mhurhangee/ep-ind-claims huggingface dataset:
A surgical device, comprising: a flexible shaft configured to be advanced through a flexible scoping device and to have a ligating clip biased in a closed position removably disposed therein, the shaft comprising an outer tube with jaws at a distal end thereof, the jaws configured to move between open and closed positions, an inner tube disposed within the outer tube and configured to be movable to move the jaws between the open and closed positions, and a clip applying mechanism disposed within the inner tube and configured to be movable to advance the ligating clip beyond a distal end of the shaft, wherein the ligating clip is configured to move from the closed position to an open position and resiliently back to a closed position and clip tissue when advanced distally and when the jaws are in a closed position, wherein the jaws are configured to engage the ligating clip when the ligating clip is distally advanced through the device to help pry open the ligating clip to allow the ligating clip to be positioned around the tissue to be ligated. a flexible shaft configured to be advanced through a flexible scoping device and to have a ligating clip biased in a closed position removably disposed therein, the shaft comprising an outer tube with jaws at a distal end thereof, the jaws configured to move between open and closed positions, an inner tube disposed within the outer tube and configured to be movable to move the jaws between the open and closed positions, and a clip applying mechanism disposed within the inner tube and configured to be movable to advance the ligating clip beyond a distal end of the shaft, wherein the ligating clip is configured to move from the closed position to an open position and resiliently back to a closed position and clip tissue when advanced distally and when the jaws are in a closed position, wherein the jaws are configured to engage the ligating clip when the ligating clip is distally advanced through the device to help pry open the ligating clip to allow the ligating clip to be positioned around the tissue to be ligated. an outer tube with jaws at a distal end thereof, the jaws configured to move between open and closed positions, an inner tube disposed within the outer tube and configured to be movable to move the jaws between the open and closed positions, and a clip applying mechanism disposed within the inner tube and configured to be movable to advance the ligating clip beyond a distal end of the shaft, wherein the ligating clip is configured to move from the closed position to an open position and resiliently back to a closed position and clip tissue when advanced distally and when the jaws are in a closed position, wherein the jaws are configured to engage the ligating clip when the ligating clip is distally advanced through the device to help pry open the ligating clip to allow the ligating clip to be positioned around the tissue to be ligated.
A fitting for suspending a sliding door leaf, said fitting comprising a base plate having means (8, 9) for attaching said base plate to a door leaf, support means attached to said base plate for allowing said fitting to be guided by a rail along a sliding path, and a shank comprising at least one part (5b, 5d) extending from a lateral end of said base plate at an angle (α, β) relative a plane of the base plate, wherein said fitting further comprises an anti-lifting device, in the shape of an arm, attached to a distal zone of the part (5b, 5d) of said shank and being moveable between an idle position, in which the fitting is enabled to be removed from said rail, and a locked position, in which the fitting is prevented from being removed from said rail, by a rotational movement of the anti-lifting device about an axis being substantially perpendicular to a plane of said shank part (5b, 5d), 2. wherein the anti-lifting device and the shank are arranged such that the anti-lifting device is rotatable about an axis substantially parallel to the sliding path of the fitting when the fitting is attached to the sliding door leaf, wherein the distal end of the anti-lifting device is provided with a catch member in the form of a ridge for engaging with a hook of a self-closing mechanism, and wherein, when in use with a rail, when the anti-lifting device is in the locked position, a first part, which acts to prevent the door leaf from being tilted, of the distal part of the anti-lifting device is arranged below the guiding rail and below the support means, while a second part of said distal part is forming the ridge. wherein said fitting further comprises an anti-lifting device, in the shape of an arm, attached to a distal zone of the part (5b, 5d) of said shank and being moveable between an idle position, in which the fitting is enabled to be removed from said rail, and a locked position, in which the fitting is prevented from being removed from said rail, by a rotational movement of the anti-lifting device about an axis being substantially perpendicular to a plane of said shank part (5b, 5d), 2. wherein the anti-lifting device and the shank are arranged such that the anti-lifting device is rotatable about an axis substantially parallel to the sliding path of the fitting when the fitting is attached to the sliding door leaf, wherein the distal end of the anti-lifting device is provided with a catch member in the form of a ridge for engaging with a hook of a self-closing mechanism, and wherein, when in use with a rail, when the anti-lifting device is in the locked position, a first part, which acts to prevent the door leaf from being tilted, of the distal part of the anti-lifting device is arranged below the guiding rail and below the support means, while a second part of said distal part is forming the ridge.
