mhurhangee/ep-ind-claims huggingface dataset:
Holding system (10, 201) an ultra-high-frequency sensor (140,240) on a view port (6, 206) of a high-voltage electrical station, said view port (6, 206) being attached to the rest of the electrical station by means of a support (5, 205), such as a flange, of the electrical station, the holding system (10, 201) comprising: - at least one attachment element (110, 210), designed to be attached to the electrical station facing the support (5, 205), said attachment element comprising an opening (119, 219) giving access to the view port (6, 206) when it is attached to the electrical station, the holding system (10, 201) being characterised in that it further comprises: - a holding part (120, 220) a UHF sensor (140, 240) configured to house at least partially the UHF sensor (140, 240), the holding part (120, 220) being further configured to be placed in the opening (119, 219) of the attachment element (110, 210) and to hold the UHF sensor (140, 240) in position with regards to the view port (6, 206), and - at least one first locking body (130, 231, 232) suitable for locking in position the holding part (120, 220) on the attachment element (110, 210) when the holding part (120, 220) is placed in the opening (119, 219) of the attachment element (110, 210), said first locking body (130, 230) being configured to allow for a manual locking in position of the holding part (120, 220) in the opening (119, 219) of the attachment element (110, 210). - at least one attachment element (110, 210), designed to be attached to the electrical station facing the support (5, 205), said attachment element comprising an opening (119, 219) giving access to the view port (6, 206) when it is attached to the electrical station, - a holding part (120, 220) a UHF sensor (140, 240) configured to house at least partially the UHF sensor (140, 240), the holding part (120, 220) being further configured to be placed in the opening (119, 219) of the attachment element (110, 210) and to hold the UHF sensor (140, 240) in position with regards to the view port (6, 206), and - at least one first locking body (130, 231, 232) suitable for locking in position the holding part (120, 220) on the attachment element (110, 210) when the holding part (120, 220) is placed in the opening (119, 219) of the attachment element (110, 210), said first locking body (130, 230) being configured to allow for a manual locking in position of the holding part (120, 220) in the opening (119, 219) of the attachment element (110, 210).
A method comprising: by an aggregation node of a plurality of aggregation nodes of a network, executing a control plane protocol to discover local neighbor nodes of the aggregation nodes of the network; by the aggregation node, sending flood messages to discovered local neighbor nodes toward a centralized controller network device to establish a Source Routed Tunnel, SRT, control channel between the aggregation node and the centralized controller network device; by the aggregation node, sending Keepalive packets to the centralized controller network device to ensure a state of the SRT control channel; responsive to determining that no Keepalive Reply is received from the centralized controller network device within a time period, and by the aggregation node, generating a new flood message with a new generation number to force acceptance at the centralized controller network device of a new SRT control channel; receiving, by the aggregation node, a message from the centralized controller network device via the new SRT control channel, wherein the message specifies directed Forwarding Information Base, FIB, state pre-computed by the centralized controller network device for configuring a forwarding plane of the aggregation node; and responsive to receiving the message, and by the aggregation node, installing the directed FIB state received in the message, wherein the directed FIB state comprises one or more Multiprotocol Label Switching, MPLS, labels for the aggregation node to use for sending packets on an Label Switched Path, LSP. by an aggregation node of a plurality of aggregation nodes of a network, executing a control plane protocol to discover local neighbor nodes of the aggregation nodes of the network; by the aggregation node, sending flood messages to discovered local neighbor nodes toward a centralized controller network device to establish a Source Routed Tunnel, SRT, control channel between the aggregation node and the centralized controller network device; by the aggregation node, sending Keepalive packets to the centralized controller network device to ensure a state of the SRT control channel; responsive to determining that no Keepalive Reply is received from the centralized controller network device within a time period, and by the aggregation node, generating a new flood message with a new generation number to force acceptance at the centralized controller network device of a new SRT control channel; receiving, by the aggregation node, a message from the centralized controller network device via the new SRT control channel, wherein the message specifies directed Forwarding Information Base, FIB, state pre-computed by the centralized controller network device for configuring a forwarding plane of the aggregation node; and responsive to receiving the message, and by the aggregation node, installing the directed FIB state received in the message, wherein the directed FIB state comprises one or more Multiprotocol Label Switching, MPLS, labels for the aggregation node to use for sending packets on an Label Switched Path, LSP.
