mhurhangee/ep-ind-claims huggingface dataset:
A session processing method, wherein the method comprises: sending, by a first access and mobility management function network element to a session management function network element, a pool identifier of an access and mobility management function pool, wherein the access and mobility management function pool is a set of at least two access and mobility management function network elements comprising the first access and mobility management function network element and a second access and mobility management function network element, wherein the at least two access and mobility management function network elements in the access and mobility management function pool share a context of a terminal that is stored in a unstructured data storage function network element; receiving, by the session management function network element, the pool identifier from the first access and mobility management function network element; when the first access and mobility management function network element is unavailable, determining, by the session management function network element, the second access and mobility management function network element comprised in the access and mobility management function pool based on the pool identifier; sending, by the session management function network element, a first message to the second access and mobility management function network element, wherein the first message comprises a permanent identifier of the terminal, the permanent identifier is used for acquisition of the context of the terminal from the unstructured data storage function network element. sending, by a first access and mobility management function network element to a session management function network element, a pool identifier of an access and mobility management function pool, wherein the access and mobility management function pool is a set of at least two access and mobility management function network elements comprising the first access and mobility management function network element and a second access and mobility management function network element, wherein the at least two access and mobility management function network elements in the access and mobility management function pool share a context of a terminal that is stored in a unstructured data storage function network element; receiving, by the session management function network element, the pool identifier from the first access and mobility management function network element; when the first access and mobility management function network element is unavailable, determining, by the session management function network element, the second access and mobility management function network element comprised in the access and mobility management function pool based on the pool identifier; sending, by the session management function network element, a first message to the second access and mobility management function network element, wherein the first message comprises a permanent identifier of the terminal, the permanent identifier is used for acquisition of the context of the terminal from the unstructured data storage function network element.
A tip shroud assembly for use with a turbine engine, comprising: a shroud comprising a first end Z-notch and a second end Z-notch; a seal rail on the shroud; and a contoured fillet attaching the seal rail to the shroud, the contoured fillet comprising a Z-notch section about the first end Z-notch and one or more linear sections towards the second end Z-notch, wherein the Z-notch section comprises a plurality of expanding Z-notch radii, characterized in that the Z-notch section comprises a first mass, each of the one or more linear sections comprises a second mass, and the first mass is larger than the second mass. a shroud comprising a first end Z-notch and a second end Z-notch; a seal rail on the shroud; and a contoured fillet attaching the seal rail to the shroud, the contoured fillet comprising a Z-notch section about the first end Z-notch and one or more linear sections towards the second end Z-notch, wherein the Z-notch section comprises a plurality of expanding Z-notch radii,
An air-bag device, comprising: an air bag stored in an inner side of a backrest in a vehicle width direction; and an inflator that inflates and expands the air bag, wherein the air bag includes a first chamber that houses the inflator such that a longitudinal direction of the inflator matches a vertical direction of the air bag, and a second chamber that is located above the first chamber and is inflated and expanded by a gas ejected from an upper end of the inflator to form a tubular shape extending upward above the first chamber; the second chamber is formed by partitioning an internal space of the air bag along a longitudinal direction of the air bag; and the first chamber and the second chamber are connected to each other via a flow path that allows the gas to flow from the first chamber into the second chamber. an air bag stored in an inner side of a backrest in a vehicle width direction; and an inflator that inflates and expands the air bag, wherein the air bag includes a first chamber that houses the inflator such that a longitudinal direction of the inflator matches a vertical direction of the air bag, and a second chamber that is located above the first chamber and is inflated and expanded by a gas ejected from an upper end of the inflator to form a tubular shape extending upward above the first chamber; the second chamber is formed by partitioning an internal space of the air bag along a longitudinal direction of the air bag; and the first chamber and the second chamber are connected to each other via a flow path that allows the gas to flow from the first chamber into the second chamber.
