mhurhangee/ep-ind-claims huggingface dataset:
An angle detection apparatus comprising: a resolver that is provided with a stator which is provided with a rotor which is provided with a salient pole; a first system excitation winding and first system two output windings (111A, 112A) which are provided in the stator; a first system excitation unit configured to apply AC voltage of a first period to the first system excitation winding; a first system output signal detection unit configured to detect periodically first system two output signals (V1A_S, V2A_S) which are output signals of the first system two output windings (111A, 112A) at a preliminarily set detection timing; a first system first-order component reduction processing unit configured to perform a band stop filtering processing which reduces a first-order component which is a component of one rotation period in a mechanical angle of the rotor, to each of the first system two output signals (V1A_S, V2A_S); and a first system angle calculation unit configured to calculate a first angle (θ1) of the rotor, based on the first system two output signals (V1A_F*, V2A_F*) to which the band stop filtering processing was performed. a resolver that is provided with a stator which is provided with a rotor which is provided with a salient pole; a first system excitation winding and first system two output windings (111A, 112A) which are provided in the stator; a first system excitation unit configured to apply AC voltage of a first period to the first system excitation winding; a first system output signal detection unit configured to detect periodically first system two output signals (V1A_S, V2A_S) which are output signals of the first system two output windings (111A, 112A) at a preliminarily set detection timing; a first system first-order component reduction processing unit configured to perform a band stop filtering processing which reduces a first-order component which is a component of one rotation period in a mechanical angle of the rotor, to each of the first system two output signals (V1A_S, V2A_S); and a first system angle calculation unit configured to calculate a first angle (θ1) of the rotor, based on the first system two output signals (V1A_F*, V2A_F*) to which the band stop filtering processing was performed.
Shut-off valve, with a head piece, in which a pressure cylinder is arranged, which is connected to a spindle, via the rotation of which the pressure cylinder is displaceable in the head piece, as well as a sealing arrangement, which can be pressed via the pressure cylinder against the valve seat of a fitting, characterised in that the pressure cylinder is connected to at least one indicator surface, which is coupled to the pressure cylinder in such a manner that it has a motion proportional to the pressure cylinder in the axial direction, wherein an indicator sleeve surrounding the indicator surface is arranged, which has at least one window, which can be traversed by the indicator surface in the axial direction.
A method of determining an angular velocity of a print medium relative to at least two nips (NA, NB) of a medium registration system, the nips including rollers for registration of the medium, the method comprising: obtaining said angular velocity as a function of time; determining a path (Tc) on a medium over time of a center point of a distance between said nips; characterized by determining said angular velocity as a function of a position of said center point in said path (Tc), the method further comprising: determining a path velocity that represents a relative velocity of said center point on the medium; and determining a nominal angular velocity based on the determined path velocity, obtaining an angular velocity profile w(s) as a function of coordinates along said path (Tc), wherein: when the path velocity is constant and has a value of one, the angular velocity ω c (s) at any coordinate s on said path (Tc) is determined by: ω c (s) = ω nom (s) = ω nom (t) where ω nom (t) is the nominal angular velocity; when the path velocity is constant and has a value V c other than unity, the angular velocity is determined by: ω c s = ω nom s * V c; and when the path velocity V(t) is variable, the angular velocity is determined by: ω c s = ω nom s * V t. obtaining said angular velocity as a function of time; determining a path (Tc) on a medium over time of a center point of a distance between said nips; determining a path velocity that represents a relative velocity of said center point on the medium; and determining a nominal angular velocity based on the determined path velocity, obtaining an angular velocity profile w(s) as a function of coordinates along said path (Tc), when the path velocity is constant and has a value of one, the angular velocity ω c (s) at any coordinate s on said path (Tc) is determined by: ω c (s) = ω nom (s) = ω nom (t) where ω nom (t) is the nominal angular velocity; ω c (s) = ω nom (s) = ω nom (t) where ω nom (t) is the nominal angular velocity;
A transparent vehicle lamp including: two lenses each having a main body portion, an optical axis extending through said main body portion in a front-rear direction, and a first light input portion that is connected to one of two opposite sides of said main body portion, and that is spaced apart from the optical axis, said main body portion having a reflecting surface that intersects with the optical axis, a coupling surface that is connected to a periphery of said reflecting surface and that is a flat surface, and a light output surface that is spaced apart from said reflecting surface and said coupling surface along the optical axis, said first light input portion having a first light input surface and a first connecting surface that is connected between said coupling surface and said first light input surface and that cooperates with said coupling surface to form a continuous flat surface; characterized by a first light emitting member facing said first light input surfaces, a first light beam emitted from said first light emitting member firstly propagating toward the optical axis through said first light input surfaces, and being then reflected by said reflecting surfaces toward said light output surfaces; wherein