mhurhangee/ep-ind-claims huggingface dataset:
A well diverter assembly, comprising: a diverter having a deflection surface; and an annular seal device externally disposed on the well diverter assembly so as to seal an annulus when the device is arranged therein, the annular seal device being longitudinally displaceable on the well diverter assembly in response to a pressure differential being applied across the annular seal device when in the annulus. a diverter having a deflection surface; and an annular seal device externally disposed on the well diverter assembly so as to seal an annulus when the device is arranged therein, the annular seal device being longitudinally displaceable on the well diverter assembly in response to a pressure differential being applied across the annular seal device when in the annulus.
An ultrasound diagnostic apparatus comprising: an ultrasound probe; an imaging unit configured to transmit and receive an ultrasound beam to and from a subject using the ultrasound probe and convert a received signal output from the ultrasound probe into an image to generate an ultrasound image of the subject, according to set imaging conditions, the ultrasound image comprising a frame; a part determination unit configured to determine an imaging part of the subject using the ultrasound image generated by the imaging unit, thereby obtaining determination result indicative of the imaging part that has been captured in the frame; a determination result storage unit configured to store determination results obtained by the part determination unit, the determination results corresponding to a plurality of frames, whereby Nf determination results corresponding to Nf frames are stored for one imaging part in the determination result storage unit; and a determination result integration unit configured to integrate the determination results corresponding to the plurality of frames stored in the determination result storage unit and output an integrated determination result, whereby an imaging part indicated by the largest number of determination results among the Nf determination results is output as the integrated determination result. an ultrasound probe; an imaging unit configured to transmit and receive an ultrasound beam to and from a subject using the ultrasound probe and convert a received signal output from the ultrasound probe into an image to generate an ultrasound image of the subject, according to set imaging conditions, the ultrasound image comprising a frame; a part determination unit configured to determine an imaging part of the subject using the ultrasound image generated by the imaging unit, thereby obtaining determination result indicative of the imaging part that has been captured in the frame; a determination result storage unit configured to store determination results obtained by the part determination unit, the determination results corresponding to a plurality of frames, whereby Nf determination results corresponding to Nf frames are stored for one imaging part in the determination result storage unit; and a determination result integration unit configured to integrate the determination results corresponding to the plurality of frames stored in the determination result storage unit and output an integrated determination result, whereby an imaging part indicated by the largest number of determination results among the Nf determination results is output as the integrated determination result.
A frame (1, 101, 201) for a conveyor belt system, which comprises a conveyor belt circulating in a longitudinal direction, for supporting a conveyor belt system on the ground assembled for operation, comprising - at least two carrier elements (2, 102) made of a plate-like material, the principal planes whereof extend at right angles to the longitudinal direction, wherein one carrier element (2, 102) comprises a seating area disposed at the upper end, - at least two distance elements, which are each disposed parallel to the longitudinal direction, determine a spacing of the at least two carrier elements (2, 102), - at least one support element to at least one machine foot facing the ground, via which machine foot the frame (1, 101, 201) is supported on the ground, wherein the at least one support element is connected with a distance element, - at least two first mechanical interface elements, which run parallel to the distance elements, preferably extend over at least two carrier elements (2, 102) and are fixed lying on the seating areas of the at least two carrier elements (2, 102), wherein the seating area is largely aligned horizontally, - at least two fixing elements, by means of which the first mechanical interface elements can be fixed to the seating areas. characterised in that each of the at least two distance elements is arranged between the at least two carrier elements (2, 102), and in that the frame (1, 101, 201) is designed such that the dimensions in the two directions of the principal planes of the at least two carrier elements (2, 102) determine the width and installation height of the frame (1, 101, 201) in that the width and height of the frame (1, 101, 201) can be adapted flexibly to the width of the conveyor belt system and its installation height by adapting the dimensions of the carrier elements (2,102) in the directions of the principal plane. - at least two carrier elements (2, 102) made of a plate-like material, the principal planes whereof extend at right angles to the longitudinal direction, wherein one carrier element (2, 102) comprises a seating area disposed at the upper end, - at least two distance elements, which are each disposed parallel to the longitudinal direction, determine a spacing of the at least two carrier elements (2, 102), - at least one support element to at least one machine foot facing the ground, via which machine foot the frame (1, 101, 201) is supported on the ground, wherein the at least one support element is connected with a distance element, - at least two first mechanical interface elements, which run parallel to the distance elements, preferably extend over at least two carrier elements (2, 102) and are fixed lying on the seating areas of the at least two carrier elements (2, 102), wherein the seating area is largely aligned horizontally, - at least two fixing elements, by means of which the first mechanical interface elements can be fixed to the seating areas.
