mhurhangee/ep-ind-claims huggingface dataset:
A network element comprising: - at least one switch, which is configurable to connect a subscriber line to a first service line or to a second service line, - wherein the connection of the subscriber line to the first service line or to the second service line is configured via a signal conveyed across the second service line, - wherein the second service line is a connection to a high-speed network, an IP network, an aggregation network, an optical network or a central office, - a control element to control the switch, wherein the control element is coupled to the second service line and the control element is arranged to trigger the switch based on a signal received via the second service line, - wherein the control element is arranged to control several switches. - at least one switch, which is configurable to connect a subscriber line to a first service line or to a second service line, - wherein the connection of the subscriber line to the first service line or to the second service line is configured via a signal conveyed across the second service line, - wherein the second service line is a connection to a high-speed network, an IP network, an aggregation network, an optical network or a central office, - a control element to control the switch, wherein the control element is coupled to the second service line and the control element is arranged to trigger the switch based on a signal received via the second service line, - wherein the control element is arranged to control several switches.
An apparatus for providing a flow of breathing gas for a patient, the apparatus comprising: a housing; a gas flow generator disposed in the housing, the gas flow generator structured to generate the flow of breathing gas; a humidifier disposed in the housing, the humidifier having a water chamber structured to house a volume of water therein, the water chamber having a top opening for providing the volume of water in the chamber; a lid coupled to the housing such that the lid is movable between a first position wherein the lid covers the top opening of the water chamber and a second position wherein the lid does not cover the top opening of the water chamber; a passage which extends from a first end positioned and structured to receive the flow of breathing gas from the gas flow generator to an opposite second end positioned on the lid and structured to expel the flow of breathing gas into the chamber; and an outlet positioned on the housing, the outlet being structured to convey the flow of breathing gas from the chamber out of the housing and, characterized in that the lid is rotatably coupled to the housing via a hinge arrangement such that the lid is rotatable about a rotational axis wherein a portion of the passage is defined by the hinge arrangement. a housing; a gas flow generator disposed in the housing, the gas flow generator structured to generate the flow of breathing gas; a humidifier disposed in the housing, the humidifier having a water chamber structured to house a volume of water therein, the water chamber having a top opening for providing the volume of water in the chamber; a lid coupled to the housing such that the lid is movable between a first position wherein the lid covers the top opening of the water chamber and a second position wherein the lid does not cover the top opening of the water chamber; a passage which extends from a first end positioned and structured to receive the flow of breathing gas from the gas flow generator to an opposite second end positioned on the lid and structured to expel the flow of breathing gas into the chamber; and an outlet positioned on the housing, the outlet being structured to convey the flow of breathing gas from the chamber out of the housing and,
A method of controlling navigation tasks on a mobile device, the method comprising: obtaining data representative of a route of travel for the mobile device; and performing one or more navigation tasks based, at least in part, on proximity of the mobile device to one or more points on the route of travel, wherein the one or more navigation tasks are obtaining satellite positioning assistance data in response to determination that the mobile device is transitioning from an indoor area to an outdoor area, and/or establishing a communication link with a wireless access point; characterized in that: it comprises the step of obtaining a list of navigation tasks associated with the route of travel for the mobile device, and in that the one or more navigation tasks are performed in accordance with the list of navigation tasks. obtaining data representative of a route of travel for the mobile device; and performing one or more navigation tasks based, at least in part, on proximity of the mobile device to one or more points on the route of travel, wherein the one or more navigation tasks are obtaining satellite positioning assistance data in response to determination that the mobile device is transitioning from an indoor area to an outdoor area, and/or establishing a communication link with a wireless access point; it comprises the step of obtaining a list of navigation tasks associated with the route of travel for the mobile device, and in that the one or more navigation tasks are performed in accordance with the list of navigation tasks.
A method of testing or determining in vivo acute neurotoxicity of a molecule comprising measuring calcium oscillations in vitro in neuronal cells which are in contact with the molecule, wherein the molecule comprises a polynucleotide having a sequence score of greater than or equal to 0.2, wherein the polynucleotide refers to two or more nucleotides linked in sequence, and wherein the sequence score is calculated by formula: number of C nucleotides or analogs thereof in the polynucleotide − number of G nucleotides or analogs thereof in the polynucleotide / total nucleotide length number of the polynucleotide and wherein the molecule has tolerable in vivo acute neurotoxicity when the neuronal cells in contact with the molecule exhibit calcium oscillations at a level as much as 30% less than or more than that of vehicle control cells, or at a level higher than that of vehicle control cells.