said lenses are fixedly connected to each other and are arranged along the optical axis, said coupling surfaces of said lenses abut against each other, and said light output surfaces of said lenses face away from each other. two lenses each having a main body portion, an optical axis extending through said main body portion in a front-rear direction, and a first light input portion that is connected to one of two opposite sides of said main body portion, and that is spaced apart from the optical axis, said main body portion having a reflecting surface that intersects with the optical axis, a coupling surface that is connected to a periphery of said reflecting surface and that is a flat surface, and a light output surface that is spaced apart from said reflecting surface and said coupling surface along the optical axis, said first light input portion having a first light input surface and a first connecting surface that is connected between said coupling surface and said first light input surface and that cooperates with said coupling surface to form a continuous flat surface; characterized by a first light emitting member facing said first light input surfaces, a first light beam emitted from said first light emitting member firstly propagating toward the optical axis through said first light input surfaces, and being then reflected by said reflecting surfaces toward said light output surfaces; wherein said lenses are fixedly connected to each other and are arranged along the optical axis, said coupling surfaces of said lenses abut against each other, and said light output surfaces of said lenses face away from each other.
Solid-state lithium battery comprising a lithium anode, a cathode, a first separator layer for electrically separating the lithium anode from the cathode, wherein the first separator layer comprises a sulfidic solid electrolyte, and a second separator layer for electrically separating the lithium anode from the cathode, wherein the second separator layer is arranged between the first separator layer and the lithium anode and the second separator layer comprises a sulfidic solid electrolyte, wherein the first separator layer is arranged between the cathode and the second separator layer and has a layer thickness greater than that of the second separator layer, in particular the first separator layer has a layer thickness which is at least twice that of the second separator layer, preferably the first separator layer has a layer thickness which is at least ten times that of the second separator layer, wherein the porosity of the second separator layer is in the range from about 0% to about 4%, preferably in the range from about 0% to about 3%, particularly preferably in the range from about 0% to about 1%. a lithium anode, a cathode, a first separator layer for electrically separating the lithium anode from the cathode, wherein the first separator layer comprises a sulfidic solid electrolyte, and a second separator layer for electrically separating the lithium anode from the cathode, wherein the second separator layer is arranged between the first separator layer and the lithium anode and the second separator layer comprises a sulfidic solid electrolyte, wherein the first separator layer is arranged between the cathode and the second separator layer and has a layer thickness greater than that of the second separator layer, in particular the first separator layer has a layer thickness which is at least twice that of the second separator layer, preferably the first separator layer has a layer thickness which is at least ten times that of the second separator layer, wherein the porosity of the second separator layer is in the range from about 0% to about 4%, preferably in the range from about 0% to about 3%, particularly preferably in the range from about 0% to about 1%.
A protective and disposable intervention envelope shaped tent, in particular for intervention on contaminated objects, said tent being leak tight and comprises at least a first flexible flat sheet and a second flexible flat sheet, said tent further comprising at least one first mechanically resistant and re-usable closure member having a first and a second part, said first part being attached to said first sheet and said second part being attached to said second sheet, said first closure member being provided to attach and detach said first and second flexible sheet to each other, said tent further comprising at least one second leak tight and re-usable closure member (25,26) comprising a first flap connected in a leak tight manner to said first sheet and a second flap connected in a leak tight manner to said second sheet, said first and second flap being provided to be leak-tightly attached to each other by a leak tight seal and being applied in such a manner that said first and second closure members extend substantially parallel to each other so as to overlap said first mechanical closure member when said first and second flaps and sheets are attached to each other, characterised in that said first respectively second part of said first closure member being attached at a lateral border of said first, respectively said second sheet, said tent further comprises at least a third flexible flat sheet, said first closure member further comprising a third respectively a fourth part attached to a transversal edge of said first or second sheet, respectively a transversal edge of said third sheet and provided to attach and detach either said first or second flexible sheet to said third sheet by means of said third and fourth part, said second closure member comprising a third respectively a fourth flap connected in a leak tight manner to said transversal edge of a third sheet respectively said first or second sheet, said first, second, third and fourth flap being provided to be leak-tightly attached to each other by a leak tight seal applied on said first second, third and fourth flap, said first second and third sheets being each time positioned adjacent to each other in such a manner as to have a combination of at least one substantially horizontally and at least one substantially vertically extending first and second closure member when said tent is in a mounted state.