A clutch-less hybrid squirrel cage/permanent magnet motor comprising: a motor housing; a stator fixed to the motor housing and producing a rotating stator magnetic field; a motor shaft rotatably connected to the motor housing and extending from at least one end of the motor housing for attachment to a load; a squirrel cage inner rotor residing coaxial rotationally fixed to the motor shaft and including: a second rotor core; and second squirrel cage bars embedded in the second rotor core; characterized in that it further comprises: a hybrid squirrel cage/permanent magnet outer rotor residing between the stator and the squirrel cage inner rotor and coaxial with the motor shaft and including: a first rotor core; a number N of angularly spaced apart permanent magnets embedded in the first rotor core; first squirrel cage bars embedded in the first rotor core; wherein the hybrid squirrel cage/permanent magnet outer rotor is neither mechanically rotationally coupled to the motor shaft nor to the squirrel cage inner rotor during any operation, and wherein the hybrid squirrel cage/permanent magnet outer rotor is configured to rotate independently of the motor shaft, and to be magnetically rotationally coupled to the squirrel cage inner rotor at synchronous speed. a motor housing; a stator fixed to the motor housing and producing a rotating stator magnetic field; a motor shaft rotatably connected to the motor housing and extending from at least one end of the motor housing for attachment to a load; a squirrel cage inner rotor residing coaxial rotationally fixed to the motor shaft and including: a second rotor core; and second squirrel cage bars embedded in the second rotor core; characterized in that it further comprises: a hybrid squirrel cage/permanent magnet outer rotor residing between the stator and the squirrel cage inner rotor and coaxial with the motor shaft and including: a first rotor core; a number N of angularly spaced apart permanent magnets embedded in the first rotor core; first squirrel cage bars embedded in the first rotor core; wherein the hybrid squirrel cage/permanent magnet outer rotor is neither mechanically rotationally coupled to the motor shaft nor to the squirrel cage inner rotor during any operation, and wherein the hybrid squirrel cage/permanent magnet outer rotor is configured to rotate independently of the motor shaft, and to be magnetically rotationally coupled to the squirrel cage inner rotor at synchronous speed. a second rotor core; and second squirrel cage bars embedded in the second rotor core; a first rotor core; a number N of angularly spaced apart permanent magnets embedded in the first rotor core; first squirrel cage bars embedded in the first rotor core; wherein the hybrid squirrel cage/permanent magnet outer rotor is neither mechanically rotationally coupled to the motor shaft nor to the squirrel cage inner rotor during any operation, and wherein the hybrid squirrel cage/permanent magnet outer rotor is configured to rotate independently of the motor shaft, and to be magnetically rotationally coupled to the squirrel cage inner rotor at synchronous speed.
A method of visualizing a surgical trajectory (32, 101, 42, 46, 47), the method comprising, - receiving 3D imaging information of a region to undergo surgery, - combining the received 3D imaging information with data from an anatomic model repository to obtain a combined map of the region to undergo surgery, the combined map comprising expected positions of anatomical structures (102, 103, 104) in the region to undergo surgery, - receiving the surgical trajectory (32, 101, 42, 46, 47) for the surgery, - characterized in the further steps of: using the combined map and the surgical trajectory for determining positions of intersections (43, 44) of the surgical trajectory (32, 101, 42, 46, 47) with the anatomical structures (102, 103, 104), and - providing the positions of the intersections (43, 44) in a coordinate system aligned with the surgical trajectory (32, 101, 42, 46, 47), wherein the combined map comprises a statistical map of the region to undergo surgery, the statistical map comprising probabilities of a presence of the anatomical structures (102, 103, 104) at positions in the region, wherein the positions of the intersections (43, 44) are provided as sections of the surgical trajectory (32, 101, 42, 46, 47) in which the presence of each of two or more different anatomical structures (102, 103, 104) is only given with a respective probability. - receiving 3D imaging information of a region to undergo surgery, - combining the received 3D imaging information with data from an anatomic model repository to obtain a combined map of the region to undergo surgery, the combined map comprising expected positions of anatomical structures (102, 103, 104) in the region to undergo surgery, - receiving the surgical trajectory (32, 101, 42, 46, 47) for the surgery, - characterized in the further steps of: using the combined map and the surgical trajectory for determining positions of intersections (43, 44) of the surgical trajectory (32, 101, 42, 46, 47) with the anatomical structures (102, 103, 104), and using the combined map and the surgical trajectory for determining positions of intersections (43, 44) of the surgical trajectory (32, 101, 42, 46, 47) with the anatomical structures (102, 103, 104), and - providing the positions of the intersections (43, 44) in a coordinate system aligned with the surgical trajectory (32, 101, 42, 46, 47),