A polypropylene for a film capacitor which is obtainable by irradiating a propylene homopolymer with a radiation with an absorbed dose of 0.1 to 500 kGy, wherein the propylene homopolymer has: a melt flow rate within a range of 1 to 10 g/10 min as determined at 230 °C under a load of 2.16 kg in accordance with ASTM D1238, an isotactic pentad fraction (mmmm fraction) of not less than 94% as determined using 13 C-NMR, an ash amount of not more than 30 ppm as obtained by completely burning the propylene homopolymer in air, and a chlorine amount of not more than 10 ppm as determined by ion chromatography. a melt flow rate within a range of 1 to 10 g/10 min as determined at 230 °C under a load of 2.16 kg in accordance with ASTM D1238, an isotactic pentad fraction (mmmm fraction) of not less than 94% as determined using 13 C-NMR, an ash amount of not more than 30 ppm as obtained by completely burning the propylene homopolymer in air, and a chlorine amount of not more than 10 ppm as determined by ion chromatography.
Magnetic trip device, comprising at least a yoke having an armature opening in which yoke an armature coaxially enclosed by at least a portion of the coil body with a least one excitation coil and subjectable to the force of a preloaded spring element is placed, which remains in a first end position by the magnetic clamping force of a permanent magnet when the excitation coil is de-energized, wherein the permanent magnet is arranged together with the base extending between the armature and the permanent magnet in the area of the first end of the armature and the second end position of the armature is obtained by temporary energization of the excitation coil with an ensuing decrease of the magnetic clamping force and the thus acting spring force, wherein a. the first end of the armature facing away from the armature opening is guided centred and the second end of the armature facing to the armature opening is also guided centred by a centring ring centred in the coil body, b. the base is centred in the coil body, with the centring ring together with the coil body assuring level support of the armature without tilting in the area of the first end and always ensuring maximum clamping forces due to level support of the armature, c. the spring element has a larger diameter than the armature, d. when tripping, the magnetic flux commutes from a main circuit to a shunt circuit, characterized in that e. the highly permeable centring ring at the yoke lies against the armature opening and is configured to be radially movable relative to the yoke. a. the first end of the armature facing away from the armature opening is guided centred and the second end of the armature facing to the armature opening is also guided centred by a centring ring centred in the coil body, b. the base is centred in the coil body, with the centring ring together with the coil body assuring level support of the armature without tilting in the area of the first end and always ensuring maximum clamping forces due to level support of the armature, c. the spring element has a larger diameter than the armature, d. when tripping, the magnetic flux commutes from a main circuit to a shunt circuit, e. the highly permeable centring ring at the yoke lies against the armature opening and is configured to be radially movable relative to the yoke.
A display device comprising: a display unit including a display panel providing an image; a housing being apart from the display unit and including an electrical unit; and a cable (161, 163) electrically connected with the display panel and the electrical unit, wherein the electrical unit provides the display panel with a signal and power, and wherein the housing comprises: a bottom case; a top case above the bottom case, the top case including an opening (300H1, 300H2); a speaker moving in a vertical direction, the speaker exposed to the outside of the top case through the opening (300H1, 300H2) or positioned between the top case and the bottom case according to a movement in the vertical direction, a slider between the top case and the speaker, the slider moving linearly; a cap mounted on the slider, wherein the cap open and close the opening (300H1, 300H2) of the top case; a lead screw near the slider, the lead screw rotatable; and a holder fixed to the slider, the holder coupled with the lead screw, wherein the holder moves along an axis of the lead screw in accordance with a rotation of the lead screw. a display unit including a display panel providing an image; a housing being apart from the display unit and including an electrical unit; and a cable (161, 163) electrically connected with the display panel and the electrical unit, wherein the electrical unit provides the display panel with a signal and power, and wherein the housing comprises: a bottom case; a top case above the bottom case, the top case including an opening (300H1, 300H2); a speaker moving in a vertical direction, the speaker exposed to the outside of the top case through the opening (300H1, 300H2) or positioned between the top case and the bottom case according to a movement in the vertical direction, a slider between the top case and the speaker, the slider moving linearly; a cap mounted on the slider, wherein the cap open and close the opening (300H1, 300H2) of the top case; a lead screw near the slider, the lead screw rotatable; and a holder fixed to the slider, the holder coupled with the lead screw, wherein the holder moves along an axis of the lead screw in accordance with a rotation of the lead screw. a bottom case; a top case above the bottom case, the top case including an opening (300H1, 300H2); a speaker moving in a vertical direction, the speaker exposed to the outside of the top case through the opening (300H1, 300H2) or positioned between the top case and the bottom case according to a movement in the vertical direction, a slider between the top case and the speaker, the slider moving linearly; a cap mounted on the slider, wherein the cap open and close the opening (300H1, 300H2) of the top case; a lead screw near the slider, the lead screw rotatable; and a holder fixed to the slider, the holder coupled with the lead screw, wherein the holder moves along an axis of the lead screw in accordance with a rotation of the lead screw.
