mhurhangee/ep-ind-claims huggingface dataset:
An aircraft engine including an axial centerline, the engine comprising: a seal ring; a seal runner; at least one hole associated with the seal runner that is configured to supply oil to an interface between the seal runner and the seal ring, the at least one hole oriented radially relative to the axial centerline; and an annulus associated with the seal runner that is configured to collect oil from a source of oil, wherein the at least one hole is contained within an axial projection of the seal ring, wherein a first portion of the collected oil is configured to be conveyed to the interface between the seal runner and the seal ring via the at least one hole, wherein the seal ring is biased toward a sealing surface of the seal runner via springs and air pressure forces, and wherein the seal ring is radially outward of the seal runner such that the interface is a radial interface. a seal ring; a seal runner; at least one hole associated with the seal runner that is configured to supply oil to an interface between the seal runner and the seal ring, the at least one hole oriented radially relative to the axial centerline; and an annulus associated with the seal runner that is configured to collect oil from a source of oil, wherein the at least one hole is contained within an axial projection of the seal ring, wherein a first portion of the collected oil is configured to be conveyed to the interface between the seal runner and the seal ring via the at least one hole, wherein the seal ring is biased toward a sealing surface of the seal runner via springs and air pressure forces, and wherein the seal ring is radially outward of the seal runner such that the interface is a radial interface.
Method for selecting a communication status at least for a first mobile terminal, wherein the first mobile terminal used is a first hearing device of a hearing device system, wherein the first mobile terminal, during a first time period, - waits to see whether a communication request from another mobile terminal to the first mobile terminal sets up a connection to the other mobile terminal, and, if a connection has been set up in this way, - constantly assumes a "slave" status, and the other mobile terminal constantly assumes a "master" status, wherein after the first time period without a communication request by another mobile terminal, the first mobile terminal, for a second time period, - sends a number of communication requests to set up a connection to another mobile terminal, and, if a connection has been set up in this way, - constantly assumes the "master" status, and the other mobile terminal constantly assumes the "slave" status, characterized in that - the first mobile terminal assumes the "slave" status during the first time period, and changes from the "slave" status to the "master" status for the second time period, and - the first mobile terminal constantly assumes the "slave" status or an inactive communication status if, after a third time period, a connection to another mobile terminal has not been set up, and as a result the hearing device system is used in a monaural mode. - waits to see whether a communication request from another mobile terminal to the first mobile terminal sets up a connection to the other mobile terminal, and, if a connection has been set up in this way, - constantly assumes a "slave" status, and the other mobile terminal constantly assumes a "master" status, - sends a number of communication requests to set up a connection to another mobile terminal, and, if a connection has been set up in this way, - constantly assumes the "master" status, and the other mobile terminal constantly assumes the "slave" status, - the first mobile terminal assumes the "slave" status during the first time period, and changes from the "slave" status to the "master" status for the second time period, and - the first mobile terminal constantly assumes the "slave" status or an inactive communication status if, after a third time period, a connection to another mobile terminal has not been set up, and as a result the hearing device system is used in a monaural mode.
An aqueous composition comprising a protein and an aluminium-salt, said composition comprising less than 350 ppb heavy metal and less than 1.25 ppb Cu based on the weight of the aqueous composition, and wherein said protein is a protein within formaldehyde inactivated virus particles.
A device for monitoring a pulmonary system of a subject, said device comprising: an optical member for emitting a light signal through a cavity of said pulmonary system of said subject, wherein said light signal comprises at least one wavelength, wherein said at least one wavelength is within an optical window for tissue; a detector unit, wherein said detector is configured to be positioned on a skin surface for detecting said light signal transmitted through said cavity of said subject; wherein said optical member and said detector unit are configured to be positioned so that said light signal is transmitted from said optical member through said cavity to be detected by said detector; and a control unit for evaluating said detected light signal for determining a physiological status of said pulmonary system of said subject by evaluating a change over time in an intensity of said detected light signal transmitted through said cavity; characterized in that said control unit is further configured to associate said change over time in an intensity of said detected light signal transmitted through said cavity with a variation of a volume of said cavity. an optical member for emitting a light signal through a cavity of said pulmonary system of said subject, wherein said light signal comprises at least one wavelength, wherein said at least one wavelength is within an optical window for tissue; a detector unit, wherein said detector is configured to be positioned on a skin surface for detecting said light signal transmitted through said cavity of said subject; wherein said optical member and said detector unit are configured to be positioned so that said light signal is transmitted from said optical member through said cavity to be detected by said detector; and a control unit for evaluating said detected light signal for determining a physiological status of said pulmonary system of said subject by evaluating a change over time in an intensity of said detected light signal transmitted through said cavity; characterized in that said control unit is further configured to associate said change over time in an intensity of said detected light signal transmitted through said cavity with a variation of a volume of said cavity.