A device comprising a processing system implemented with one or more processor circuits configured to: - control stator voltages (u u, u v, u w) of an induction machine to constitute a voltage space-vector having a fixed direction with respect to a stator of the induction machine, and - estimate at least one of the following based on a waveform of a q-component of the current space-vector: rotation speed of a rotor of the induction machine, a direction of rotation of the rotor, wherein a d-component of the current space-vector is parallel with the voltage space-vector and the q-component of the current space-vector is perpendicular to the voltage space-vector, characterized in that the processing system is further configured control a length of the voltage space-vector to regulate stator currents (iu, iv, iw) of the induction machine to fulfill a condition that a current space-vector constituted by the stator currents has a pre-determined length - control stator voltages (u u, u v, u w) of an induction machine to constitute a voltage space-vector having a fixed direction with respect to a stator of the induction machine, and - estimate at least one of the following based on a waveform of a q-component of the current space-vector: rotation speed of a rotor of the induction machine, a direction of rotation of the rotor,
Method for winding an excitation coil for an electrical machine, comprising: - applying a thermally conductive medium to a winding support, and - winding a coil on the winding support to which the thermally conductive medium has been applied, the thermally conductive medium being a viscous medium, so that the coil wire is immersed into the thermally conductive medium during the winding of the excitation coil onto the winding support, characterized in that a surface of the winding support is roughened in regions of rotor legs, and the coil wire is completely enclosed by the viscous medium after the winding of the individual coil wires, so that the interspaces between the individual coil wires are filled. - applying a thermally conductive medium to a winding support, and - winding a coil on the winding support to which the thermally conductive medium has been applied, the thermally conductive medium being a viscous medium, so that the coil wire is immersed into the thermally conductive medium during the winding of the excitation coil onto the winding support, characterized in that a surface of the winding support is roughened in regions of rotor legs, and the coil wire is completely enclosed by the viscous medium after the winding of the individual coil wires, so that the interspaces between the individual coil wires are filled.
An apparatus for introducing banknotes into a banknote processing device, which apparatus has a base body, a support surface for the placing of a banknote to be introduced on its flat side, at least one lateral positioning flank (12, 13) for the lateral positioning and/or for the exactly fitting connection of the apparatus to the banknote processing device and setting means for the variable setting of the location of the positioning flank (12, 13) transversely to the direction of introduction of the banknote through the apparatus, characterized in that the setting means comprise an adapter element (17, 18) which is placeable on a body part of the positioning flank (12, 13).
A welding system comprising a workpiece to be manufactured, a manufacturing cell supporting welding of a sequence of welds to manufacture the workpiece (22, 24), the manufacturing cell comprising: robotic welding equipment configured to make robotic welds as at least a portion of manufacturing a workpiece (22, 24); characterized in the manufacturing cell comprising a non-robotic welding equipment configured to allow a human operator to make non-robotic welds as at least a portion of manufacturing the workpiece; and a weld sequence controller configured to control timing associated with making the robotic welds and the non-robotic welds as a sequence of welds to manufacture the workpiece (22, 24). robotic welding equipment configured to make robotic welds as at least a portion of manufacturing a workpiece (22, 24); characterized in the manufacturing cell comprising a non-robotic welding equipment configured to allow a human operator to make non-robotic welds as at least a portion of manufacturing the workpiece; and a weld sequence controller configured to control timing associated with making the robotic welds and the non-robotic welds as a sequence of welds to manufacture the workpiece (22, 24).
A method for wireless communications in multiflow High-Speed Downlink Packet Access, HSDPA, comprising: communicatively connecting with a user equipment, UE, a first cell having a first High Speed Shared Control Channel, HS-SCCH, comprising a number of sub-frames and having a first start downlink discontinuous reception, DRX, sub-frame, and a second cell having a second HS-SCCH comprising a number of sub-frames and having a second start DRX sub-frame, wherein there is a sub-frame delay between the first cell and the second cell, characterised by: determining a sub-frame offset between the first cell and the second cell; selecting the first start DRX sub-frame of the first cell to be aligned with the second start DRX sub-frame of the second cell based on the sub-frame offset; transmitting timing information of the first and second start DRX sub-frames to the UE; and signalling the first cell and the second cell of the start DRX sub-frames and corresponding timings. determining a sub-frame offset between the first cell and the second cell; selecting the first start DRX sub-frame of the first cell to be aligned with the second start DRX sub-frame of the second cell based on the sub-frame offset; transmitting timing information of the first and second start DRX sub-frames to the UE; and signalling the first cell and the second cell of the start DRX sub-frames and corresponding timings.