Method for producing a steel component assembly, in which method - a steel component is provided with a predetermined breaking point; - the predetermined breaking point of the steel component by means of a press-fit element is punched so as to form an opening; - the press-fit element is pressed into the opening of the steel component; - a component that overlaps at least the press-fit element is adhesively bonded to the steel component by means of an adhesive that is applied in a planar manner; and - a friction-drilling hole is melted through the press-fit element, the steel component, and the component, by means of a friction-drilling element. - a steel component is provided with a predetermined breaking point; - the predetermined breaking point of the steel component by means of a press-fit element is punched so as to form an opening; - the press-fit element is pressed into the opening of the steel component; - a component that overlaps at least the press-fit element is adhesively bonded to the steel component by means of an adhesive that is applied in a planar manner; and - a friction-drilling hole is melted through the press-fit element, the steel component, and the component, by means of a friction-drilling element.
An intravascular, ultrasound-based ablation system comprising: a catheter comprising at least one fluid lumen; a balloon positioned at a distal end of the catheter, an interior of the balloon being in fluid communication with the at least one fluid lumen of the catheter, wherein the balloon is configured to inflate when fluid is delivered into the interior through the at least one lumen of the catheter; an ultrasound transducer positioned within the balloon, the ultrasound transducer comprising a cylindrical tube with inner and outer surfaces, each of the inner and outer surface comprising an electrode, wherein the ultrasound transducer defines an internal space adjacent the inner electrode surface, the internal space being in fluid communication with the interior cavity of the balloon so that, when in use, fluid entering the balloon passes along both the inner and outer surfaces to cool the ultrasound transducer; and a fluid transfer device configured to selectively deliver a cooling fluid within the balloon when the ultrasound transducer is activated in order to transfer heat away from the ultrasound transducer during use, wherein the fluid transfer device comprises a reservoir for storing a volume of cooling fluid, characterized in that the fluid transfer device comprises a movable member configured to move within an interior of the reservoir in order to transfer cooling fluid through the at least one fluid lumen of the catheter to the balloon. a catheter comprising at least one fluid lumen; a balloon positioned at a distal end of the catheter, an interior of the balloon being in fluid communication with the at least one fluid lumen of the catheter, wherein the balloon is configured to inflate when fluid is delivered into the interior through the at least one lumen of the catheter; an ultrasound transducer positioned within the balloon, the ultrasound transducer comprising a cylindrical tube with inner and outer surfaces, each of the inner and outer surface comprising an electrode, wherein the ultrasound transducer defines an internal space adjacent the inner electrode surface, the internal space being in fluid communication with the interior cavity of the balloon so that, when in use, fluid entering the balloon passes along both the inner and outer surfaces to cool the ultrasound transducer; and a fluid transfer device configured to selectively deliver a cooling fluid within the balloon when the ultrasound transducer is activated in order to transfer heat away from the ultrasound transducer during use, wherein the fluid transfer device comprises a reservoir for storing a volume of cooling fluid, characterized in that the fluid transfer device comprises a movable member configured to move within an interior of the reservoir in order to transfer cooling fluid through the at least one fluid lumen of the catheter to the balloon.
A method of operating a computational device to process a sound recording of a patient, the method characterized by the steps of: extracting Mel-frequency cepstral coefficients (MFCCs), Formant Frequency, Zero Crossing Rate, Shannon Entropy and Non-Gaussianity features from patient sounds in the recording to form feature vectors; classifying segments as cough sounds based upon the extracted features with a pattern classifier; and presenting a diagnosis of a disease related state on a display under control of the computational device based on segments of the patient sounds classified as cough sounds, wherein the diagnosis presented is pneumonia. extracting Mel-frequency cepstral coefficients (MFCCs), Formant Frequency, Zero Crossing Rate, Shannon Entropy and Non-Gaussianity features from patient sounds in the recording to form feature vectors; classifying segments as cough sounds based upon the extracted features with a pattern classifier; and presenting a diagnosis of a disease related state on a display under control of the computational device based on segments of the patient sounds classified as cough sounds, wherein the diagnosis presented is pneumonia.
Home vacuum cleaner comprising a suction device comprising a motor casing comprising a support and a passage opening provided on the support; a suction motor disposed in the motor casing and supported by the support, the suction motor comprising an air inlet opening and being configured to generate a suction flow through the passage opening and through the air inlet opening; and an aeraulic sealing element comprising a first sealing portion configured to sealingly engage with the motor casing and a second sealing portion configured to sealingly engage with the suction motor, in which the suction device further comprises at least one damping element interposed between the support and the suction motor, in which the at least one damping element is distinct from the aeraulic sealing element, and in which the aeraulic sealing element is annular, and the at least one damping element is disposed at the periphery of the aeraulic sealing element, characterised in that the at least one damping element is configured to support the weight of the suction motor, and in that the suction device is configured such that, when a longitudinal axis of the suction motor is substantially vertical and the air inlet opening is oriented towards the floor, the support and the at least one damping element are located below the suction motor. characterised in that the at least one damping element is configured to support the weight of the suction motor, and in that the suction device is configured such that, when a longitudinal axis of the suction motor is substantially vertical and the air inlet opening is oriented towards the floor, the support and the at least one damping element are located below the suction motor.