A method of manufacturing an aerosol generating pod, the method comprising: (i) providing aerosol generating material; characterized by: (ii) positioning sheet material over opposite sides of the aerosol generating material; (iii) punching the aerosol generating material and the sheet material from one of the opposite sides to form an aerosol generating pod comprising aerosol generating material covered by the sheet material. (i) providing aerosol generating material; characterized by: (ii) positioning sheet material over opposite sides of the aerosol generating material; (iii) punching the aerosol generating material and the sheet material from one of the opposite sides to form an aerosol generating pod comprising aerosol generating material covered by the sheet material.
A process for the preparation of 3-methacryloxypropyldimethylchlorosilane by reaction of allylmethacrylate with dimethylchlorosilane in the presence of a hydrosilylation catalyst, characterized in that the reaction is carried out in the absence of a peroxide by a process comprising: i) providing a first stream containing allylmethacrylate; ii) providing a second stream containing dimethylchlorosilane; iii) contacting said streams in a continuous flow reactor in the presence of said hydrosilylation catalyst, thereby producing 3-methacryloxypropyldimethylchlorosilane; and iv) continuously removing a product stream from said continuous flow reactor. i) providing a first stream containing allylmethacrylate; ii) providing a second stream containing dimethylchlorosilane; iii) contacting said streams in a continuous flow reactor in the presence of said hydrosilylation catalyst, thereby producing 3-methacryloxypropyldimethylchlorosilane; and iv) continuously removing a product stream from said continuous flow reactor.
A method for controlling a switched reluctance machine, SRM, comprising the steps of: a) providing an SRM control system having a commutation module; b) providing an initial rotor position for the SRM utilizing an initialization mechanism; c) defining a pinned point (x) on a phase current waveform during an initial current rise phase of the current waveform, said current waveform starting to rise in correspondence of an inductance rise (Θ on) of a phase of the SRM, wherein said pinned point (x) is defined at a point corresponding to a magnitude between 50% and 100% of the steady state current on the initial current rise; d) determining a slope of the current rise as the current waveform reaches the pinned point (x), the slope being fed to the commutation module; e) calculating an error signal and providing the error signal as an input to a control loop in the SRM control system, wherein, in one configuration, said slope of the current rise is utilized to calculate an underlying inductance value of the SRM which is used to calculate the error signal from a desired inductance, and wherein, in another configuration, the SRM control system is designed to utilize the measured current rise over a fixed time period to calculate said error signal from a desired current rise; f) determining an optimum time to fire a next pulse; whereby the SRM control system enables adaptive pulse positioning over a wide range of speeds and loads. a) providing an SRM control system having a commutation module; b) providing an initial rotor position for the SRM utilizing an initialization mechanism; c) defining a pinned point (x) on a phase current waveform during an initial current rise phase of the current waveform, said current waveform starting to rise in correspondence of an inductance rise (Θ on) of a phase of the SRM, wherein said pinned point (x) is defined at a point corresponding to a magnitude between 50% and 100% of the steady state current on the initial current rise; d) determining a slope of the current rise as the current waveform reaches the pinned point (x), the slope being fed to the commutation module; e) calculating an error signal and providing the error signal as an input to a control loop in the SRM control system, wherein, in one configuration, said slope of the current rise is utilized to calculate an underlying inductance value of the SRM which is used to calculate the error signal from a desired inductance, and wherein, in another configuration, the SRM control system is designed to utilize the measured current rise over a fixed time period to calculate said error signal from a desired current rise; f) determining an optimum time to fire a next pulse;
A vane arc segment for a gas turbine engine comprising: a continuous airfoil piece defining first and second platforms (63, 64) and an airfoil section extending between the first and second platforms (63, 64), the airfoil section having a pressure side and a suction side (66c, 66d), the first platform defining axially-sloped suction and pressure side circumferential mate faces (63a/63b), first and second axial sides (63c, 63d), a gaspath side, a non-gaspath side, and a flange projecting from the non-gaspath side, the flange extending along at least a portion the axially-sloped suction side circumferential mate face; characterized in that the axially-sloped suction and pressure side circumferential mate faces (63a/63b) form an angle of at least 45° relative to an axial direction, wherein the axial direction is a central longitudinal axis of the gas turbine engine. a continuous airfoil piece defining first and second platforms (63, 64) and an airfoil section extending between the first and second platforms (63, 64), the airfoil section having a pressure side and a suction side (66c, 66d), the first platform defining axially-sloped suction and pressure side circumferential mate faces (63a/63b), first and second axial sides (63c, 63d), a gaspath side, a non-gaspath side, and a flange projecting from the non-gaspath side, the flange extending along at least a portion the axially-sloped suction side circumferential mate face; characterized in that the axially-sloped suction and pressure side circumferential mate faces (63a/63b) form an angle of at least 45° relative to an axial direction, wherein the axial direction is a central longitudinal axis of the gas turbine engine.