A suction nozzle for a vacuum cleaner, the suction nozzle comprising a suction chamber, an outlet duct extending from the suction chamber for connection to a vacuum source on the vacuum cleaner, a soleplate for supporting the nozzle on a carpeted floor, a suction opening in the soleplate which opens into the suction chamber, and a valve which can be manually operated to open or close a bleed path through the front of the nozzle, the bleed path being defined by a channel formed on the underside of the soleplate which is fluidly connected to the outlet duct, the channel terminating in an entrance slot on the front of the nozzle for admitting debris as the suction nozzle is pushed in a forward direction, characterized in that the channel defines a throat downstream of the entrance slot, the throat having a smaller cross-sectional area than the entrance slot.
A bioprocess mixer, comprising: a support vessel comprising at least one side wall (3,4,5,6) and a bottom wall, said walls defining a support vessel inner volume, and at least a first and a second magnetic impeller drive unit, and a flexible bag (11;111) adapted to fit inside said support vessel inner volume, said bag having at least one bag side wall (12;112,13;113,14,15), a bag bottom wall (16;116) and a bag top wall (17;117) defining a bag inner volume, with at least a first and a second magnetic impeller rotatably attached to one or more bag wall in said bag inner volume, characterized in that said support vessel inner volume has a length-to-width ratio of at least 1.5 and said support vessel inner volume has a height-to-width ratio of 0.7-2. a support vessel comprising at least one side wall (3,4,5,6) and a bottom wall, said walls defining a support vessel inner volume, and at least a first and a second magnetic impeller drive unit, and a flexible bag (11;111) adapted to fit inside said support vessel inner volume, said bag having at least one bag side wall (12;112,13;113,14,15), a bag bottom wall (16;116) and a bag top wall (17;117) defining a bag inner volume, with at least a first and a second magnetic impeller rotatably attached to one or more bag wall in said bag inner volume,
A method for mitigating inter-cell interference in a macro base station, BS, in a wireless communication system comprising at least one femto cell, the method comprising: determining a codebook set for a resource block comprising at least one code among a plurality of codes based on a correlation between a code for the resource block and the plurality of codes; transmitting information regarding the codebook set to at least one femto BS and at least one mobile station, MS; receiving, from the at least one MS, feedback information comprising a code in the codebook set determined based on a signal to interference and noise ratio, SINR, for each code in the codebook set; allocating a resource associated with the resource block to the at least one MS based on the feedback information; determining a weight for forming a beam based on the determined code; and forming the beam based on the weight. determining a codebook set for a resource block comprising at least one code among a plurality of codes based on a correlation between a code for the resource block and the plurality of codes; transmitting information regarding the codebook set to at least one femto BS and at least one mobile station, MS; receiving, from the at least one MS, feedback information comprising a code in the codebook set determined based on a signal to interference and noise ratio, SINR, for each code in the codebook set; allocating a resource associated with the resource block to the at least one MS based on the feedback information; determining a weight for forming a beam based on the determined code; and forming the beam based on the weight.
A method for a first User Equipment, in the following also referred to as UE, to perform a procedure for updating Layer-2 Identities, in the following also referred to as IDs, comprising: establishing a unicast link with a second UE, wherein a first Layer-2 ID of the first UE and a second Layer-2 ID of the second UE are used for data transmission and reception on the unicast link; generating a first Link Identifier Update Request message of the procedure for updating Layer-2 IDs for the unicast link; starting a timer corresponding to the procedure for updating Layer-2 IDs after the first Link Identifier Update Request message is generated; transmitting the first Link Identifier Update Request message to the second UE, wherein the first Link Identifier Update Request message includes a new first Layer-2 ID of the first UE; characterized by aborting the procedure for updating Layer-2 IDs and stopping the timer if the first UE receives a second Link Identifier Update Request message from the second UE when the timer is running. establishing a unicast link with a second UE, wherein a first Layer-2 ID of the first UE and a second Layer-2 ID of the second UE are used for data transmission and reception on the unicast link; generating a first Link Identifier Update Request message of the procedure for updating Layer-2 IDs for the unicast link; starting a timer corresponding to the procedure for updating Layer-2 IDs after the first Link Identifier Update Request message is generated; transmitting the first Link Identifier Update Request message to the second UE, wherein the first Link Identifier Update Request message includes a new first Layer-2 ID of the first UE; characterized by aborting the procedure for updating Layer-2 IDs and stopping the timer if the first UE receives a second Link Identifier Update Request message from the second UE when the timer is running.