A device for separation and/or preservation of non-cellular components from a biofluid sample at a point-of-care, wherein said device comprises: at least one separation member configured to separate the non-cellular components from the sample and to retain cellular components; at least one extraction member configured to extract the non-cellular components from the separation member; at least one flow assay configured to analyze the non-cellular components extracted by the extraction member; and a housing in which the separation member, the extraction member and the flow assay are arranged, the housing including a first housing part and a second housing part, wherein the separation member is configured to move with the first housing part and the extraction member is configured to move with the second housing part; wherein the housing is configured to be shifted from a first configuration to a second configuration by rotating the first housing part and the second housing part with respect to each other; wherein, in the first configuration, the separation member and the extraction member are fluidly coupled with each other so that the device is configured for extracting the non-cellular components from the separation member by the extraction member; and wherein, in the second configuration, the separation member and the extraction member are fluidly uncoupled from each other for preventing a preservative added to the separation member from reaching the extraction member and/or the flow assay. at least one separation member configured to separate the non-cellular components from the sample and to retain cellular components; at least one extraction member configured to extract the non-cellular components from the separation member; at least one flow assay configured to analyze the non-cellular components extracted by the extraction member; and a housing in which the separation member, the extraction member and the flow assay are arranged, the housing including a first housing part and a second housing part, wherein the separation member is configured to move with the first housing part and the extraction member is configured to move with the second housing part; wherein the housing is configured to be shifted from a first configuration to a second configuration by rotating the first housing part and the second housing part with respect to each other; wherein, in the first configuration, the separation member and the extraction member are fluidly coupled with each other so that the device is configured for extracting the non-cellular components from the separation member by the extraction member; and wherein, in the second configuration, the separation member and the extraction member are fluidly uncoupled from each other for preventing a preservative added to the separation member from reaching the extraction member and/or the flow assay.
A brick coupling system for building of dwellings, said system comprising: at least two bricks, wherein each brick has a main face and a secondary face opposite to the main face, the main face being the lower surface in installed state of said brick, wherein said main face has projections, which are perpendicular to the main face, wherein the secondary face includes to the projections corresponding cavities, said cavities being axially aligned with said perpendicular projections, said perpendicular projections having substantially rectangular geometry cross-section, the end portions of the perpendicular projections being provided with slight widenings, said main face being further provided with longitudinal protrusions for delimitation of the horizontal displacement between two adjacent bricks stacked upon each other, wherein the longitudinal protrusions coincide with the external edges of the corresponding cavities of the secondary face.
An EMI and corrosion resistant assembly comprising a first conductive surface; a second conductive surface spaced apart from the first conductive surface; and a gasket interposed and in electrical contact with the first and second surfaces (12; 14), in which the gasket comprises: a resilient, electrically-conductive mesh sheet extending along an x-axis and a y-axis, said mesh sheet being adapted for electrical contact between adjacent conductive surfaces; a gel matrix material applied to the mesh sheet; and a chemically resistant elastomer affixed to the outer periphery of said mesh sheet, extending along the x-axis and y-axis, the end portion of said elastomer comprising a branched sealing element extending above and below the mesh sheet, for contacting the adjacent surfaces (12; 14), said branched sealing element being deformable along the z-axis; wherein, when assembled, the gasket is compressed between the first and second conductive surfaces, characterized in that, the branched sealing element is in the shape of a forked element, and, in a compressed state, branched ends of the branched sealing element are compressed between the conductive surfaces, leaving only a small gap between the ends. a resilient, electrically-conductive mesh sheet extending along an x-axis and a y-axis, said mesh sheet being adapted for electrical contact between adjacent conductive surfaces; a gel matrix material applied to the mesh sheet; and a chemically resistant elastomer affixed to the outer periphery of said mesh sheet, extending along the x-axis and y-axis, the end portion of said elastomer comprising a branched sealing element extending above and below the mesh sheet, for contacting the adjacent surfaces (12; 14), said branched sealing element being deformable along the z-axis; wherein, when assembled, the gasket is compressed between the first and second conductive surfaces, characterized in that, the branched sealing element is in the shape of a forked element, and, in a compressed state, branched ends of the branched sealing element are compressed between the conductive surfaces, leaving only a small gap between the ends.