Device for moving tissue inside the body, in particular bone tissue, said device including: - a first part (6, 206, 306, 406) referred to as the reference part ( C 1); - a second part (53, 205, 305, 405), referred to as the transport part ( C 2), which is slidably mounted relative to the reference part ( C 1); - a rod (2, 202, 302, 402) comprising at least one thread, referred to as the threaded rod, pivotably mounted relative to the reference part ( C 1); - a control shaft (3, 203, 303, 403); - driving means (4, 204, 304, 404) connecting the control shaft to the threaded rod; - connecting means, referred to as the connecting nut (5, 208, 308, 408), between the transport part ( C 2) and the threaded rod, said connecting nut being mounted onto the threaded rod and being rotatably guided relative to the reference part ( C 1); - means for converting the movement of the connecting nut along the threaded rod into a movement of the transport part ( C 2) relative to the reference part ( C 1), said device being characterized in that, in order to limit the longitudinal translation of said threaded rod relative to the reference part ( C 1), a first abutment ( C 11) and a second abutment ( C 12) rigidly connected to the threaded rod respectively cooperate with a first bearing ( A 11) and a second bearing ( A 12), these bearings being rigidly connected to the reference part ( C 1) and being placed at a distance from one another between said abutments ( C 11, C 12), the connecting nut being movable along the threaded rod between the first bearing ( A 11) and second bearing ( A 12). - a first part (6, 206, 306, 406) referred to as the reference part ( C 1); - a second part (53, 205, 305, 405), referred to as the transport part ( C 2), which is slidably mounted relative to the reference part ( C 1); - a rod (2, 202, 302, 402) comprising at least one thread, referred to as the threaded rod, pivotably mounted relative to the reference part ( C 1); - a control shaft (3, 203, 303, 403); - driving means (4, 204, 304, 404) connecting the control shaft to the threaded rod; - connecting means, referred to as the connecting nut (5, 208, 308, 408), between the transport part ( C 2) and the threaded rod, said connecting nut being mounted onto the threaded rod and being rotatably guided relative to the reference part ( C 1); - means for converting the movement of the connecting nut along the threaded rod into a movement of the transport part ( C 2) relative to the reference part ( C 1),
A method of welding at least two plastic components(20a, 20b) together, wherein the at least two plastic components are welded together at respective joining surfaces (22a, 22b), the method comprising: applying a coating to the joining surfaces (22a, 22b) of the at least two plastic components (20a, 20b)or adding a colorant to a material the at least two plastic components (20a, 20b) are constructed of; repeatedly scanning at least one infrared laser beam along the joining surfaces (22a, 22b) of the at least two plastic components (20a, 20b) at a rate of about ten to about two hundred passes per second, wherein the at least one IR laser beam heats the joining surfaces (22a, 22b) of the at least two plastic components (20a, 20b) to a welding temperature at the same time, and wherein the coating or the colorant component absorbs energy emitted by the infrared laser beam; and clamping the at least two plastic components (20a, 20b) together at the joining surfaces (22a, 22b) to create a weld; wherein the method further comprises adjusting at least one welding parameter of the at least one IR laser beam to accommodate differing geometries of the joining surfaces. applying a coating to the joining surfaces (22a, 22b) of the at least two plastic components (20a, 20b)or adding a colorant to a material the at least two plastic components (20a, 20b) are constructed of; repeatedly scanning at least one infrared laser beam along the joining surfaces (22a, 22b) of the at least two plastic components (20a, 20b) at a rate of about ten to about two hundred passes per second, wherein the at least one IR laser beam heats the joining surfaces (22a, 22b) of the at least two plastic components (20a, 20b) to a welding temperature at the same time, and wherein the coating or the colorant component absorbs energy emitted by the infrared laser beam; and clamping the at least two plastic components (20a, 20b) together at the joining surfaces (22a, 22b) to create a weld; wherein the method further comprises adjusting at least one welding parameter of the at least one IR laser beam to accommodate differing geometries of the joining surfaces.
