mhurhangee/ep-ind-claims huggingface dataset:
A signal detecting device (1; 2) configured to receive a measurement signal and configured to receive or generate a reference signal and an index signal, the signal detecting device (1; 2) comprising: a multiplier configured to multiply the measurement signal by the reference signal having the same frequency as that of a time-divisional signal and synchronized with the time-divisional signal included in the measurement signal; a filter configured to filter a multiplication result from the multiplier; a first storage configured to store an internal state of the filter; and a second storage configured to store a filtering result from the filter, wherein the filter is configured to filter the multiplication result using the internal state stored in the first storage, wherein the filter is configured to write or read the internal state in or from a storage area in the first storage corresponding to the index signal representing a type of amplitude of the time-divisional signal in the measurement signal and synchronized with the time-divisional signal, and wherein the second storage is configured to store the filtering result in a storage area in the second storage corresponding to the index signal. a multiplier configured to multiply the measurement signal by the reference signal having the same frequency as that of a time-divisional signal and synchronized with the time-divisional signal included in the measurement signal; a filter configured to filter a multiplication result from the multiplier; a first storage configured to store an internal state of the filter; and a second storage configured to store a filtering result from the filter, wherein the filter is configured to filter the multiplication result using the internal state stored in the first storage, wherein the filter is configured to write or read the internal state in or from a storage area in the first storage corresponding to the index signal representing a type of amplitude of the time-divisional signal in the measurement signal and synchronized with the time-divisional signal, and wherein the second storage is configured to store the filtering result in a storage area in the second storage corresponding to the index signal.
A radiant tubes support device, which can be used in furnaces for the thermal treatment, for continuous lines for galvanising and annealing strips or panels made of metal sheet and/or other products made of steel and/or other metals or for revamping pre-existent furnaces, comprising a furnace side wall support, constrained to a wall of the furnace, a radiant tube support provided with a tubular element, characterised in that it comprises at least one anti-sticking means positioned between said tubular element and said furnace side wall support for supporting said radiant tube and allowing the lateral oscillation thereof and the extension in or on said furnace side wall support and for reducing the contact surface between the furnace side wall support and the radiant tube support or the tubular element, and in that said at least one anti-sticking means comprises at least one protrusion which departs from said tubular element of said radiant tube support or from said furnace side wall support.
An aqueous dispersion of an isocyanate composition comprising: water; and the isocyanate composition dispersed in the water, wherein the isocyanate composition comprises at least one selected from the group consisting of a triisocyanate compound of the general formula and a diisocyanate compound of general formula, and the isocyanate composition has a volumne-average dispersion particle diameter of 200 nm to 8000 nm as determined in <Average dispersion particle diameter> in the description, in the general formula, a plurality of Y 1 s each independently represent a single bond or a divalent C1-20 hydrocarbon group which may have at least one selected from the group consisting of an ester structure and an ether structure, the plurality of Y's is identical to or different from each other, and R 1 represents a hydrogen atom or a monovalent C1-12 hydrocarbon group, OCN-Y 2 -NCO in the general formula, Y 2 represents a divalent C1-20 hydrocarbon group having an ester structure. wherein the isocyanate composition comprises at least one selected from the group consisting of a triisocyanate compound of the general formula and a diisocyanate compound of general formula, and the isocyanate composition has a volumne-average dispersion particle diameter of 200 nm to 8000 nm as determined in <Average dispersion particle diameter> in the description, in the general formula, a plurality of Y 1 s each independently represent a single bond or a divalent C1-20 hydrocarbon group which may have at least one selected from the group consisting of an ester structure and an ether structure, the plurality of Y's is identical to or different from each other, and R 1 represents a hydrogen atom or a monovalent C1-12 hydrocarbon group, OCN-Y 2 -NCO in the general formula, Y 2 represents a divalent C1-20 hydrocarbon group having an ester structure.
Cutter system for an electric shaver and/or trimmer, comprising an inner cutting element and an outer cutting element forming a pair of cooperating cutting elements (4, 5) with at least one row of comb-like outer cutting teeth, each having a tooth tip and a longitudinal extension extending parallel to a first axis, a second axis which is perpendicular to the first axis defines the direction of movement of the inner cutting element with respect to the outer cutting element and a fourth axis extends perpendicular to both the first and the second axis (I, II) and extends in a height direction, wherein said tooth tips of the outer teeth are shaped flat to comprise a straight line segment with a length larger than 0,15mm parallel to the second axis and characterised in that the outer cutting teeth are, in cross section perpendicular to said first axis, U-shaped.
