mhurhangee/ep-ind-claims huggingface dataset:
A turbine engine comprising: - an exhaust casing, comprising a plurality of arms, the space separating the arms defining openings in which a primary airflow of the turbine engine circulates, said exhaust casing further comprising an internal hub and an external shroud between which the arms extend; - at least one duct, ∘ configured to collect at one of its ends, a compressed airflow, ∘ the other end of the duct being connected to at least one opening of the exhaust casing, so as to insert the collected airflow into in said primary airflow, said collected airflow having, during its insertion in the opening, a Mach number less than or equal to 0.5, ∘ the duct terminating at said other end in a plurality of secondary ducts, the secondary ducts being connected to the openings of the exhaust casing, to insert there the collected airflow, the end of the secondary ducts passing through the outer shroud of the exhaust casing to pour into the openings the collected airflow, ∘ each secondary duct being connected to a different opening of the exhaust casing, to send it the collected airflow. - an exhaust casing, comprising a plurality of arms, the space separating the arms defining openings in which a primary airflow of the turbine engine circulates, said exhaust casing further comprising an internal hub and an external shroud between which the arms extend; - at least one duct, ∘ configured to collect at one of its ends, a compressed airflow, ∘ the other end of the duct being connected to at least one opening of the exhaust casing, so as to insert the collected airflow into in said primary airflow, said collected airflow having, during its insertion in the opening, a Mach number less than or equal to 0.5, ∘ the duct terminating at said other end in a plurality of secondary ducts, the secondary ducts being connected to the openings of the exhaust casing, to insert there the collected airflow, the end of the secondary ducts passing through the outer shroud of the exhaust casing to pour into the openings the collected airflow, ∘ each secondary duct being connected to a different opening of the exhaust casing, to send it the collected airflow. ∘ configured to collect at one of its ends, a compressed airflow, ∘ the other end of the duct being connected to at least one opening of the exhaust casing, so as to insert the collected airflow into in said primary airflow, said collected airflow having, during its insertion in the opening, a Mach number less than or equal to 0.5, ∘ the duct terminating at said other end in a plurality of secondary ducts, the secondary ducts being connected to the openings of the exhaust casing, to insert there the collected airflow, the end of the secondary ducts passing through the outer shroud of the exhaust casing to pour into the openings the collected airflow, ∘ each secondary duct being connected to a different opening of the exhaust casing, to send it the collected airflow.
A wellbore servicing system (200,210,220,230,240,250,260,270) comprising: a first node (202,212,232,242,262,272) disposed within a wellbore, the first node (202,212,232,242,262,272) comprises a sensor node comprising a transducer; and at least one logging node (204,206,214,244,246,264,274,276) configured for movement through the wellbore, wherein, the logging node (204,206,214,244,246,264,274,276) is a ball, a dart, or a wiper moving through the wellbore and communicates with the first node (202,212,232,242,262,272) via a near field communication signal. a first node (202,212,232,242,262,272) disposed within a wellbore, the first node (202,212,232,242,262,272) comprises a sensor node comprising a transducer; and at least one logging node (204,206,214,244,246,264,274,276) configured for movement through the wellbore, wherein, the logging node (204,206,214,244,246,264,274,276) is a ball, a dart, or a wiper moving through the wellbore and communicates with the first node (202,212,232,242,262,272) via a near field communication signal.
A method for impedance modulation in an electrical network to transmit continuous modulated signal for communication purposes through said network, the method comprising: (a) connecting a rectifier, a first low-pass filter and a buck structure, wherein said rectifier and said low-pass filter is connected in series to said buck structure; (b) assembling said buck structure to comprise a transistor connected to a second low-pass filter (38, 40) in parallel to a load thereby allowing to feed back information to said transistor; (c) further connecting said second low-pass filter (38, 40) to a circuit; (d) assembling said circuit to comprise of a Linear Amplifier and a triangle generator wherein said triangle generator generates a triangle generator signal and wherein said Linear Amplifier compares a signal coming from said second low-pass filter (38, 40) to said triangle generator signal thereby generating a command signal to command said buck structure, characterized in that, the method further comprising (e) designing both of said first and second low-pass filters (20; 38, 40) with respect to the bandwidth of said signal. (a) connecting a rectifier, a first low-pass filter and a buck structure, wherein said rectifier and said low-pass filter is connected in series to said buck structure; (b) assembling said buck structure to comprise a transistor connected to a second low-pass filter (38, 40) in parallel to a load thereby allowing to feed back information to said transistor; (c) further connecting said second low-pass filter (38, 40) to a circuit; (d) assembling said circuit to comprise of a Linear Amplifier and a triangle generator wherein said triangle generator generates a triangle generator signal and wherein said Linear Amplifier compares a signal coming from said second low-pass filter (38, 40) to said triangle generator signal thereby generating a command signal to command said buck structure, characterized in that, the method further comprising (e) designing both of said first and second low-pass filters (20; 38, 40) with respect to the bandwidth of said signal.
