mhurhangee/ep-ind-claims huggingface dataset:
An air treatment device, in particular for changing the air in rooms, the device comprising: - a first flat-shaped casing (22; 37) configured to be housed in an insulating cladding of a perimeter wall of a building and comprising a first box-shaped body (23; 41); a first lateral panel (24; 42); and at least one first mouth (25; 43) for the passage of at least one air flow; and - a second flat-shaped casing (9; 36) configured to be housed in the insulating cladding of the perimeter wall and comprising a second box-shaped body (21; 38); a second lateral panel (13; 39), which is selectively removable from the second box-shaped body (21; 38); and at least one second mouth (14; 40) for the passage of at least one air flow; the first casing (22; 37) being configured to be housed in the second casing (9; 36) and selectively inserted and extracted in/from the second box-shaped body (21; 38); the at least first mouth (25; 43) being in communication with the second mouth (14; 40) for the passage of said at least air flow. - a first flat-shaped casing (22; 37) configured to be housed in an insulating cladding of a perimeter wall of a building and comprising a first box-shaped body (23; 41); a first lateral panel (24; 42); and at least one first mouth (25; 43) for the passage of at least one air flow; and - a second flat-shaped casing (9; 36) configured to be housed in the insulating cladding of the perimeter wall and comprising a second box-shaped body (21; 38); a second lateral panel (13; 39), which is selectively removable from the second box-shaped body (21; 38); and at least one second mouth (14; 40) for the passage of at least one air flow; the first casing (22; 37) being configured to be housed in the second casing (9; 36) and selectively inserted and extracted in/from the second box-shaped body (21; 38); the at least first mouth (25; 43) being in communication with the second mouth (14; 40) for the passage of said at least air flow.
Signal acquisition device for acquiring three-dimensional wave field signals within a range of frequencies, the signal acquisition device comprising a wave-reflective plate comprising two planar sides facing oppositely and a two-dimensional array of omnidirectional sensors arranged on one of the two sides, characterized in that the signal acquisition device comprises another two-dimensional array of omnidirectional sensors arranged on the other of the two sides, and in that at least more than 50% of all sensors (TSS, BSS) of the signal acquisition device are arranged on the wave-reflective plate, and wherein the wave-reflective plate is rigid.
Method for determining a fault location in an electric power distribution network (10, 20), wherein the power distribution network (10, 20) comprises at least one infeed as well as lines in the form of a main strand and a multiplicity of branches branching off from the main strand, and wherein, in the method, - first measured values are acquired at a first measurement point of the power distribution network (10, 20); - second measured values are acquired at a second measurement point of the power distribution network (10, 20); and - the fault location of the fault that has occurred in the power distribution network (10, 20) is determined on the basis of the first and the second measured values; characterized in that - the arrival of respective travelling waves is identified on the basis of the first and the second measured values, these travelling waves indicating a fault that has occurred in the power distribution network (10, 20), and the times of the respective arrival of the travelling wave are stored; - a first fault location is performed using the respective times of both measurement points, generating a first fault location value in the process; - a second fault location is performed using the times of only the first measurement point, generating a second fault location value in the process; and - the fault location is determined based on the first fault location value and the second fault location value, such that bilateral fault location is combined with unilateral fault location. - first measured values are acquired at a first measurement point of the power distribution network (10, 20); - second measured values are acquired at a second measurement point of the power distribution network (10, 20); and - the fault location of the fault that has occurred in the power distribution network (10, 20) is determined on the basis of the first and the second measured values; - the arrival of respective travelling waves is identified on the basis of the first and the second measured values, these travelling waves indicating a fault that has occurred in the power distribution network (10, 20), and the times of the respective arrival of the travelling wave are stored; - a first fault location is performed using the respective times of both measurement points, generating a first fault location value in the process; - a second fault location is performed using the times of only the first measurement point, generating a second fault location value in the process; and - the fault location is determined based on the first fault location value and the second fault location value, such that bilateral fault location is combined with unilateral fault location.