A sidewall insert rubber composition for run-flat tire, comprising: 10 to 100 parts by weight of a raw material rubber including a functionalized, solution-polymerized butadiene rubber having a glass transition temperature of -95°C to - 70° and a vinyl content of 5% to 25% by weight; and 40 to 110 parts by weight of a filler having a carbon black and silica, wherein the functionalized, solution-polymerized butadiene rubber is functionalized by any one coupling agent selected from the group consisting of a tin coupling agent, an amine-based coupling agent, a lactam-based coupling agent, and mixtures thereof. 10 to 100 parts by weight of a raw material rubber including a functionalized, solution-polymerized butadiene rubber having a glass transition temperature of -95°C to - 70° and a vinyl content of 5% to 25% by weight; and 40 to 110 parts by weight of a filler having a carbon black and silica,
Method for commanding a lighting device of a host motor vehicle to emit a road-illuminating beam that illuminates the road but that does not cause glare to a target object on this road; the method comprising the following steps: - acquiring (E1, E2, E3), by means of a sensor system of the host motor vehicle, the position (x cible_t0, y cible_t0) of the target object on the road at a given time (t 0); - predicting (E4, E5A), by means of a predicting unit, the position (x cible_t1, y cible_t1), of the target object on the road at a time (t 1) that is in the future with respect to the given time; - correcting (E6A, E7A), by means of the predicting unit, the target-object position acquired at a given time depending on the predicted position at the future time; - generating, by means of the lighting device, in a beam for illuminating the road that said device emits, a region that does not cause glare, depending on the corrected position (P G, P D) of the target object, and - in which method the predicting step (E4, E5A) comprises a sub-step of modelling a path of the host vehicle, the method being characterized in that said path of the host vehicle is modelled from its position (x hôte, y hôte) at the given time (t 0) of the acquiring step, to the position (x cible_t0, y cible_t0) of the target object acquired in said acquiring step, and in that said path is modelled by a third-degree polynomial the coefficients (c 0,c 1,c 2,c 3) of which are determined depending on the curvature of the road level with the host vehicle at the given time (t 0), and on the speeds and position of the host vehicle and of the target object. - acquiring (E1, E2, E3), by means of a sensor system of the host motor vehicle, the position (x cible_t0, y cible_t0) of the target object on the road at a given time (t 0); - predicting (E4, E5A), by means of a predicting unit, the position (x cible_t1, y cible_t1), of the target object on the road at a time (t 1) that is in the future with respect to the given time; - correcting (E6A, E7A), by means of the predicting unit, the target-object position acquired at a given time depending on the predicted position at the future time; - generating, by means of the lighting device, in a beam for illuminating the road that said device emits, a region that does not cause glare, depending on the corrected position (P G, P D) of the target object, and - in which method the predicting step (E4, E5A) comprises a sub-step of modelling a path of the host vehicle, the method being characterized in that said path of the host vehicle is modelled from its position (x hôte, y hôte) at the given time (t 0) of the acquiring step, to the position (x cible_t0, y cible_t0) of the target object acquired in said acquiring step, and in that said path is modelled by a third-degree polynomial the coefficients (c 0,c 1,c 2,c 3) of which are determined depending on the curvature of the road level with the host vehicle at the given time (t 0), and on the speeds and position of the host vehicle and of the target object.
A method of extruding an article (126, 170, 180) of constant cross-section and including a first thermoplastic material, a stretch inhibitor and a web of fabric on one side of the article, the method comprising the steps of: a) supplying the stretch inhibitor to a die assembly; b) supplying the first thermoplastic material to the die assembly in a molten state, the extrusion temperature of the first thermoplastic material being below a melting point of the stretch inhibitor; c) bringing the first thermoplastic material together with the stretch inhibitor, thereby to embed the stretch inhibitor within the first thermoplastic material; d) supplying an elongate flexible web of fabric of constant width, the extrusion temperature of the first thermoplastic material being below a melting point of the fabric; e) bringing the fabric against the first thermoplastic material, such that the first thermoplastic material, the stretch inhibitor and the fabric thereby forms a composite extrudate; and f) permitting the extrudate to cool and solidify. characterized in that step (f) further comprises extruding the extrudate from the die assembly at an intermediate cross-section and at a temperature above a crossover temperature of the first thermoplastic material such that the first thermoplastic material is molten but sufficiently viscous to be stable, and passing the intermediate extrudate along a path, in which the fabric is supported to support the molten first thermoplastic material, and along which the extrudate is progressively shaped to a final, desired cross-section. a) supplying the stretch inhibitor to a die assembly; b) supplying the first thermoplastic material to the die assembly in a molten state, the extrusion temperature of the first thermoplastic material being below a melting point of the stretch inhibitor; c) bringing the first thermoplastic material together with the stretch inhibitor, thereby to embed the stretch inhibitor within the first thermoplastic material; d) supplying an elongate flexible web of fabric of constant width, the extrusion temperature of the first thermoplastic material being below a melting point of the fabric; e) bringing the fabric against the first thermoplastic material, such that the first thermoplastic material, the stretch inhibitor and the fabric thereby forms a composite extrudate; and f) permitting the extrudate to cool and solidify.