Household appliance, which comprises - a housing; - a touch-sensitive screen, which is arranged on an outer wall of the appliance; and - a communication unit and an outer antenna (103, 122), which are configured to receive or to transmit an electromagnetic signal; wherein the communication unit is arranged in the housing; and wherein the outer antenna (103, 122) is arranged in or on the touch-sensitive screen in such a way that the outer antenna (103, 122) can be used to transmit an electromagnetic signal to a receiver outside the housing or receive an electromagnetic signal from a transmitter outside the housing, characterised in that - the touch-sensitive screen comprises electrically conductive structures, which are configured to detect a touching of the screen; and - the outer antenna (202, 103, 122) comprises at least some of the electrically conductive structures, and - wherein the electrically conductive structures at least partially comprise a metamaterial which lends the electrically conductive structures the property of an antenna; and - the metamaterial in particular comprises a large number of electromagnetic oscillating circuits. - a housing; - a touch-sensitive screen, which is arranged on an outer wall of the appliance; and - a communication unit and an outer antenna (103, 122), which are configured to receive or to transmit an electromagnetic signal; wherein the communication unit is arranged in the housing; and wherein the outer antenna (103, 122) is arranged in or on the touch-sensitive screen in such a way that the outer antenna (103, 122) can be used to transmit an electromagnetic signal to a receiver outside the housing or receive an electromagnetic signal from a transmitter outside the housing, characterised in that - the touch-sensitive screen comprises electrically conductive structures, which are configured to detect a touching of the screen; and - the outer antenna (202, 103, 122) comprises at least some of the electrically conductive structures, and - wherein the electrically conductive structures at least partially comprise a metamaterial which lends the electrically conductive structures the property of an antenna; and - the metamaterial in particular comprises a large number of electromagnetic oscillating circuits.
A lock assembly comprising: a striking plate assembly comprising an aperture (12a, 12b) and a magnetometer (20a, 20b) arranged in proximity of the aperture (12a, 12b); a bolt (13, 14) being displaceable to enable movement through the aperture (12a, 12b) of the striking plate assembly, the bolt (13, 14) comprising a magnet (21a, 21b); and a sensor device for detecting proximate presence of an object, wherein the sensor device is configured to power up the magnetometer when the sensor device detects proximate presence of an object; wherein the lock assembly is configured to detect, using the magnetometer (20a, 20b) and magnet (21a, 21b) when the bolt is in a protruded position through the aperture (12a, 12b). a striking plate assembly comprising an aperture (12a, 12b) and a magnetometer (20a, 20b) arranged in proximity of the aperture (12a, 12b); a bolt (13, 14) being displaceable to enable movement through the aperture (12a, 12b) of the striking plate assembly, the bolt (13, 14) comprising a magnet (21a, 21b); and a sensor device for detecting proximate presence of an object, wherein the sensor device is configured to power up the magnetometer when the sensor device detects proximate presence of an object; wherein the lock assembly is configured to detect, using the magnetometer (20a, 20b) and magnet (21a, 21b) when the bolt is in a protruded position through the aperture (12a, 12b).
Ventilation device in the form of an induction device, comprising a housing, a plurality of induction nozzles operated with air, in particular with primary air, the induction nozzles being designed and/or arranged in groups, characterized in that the groups are formed in such a way that air jets emerging from the induction nozzles of one group or of each of the groups merge to form or each form only one induction air jet within the housing, wherein each of the groups comprises three induction nozzles, wherein the induction nozzles of each group have a smaller distance to each other than the distance between adjacent groups and wherein the respective distance of adjacent discharge openings of induction nozzles of the same group has the dimension D, wherein the respective distance of the discharge openings up to the associated merging point of the associated air jets has the dimension H, and wherein the following relationship applies at nozzle pressures of 100 to 300 Pa: H = 1 to 5 × D.