A system in a datacenter comprising: two or more sensors, each sensor being configured to: capture a packet; describe the packet in a packet log; send the packet log to a collector; the collector being configured to: receive such packet logs from the two or more sensors; determine that the packet logs describe a connection between two endpoints in the datacenter; describe the connection in a flow log; and an analytics module configured to: receive the flow log from the collector; determine a status of the datacenter using the flow log; detect an attack that originated from within the datacenter based on the determined status of the datacenter; and modify a security policy based on the status of the datacenter. two or more sensors, each sensor being configured to: capture a packet; describe the packet in a packet log; send the packet log to a collector; capture a packet; describe the packet in a packet log; send the packet log to a collector; the collector being configured to: receive such packet logs from the two or more sensors; determine that the packet logs describe a connection between two endpoints in the datacenter; describe the connection in a flow log; and determine that the packet logs describe a connection between two endpoints in the datacenter; describe the connection in a flow log; and an analytics module configured to: receive the flow log from the collector; determine a status of the datacenter using the flow log; detect an attack that originated from within the datacenter based on the determined status of the datacenter; and modify a security policy based on the status of the datacenter. receive the flow log from the collector; determine a status of the datacenter using the flow log; detect an attack that originated from within the datacenter based on the determined status of the datacenter; and modify a security policy based on the status of the datacenter.
Method for manufacturing an object by solidifying a powder or a powder mixture using at least one laser, comprising at least steps consisting of: a) depositing, using a spreading member, a layer of powder or powder mixture on a work area, b) compacting, using a compacting member, this layer, c) solidifying, using a laser, a first area of the layer compacted in step b), said area corresponding to a section of a wall constituting the finished object, d) solidifying at least one second area (11, 12) of the layer compacted in step b), said second area (11, 12) being in contact with the first solidified area, with suitable solidification conditions such that the second solidified area (11, 12) has a lower mechanical resistance than the mechanical resistance of the first solidified area, e) repeating steps a) to d) until the object is obtained, f) after step e) and when the object is finished, removing the second solidified areas (11, 12) with respect to the first solidified areas. a) depositing, using a spreading member, a layer of powder or powder mixture on a work area, b) compacting, using a compacting member, this layer, c) solidifying, using a laser, a first area of the layer compacted in step b), said area corresponding to a section of a wall constituting the finished object, d) solidifying at least one second area (11, 12) of the layer compacted in step b), said second area (11, 12) being in contact with the first solidified area, with suitable solidification conditions such that the second solidified area (11, 12) has a lower mechanical resistance than the mechanical resistance of the first solidified area, e) repeating steps a) to d) until the object is obtained, f) after step e) and when the object is finished, removing the second solidified areas (11, 12) with respect to the first solidified areas.
An extraction device (1, 1') for discharging a mixed fluid, in particular containing feces, from a collecting tank, in particular from a feces tank of a rail vehicle, comprising - a housing (3, 3') having a mixed fluid inlet (5, 5') and a mixed fluid outlet (7, 7'), - a flow passage (9, 9') which extends in the housing (3, 3') between the inlet (5, 5') and the outlet (7, 7'), - a retaining latch (11, 11') which is mounted to the housing (3, 3') and which is adapted to cooperate with a corresponding recess on the collecting tank and is pivotably reciprocal between a locked position and an unlocked position, - a shut-off member (21, 21') which is reciprocable between a release position and a blocking position, and - a handling means (13, 13') mounted to the housing (3, 3') for actuation of the shut-off member (21, 21'), wherein the handling means (13, 13') is operatively connected to the retaining latch (11, 11') in such a way that upon the movement of the retaining latch (11, 11') into the unlocked position the shut-off member (21, 21') is put into the blocking position, wherein the shut-off member (21, 21') is arranged rotationally moveably in the housing and wherein the release position and the blocking position of the shut-off member correspond to different rotary positions of the shut-off member, and wherein the handling means (13, 13') is operatively connected to the shut-off member by means of a gear transmission, wherein the gear transmission is adapted to convert the actuating movement of the handling means into the rotary movement of the shut-off member. - a housing (3, 3') having a mixed fluid inlet (5, 5') and a mixed fluid outlet (7, 7'), - a flow passage (9, 9') which extends in the housing (3, 3') between the inlet (5, 5') and the outlet (7, 7'), - a retaining latch (11, 11') which is mounted to the housing (3, 3') and which is adapted to cooperate with a corresponding recess on the collecting tank and is pivotably reciprocal between a locked position and an unlocked position, - a shut-off member (21, 21') which is reciprocable between a release position and a blocking position, and - a handling means (13, 13') mounted to the housing (3, 3') for actuation of the shut-off member (21, 21'), wherein the handling means (13, 13') is operatively connected to the retaining latch (11, 11') in such a way that upon the movement of the retaining latch (11, 11') into the unlocked position the shut-off member (21, 21') is put into the blocking position, wherein the shut-off member (21, 21') is arranged rotationally moveably in the housing and wherein the release position and the blocking position of the shut-off member correspond to different rotary positions of the shut-off member, and wherein the handling means (13, 13') is operatively connected to the shut-off member by means of a gear transmission, wherein the gear transmission is adapted to convert the actuating movement of the handling means into the rotary movement of the shut-off member.