A surgical suturing system, comprising: an elongate shaft; a firing drive; an end effector extending distally from said elongate shaft, wherein said end effector comprises: a needle track; and a replaceable needle guided by said needle track and actuated by said firing drive through a firing stroke, wherein said replaceable needle comprises: suturing material attached thereto; and an RFID tag comprising stored data; an RFID scanner, wherein said RFID scanner receives a signal from said RFID tag comprising said stored data, and wherein said signal is indicative of said stored data; and a controller in communication with said RFID scanner, wherein said controller is configured to: determine compatibility between said replaceable needle and said surgical suturing system based on said stored data received by said RFID scanner; and prevent said surgical suturing system from performing the firing stroke when said replaceable needle is incompatible with said surgical suturing system. an elongate shaft; a firing drive; an end effector extending distally from said elongate shaft, wherein said end effector comprises: a needle track; and a replaceable needle guided by said needle track and actuated by said firing drive through a firing stroke, wherein said replaceable needle comprises: suturing material attached thereto; and an RFID tag comprising stored data; a needle track; and a replaceable needle guided by said needle track and actuated by said firing drive through a firing stroke, wherein said replaceable needle comprises: suturing material attached thereto; and an RFID tag comprising stored data; suturing material attached thereto; and an RFID tag comprising stored data; an RFID scanner, wherein said RFID scanner receives a signal from said RFID tag comprising said stored data, and wherein said signal is indicative of said stored data; and a controller in communication with said RFID scanner, wherein said controller is configured to: determine compatibility between said replaceable needle and said surgical suturing system based on said stored data received by said RFID scanner; and prevent said surgical suturing system from performing the firing stroke when said replaceable needle is incompatible with said surgical suturing system. determine compatibility between said replaceable needle and said surgical suturing system based on said stored data received by said RFID scanner; and prevent said surgical suturing system from performing the firing stroke when said replaceable needle is incompatible with said surgical suturing system.
A oral care composition comprising: (a) a guanidine active, wherein the active is L-arginine; (b) a film-forming polymer, wherein the polymer is a copolymer of methyl vinyl ether and maleic anhydride. (c) a hydrophobic viscosity modifier; and (d) an oil carrier, wherein the oil carrier is caprylic/capric triglyceride wherein the guanidine active and the film-forming polymer are suspended in the oil carrier and the oral care composition is encapsulated within a capsule comprising gelatin; wherein the hydrophobic viscosity modifier comprises a gelled mineral oil comprising a blend of polyethylene and mineral oil, and constitutes more than 4 wt.% of the oral care composition, wherein the guanidine active constitutes 1-10 wt.% of the oral care composition, wherein the film-forming polymer constitutes 1-5 wt.% of the oral care composition, and wherein the oil carrier constitutes 60-80 wt.% of the oral care composition. (a) a guanidine active, wherein the active is L-arginine; (b) a film-forming polymer, wherein the polymer is a copolymer of methyl vinyl ether and maleic anhydride. (c) a hydrophobic viscosity modifier; and (d) an oil carrier, wherein the oil carrier is caprylic/capric triglyceride
A flight control system for an aircraft with multiple engines and a trimmable stabilizer, comprising: at least one sensor for sensing aircraft parameters; a detector for detecting a total loss of control of primary flight control surfaces of the aircraft; an emergency flight controller for receiving a pilot input, the emergency flight controller being in operable communication with the at least one sensor and with the detector and being configured to determine target thrusts for the multiple engines and a target trimmable stabilizer position for the trimmable stabilizer on the basis of pilot input and sensed aircraft parameters when the detector detects a total loss of control of the primary flight control surfaces of the aircraft; and a guidance module configured to provide instructions to a pilot as to how to control the engine thrusts toward the thrust targets and as how to control the trimmable stabilizer towards the target trimmable stabilizer position. at least one sensor for sensing aircraft parameters; a detector for detecting a total loss of control of primary flight control surfaces of the aircraft; an emergency flight controller for receiving a pilot input, the emergency flight controller being in operable communication with the at least one sensor and with the detector and being configured to determine target thrusts for the multiple engines and a target trimmable stabilizer position for the trimmable stabilizer on the basis of pilot input and sensed aircraft parameters when the detector detects a total loss of control of the primary flight control surfaces of the aircraft; and a guidance module configured to provide instructions to a pilot as to how to control the engine thrusts toward the thrust targets and as how to control the trimmable stabilizer towards the target trimmable stabilizer position.