mhurhangee/ep-ind-claims huggingface dataset:
A starter-generator module for a gas turbine engine, comprising: an inner stator portion with an armature defining a rotation axis; an outer rotor portion with a permanent magnet disposed about the rotation axis; and a gear teeth member defined on the outer rotor portion, wherein the gear teeth member is configured to transmit rotational energy to an accessory gearbox in a start mode and to receive rotational energy from the accessory gearbox in a generate mode, characterized in that the armature includes a radially inner yoke portion connected to a plurality of radially outer teeth, and further including phase windings wrapped about at least two of the plurality of radially outer armature teeth, and further including a control coil disposed circumferentially between the phase windings, and wherein the control coil is disposed radially outward from the phase coils, and wherein the starter-generator module includes only a single electrical machine. an inner stator portion with an armature defining a rotation axis; an outer rotor portion with a permanent magnet disposed about the rotation axis; and
An atherectomy device for removing deposits such as plaque from an interior of a vessel comprising: a housing (2, 130); an outer member (24, 47, 72, 80, 100, 120) extending from the housing and having a distal end (75, 103) with a distal opening (23, 48), the outer member axially fixed with respect to the housing; a rotatable shaft (20, 42, 70, 70', 94, 114) positioned for rotational movement within the outer member and connected to a motor such that activation of the motor rotates the shaft, the rotatable shaft having a longitudinal axis, a distal region and a distalmost edge (22, 72, 97) and being axially fixed with respect to the outer member; and a rotatable tip (12, 45, 50, 60, 92, 112) having a proximal end (16, 49, 63, 95, 115) and a distal end (14, 65, 93), the proximal end of the rotatable tip positioned distally of the distal opening (23, 48) and a distalmost edge of the outer member to create a fixed gap between the proximal end of the rotatable tip and the distalmost edge of the outer member to permanently expose a portion of the rotatable shaft through the fixed gap for the aspiration of particles, the rotatable tip having a longitudinal axis and mounted to the distal region of the rotatable shaft for rotation about its longitudinal axis upon rotation of the rotatable shaft, the rotatable shaft including a guidewire lumen for receiving a guidewire to enable over the wire insertion of the device. a housing (2, 130); an outer member (24, 47, 72, 80, 100, 120) extending from the housing and having a distal end (75, 103) with a distal opening (23, 48), the outer member axially fixed with respect to the housing; a rotatable shaft (20, 42, 70, 70', 94, 114) positioned for rotational movement within the outer member and connected to a motor such that activation of the motor rotates the shaft, the rotatable shaft having a longitudinal axis, a distal region and a distalmost edge (22, 72, 97) and being axially fixed with respect to the outer member; and a rotatable tip (12, 45, 50, 60, 92, 112) having a proximal end (16, 49, 63, 95, 115) and a distal end (14, 65, 93), the proximal end of the rotatable tip positioned distally of the distal opening (23, 48) and a distalmost edge of the outer member to create a fixed gap between the proximal end of the rotatable tip and the distalmost edge of the outer member to permanently expose a portion of the rotatable shaft through the fixed gap for the aspiration of particles, the rotatable tip having a longitudinal axis and mounted to the distal region of the rotatable shaft for rotation about its longitudinal axis upon rotation of the rotatable shaft, the rotatable shaft including a guidewire lumen for receiving a guidewire to enable over the wire insertion of the device.
A system for dynamically adjusting an operation of a magnetostrictive position sensor, the system comprising: a controller configured to: receive an electrical signal from the magnetostrictive position sensor that includes a response pulse; identify factory calibration data that correlates initial recorded values of amplitudes (410, 412) of response pulses (402, 404) received from the magnetostrictive position sensor at different locations (d1, d2) of a position magnet along a length of the magnetostrictive position sensor; identify an initial amplitude (410, 412) of the response pulse based on the factory calibration data; calculate a difference between the initial amplitude (410, 412) and an amplitude of the response pulse; determine if the difference is greater than a threshold value; and generate an alert in response to determining that the difference is greater than the threshold value. receive an electrical signal from the magnetostrictive position sensor that includes a response pulse; identify factory calibration data that correlates initial recorded values of amplitudes (410, 412) of response pulses (402, 404) received from the magnetostrictive position sensor at different locations (d1, d2) of a position magnet along a length of the magnetostrictive position sensor; identify an initial amplitude (410, 412) of the response pulse based on the factory calibration data; calculate a difference between the initial amplitude (410, 412) and an amplitude of the response pulse; determine if the difference is greater than a threshold value; and generate an alert in response to determining that the difference is greater than the threshold value.