Device for using flow energy, in particular wind energy, with elements (2, 2a, 2b) which have incident-flow surfaces and which are guided at a distance from one another so as to run around on a track, wherein an axis of rotation about which the elements (2, 2a, 2b) move is arranged transversely with respect to the flow direction, and the device comprises a ring (5, 5a, 5b, 5c) which is movable parallel to the track and by means of which, with the transmission of forces acting in a direction tangential to the track, flow energy captured using the elements (2, 2a, 2b) can be transmitted to a generator (15, 15a, 16), characterized in that the elements (2, 2a, 2b, 2c) and the ring (5, 5a, 5b, 5c) are mounted separately from one another in the device and connected to one another in such a way that forces acting between the elements (2, 2a, 2b, 2c) and the ring (5, 5a, 5b, 5c) in a direction tangential to the track are transmitted and forces acting in other directions than in a direction tangential to the track are not transmitted or are transmitted only to an attenuated extent.
System for measuring and correcting a finish time of at least one athlete in a running race, the measuring system comprising at least one transponder module which is personalised and placed on an upper part of the body of an athlete and a base station, said base station being configured to detect the finish time corresponding to the crossing time on the finish line of the transponder module, said transponder module comprising a unit for processing data, measurements or commands, a unit for transmitting data and/or measurement and/or command signals, and at least two motion sensors (7, 8) for providing measurement signals to the processing unit, characterised in that the motion sensors are at least one gyroscope and one accelerometer, which are connected to the processing unit in the transponder module, in that the gyroscope is configured to determine an angle of inclination α of the body of the athlete with respect to a vertical or horizontal direction upon crossing the finish line for a correction of a race finish time, in that the transponder module is configured to calculate the running speed of the athlete when crossing the finish line using measurements from the motion sensors (7, 8), in that the processing unit is configured to calculate a time error Δt for a race time of the athlete based on the angle of inclination α with respect to a vertical or horizontal direction, of the position d of the transponder module with respect to the shoulders of the athlete and the speed v of the athlete at the finish line, the time error being Δt = Δx/v, where Δx = d·sin(α) for an angle of inclination α in a vertical direction or Δx = d·cos(α) for an angle of inclination α in a horizontal direction. in that the transponder module is configured to transmit the calculated time error via the transmission unit to the base station, and in that the base station is configured to correct the detected finish time with the received time error.
A seal assembly for an exhaust duct of a gas turbine engine, comprising: a first exhaust duct section; a second exhaust duct section adjacent to the first exhaust duct section; a channel with a backwall; a tadpole seal with a bulb and a tail, the tail directed toward the backwall; and a faying extension that at least partially extends into the channel and into contact with the bulb; characterized in that the channel is mounted to the first exhaust duct section, and the tadpole seal is located within the channel; and wherein the bulb translates axially when compressed by the deflection/displacement of the faying extension. a first exhaust duct section; a second exhaust duct section adjacent to the first exhaust duct section; a channel with a backwall; a tadpole seal with a bulb and a tail, the tail directed toward the backwall; and a faying extension that at least partially extends into the channel and into contact with the bulb; characterized in that the channel is mounted to the first exhaust duct section, and the tadpole seal is located within the channel; and wherein the bulb translates axially when compressed by the deflection/displacement of the faying extension.
A data alignment system for operating non-native program modules within a native environment, the system comprising: means for identifying a data structure which includes at least one parameter of a data type that may be non-aligned for the native environment, the data structure being shared by the native environment and the non-native program module; means adapted to examine parameters of the identified data structure and determine whether such parameters are aligned for the native environment; means adapted to, in response to determining that an examined parameter is not aligned for the native environment, align the examined parameter, said means being adapted to allocate a buffer for holding data of the examined parameter, to copy data of the examined parameter to the allocated buffer so that the copied data is aligned for the native environment and to pass the allocated buffer to the native environment; and means adapted to, in response to determining that an examined parameter is aligned for the native environment, pass to the native environment a pointer to an original buffer. means for identifying a data structure which includes at least one parameter of a data type that may be non-aligned for the native environment, the data structure being shared by the native environment and the non-native program module; means adapted to examine parameters of the identified data structure and determine whether such parameters are aligned for the native environment; means adapted to, in response to determining that an examined parameter is not aligned for the native environment, align the examined parameter, said means being adapted to allocate a buffer for holding data of the examined parameter, to copy data of the examined parameter to the allocated buffer so that the copied data is aligned for the native environment and to pass the allocated buffer to the native environment; and means adapted to, in response to determining that an examined parameter is aligned for the native environment, pass to the native environment a pointer to an original buffer.