Method for protecting against fault attack(s) an electronic device comprising hardware and software capable of executing a sensitive process using a cache memory and implementing redundancy checks, said method comprising at least a step (i) during which said cache memory is filled with a first value originating from an external memory, a step (ii) during which said first value is read into said cache memory and a step (iii) implementing at least a redundancy check, characterized in that step (iii) comprises a fundamental step to guarantee that any redundant reading inside the redundancy check will extract a value from cache memory which is numerically equal to the genuine value in the external memory, said fundamental step comprising a systematic emptying of the cache memory before each redundant reading of the first value into said cache memory inside a redundancy check and then the filling of said cache memory with said genuine value.
A dispensing device for bulk dispensing at least one food product, said dispensing device comprising a first part and a second part configured for holding a flexible packaging bag containing the at least one food product, the first part is configured to allow the suspension of a first side of the bag, the second part comprises a pouring spout supporting a pinching mechanism and a control mechanism for controlling the pinching mechanism, the pinching mechanism being configured to allow the pinching of a second side of the bag opposite the first side, said dispensing device being characterized in that the pinching mechanism comprises at least one first blade and one second blade deformable in flexion between: - a closing position in which the blades (51, 52) are not mechanically constrained by the control mechanism and are configured to keep the second side of the bag closed and, - an open position in which the blades (51, 52) are mechanically constrained by the control mechanism to be deformed in flexion and thus move away from each other to release the second side of the bag so as to deliver the food product through the pouring spout. the first part is configured to allow the suspension of a first side of the bag, the second part comprises a pouring spout supporting a pinching mechanism and a control mechanism for controlling the pinching mechanism, the pinching mechanism being configured to allow the pinching of a second side of the bag opposite the first side, said dispensing device being characterized in that the pinching mechanism comprises at least one first blade and one second blade deformable in flexion between: - a closing position in which the blades (51, 52) are not mechanically constrained by the control mechanism and are configured to keep the second side of the bag closed and, - an open position in which the blades (51, 52) are mechanically constrained by the control mechanism to be deformed in flexion and thus move away from each other to release the second side of the bag so as to deliver the food product through the pouring spout. - a closing position in which the blades (51, 52) are not mechanically constrained by the control mechanism and are configured to keep the second side of the bag closed and, - an open position in which the blades (51, 52) are mechanically constrained by the control mechanism to be deformed in flexion and thus move away from each other to release the second side of the bag so as to deliver the food product through the pouring spout.
Method for closing a tubular container and for monitoring the tightness of the sealed end thereof, after filling same to a filling level, particularly with a sterile product, characterised in that it comprises the steps consisting of: i. creating a first seal of the end of the tube after squeezing the lips thereof so as to create a sealed zone comprising a crimped zone and a substantially rectangular stub extending over the entire width of the tube and the lower end whereof is tangent with the filling level; ii. measuring the thickness of said stub over the length of the sealed end by means of two profilometers (350, 360) placed on either side of said stub (611, 611a, 611b) of the tubular container; iii. detecting a variation of thickness of the stub (611, 611a, 611b) along a direction parallel with the length of the seal; iv. obtaining an acceptable limit of variation of the thickness of the part measured; v. if the variation of thickness detected during step (iii) is greater than the acceptable limit of variation, rejecting the tubular container. i. creating a first seal of the end of the tube after squeezing the lips thereof so as to create a sealed zone comprising a crimped zone and a substantially rectangular stub extending over the entire width of the tube and the lower end whereof is tangent with the filling level; ii. measuring the thickness of said stub over the length of the sealed end by means of two profilometers (350, 360) placed on either side of said stub (611, 611a, 611b) of the tubular container; iii. detecting a variation of thickness of the stub (611, 611a, 611b) along a direction parallel with the length of the seal; iv. obtaining an acceptable limit of variation of the thickness of the part measured; v. if the variation of thickness detected during step (iii) is greater than the acceptable limit of variation, rejecting the tubular container.