A microfluidic device for separating constituents of a fluid sample, wherein the microfluidic device comprises: (a) an elongated flow path; and (b) a separation medium in the flow path, wherein the separation medium comprises a polymeric gel such that the fluid sample having one or more constituents of interest traverses the separation medium as the fluid sample flows through the flow path, and functional groups co-polymerized with the separation medium that covalently bond to one or more constituents of interest in the separation medium upon application of an applied stimulus. (a) an elongated flow path; and (b) a separation medium in the flow path, wherein the separation medium comprises a polymeric gel such that the fluid sample having one or more constituents of interest traverses the separation medium as the fluid sample flows through the flow path, and functional groups co-polymerized with the separation medium that covalently bond to one or more constituents of interest in the separation medium upon application of an applied stimulus.
A polyester-based film for laminating a metal plate formed from a composition containing a polyester-based resin mainly consisting of ethylene terephthalate, wherein the polyester-based resin has a total content of ethylene terephthalate units and diethylene terephthalate units of not less than 95% by mol and not more than 98% by mol, and a content of a unit other than ethylene terephthalate units and diethylene terephthalate units of 2 to 5% by mol, in 100% by mol of the total constituent units of the polyester, wherein the unit other than ethylene terephthalate and diethylene terephthalate units contains an ethylene isophthalate unit, and the content of indeterminate inorganic fine particles is 0.5 to 2.0% by mass, in 100% by mass of the composition, and wherein the polyester-based resin has an intrinsic viscosity of 0.5 to 0.7 dl/g when measured according to the method described in the description.
A package for products which contain mercury comprising: sorbent material effective for capturing and stabilizing mercury, the sorbent material comprising unstabilized nano-Se particles, and a carrier material which forms a part of a package, the sorbent material being carried on the carrier material. sorbent material effective for capturing and stabilizing mercury, the sorbent material comprising unstabilized nano-Se particles, and a carrier material which forms a part of a package, the sorbent material being carried on the carrier material.
A method for updating a location by a system comprising: an user equipment, UE, supporting a plurality of radio access technologies, a base station of a Long Term Evolution, LTE, network, an access point being a base station of a Wi-Fi network, a virtual base station connected to the base station of the Wi-Fi network and a Mobility Management Entity, MME, the method characterized by comprising: receiving, at the UE, an internet protocol, IP, address of the virtual base station of a long term evolution, LTE, from the base station of the LTE network when a handover is determined from the LTE network to the Wi-Fi network, the virtual base station connected to the access point of the Wi-Fi network; releasing, from the UE, a radio resource connection with the base station of the LTE network; accessing, from the UE after the releasing, the base station of the Wi-Fi network using a second radio access technology, the UE being capable of simultaneously accessing different networks using a first radio access technology and the second radio access technology; establishing, from the UE, a layer 3, L3, tunnel with the virtual base station via the base station of the Wi-Fi network using the received IP address; transmitting, from the UE, an updated location of the UE to the virtual base station through the established L3 tunnel; registering (S440, S445), via the virtual base station, the updated location of the UE in the MME the updated location of the UE is used by the MME to determine whether to change a serving MME of the UE, and receiving, at the UE, a paging message from the virtual base station to which the L3 tunnel is established, if the MME requests to the virtual base station that the virtual base station performs paging from the determined serving MME. receiving, at the UE, an internet protocol, IP, address of the virtual base station of a long term evolution, LTE, from the base station of the LTE network when a handover is determined from the LTE network to the Wi-Fi network, the virtual base station connected to the access point of the Wi-Fi network; releasing, from the UE, a radio resource connection with the base station of the LTE network; accessing, from the UE after the releasing, the base station of the Wi-Fi network using a second radio access technology, the UE being capable of simultaneously accessing different networks using a first radio access technology and the second radio access technology; establishing, from the UE, a layer 3, L3, tunnel with the virtual base station via the base station of the Wi-Fi network using the received IP address; transmitting, from the UE, an updated location of the UE to the virtual base station through the established L3 tunnel; registering (S440, S445), via the virtual base station, the updated location of the UE in the MME the updated location of the UE is used by the MME to determine whether to change a serving MME of the UE, and receiving, at the UE, a paging message from the virtual base station to which the L3 tunnel is established, if the MME requests to the virtual base station that the virtual base station performs paging from the determined serving MME.