A method for manufacturing a hot gas path component (200, 300) of a turbine, the method comprising the following steps: forming cooling channels (206, 308, 506) in a surface of a member (202, 302, 508) of said hot gas path component (200, 300, 500); further drilling cooling holes in the member; then disposing a layer (208, 402, 502) on the surface (204, 304) of the member (202, 302) to enclose the cooling channels (206, 308), the layer (208, 402) being disposed on a portion of the member (202, 302) to be cooled; and bonding the layer (208, 402) to the surface (204, 304), wherein bonding comprises disposing a braze filler metal between the layer (208, 402) and the surface (204, 304) and heating the layer (208, 402), the member (202, 302) and the braze filler metal to a selected temperature. forming cooling channels (206, 308, 506) in a surface of a member (202, 302, 508) of said hot gas path component (200, 300, 500); further drilling cooling holes in the member; then disposing a layer (208, 402, 502) on the surface (204, 304) of the member (202, 302) to enclose the cooling channels (206, 308), the layer (208, 402) being disposed on a portion of the member (202, 302) to be cooled; and bonding the layer (208, 402) to the surface (204, 304), wherein bonding comprises disposing a braze filler metal between the layer (208, 402) and the surface (204, 304) and heating the layer (208, 402), the member (202, 302) and the braze filler metal to a selected temperature.
A smoke evacuation shutter suitable to be mounted in a duct fluidly connecting a room of a building with a smoke exhaust duct, the smoke evacuation shutter comprising: - a frame, - a door assembly pivotally mounted in the frame, the door assembly comprising a panel having a front surface facing said room; - a locking mechanism positioned in the door assembly, characterized in that the frame and the door assembly are configured such that, when said frame and door assembly are mounted on the wall of said room, the front of said door assembly is planar to the wall of said room wherein the duct fluidly connecting the room with the exhaust duct is provided and in that door assembly pivots versus the frame from a closed position to an open position in a direction inwards the duct wherein the smoke evacuation shutter is mounted. - a frame, - a door assembly pivotally mounted in the frame, the door assembly comprising a panel having a front surface facing said room; - a locking mechanism positioned in the door assembly, characterized in that the frame and the door assembly are configured such that, when said frame and door assembly are mounted on the wall of said room, the front of said door assembly is planar to the wall of said room wherein the duct fluidly connecting the room with the exhaust duct is provided and in that door assembly pivots versus the frame from a closed position to an open position in a direction inwards the duct wherein the smoke evacuation shutter is mounted.
A termination assembly (300, 300', 500) for a longitudinally extensive protection apparatus (200, 200') extending through an aperture in a floor of an off-shore structure, the assembly (300, 300', 500) comprising: a temporary clamp (350, 550), in the form of at least two sleeve members (330a, 330b, 550a, 550b) which, when clamped together by fasteners around the longitudinally extensive protection apparatus (200, 200') above said floor, define a clamp sleeve section and a clamp flange section (342, 542), an aperture member (310, 310') for securing in the floor, wherein the aperture member (310, 310') comprises a tube member with a support shoulder (322, 322'), a wall upstanding from the support shoulder (322, 322'), and a dish plate (326, 526) extending radially outwardly from said wall, wherein the clamp sleeve section is configured to extend through the aperture member (310, 310'); and the clamp flange section (342, 542) is configured to sit on the shoulder (322, 322') of the aperture member (310, 310') such that the wall of the aperture member (310, 310') surrounds the clamp flange section (342, 542) such that in use the weight of the longitudinally extensive protection apparatus (200, 200') is supported by the clamp flange section (342, 542) on the aperture member (310, 310') in the floor, and further comprising a permanent clamp plate (345, 545) for securing to the dish plate (326, 526) and for clamping armour wires of the longitudinally extensive protection apparatus (200, 200') between the dish plate (326, 526) and the permanent clamp plate (345, 545). a temporary clamp (350, 550), in the form of at least two sleeve members (330a, 330b, 550a, 550b) which, when clamped together by fasteners around the longitudinally extensive protection apparatus (200, 200') above said floor, define a clamp sleeve section and a clamp flange section (342, 542), an aperture member (310, 310') for securing in the floor, wherein the aperture member (310, 310') comprises a tube member with a support shoulder (322, 322'), a wall upstanding from the support shoulder (322, 322'), and a dish plate (326, 526) extending radially outwardly from said wall, wherein the clamp sleeve section is configured to extend through the aperture member (310, 310'); and the clamp flange section (342, 542) is configured to sit on the shoulder (322, 322') of the aperture member (310, 310') such that the wall of the aperture member (310, 310') surrounds the clamp flange section (342, 542) such that in use the weight of the longitudinally extensive protection apparatus (200, 200') is supported by the clamp flange section (342, 542) on the aperture member (310, 310') in the floor, and further comprising a permanent clamp plate (345, 545) for securing to the dish plate (326, 526) and for clamping armour wires of the longitudinally extensive protection apparatus (200, 200') between the dish plate (326, 526) and the permanent clamp plate (345, 545).