A quick coupling device of the type comprising a cartridge for inserting in a socket of a circuit element for connection to a tube of longitudinal axis, the device comprising a tubular body defining a channel, a retaining washer for retaining the tube in the device, a tubular disconnection pusher that is slidably mounted in the channel and that defines a duct for passing the tube, and anchor means for anchoring the coupling device in the socket, the body having an end provided with a retractable ring that projects axially from said end (2.1) in order to carry internally an annular sealing member of the coupling device and in order to be suitable for being returned against the body in order to release the annular sealing member in the socket, the device being characterized in that the retaining washer is arranged in the retractable ring between the body and the annular sealing member.
A method of making a non-random isobutylene copolymer comprising: (a) providing a reaction mixture to a first reactor comprising isobutylene monomer as well as a Lewis acid polymerization catalyst; (b) polymerizing the reaction mixture in the first reactor while maintaining the first reactor at a temperature above -30°C and utilizing a first reactor residence time of less than 45 minutes to polymerize at least 30% of the isobutylene monomer fed to the first reactor to produce an isobutylene prepolymer in a polymerization mixture; (c) feeding the polymerization mixture to a second reactor along with a comonomer selected from isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene, substituted styrenes, piperylene and C4 to C10 dienes other than isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene or piperylene and optionally additional Lewis acid polymerization catalyst, wherein the molar ratio of isobutylene monomer fed to the first and second reactors to the comonomer is from 60:1 to 1:1; (d) polymerizing the polymerization mixture and comonomer in the second reactor while maintaining the reactor at a temperature above -30°C and utilizing a reactor residence time of less than 45 minutes to produce a non-random crude isobutylene copolymer in a copolymerization mixture; and (e) recovering a purified non-random isobutylene copolymer from the copolymerization mixture having a molecular weight, M n, of from 200 to 20,000 Daltons. (a) providing a reaction mixture to a first reactor comprising isobutylene monomer as well as a Lewis acid polymerization catalyst; (b) polymerizing the reaction mixture in the first reactor while maintaining the first reactor at a temperature above -30°C and utilizing a first reactor residence time of less than 45 minutes to polymerize at least 30% of the isobutylene monomer fed to the first reactor to produce an isobutylene prepolymer in a polymerization mixture; (c) feeding the polymerization mixture to a second reactor along with a comonomer selected from isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene, substituted styrenes, piperylene and C4 to C10 dienes other than isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene or piperylene and optionally additional Lewis acid polymerization catalyst, wherein the molar ratio of isobutylene monomer fed to the first and second reactors to the comonomer is from 60:1 to 1:1; (d) polymerizing the polymerization mixture and comonomer in the second reactor while maintaining the reactor at a temperature above -30°C and utilizing a reactor residence time of less than 45 minutes to produce a non-random crude isobutylene copolymer in a copolymerization mixture; and (e) recovering a purified non-random isobutylene copolymer from the copolymerization mixture having a molecular weight, M n, of from 200 to 20,000 Daltons.
A gear system for a tool string positionable in a wellbore comprising: a source of input rotation; a spur gear drivable by the source of input rotation; an attachment structure coupled at a first end to an output of the spur gear and coupled at a second end to an input shaft of a gearbox, said gear box including: a central sun gear rotationally coupled to and configured to drive an output shaft of the gearbox; a plurality of planet gears disposed in a planet gear carrier disposed around the central sun gear, the planet gear carrier rotationally coupled to and configured to be driven by the input shaft; and a ring gear disposed around the planet gears and planet gear carrier, wherein the ring gear is configured to be held stationary; wherein a rotation of the planet gear carrier is configured to drive a down hole tool at a rotational speed different than a rotational speed of the source of input rotation. a source of input rotation; a spur gear drivable by the source of input rotation; an attachment structure coupled at a first end to an output of the spur gear and coupled at a second end to an input shaft of a gearbox, said gear box including: a central sun gear rotationally coupled to and configured to drive an output shaft of the gearbox; a plurality of planet gears disposed in a planet gear carrier disposed around the central sun gear, the planet gear carrier rotationally coupled to and configured to be driven by the input shaft; and a ring gear disposed around the planet gears and planet gear carrier, wherein the ring gear is configured to be held stationary; wherein a rotation of the planet gear carrier is configured to drive a down hole tool at a rotational speed different than a rotational speed of the source of input rotation. a central sun gear rotationally coupled to and configured to drive an output shaft of the gearbox; a plurality of planet gears disposed in a planet gear carrier disposed around the central sun gear, the planet gear carrier rotationally coupled to and configured to be driven by the input shaft; and a ring gear disposed around the planet gears and planet gear carrier, wherein the ring gear is configured to be held stationary; wherein a rotation of the planet gear carrier is configured to drive a down hole tool at a rotational speed different than a rotational speed of the source of input rotation.