A method for differentiating hPS cells to hepatocyte-like cells, the method comprising i) differentiating hPS cells towards cells of the definitive endoderm in a 2D environment; ii) seeding the DE cells in a 3 dimensional bioreactor; and iii) further differentiating the DE cells seeded in the bioreactor into hepatocyte-like cells, wherein the hepatocyte-like cells express the hepatic markers albumin, CYP1A2, CYP2C9, CYP3A4, CYP7A1, TAT and UGT2B7. i) differentiating hPS cells towards cells of the definitive endoderm in a 2D environment; ii) seeding the DE cells in a 3 dimensional bioreactor; and iii) further differentiating the DE cells seeded in the bioreactor into hepatocyte-like cells, wherein the hepatocyte-like cells express the hepatic markers albumin, CYP1A2, CYP2C9, CYP3A4, CYP7A1, TAT and UGT2B7.
A voltage detection and measurement circuit, comprising: a first Zener diode configured to be operatively coupled to an AC power input line; a second Zener diode configured to be operatively coupled to a reference voltage line that is different to the AC power input line, wherein the first and second Zener diodes (22, 24) are configured to pass portions of input AC voltage (94, 96) from the AC power input line to generate output waveforms; an optocoupler coupled to the first and second Zener diodes (22, 24) to receive the output waveforms from the first and second Zener diodes to detect the input AC voltage; and a processing circuit configured to receive the output waveforms from the optocoupler and to determine presence and/or magnitude of the input AC voltage based upon the output waveforms, characterized in that: the processing circuit is further configured to generate sampled output waveforms (102, 104) from the received output waveforms and to rectify the sampled output waveforms (102, 104) for generating reconstructed waveforms (106, 108), and wherein the reconstructed waveforms (106, 108) are indication of the magnitude of the input AC voltage (94, 96). a first Zener diode configured to be operatively coupled to an AC power input line; a second Zener diode configured to be operatively coupled to a reference voltage line that is different to the AC power input line, wherein the first and second Zener diodes (22, 24) are configured to pass portions of input AC voltage (94, 96) from the AC power input line to generate output waveforms; an optocoupler coupled to the first and second Zener diodes (22, 24) to receive the output waveforms from the first and second Zener diodes to detect the input AC voltage; and a processing circuit configured to receive the output waveforms from the optocoupler and to determine presence and/or magnitude of the input AC voltage based upon the output waveforms, characterized in that: the processing circuit is further configured to generate sampled output waveforms (102, 104) from the received output waveforms and to rectify the sampled output waveforms (102, 104) for generating reconstructed waveforms (106, 108), and wherein the reconstructed waveforms (106, 108) are indication of the magnitude of the input AC voltage (94, 96).
Shaft for a rotating electrical machine comprising at least one housing element (22a, 22b, 22c) extending in an axial direction and leading to the outside in a radial direction, one side of the housing element leading to the outside in an axial direction, the housing element being able to receive at least one insulated electrical conductor (21, 37a, 37b) and a spacer (25, 35), wherein the housing element (22a, 22b, 22c) is in the form of a groove whose cross-section perpendicular to the axial direction comprises a first portion (23a, 23b, 23c) that is substantially rectangular in shape leading to a second portion (24a, 24b, 24c) that is substantially trapezoidal in shape, the second portion leading to the outside in a radial direction, the second portion (24a, 24b, 24c) that is substantially trapezoidal in shape including a radially outer small base and a large base, the small base being disposed outside the large base in the radial direction such that an insulated electrical conductor can be inserted into the first portion (23a, 23b, 23c) in a radial direction of the shaft through the second portion (24a, 24b, 24c), characterised in that the first portion is configured to receive a plurality of insulated electrical conductors (21, 37a, 37b) so as to fill the first portion, the size of the small base being determined such that a single insulated electrical conductor (21, 37a, 37b) can be inserted into the first portion (23a, 23b, 23c) in a radial direction of the shaft through the second portion (24a, 24b, 24c).
A system, comprising: hardware processing circuitry; and one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations comprising: receiving measurements of dynamic feature data for a geographic region; determining static features for the geographic region; generating a predicted background noise loudness in the geographic region during a defined time period using a model, the model trained on training data including historical measurements of the dynamic feature data for a plurality of regions over a plurality of training time periods and static features of the plurality of regions, wherein the geographic region is absent from the plurality of regions, wherein the defined time period occurs after the plurality of training time periods; and characterised in that the operations further comprise: determining a selected route for an aerial vehicle based on the predicted background noise loudness in the geographic region. hardware processing circuitry; and one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations comprising: receiving measurements of dynamic feature data for a geographic region; determining static features for the geographic region; receiving measurements of dynamic feature data for a geographic region; determining static features for the geographic region; generating a predicted background noise loudness in the geographic region during a defined time period using a model, the model trained on training data including historical measurements of the dynamic feature data for a plurality of regions over a plurality of training time periods and static features of the plurality of regions, wherein the geographic region is absent from the plurality of regions, wherein the defined time period occurs after the plurality of training time periods; and characterised in that the operations further comprise: determining a selected route for an aerial vehicle based on the predicted background noise loudness in the geographic region.