A solid oxide fuel cell system comprising: a solid oxide fuel cell; a combustor disposed in a cathode gas supply line of the fuel cell; a fuel supply unit configured to supply a fuel to the combustor; a cathode gas supply unit connected to the cathode gas supply line, and configured to supply a cathode gas to the combustor through the cathode gas supply line; and a stop control unit configured to perform a stop control, in response to stop of the fuel cell, including a control that sets a cathode gas supply amount from the cathode gas supply unit to a predetermined amount and a control that supplies the fuel from the fuel supply unit in a supply amount corresponding to the cathode gas supply amount, and to supply a combustion gas generated in the combustor to the fuel cell through the cathode gas supply line. a solid oxide fuel cell; a combustor disposed in a cathode gas supply line of the fuel cell; a fuel supply unit configured to supply a fuel to the combustor; a cathode gas supply unit connected to the cathode gas supply line, and configured to supply a cathode gas to the combustor through the cathode gas supply line; and a stop control unit configured to perform a stop control, in response to stop of the fuel cell, including a control that sets a cathode gas supply amount from the cathode gas supply unit to a predetermined amount and a control that supplies the fuel from the fuel supply unit in a supply amount corresponding to the cathode gas supply amount, and to supply a combustion gas generated in the combustor to the fuel cell through the cathode gas supply line.
A method of intrusion detection, the method including: displaying sensing device output data as one or more images of a field of view of a sensing device; through a graphical user interface: receiving user input to define and display an image detection area in relation to the one or more images of the field of view, wherein the image detection area is correlated to a detection area to be monitored by the sensing device for intrusion detection; and receiving user input that defines a detection vector specifying a predetermined minimum displacement and direction of displacement of a target object in the field of view to be monitored, wherein a graphical representation of the detection vector is displayed on the image detection area; detecting a target object; and tracking the target object at least partially through the detection area and determining whether the progressive displacement of the target object has a component which exceeds the minimum displacement in the direction of the detection vector. displaying sensing device output data as one or more images of a field of view of a sensing device; through a graphical user interface: receiving user input to define and display an image detection area in relation to the one or more images of the field of view, wherein the image detection area is correlated to a detection area to be monitored by the sensing device for intrusion detection; and receiving user input that defines a detection vector specifying a predetermined minimum displacement and direction of displacement of a target object in the field of view to be monitored, wherein a graphical representation of the detection vector is displayed on the image detection area; receiving user input to define and display an image detection area in relation to the one or more images of the field of view, wherein the image detection area is correlated to a detection area to be monitored by the sensing device for intrusion detection; and receiving user input that defines a detection vector specifying a predetermined minimum displacement and direction of displacement of a target object in the field of view to be monitored, wherein a graphical representation of the detection vector is displayed on the image detection area; detecting a target object; and tracking the target object at least partially through the detection area and determining whether the progressive displacement of the target object has a component which exceeds the minimum displacement in the direction of the detection vector.
A method of detection, by mass spectrometry of MS/MS type in MRM mode, for at least one microorganism contained in a sample, of at least one marker of resistance of the at least one microorganism, to at least one antimicrobial, which is a cephalosporin, said marker(s) of resistance is (are) a (one of the) protein(s) or a (one of the) peptide(s), amongst Extended Spectrum Beta-Lactamase (ESBL) proteins or peptides of CTX-M type.
Pre-treatment method for coating processes, wherein secondary surfaces of a coating system are subjected even prior to the coating process to a pre-treatment such that during the subsequent coating process the adhesiveness of the coating material on the secondary surfaces is considerably reduced in comparison with adhesiveness without pre-treatment, and wherein, in the course of the pre-treatment, an anti-adhesive layer is applied onto the secondary surfaces, wherein the anti-adhesive layer comprises a suspension of powder in a volatile solvent, preferably lightly volatile solvent, characterized in that the powder material is graphite powder, preferably essentially pure graphite powder.