A method for determining an edgewise load recurrence signal acting on a wind turbine blade, the method comprising: obtaining, from at least one sensor, a plurality of measures of a parameter for deriving an edgewise load signal acting on the wind turbine blade; deriving the edgewise load signals acting on the wind turbine blade based on each obtained measure of the parameter; filtering the edgewise load signals to separate out frequency content of one or more edgewise components of the edgewise load signal to provide an edgewise component load signals; identifying a peak edgewise component load signal of the edgewise component load signals derived from measures obtained within a given period of time; repeating the above steps until a plurality of peak edgewise component load signals have been identified; fitting the plurality of peak edgewise component load signals, identified from a plurality of periods of time, to a distribution function; and extrapolating the fitted peak first edgewise components to estimate an edgewise load recurrence. obtaining, from at least one sensor, a plurality of measures of a parameter for deriving an edgewise load signal acting on the wind turbine blade; deriving the edgewise load signals acting on the wind turbine blade based on each obtained measure of the parameter; filtering the edgewise load signals to separate out frequency content of one or more edgewise components of the edgewise load signal to provide an edgewise component load signals; identifying a peak edgewise component load signal of the edgewise component load signals derived from measures obtained within a given period of time; repeating the above steps until a plurality of peak edgewise component load signals have been identified; fitting the plurality of peak edgewise component load signals, identified from a plurality of periods of time, to a distribution function; and extrapolating the fitted peak first edgewise components to estimate an edgewise load recurrence.
A capacitive sensing apparatus usable with an electronic device for grip sensing and/or finger tracking, wherein the capacitive sensing apparatus comprises: first capacitive sensors comprising first strips (406a, 406b, 406c) spatially arranged substantially along a first line, the first strips having respective lengths and spacing(s) between the first strips; and second capacitive sensors comprising second strips (410a, 410b, 410c) spatially arranged substantially along a second line substantially parallel to the first line, the second strips having respective lengths and spacing(s) between the second strips; and wherein the first strips comprises a first end strip, a second end strip, and one or more middle strips arranged between the first end strip and the second end strip, and characterized in that the one or more middle strips are shorter in length than the first end strip and/or the second end strip. first capacitive sensors comprising first strips (406a, 406b, 406c) spatially arranged substantially along a first line, the first strips having respective lengths and spacing(s) between the first strips; and second capacitive sensors comprising second strips (410a, 410b, 410c) spatially arranged substantially along a second line substantially parallel to the first line, the second strips having respective lengths and spacing(s) between the second strips; and wherein the first strips comprises a first end strip, a second end strip, and one or more middle strips arranged between the first end strip and the second end strip, and characterized in that the one or more middle strips are shorter in length than the first end strip and/or the second end strip.
A sample preparation instrument comprising: a controller that includes a processing device and a memory coupled to the processing device, an input station that receives a specimen; a cell concentration estimator for estimating a concentration of white blood cells in the specimen; a transfer station that dispenses a sample of the specimen, the controller is configured to instruct the transfer station to dispense a volume of the sample based on the estimated concentration of white blood cells in the specimen; a reagent station including a labeling reagent that is added to the sample; a lysing station including a lytic reagent that is added to the sample; and an output station that provides the sample following the addition of the labeling reagent and the lytic reagent to the sample; characterised in that the controller is further configured to prevent a processing of the sample if one or more of: the estimated concentration of white blood cells is at or below a predetermined minimum white blood cell concentration; and the estimated concentration of white blood cells is at or above a predetermined maximum white blood cell concentration. a controller that includes a processing device and a memory coupled to the processing device, an input station that receives a specimen; a cell concentration estimator for estimating a concentration of white blood cells in the specimen; a transfer station that dispenses a sample of the specimen, the controller is configured to instruct the transfer station to dispense a volume of the sample based on the estimated concentration of white blood cells in the specimen; a reagent station including a labeling reagent that is added to the sample; a lysing station including a lytic reagent that is added to the sample; and an output station that provides the sample following the addition of the labeling reagent and the lytic reagent to the sample; characterised in that the estimated concentration of white blood cells is at or below a predetermined minimum white blood cell concentration; and the estimated concentration of white blood cells is at or above a predetermined maximum white blood cell concentration.
Implant for treating atrial fibrillation by multiple ablation of the inner walls of a pulmonary vein via heating, comprising an electrical circuit comprising a heater coil (62,72), characterized in that the electrical circuit further comprises: a pickup coil (63,73) and a temperature-controlled switch which comprises a closed position and an interrupted position, said pick-up coil arranged for inducing an electrical current through at least part of said electrical circuit to which it is connected under the influence of a time-varying magnetic flux through said pickup coil, whereby said heating coil is arranged for subtending a substantially complete circumferential ablation region in a pulmonary vein vessel, for obtaining a substantially complete circumferential signal-blocking lesion on the inner wall of said vessel, and whereby said switch is arranged to change from said closed to said open position when a temperature at or near said implant is higher than a predefined ablation temperature.