Component system of a turbomachine, in particular an aircraft turbine, comprising at least a first component segment and a second component segment which can be arranged about an axis of a rotor of the turbomachine in a segmented ring shape such that at least one abutment surface of the first component segment and one abutment surface of the second component segment abut one another, characterized in that the first component segment and the second component segment together comprise at least three overlapping elements(16a-c) for sealing a gap between the abutment surfaces (14a, 14b): - each overlapping element (16a-c) overlapping in the radial direction with the relevant other component segment (12a, 12b) when abutment surfaces (14a, 14b) abut one another; - at least two of the overlapping elements (16a, 16c) being formed on the first component segment as protrusions in the circumferential direction with respect to the abutment surface of the first component segment; - at least one of the overlapping elements being formed on the second component segment as a protrusion in the circumferential direction with respect to the abutment surface of the second component segment; - the overlapping element of the second component segment being arranged in the axial direction between the overlapping elements (16a, 16c) of the first component segment when abutment surfaces (14a, 14b) abut one another; and - at least one of the overlapping elements (16a-c) being integrally formed on the relevant component segment (12a, 12b) and/or integrally bonded to the relevant component segment (12a, 12b). - each overlapping element (16a-c) overlapping in the radial direction with the relevant other component segment (12a, 12b) when abutment surfaces (14a, 14b) abut one another; - at least two of the overlapping elements (16a, 16c) being formed on the first component segment as protrusions in the circumferential direction with respect to the abutment surface of the first component segment; - at least one of the overlapping elements being formed on the second component segment as a protrusion in the circumferential direction with respect to the abutment surface of the second component segment; - the overlapping element of the second component segment being arranged in the axial direction between the overlapping elements (16a, 16c) of the first component segment when abutment surfaces (14a, 14b) abut one another; and - at least one of the overlapping elements (16a-c) being integrally formed on the relevant component segment (12a, 12b) and/or integrally bonded to the relevant component segment (12a, 12b).
An acoustic dampener (200, 300) comprising: a base member, wherein the base member comprises a first surface and a second surface (203, 303), the first and second surface being spaced apart from each other defining a thickness (204, 304) therebetween; at least two side arms (205, 305), wherein each side arm comprises a first end and a second end, each side arm extending from the first surface of the base member at a pre-determined angle, such that there is a channel (219, 319) formed therein whereby each side arm (205, 305) and the base member form the sides and the base of the channel formation (219, 319) respectively; a pair of flanges (206, 306), each flange extending substantially orthogonally from the second end of each side arm (205, 305) in a plane substantially parallel to the first surface of the base member wherein the at least two side arms (205, 305) and the pair of flanges (206, 306) are configured to retain a batten within the channel (219, 319) and wherein the predetermined angle is elastically deformable; and wherein, the first surface further comprises at least one recess (214, 314) for receiving a mechanical fastener, characterized in that the base member further comprises at least one aperture (207, 307) contained within the thickness (204, 304) of the base member wherein the at least one aperture extends substantially parallel to the second face, through the length of the acoustic dampener. a base member, wherein the base member comprises a first surface and a second surface (203, 303), the first and second surface being spaced apart from each other defining a thickness (204, 304) therebetween; at least two side arms (205, 305), wherein each side arm comprises a first end and a second end, each side arm extending from the first surface of the base member at a pre-determined angle, such that there is a channel (219, 319) formed therein whereby each side arm (205, 305) and the base member form the sides and the base of the channel formation (219, 319) respectively; a pair of flanges (206, 306), each flange extending substantially orthogonally from the second end of each side arm (205, 305) in a plane substantially parallel to the first surface of the base member wherein the at least two side arms (205, 305) and the pair of flanges (206, 306) are configured to retain a batten within the channel (219, 319) and wherein the predetermined angle is elastically deformable; and wherein, the first surface further comprises at least one recess (214, 314) for receiving a mechanical fastener, characterized in that the base member further comprises at least one aperture (207, 307) contained within the thickness (204, 304) of the base member wherein the at least one aperture extends substantially parallel to the second face, through the length of the acoustic dampener.