A method for washing laundry in a washing machine, wherein the washing machine includes a tub and a drum disposed inside the tub, the method comprising: supplying wash water mixed with detergent into the tub and spraying wash water without detergent through a spray nozzle, provided at a gasket, into the drum during supplying water mixed with detergent until wash water in the tub is filled up to a target water level; rotating the drum, circulating the wash water and spraying the circulated wash water through a circulation nozzle (127, 127'), provided at the gasket, into the drum for soaking the laundry; spraying wash water without detergent through the spray nozzle until wash water in the tub is filled up to the target water level; balancing the laundry by repeating acceleration and deceleration of the drum in a state where wash water is filled in the tub; performing filtration washing by rotating the drum for moving a laundry against an inner wall of the drum, circulating the wash water in the tub, and spraying the circulated wash water through the circulation nozzle (127, 127') into the drum; and draining the wash water from the tub. supplying wash water mixed with detergent into the tub and spraying wash water without detergent through a spray nozzle, provided at a gasket, into the drum during supplying water mixed with detergent until wash water in the tub is filled up to a target water level; rotating the drum, circulating the wash water and spraying the circulated wash water through a circulation nozzle (127, 127'), provided at the gasket, into the drum for soaking the laundry; spraying wash water without detergent through the spray nozzle until wash water in the tub is filled up to the target water level; balancing the laundry by repeating acceleration and deceleration of the drum in a state where wash water is filled in the tub; performing filtration washing by rotating the drum for moving a laundry against an inner wall of the drum, circulating the wash water in the tub, and spraying the circulated wash water through the circulation nozzle (127, 127') into the drum; and draining the wash water from the tub.
A circuit arrangement (400/500) comprising: a channel estimation circuit configured to acquire a channel estimate comprising a plurality of channel samples based on a range of time and frequency locations of a received signal; a first calculation circuit configured to calculate a first time and frequency correlation product of the channel estimate and a second calculation circuit configured to calculate a second time and frequency correlation product of the channel estimate; a time offset circuit configured to determine a time offset by calculating a first product with the first time and frequency correlation product and the second time and frequency correlation product, isolating a phase component of the first product, and solving the phase component of the first product for the time offset; and a frequency offset circuit configured to determine a frequency offset by calculating a second product with the first time and frequency correlation product and the second time and frequency correlation product, isolating a phase component of the second product, and solving the phase component of the second product for the frequency offset. a channel estimation circuit configured to acquire a channel estimate comprising a plurality of channel samples based on a range of time and frequency locations of a received signal; a first calculation circuit configured to calculate a first time and frequency correlation product of the channel estimate and a second calculation circuit configured to calculate a second time and frequency correlation product of the channel estimate; a time offset circuit configured to determine a time offset by calculating a first product with the first time and frequency correlation product and the second time and frequency correlation product, isolating a phase component of the first product, and solving the phase component of the first product for the time offset; and a frequency offset circuit configured to determine a frequency offset by calculating a second product with the first time and frequency correlation product and the second time and frequency correlation product, isolating a phase component of the second product, and solving the phase component of the second product for the frequency offset.
A connecting device allowing a releasable connection between a bracelet strap and a folding clasp comprising at least two articulated arms and two fastening portions capable of reversibly cooperating with each other, the connecting device comprising a first connecting piece capable of being secured to the free end of the bracelet strap and a second connecting piece capable of being mounted on the fastening portion, said first connecting piece and said second connecting piece being configured to reversibly cooperate with each other between a first, open position allowing separation of the first connecting piece and the second connecting piece and a second, closed position in which said first connecting piece and said second connecting piece are locked together, said first connecting piece comprising a fastening portion capable of being mounted on the end of the bracelet strap and a first locking portion capable of cooperating with said second connecting piece, and said second connecting piece comprising a connection portion capable of being mounted on the fastening portion of the folding clasp, said second connecting piece further comprising a second locking portion capable of cooperating with said first locking portion of the first connecting piece, characterized in that said second locking portion of the second connecting piece has a hook form with an opening, capable of allowing the exit of said first locking portion from the first connecting piece in the first, open position and capable of retaining the first locking portion of the first connecting piece in the second, closed position.