An axial fan with a motor comprising a stator and a rotor, wherein blades are protruding from an outer periphery of the rotor, which is configured as a fan wheel, which moves a gaseous medium in an axially directed main flow direction from an inlet side to an outlet side, wherein a rotation-symmetric flow guiding element is mounted on the outlet side directly or indirectly on the stator, concentric to a stator hub, the flow-guiding element having an outer diameter that is greater than an outer diameter of the stator hub, greater than an outer diameter of the rotor, and smaller than an diameter of a perimeter around the blades, characterized in that the outer diameter of the flow guiding element is dimensioned in accordance with the formula D5 = D3 + (0.2... 0.3) * (D4 - D3), wherein the flow guiding element is configured in basic conical shape, wherein his jacket surface is diverging in from the stator away facing direction when assembled, and wherein the jacket surface of the flow guiding element runs at an angle (μ) with respect to a longitudinal axis of the fan, which is no less than 30°.
Method for encoding audio signals with: receiving an input audio signal; dividing the input audio signal into at least a low frequency band and a high frequency band; dividing the high frequency band into at least two high frequency sub-band signals; determining a similarity measure between low frequency band signal sections and the high frequency sub-band signals by comparing low frequency signal samples with high frequency sub-bands of the received input audio signal; coding low frequency signal samples of the low frequency signal band; generating parameters that refer at least to the low frequency band signal sections having the highest similarity measure with respect to the high-frequency sub-band signals, for transposing the low frequency band signal sections to a high frequency to reconstruct the high frequency sub-bands; dividing the input audio signal into temporally successive frames; detecting tonal sections within two successive frames within the input audio signal, and, if tonal sections are detected, adding sinusoids to the high frequency region; and creating a bitstream with the coded low frequency signal samples, the parameters and, if tonal sections are detected, positions and amplitudes of the sinusoids. receiving an input audio signal; dividing the input audio signal into at least a low frequency band and a high frequency band; dividing the high frequency band into at least two high frequency sub-band signals; determining a similarity measure between low frequency band signal sections and the high frequency sub-band signals by comparing low frequency signal samples with high frequency sub-bands of the received input audio signal; coding low frequency signal samples of the low frequency signal band; generating parameters that refer at least to the low frequency band signal sections having the highest similarity measure with respect to the high-frequency sub-band signals, for transposing the low frequency band signal sections to a high frequency to reconstruct the high frequency sub-bands; dividing the input audio signal into temporally successive frames; detecting tonal sections within two successive frames within the input audio signal, and, if tonal sections are detected, adding sinusoids to the high frequency region; and creating a bitstream with the coded low frequency signal samples, the parameters and, if tonal sections are detected, positions and amplitudes of the sinusoids.
A DC/DC converter comprising an input and an output, a longitudinal arm arranged between the input and the output in which a first inductor and a first capacitor are arranged, and a capacitor arranged in a first shunt arm at the output, characterized in that a second inductor and a second active semiconductor switch connected in series are arranged in a second shunt arm in parallel with the first shunt arm, wherein a terminal of the second inductor facing away from the second active semiconductor switch is directly connected to the output, and that a first active semiconductor switch is arranged in such a way that its first terminal is connected to a point between the second inductor and the second active semiconductor switch and its second terminal is connected to a point between the first inductor and the first capacitor.
Pressure sensor with at least one textile element having threads (30, 32, 34), of which at least a part is of electrically conductive design, wherein at least one thread of the textile element is designed as a piezoresistive thread which is formed at least partially of a piezoresistive material that changes its electrical resistance under application of compressive force, characterized in that the piezoresistive thread has a core thread which is formed as a strand of several subthreads, in that the core thread designed as a strand is clad with a coating that is formed of the piezoresistive material and in that the piezoresistive thread has a thread diameter of 50 μm to 500 μm.
Flat knit bra comprising two cups (1a,1b), two wing zones (5a,5b) and wherein the bra further comprises a band having a first and second end (6a,6b) and a centre region, wherein: the centre region of the band comprises a thermal molded fiber, and characterized in that the band is comprised of more than one band zone and wherein each zone is comprised of the double layered knit material. two cups (1a,1b), two wing zones (5a,5b) and wherein the bra further comprises a band having a first and second end (6a,6b) and a centre region, wherein: the centre region of the band comprises a thermal molded fiber, and characterized in that the band is comprised of more than one band zone and wherein each zone is comprised of the double layered knit material. the centre region of the band comprises a thermal molded fiber, and characterized in that the band is comprised of more than one band zone and wherein each zone is comprised of the double layered knit material.