Method for automatically detecting and characterizing a resin flash on the surface of a composite part comprising a matrix formed from a transparent or scattering resin and a fibrous reinforcement (111, 112, 113, 114), characterized in that the method comprises the steps consisting of: a. obtaining a geometric definition of the zone of the part to be tested; b. obtaining a file, referred to as the criteria file, comprising resin thickness distribution tolerances corresponding to the nature of the zone to be tested; c. illuminating a portion, referred to as the measurement point (501, 502, 503), of the surface of said zone to be tested using a laser source having a low temporal coherence; d. measuring the resin thickness (d 1, d 2, d 3) at the measuring point using an interferometric approach based on optical coherence tomography, i.e. what is called OCT; e. recording the thickness value measured in step d) and the spatial coordinates of the measurement point (501, 502, 503); f. moving the laser source to another measurement point and repeating steps c) to f) so as to carry out a scan until the zone to be tested has been entirely covered; g. comparing the resin thickness profile of the zone to be tested with the criteria file. a. obtaining a geometric definition of the zone of the part to be tested; b. obtaining a file, referred to as the criteria file, comprising resin thickness distribution tolerances corresponding to the nature of the zone to be tested; c. illuminating a portion, referred to as the measurement point (501, 502, 503), of the surface of said zone to be tested using a laser source having a low temporal coherence; d. measuring the resin thickness (d 1, d 2, d 3) at the measuring point using an interferometric approach based on optical coherence tomography, i.e. what is called OCT; e. recording the thickness value measured in step d) and the spatial coordinates of the measurement point (501, 502, 503); f. moving the laser source to another measurement point and repeating steps c) to f) so as to carry out a scan until the zone to be tested has been entirely covered; g. comparing the resin thickness profile of the zone to be tested with the criteria file.
Conveyor device comprising: a truss; a conveyance element, which is movable with respect to the truss in a longitudinal direction and which comprises at least one groove extending along said longitudinal direction; a comb plate comprising at least one tooth extending into the at least one groove; and at least one compensation device (24, 26, 28a, 28b), which is configured for fixing the comb plate against movement in the longitudinal direction during normal operation, and allowing the comb plate to move in the longitudinal direction in case of a comb crash, wherein the at least one compensation device (24, 26, 28a, 28b) comprises at least one friction element (28a, 28b), which is configured for fixing the comb plate in the longitudinal direction by exerting a frictional force onto the comb plate, and comprising at least one actuator, which is configured for pressing at least one friction element (28a, 28b) against the comb plate. a truss; a conveyance element, which is movable with respect to the truss in a longitudinal direction and which comprises at least one groove extending along said longitudinal direction; a comb plate comprising at least one tooth extending into the at least one groove; and at least one compensation device (24, 26, 28a, 28b), which is configured for fixing the comb plate against movement in the longitudinal direction during normal operation, and allowing the comb plate to move in the longitudinal direction in case of a comb crash, wherein the at least one compensation device (24, 26, 28a, 28b) comprises at least one friction element (28a, 28b), which is configured for fixing the comb plate in the longitudinal direction by exerting a frictional force onto the comb plate, and comprising at least one actuator, which is configured for pressing at least one friction element (28a, 28b) against the comb plate. fixing the comb plate against movement in the longitudinal direction during normal operation, and allowing the comb plate to move in the longitudinal direction in case of a comb crash, wherein the at least one compensation device (24, 26, 28a, 28b) comprises at least one friction element (28a, 28b), which is configured for fixing the comb plate in the longitudinal direction by exerting a frictional force onto the comb plate, and comprising at least one actuator, which is configured for pressing at least one friction element (28a, 28b) against the comb plate.