first member; and wherein a constant volume of fluid is maintained between cylinders characterized in that the hydraulic device comprises a second member that pivots in a second direction orthogonal to the first direction; and a second hydraulic system comprising a third cylinder and piston, a fourth cylinder and piston and, channels connecting the third cylinder to the fourth cylinder, the second hydraulic system filled with hydraulic fluid, wherein the transfer of fluid between the third cylinder and fourth cylinder pivots the second member, wherein each cylinder comprises a piston in contact with a cam surface, wherein each cam surface provides movement of the pistons such that the force applied to the piston is parallel to the cylinder.
Inductor core for magnetic inductor, comprising a body comprising: - a body comprising a ferromagnetic material, and - several magnets (6, A1, A2, A3, A4, A5), each magnet comprising an exterior lateral face between the south pole and the north pole, said magnets being arranged relative to the others with the north pole of a magnet that is near to a south pole of a successive magnet to form a first path for circulating magnetic flux lines produced by the magnets (6, A1, A2, A3, A4, A5), said first path comprising at one end a south pole, and at another end a north pole, and in which the ferromagnetic material forms a second path for circulating said magnetic flux lines, intermediate non-magnetic zone non-magnetic zone, arranged between the poles of two successive magnets to guide the magnetic field from a magnet to another and isolate the magnetic field flowing in the magnets from the one flowing in the ferromagnetic material, said ferromagnetic material extending continuously from the south pole to the north pole along the magnets (6, A1, A2, A3, A4, A5), and comprising, facing the end north pole, a first non-magnetic zone forcing the magnetic flux lines coming out of the end north pole to take the second path and, facing the end south pole, a second non-magnetic zone forcing the magnetic flux lines coming out of the second path to loop back on the end south pole, said body comprising several cavities, each cavity receiving a magnet, said cavities being such that the lateral face of each magnet is at least partly surrounded by the ferromagnetic material of the body. - a body comprising a ferromagnetic material, and - several magnets (6, A1, A2, A3, A4, A5), each magnet comprising an exterior lateral face between the south pole and the north pole, said magnets being arranged relative to the others with the north pole of a magnet that is near to a south pole of a successive magnet to form a first path for circulating magnetic flux lines produced by the magnets (6, A1, A2, A3, A4, A5), said first path comprising at one end a south pole, and at another end a north pole, and in which the ferromagnetic material forms a second path for circulating said magnetic flux lines, intermediate non-magnetic zone non-magnetic zone, arranged between the poles of two successive magnets to guide the magnetic field from a magnet to another and isolate the magnetic field flowing in the magnets from the one flowing in the ferromagnetic material, said ferromagnetic material extending continuously from the south pole to the north pole along the magnets (6, A1, A2, A3, A4, A5), and comprising, facing the end north pole, a first non-magnetic zone forcing the magnetic flux lines coming out of the end north pole to take the second path and, facing the end south pole, a second non-magnetic zone forcing the magnetic flux lines coming out of the second path to loop back on the end south pole, said body comprising several cavities, each cavity receiving a magnet, said cavities being such that the lateral face of each magnet is at least partly surrounded by the ferromagnetic material of the body.
A fuel cell system comprising a gas-liquid separator in an anode gas line, wherein the gas-liquid separator is adapted to separate exhaust gas into water and a gas component and comprises: a main pipe which extends in the up and down direction; an introduction pipe (10, 10a) which is connected to a side surface of the main pipe so as to intersect the side surface; an inlet pipe (12, 12a) into which exhaust gas flows, which is further connected to the introduction pipe (10, 10a); an upper outlet pipe which is connected to the upper side of the main pipe; and a lower outlet pipe which is connected to the lower side of the main pipe, wherein the introduction pipe (10, 10a) includes an enlarged portion (11, 11b) having a passage cross-sectional area larger than a passage cross-sectional area of the inlet pipe (12, 12a), characterized in that a passage cross-sectional area of the lower outlet pipe is larger than that of the inlet pipe (12, 12a) and the passage cross-sectional area of the lower outlet pipe is larger than that of the upper outlet pipe. a main pipe which extends in the up and down direction; an introduction pipe (10, 10a) which is connected to a side surface of the main pipe so as to intersect the side surface; an inlet pipe (12, 12a) into which exhaust gas flows, which is further connected to the introduction pipe (10, 10a); an upper outlet pipe which is connected to the upper side of the main pipe; and a lower outlet pipe which is connected to the lower side of the main pipe, wherein the introduction pipe (10, 10a) includes an enlarged portion (11, 11b) having a passage cross-sectional area larger than a passage cross-sectional area of the inlet pipe (12, 12a), characterized in that a passage cross-sectional area of the lower outlet pipe is larger than that of the inlet pipe (12, 12a) and the passage cross-sectional area of the lower outlet pipe is larger than that of the upper outlet pipe.
Device for post-treatment of a welding seam of a butt-welded workpiece, in particular a saw band or a bandknife, having a base (1, 1a, 1b) for applying the butt-welded workpiece, having a first cutting drive and a first tool holder, wherein the first tool holder is coupled to the first cutting drive, so that the first tool holder can be driven by the first cutting drive with a rotation about a first axis, characterised in that the first axis is at an angle greater than 0° and less than or equal to 70° to a region of the base (1, 1a, 1b) and a first angled milling head is fastened in the first tool holder, the cutting edge of which lies parallel to the region of the base.
Carrier element for a cleaning element to be introduced into a cistern, in particular a cleaning element which dissolves in water, comprising a support element, a first holding tab protruding from the support element and a second holding tab protruding from the support element, wherein the clearance between the two holding tabs (4, 5) defines a receiving region for the cleaning element, wherein the cleaning element can be clamped in the receiving region by the two holding tabs (4, 5), and wherein the first holding tab is arranged to be displaceable relative to the support element from a holding position into a release position, wherein, in the holding position, the cleaning element is clamped in a substantially fixed manner between the two holding tabs (4, 5) and wherein, in the release position, the cleaning element is released and can fall out of the receiving region. wherein the first holding tab is mounted in a longitudinal guide on the support element and wherein the movement from the holding position into the release position is a longitudinal movement in the direction of the longitudinal guide, and wherein the first holding tab is displaced towards the support element such that the part of the first holding tab which protrudes from the support element is smaller in the release position than in the holding position. a support element, a first holding tab protruding from the support element and a second holding tab protruding from the support element, wherein the clearance between the two holding tabs (4, 5) defines a receiving region for the cleaning element, wherein the cleaning element can be clamped in the receiving region by the two holding tabs (4, 5), and wherein the first holding tab is arranged to be displaceable relative to the support element from a holding position into a release position, wherein, in the holding position, the cleaning element is clamped in a substantially fixed manner between the two holding tabs (4, 5) and wherein, in the release position, the cleaning element is released and can fall out of the receiving region. wherein the first holding tab is mounted in a longitudinal guide on the support element and wherein the movement from the holding position into the release position is a longitudinal movement in the direction of the longitudinal guide, and wherein the first holding tab is displaced towards the support element such that the part of the first holding tab which protrudes from the support element is smaller in the release position than in the holding position.