A fuel injector for a gas turbine engine, comprising: a feed arm with a conduit defined therein, the conduit extending between an inlet end and an outlet end; and a plunger disposed within the conduit and movable between a plunger first position and a plunger second position, wherein the plunger and conduit define between one another a flow area that is smaller in the plunger second position than in the plunger first position. a feed arm with a conduit defined therein, the conduit extending between an inlet end and an outlet end; and a plunger disposed within the conduit and movable between a plunger first position and a plunger second position, wherein the plunger and conduit define between one another a flow area that is smaller in the plunger second position than in the plunger first position.
A method for operating a non-volatile storage device, the method comprising: performing a first erase of a group of non-volatile storage elements using a first erase voltage, the non-volatile storage elements have a threshold voltage distribution as a result of the first erase; characterised by determining a reference voltage within the threshold voltage distribution; determining a second erase voltage based on the first erase voltage and the reference voltage; and performing a second erase of the group of non-volatile storage elements using the second erase voltage. performing a first erase of a group of non-volatile storage elements using a first erase voltage, the non-volatile storage elements have a threshold voltage distribution as a result of the first erase; characterised by determining a reference voltage within the threshold voltage distribution; determining a second erase voltage based on the first erase voltage and the reference voltage; and performing a second erase of the group of non-volatile storage elements using the second erase voltage.
Device for manufacturing containers by means of blow moulding, comprising at least one blow mould which can be tempered and held by a mould holder, namely with a bottom insert held by a mould-base support and/or mould inserts held by mould-half supports, characterized by an inductive heater which indirectly inductively heats the bottom insert and/or mould inserts, wherein the mould holder comprises a plurality of inductors (25, 33, 43), which are spaced apart from each other, namely in an arrangement in a two-dimensional matrix with a plurality of inductors in the circumferential direction and with a plurality of inductors in the longitudinal direction of the mould holder.
A method for the identification without shaft encoder of electrical equivalent circuit parameters (03, 05, 15) of a three-phase synchronous motor characterized in that comprising at least the steps: - standstill position search of the rotor so that the d- flux axial direction of the rotor flux of the rotor is aligned with respect to the α- axial direction, which describes a real part of a complex two coordinate system of the total current, of the stator; - frequency response measurement by supplying test signal voltage ( U 1d) in the d- flux axial direction of the synchronous motor, wherein the q-transverse axial direction designed as a transverse flow axis, which is orthogonal with respect to the d- flux axial direction, remains free of current; - measuring signal current measurement ( I 1d) of the d- flux axial direction of the synchronous motor; - identification of equivalent circuit parameters (03, 05, 15) of the synchronous motor based on the digitally recorded time samples of the test signal voltage ( U 1d) and on the measuring signal current ( I 1d) in the d- flux axial direction by analyzing the frequency response of the measured transfer function with knowledge of the transfer function in the frequency range of an equivalent circuit diagram of a synchronous motor by means of parameter extraction; wherein the supplying of a test signal into the synchronous motor takes place in such a manner that the rotor remains free of torque. - standstill position search of the rotor so that the d- flux axial direction of the rotor flux of the rotor is aligned with respect to the α- axial direction, which describes a real part of a complex two coordinate system of the total current, of the stator; - frequency response measurement by supplying test signal voltage ( U 1d) in the d- flux axial direction of the synchronous motor, wherein the q-transverse axial direction designed as a transverse flow axis, which is orthogonal with respect to the d- flux axial direction, remains free of current; - measuring signal current measurement ( I 1d) of the d- flux axial direction of the synchronous motor; - identification of equivalent circuit parameters (03, 05, 15) of the synchronous motor based on the digitally recorded time samples of the test signal voltage ( U 1d) and on the measuring signal current ( I 1d) in the d- flux axial direction by analyzing the frequency response of the measured transfer function with knowledge of the transfer function in the frequency range of an equivalent circuit diagram of a synchronous motor by means of parameter extraction;
A modified garnet structure having a composition represented by the formula Bi(Y,Ca) 2 Fe 4.2 M I 0.4 M II 0.4 O 12, M I being on the octahedral site of the garnet and selected from the group consisting of: In, Zn, Mg, Zr, Sn, Ta, Nb, Fe, Ti, Sb, and combinations thereof, and M II being on the tetrahedral site of the garnet and selected from the group consisting of: Ga, W, Mo, Ge, Si, and combinations thereof.