Method for placing a call for a lift system, comprising: - a mobile communication device which is carried by a user of the lift system, - a beacon of the lift system, which is designed to emit a beacon signal, and - a controller of the lift system, wherein the method comprises the following steps: - capturing the beacon signal by means of the mobile communication device, - recognizing a gesture of the user by means of the mobile communication device, - identifying an intention of the user to use the lift system, wherein the recognized gesture and the captured beacon signal are used for this purpose, - displaying a user interface on the mobile communication device for the purpose of sending a call, and - sending the call to the controller of the lift system. - a mobile communication device which is carried by a user of the lift system, - a beacon of the lift system, which is designed to emit a beacon signal, and - a controller of the lift system, - capturing the beacon signal by means of the mobile communication device, - recognizing a gesture of the user by means of the mobile communication device, - identifying an intention of the user to use the lift system, wherein the recognized gesture and the captured beacon signal are used for this purpose, - displaying a user interface on the mobile communication device for the purpose of sending a call, and - sending the call to the controller of the lift system.
Method for controlling a mechanical joining process, in particular flow drill fastening in thin-walled materials, using a non-motorized actuator, specifically a pneumatic cylinder for generating a process parameter, wherein the profile of an actual curve of the process parameter is approximated to the profile of a predetermined target curve of the process parameter by means of a plurality of counter pulses acting on the process parameter, and the number and length of the counter pulses and length of the pauses between the pulses are determined on the basis of at least one immediately detectable variable related to the process parameter.
A solid state vacuum micro-electronic device comprising: a cathode element; an anode element; a grid disposed between the cathode and the anode; a means for establishing a desired voltage bias between the grid and ground; a voltage source for establishing a desired voltage bias between the anode element and ground; a housing for sealably enclosing the cathode, the anode and the grid; and a heater disposed within the housing proximate or as part of the cathode for heating the cathode, wherein the heater comprises fissile material for production of thermal energy to power the vacuum micro-electronic device. a cathode element; an anode element; a grid disposed between the cathode and the anode; a means for establishing a desired voltage bias between the grid and ground; a voltage source for establishing a desired voltage bias between the anode element and ground; a housing for sealably enclosing the cathode, the anode and the grid; and a heater disposed within the housing proximate or as part of the cathode for heating the cathode, wherein the heater comprises fissile material for production of thermal energy to power the vacuum micro-electronic device.
A method of characterizing contact quality of an intra-body probe (111,112) comprising multiple intra-body type electrodes with a target tissue, comprising: measuring dielectric properties of the environment of each of said intra-body type electrodes using multiple electrical circuits, each electrical circuit being defined by one of said intra-body electrodes placed intra-bodily so that the target tissue is included in the electrical circuit; and characterizing contact between the probe (111, 112) and the target tissue using a contact characterization module; wherein an electrical field is produced between each of said intra-body type electrodes and either a second of said intra-body type electrodes or an electrode positioned remotely; wherein the dielectric properties comprise dielectric properties measured for a plurality of electrical field frequencies; and wherein the characterization of the contact by the contact characterization module comprises mapping of the measured dielectric properties to a mapped value within a range of values characterizing the contact quality and wherein the mapped value represents a contact force equivalent, such that a force of contact of the intra-body probe (111, 112) with the target tissue is represented by the mapped value. measuring dielectric properties of the environment of each of said intra-body type electrodes using multiple electrical circuits, each electrical circuit being defined by one of said intra-body electrodes placed intra-bodily so that the target tissue is included in the electrical circuit; and characterizing contact between the probe (111, 112) and the target tissue using a contact characterization module; wherein an electrical field is produced between each of said intra-body type electrodes and either a second of said intra-body type electrodes or an electrode positioned remotely; wherein the dielectric properties comprise dielectric properties measured for a plurality of electrical field frequencies; and wherein the characterization of the contact by the contact characterization module comprises mapping of the measured dielectric properties to a mapped value within a range of values characterizing the contact quality and wherein the mapped value represents a contact force equivalent, such that a force of contact of the intra-body probe (111, 112) with the target tissue is represented by the mapped value.