A method for elaborating an assembly comprising at least one composite structure part, one metal interface part and one metal structure part, said method comprising: - a step for assembling the composite structure part to the metal interface part in order to form a sub-assembly and - a step for assembling by welding the metal interface part of said sub-assembly to the metal structure part in order to form said assembly, characterized in that, as the composite structure and metal interface parts are pre-equipped with assembling mating connection means (41; 42) (51; 52) of the male/female type and with means (61; 62) for locking said connection, said method comprises, during the step for assembling the composite structure part to the metal interface part in order to form a sub-assembly, a phase for pre-assembling the composite structure part and the metal interface part by interlocking the so-called assembling male/female mating connection means (41; 42) (51; 52) and a phase for locking said interlock by deformation by pressing at least one portion of the locking means (61; 62) pre-equipping the metal interface part, said locking means (61; 62) being mating connection means of the male/female type, distinct from the assembling male/female mating connection means and being capable, in the assembled condition of said parts (1, 2) by their assembling connecting means (41; 42) (51; 52), of passing by deformation by simple pressing from a single press stroke, from the uncoupled condition to the coupled condition corresponding to the active locking position. - a step for assembling the composite structure part to the metal interface part in order to form a sub-assembly and - a step for assembling by welding the metal interface part of said sub-assembly to the metal structure part in order to form said assembly,
Ship with - at least one electric motor as a main engine for propelling the ship, wherein the electric motor propels a shaft system which is coupled to a ship propeller, - at least one combustion engine which can be coupled to the shaft system, in particular a gas turbine or one or a number of diesel engines, as auxiliary propulsion in order to reach the maximum speed of the ship, - an on-board system for supplying electrical energy to electrical loads of the ship and - power generators for generating electrical energy for the at least one electric motor and for the on-board system, characterised in that the at least one electric motor can also be operated as a generator, wherein during generator operation it can be connected to the on-board system in order to feed electrical energy into the on-board system via an electrical line. - at least one electric motor as a main engine for propelling the ship, wherein the electric motor propels a shaft system which is coupled to a ship propeller, - at least one combustion engine which can be coupled to the shaft system, in particular a gas turbine or one or a number of diesel engines, as auxiliary propulsion in order to reach the maximum speed of the ship, - an on-board system for supplying electrical energy to electrical loads of the ship and - power generators for generating electrical energy for the at least one electric motor and for the on-board system,
A circuit breaker module comprising: a breaker circuit (110;210;310) connected to a first electrical lead (112;212;312) and a second electrical lead (112;212;312); a housing (120;220;320) surrounding said breaker circuit (110;210;310), wherein said first and second electrical leads (112;212;312) extend through said housing (120;220;320), and wherein said housing (120;220;320) is at least partially constructed of a thermally conductive polymer; characterised by a heat dissipation feature contacting said housing (120;220;320), wherein said heat dissipation feature is operable to dissipate heat from said breaker circuit (110;210;310) and wherein said heat dissipation feature is a socket having a plurality of openings on a first side, each of said openings being operable to receive said first and second leads, and a plurality of socket leads extending from a second side, wherein said first side of said socket contacts said housing wherein said socket is constructed at least partially of a thermally conductive polymer. a breaker circuit (110;210;310) connected to a first electrical lead (112;212;312) and a second electrical lead (112;212;312); a housing (120;220;320) surrounding said breaker circuit (110;210;310), wherein said first and second electrical leads (112;212;312) extend through said housing (120;220;320), and wherein said housing (120;220;320) is at least partially constructed of a thermally conductive polymer; characterised by a heat dissipation feature contacting said housing (120;220;320), wherein said heat dissipation feature is operable to dissipate heat from said breaker circuit (110;210;310) and wherein said heat dissipation feature is a socket having a plurality of openings on a first side, each of said openings being operable to receive said first and second leads, and a plurality of socket leads extending from a second side, wherein said first side of said socket contacts said housing wherein said socket is constructed at least partially of a thermally conductive polymer.