A method for communication in a wireless network, comprising: providing (610, 620) information on a first downlink channel from a first sector, and information on a second downlink channel from a second sector, wherein the first downlink channel and the second downlink channel are each carried on a first carrier frequency; receiving feedback information corresponding to the downlink channel state for the first downlink channel at the first sector; and receiving feedback information corresponding to the downlink channel state for the second downlink channel at the second sector, wherein the feedback information corresponding to the downlink channel state for the first downlink channel and the feedback information corresponding to the downlink channel state for the second downlink channel are each provided on a first uplink carrier frequency and are jointly encoded on an uplink channel on the first uplink carrier frequency. providing (610, 620) information on a first downlink channel from a first sector, and information on a second downlink channel from a second sector, wherein the first downlink channel and the second downlink channel are each carried on a first carrier frequency; receiving feedback information corresponding to the downlink channel state for the first downlink channel at the first sector; and receiving feedback information corresponding to the downlink channel state for the second downlink channel at the second sector, wherein the feedback information corresponding to the downlink channel state for the first downlink channel and the feedback information corresponding to the downlink channel state for the second downlink channel are each provided on a first uplink carrier frequency and are jointly encoded on an uplink channel on the first uplink carrier frequency.
A method, comprising: capturing heart rate data for a user with a heart rate sensor that is coupled with a mobile device; monitoring an activity state of the user from activity data captured by the mobile device; detecting a constant activity state of the user for a predetermined period of time; inferring prior heart rate data for the user from the heart rate data captured during a period in which the user remains in the constant activity state, wherein inferring prior heart rate data for the user comprises stopping the capture of new heart rate data for the user by the heart rate sensor during the period in which the user remains in the constant activity state; and providing the inferred prior heart rate data, as current heart rate data, to a heart rate calculator during the period in which the user remains in the constant activity state, wherein the heart rate calculator calculates a heart rate of the user. capturing heart rate data for a user with a heart rate sensor that is coupled with a mobile device; monitoring an activity state of the user from activity data captured by the mobile device; detecting a constant activity state of the user for a predetermined period of time; inferring prior heart rate data for the user from the heart rate data captured during a period in which the user remains in the constant activity state, wherein inferring prior heart rate data for the user comprises stopping the capture of new heart rate data for the user by the heart rate sensor during the period in which the user remains in the constant activity state; and providing the inferred prior heart rate data, as current heart rate data, to a heart rate calculator during the period in which the user remains in the constant activity state, wherein the heart rate calculator calculates a heart rate of the user.
A process for preventing precipitation of nitrohydroxyaromatic salts out of the nitrated crude products obtained in the nitration of aromatic compounds after alkaline scrubbing, which comprises contacting the nitrated crude products with an acidic ion exchanger.
Switch device for a transfer point between a first and a second rotatable star wheel (20, 30), at which transfer point objects (B1-B8) can be selectively transferred from the first star wheel to the second star wheel, comprising: - a base at least in the region of the transfer point for supporting the objects (B1-B8) transported by the star wheels; - a first and a second wall portion (40, 50), which extend, in the region of the transfer point, so as to substantially follow the outer periphery of the first and second star wheels (20, 30), respectively, and are movable in the vertical direction between a first position, in which they extend beyond the base, and a second position, in which they do not extend beyond the base; - at least one drive mechanism for driving the movement of the wall portions (40, 50); and - a control means for actuating the at least one drive mechanism; the first and second wall portions (40, 50) each being individually vertically movable by the at least one drive mechanism, characterized in that the first and second wall portions (40, 50) are each divided into at least two wall portions (42, 44, 46, 52, 54, 56) along the extension thereof, which at least two wall portions are each individually vertically movable by the at least one drive mechanism. - a base at least in the region of the transfer point for supporting the objects (B1-B8) transported by the star wheels; - a first and a second wall portion (40, 50), which extend, in the region of the transfer point, so as to substantially follow the outer periphery of the first and second star wheels (20, 30), respectively, and are movable in the vertical direction between a first position, in which they extend beyond the base, and a second position, in which they do not extend beyond the base; - at least one drive mechanism for driving the movement of the wall portions (40, 50); and - a control means for actuating the at least one drive mechanism; the first and second wall portions (40, 50) each being individually vertically movable by the at least one drive mechanism, characterized in that the first and second wall portions (40, 50) are each divided into at least two wall portions (42, 44, 46, 52, 54, 56) along the extension thereof, which at least two wall portions are each individually vertically movable by the at least one drive mechanism.