An apparatus for making smokers' articles comprising a unit comprising conveyor means for feeding along a first path, extending along a feed direction, a continuous succession of filter elements of smokers' products intended to form part of the smokers' articles; feed means by which a web of sheet material is unwound continuously from a roll and directed longitudinally along a second path; a garniture tongue whereby the continuous sequence of filter elements moving along the feed direction are progressively wrapped in the web of sheet material which is fed towards wrapping means so as to form at least one continuous rod enclosing the filter elements in the web of sheet material; and a cutoff device placed at the outfeed end of the garniture tongue and configured for subdividing the continuous rod into smokers' articles consisting of composite filter pieces; the apparatus being characterized in that it comprises separate applicator devices (21, 22) for applying strips (23, 24) of web; the applicator devices (21, 22) being located along the second path to apply the strips (23, 24) on one surface of the web of sheet material in such a way that they are oriented transversely to the second path, wherein the applicator devices (21, 22), at predetermined regular intervals, cut the strips (23, 24) from respective webs (23', 24') unwound from respective rolls (23", 24") and apply a spot of glue on a surface of the strips (23, 24) by means of a gluing device, and wherein the applicator devices (21, 22) are adjustable independently of each other to vary the position of the strips (23, 24); said apparatus further comprising detector means (25, 26) associated with at least part of the applicator devices (21, 22) for checking the position of the strips (23, 24) and providing the applicator devices (21, 22, 27) with feedback for adjusting the application of the strips (23, 24) to the web.
A module for thermal storage by a phase-change material including a vat, at least one heat-exchanger (4, 204, 304) including first (4.1) and second (4.2) connecting ends intended to be connected to a heat-transfer fluid network, said first (4.1) and second (4.2) connecting ends penetrating and opening into the vat, a structure received in the vat and intended to contain a phase-change material, said structure comprising a porous matrix (MA, MA') with communicating cells crossed by said heat-exchanger and in contact with the external surface of said heat-exchanger (4, 204, 304), said matrix (MA, MA') being obtained by moulding around said heat-exchanger (4, 204, 304), characterised in that said vat comprising at least one wall made of a material formed by moulding directly on the porous matrix (MA, MA').
A sensorized roller of a bearing, the sensorized roller comprising a central bore that extends in axial direction through the roller and a sensor module (20, 220) that is mounted within the bore in a non-fixed manner, characterized in that: the sensor module comprises: - at least four deformation sensors (22a, 22b, 322a, 322b, 322c, 322d, 322e, 322f, 322g, 322h) arranged circumferentially around a centre axis of the sensor module, at defined angular intervals β k relative to a fixed reference, whereby each deformation sensor is configured to measure a radial distance r 1, r 2, r 3, r 4 between the centre axis and a radially inner surface of the bore at the corresponding angular position, whereby the at least four radial distances r 1, r 2, r 3, r 4 are measured for defined angular positions which lie within an angular span of 360 degrees; and - a processor which is configured to receive each of the measured radial distances and to calculate a radial load acting on the roller by estimating an offset angle φ of the fixed reference relative to the radial load direction; and by using the estimated offset angle and each measured radial distance as inputs to a mathematical model which describes a deformation radius of the bore as a function of angular position and parameters dependent on the load. - at least four deformation sensors (22a, 22b, 322a, 322b, 322c, 322d, 322e, 322f, 322g, 322h) arranged circumferentially around a centre axis of the sensor module, at defined angular intervals β k relative to a fixed reference, whereby each deformation sensor is configured to measure a radial distance r 1, r 2, r 3, r 4 between the centre axis and a radially inner surface of the bore at the corresponding angular position, whereby the at least four radial distances r 1, r 2, r 3, r 4 are measured for defined angular positions which lie within an angular span of 360 degrees; and - a processor which is configured to receive each of the measured radial distances and to calculate a radial load acting on the roller by estimating an offset angle φ of the fixed reference relative to the radial load direction; and by using the estimated offset angle and each measured radial distance as inputs to a mathematical model which describes a deformation radius of the bore as a function of angular position and parameters dependent on the load.