A hybrid power system for an aircraft comprising: a gas turbine connected to a generator for generating electrical power; an electrical storage device configured to output electrical power; a propulsor; a motor operable to drive the propulsor using electrical power from either or both of the generator and the electrical storage device; and a controller which, to meet a propulsor power demand, is configured to control (i) an amount of electrical power generated by the generator, and (ii) an amount of electrical power outputted by the electrical storage device; wherein, in a first control mode coinciding with an increase in the propulsor power demand sufficient to cause a transient excursion of the operating point of a compressor of the gas turbine from a steady state working line, the controller is further configured to temporarily increase the amount of electrical power outputted by the electrical storage device such that the transient excursion is reduced; characterised in that: the generator is configured to provide electrical power to the motor at a first DC voltage and first DC current, the electrical storage device is configured to provide electrical power to the motor at a second DC voltage and a second DC current, and the controller is configured to control the first and second DC voltages using DC voltage droop control by setting a droop percentage or droop virtual resistance and setting a transient response of the controller such that the second DC current increases at a rate faster than the first DC current. a gas turbine connected to a generator for generating electrical power; an electrical storage device configured to output electrical power; a propulsor; a motor operable to drive the propulsor using electrical power from either or both of the generator and the electrical storage device; and a controller which, to meet a propulsor power demand, is configured to control (i) an amount of electrical power generated by the generator, and (ii) an amount of electrical power outputted by the electrical storage device; wherein, in a first control mode coinciding with an increase in the propulsor power demand sufficient to cause a transient excursion of the operating point of a compressor of the gas turbine from a steady state working line, the controller is further configured to temporarily increase the amount of electrical power outputted by the electrical storage device such that the transient excursion is reduced; characterised in that: the generator is configured to provide electrical power to the motor at a first DC voltage and first DC current, the electrical storage device is configured to provide electrical power to the motor at a second DC voltage and a second DC current, and the controller is configured to control the first and second DC voltages using DC voltage droop control by setting a droop percentage or droop virtual resistance and setting a transient response of the controller such that the second DC current increases at a rate faster than the first DC current.
A method for processing a biocomponent feedstock, comprising: exposing a feedstock comprising at least 25 wt% triglycerides to a first catalyst in the presence of hydrogen under effective deoxygenation conditions for forming an at least partially deoxygenated effluent, the at least partially deoxygenated effluent having an oxygen content that is at least 40% less than an oxygen content of the feedstock, the catalyst comprising a supported Group VI metal catalyst wherein the catalyst comprises zinc and molybdenum, zinc and tungsten, magnesium and molybdenum, or magnesium and tungsten; separating the at least partially deoxygenated effluent to form a gas phase effluent and a liquid phase effluent, the liquid phase effluent comprising at least 15 wt% olefins; exposing the liquid phase effluent to an acidic catalyst under effective conditions for oligomerization of at least a portion of the olefins to form a product effluent; and fractionating the product effluent to form at least a diesel product fraction and a lubricant base oil product fraction; wherein the diesel product fraction has an olefin to paraffin ratio of at least 0.04. exposing a feedstock comprising at least 25 wt% triglycerides to a first catalyst in the presence of hydrogen under effective deoxygenation conditions for forming an at least partially deoxygenated effluent, the at least partially deoxygenated effluent having an oxygen content that is at least 40% less than an oxygen content of the feedstock, the catalyst comprising a supported Group VI metal catalyst wherein the catalyst comprises zinc and molybdenum, zinc and tungsten, magnesium and molybdenum, or magnesium and tungsten; separating the at least partially deoxygenated effluent to form a gas phase effluent and a liquid phase effluent, the liquid phase effluent comprising at least 15 wt% olefins; exposing the liquid phase effluent to an acidic catalyst under effective conditions for oligomerization of at least a portion of the olefins to form a product effluent; and fractionating the product effluent to form at least a diesel product fraction and a lubricant base oil product fraction; wherein the diesel product fraction has an olefin to paraffin ratio of at least 0.04.
Process for the preparation of aminaphtone, comprising the following steps: a) Epoxidation of the menadione 1 to provide the epoxide 2 b) Acidification of the epoxide 2 to provide hydroxynaphthoquinone 3 c) Esterification between the hydroxynaphthoquinone 3 and the 4-aminobenzoyl chloride of formula to obtain the compound 4 d) Reduction of the compound 4 in the presence of a reducing agent, in water to obtain the aminaphtone. a) Epoxidation of the menadione 1 to provide the epoxide 2 b) Acidification of the epoxide 2 to provide hydroxynaphthoquinone 3 c) Esterification between the hydroxynaphthoquinone 3 and the 4-aminobenzoyl chloride of formula to obtain the compound 4 d) Reduction of the compound 4 in the presence of a reducing agent, in water to obtain the aminaphtone.