An ultrasonic generator with an adjustable ultrasonic focusing depth, the ultrasonic generator comprising: a cartridge housing in which an ultrasound generation portion configured to generate ultrasound is provided; a hand piece (100, 101) in which the cartridge housing is detachably mounted, the hand piece (100, 101) having a first actuator thereinside; and a main shaft to which the ultrasound generation portion is coupled moves in a horizontal direction, parallel to the bottom of the cartridge housing and a vertical direction, perpendicular to the bottom of the cartridge housing, wherein one end of the main shaft is coupled to one end of the first actuator of the hand piece (100, 101), and another end of the main shaft is located inside the cartridge housing, whereby the hand piece (100, 101) includes an adjustment portion (120, 121) configured to adjust an ultrasonic focusing depth (h1, h2, h3) of the ultrasound generation portion by adjusting an amount of movement of the main shaft in the vertical direction. a cartridge housing in which an ultrasound generation portion configured to generate ultrasound is provided; a hand piece (100, 101) in which the cartridge housing is detachably mounted, the hand piece (100, 101) having a first actuator thereinside; and a main shaft to which the ultrasound generation portion is coupled moves in a horizontal direction, parallel to the bottom of the cartridge housing and a vertical direction, perpendicular to the bottom of the cartridge housing, wherein one end of the main shaft is coupled to one end of the first actuator of the hand piece (100, 101), and another end of the main shaft is located inside the cartridge housing, whereby the hand piece (100, 101) includes an adjustment portion (120, 121) configured to adjust an ultrasonic focusing depth (h1, h2, h3) of the ultrasound generation portion by adjusting an amount of movement of the main shaft in the vertical direction.
Process for the catalytic hydrogenation of vegetable oils wherein the oil is placed in contact with molecular hydrogen in the presence of a catalyst comprising supported metallic Palladium, characterized in that said process is performed in the presence of an amount of water comprised between 5:1 and 100:1 with respect to the weight of metallic Palladium, at a temperature from 0 to 130 °C.
A secondary battery pack comprising: a battery cell having a cathode terminal and an anode terminal formed on one surface comprising a sealed portion to seal the battery cell; and a protection circuit module comprising a protection circuit board having a protection circuit formed thereon, an external input and output terminal electrically connected to the protection circuit, a connector electrically connected to the external input and output terminal, and an electrically insulative PCM case in which the PCB is mounted, wherein the PCM is loaded on the sealed portion in a state in which the PCM is electrically connected to the battery cell, and the connector is formed on the PCM such that the connector does not protrude outward from the secondary battery pack, the external input and output terminal is formed on the PCB, the connector is mounted at the top of the external input and output terminal, a cathode terminal connection part and a anode terminal connection part respectively corresponding to the cathode terminal and the anode terminal are formed at the top of the PCB, and are electrically connected to the external input and output terminal, the PCM case comprises a first case member and a second case member, the first case member is provided at one side thereof with an opening, through which the connector is exposed outward, and the first case member is coupled to the upper part of the second case member while surrounding the PCB. a battery cell having a cathode terminal and an anode terminal formed on one surface comprising a sealed portion to seal the battery cell; and a protection circuit module comprising a protection circuit board having a protection circuit formed thereon, an external input and output terminal electrically connected to the protection circuit, a connector electrically connected to the external input and output terminal, and an electrically insulative PCM case in which the PCB is mounted, wherein the PCM is loaded on the sealed portion in a state in which the PCM is electrically connected to the battery cell, and the connector is formed on the PCM such that the connector does not protrude outward from the secondary battery pack, the external input and output terminal is formed on the PCB, the connector is mounted at the top of the external input and output terminal, a cathode terminal connection part and a anode terminal connection part respectively corresponding to the cathode terminal and the anode terminal are formed at the top of the PCB, and are electrically connected to the external input and output terminal, the PCM case comprises a first case member and a second case member, the first case member is provided at one side thereof with an opening, through which the connector is exposed outward, and the first case member is coupled to the upper part of the second case member while surrounding the PCB.
A method comprising: receiving, at a device in a network, traffic information regarding a secure session in a network; making, by the device, a self-signed certificate determination for an endpoint domain of the secure session based on the traffic information indicating that a certificate check request was not made within a predetermined timeframe of a request to the endpoint domain; and causing, by the device, the self-signed certificate determination for the endpoint domain to be used as input to a malware detector. receiving, at a device in a network, traffic information regarding a secure session in a network; making, by the device, a self-signed certificate determination for an endpoint domain of the secure session based on the traffic information indicating that a certificate check request was not made within a predetermined timeframe of a request to the endpoint domain; and causing, by the device, the self-signed certificate determination for the endpoint domain to be used as input to a malware detector.