Multipurpose container (1;100;200) for ready-to-eat food having a containing base and a lid for closing said base, both made of a food-grade metallic material, said base and/or said lid having at least one through-hole for allowing vapours to escape, the container being characterized in that said base and said lid are made of a thin sheet of metallic material having a thickness of between 0.1 mm and 0.5 mm, and in that the inner surface of the lid is lined at least partially with a layer of a heat-insulating and/or moisture absorbent material.
Dynamic particle separator for cyclone separation of sand from a gas stream in connection with petroleum related production of oil and gas, where the separator comprises a housing containing a cyclone tank that is equipped with an upper inlet opening for the gas stream and an upper and a lower outlet opening (2,12) for the export of gas and particles, respectively, from the tank - the cyclone tank is formed, at least in an internal area around the inlet opening, with an upper and downwardly directed conical shape that increases in diameter, and - where the upper conical shape thereafter has a transition into an inverse, lower conical shape, that converges towards the lower outlet opening, characterised in that - the housing comprises a lower chamber, in which the lower outlet opening ends up, and which is equipped with a collecting bucket with an open top for collection of separated particles, wherein the collecting bucket is placed on a load cell to register the amount of collected particles in the bucket, and a silting device is placed in the collection bucket, where the silting device is connected to a pipe that runs out of the housing and where a silting process for the export of particles through the pipe starts on a signal from the load cell. - the cyclone tank is formed, at least in an internal area around the inlet opening, with an upper and downwardly directed conical shape that increases in diameter, and - where the upper conical shape thereafter has a transition into an inverse, lower conical shape, that converges towards the lower outlet opening, characterised in that - the housing comprises a lower chamber, in which the lower outlet opening ends up, and which is equipped with a collecting bucket with an open top for collection of separated particles, wherein
Method for regenerating drilling fluid in a device for regenerating drilling fluid, having the following steps in the following order of steps: - Supplying the drilling fluid for the device for generating drilling fluid, - Defining a quality of the drilling fluid, wherein the quality is defined at the side of the entrance by a first quality sensor, wherein the method is characterized by the following steps: - Cleaning the drilling fluid, which is controlled depending on the quality defined at the side of the entrance, wherein the cleaning is carried out by means of a vibrating sieve and/or a centrifuge, and the respective performance of the vibrating sieve and the centrifuge is defined depending on the established quality, - Defining the quality of the cleaned drilling fluid by a second quality sensor, wherein depending on the quality the drilling fluid is filled in a first tank or a second tank, - Treatment of low-quality drilling fluid contained in a tank, wherein for the treatment of the drilling fluid a proppant agent, glide agent or lubricant and/or a liquid is added, - Release of a drilling fluid contained in a tank (122, 126) with good quality. - Supplying the drilling fluid for the device for generating drilling fluid, - Defining a quality of the drilling fluid, wherein the quality is defined at the side of the entrance by a first quality sensor, wherein the method is characterized by the following steps: - Cleaning the drilling fluid, which is controlled depending on the quality defined at the side of the entrance, wherein the cleaning is carried out by means of a vibrating sieve and/or a centrifuge, and the respective performance of the vibrating sieve and the centrifuge is defined depending on the established quality, - Defining the quality of the cleaned drilling fluid by a second quality sensor, wherein depending on the quality the drilling fluid is filled in a first tank or a second tank, - Treatment of low-quality drilling fluid contained in a tank, wherein for the treatment of the drilling fluid a proppant agent, glide agent or lubricant and/or a liquid is added, - Release of a drilling fluid contained in a tank (122, 126) with good quality.
Method for measuring flow rate and velocity of a lubricant in an oil mist moving within a conduit, said oil mist comprising compressed air and said lubricant, said oil mist being used in a process for lubricating components, mechanical members or tools for machining operations, said method comprising detecting the flow rate and pressure of such lubricant, such flow rate determination being performed using optical sensor means comprising a generator of a light beam and a detector of such beam, the oil mist moving between said generator and said detector, the presence of lubricant altering the light beam striking said detector in such a way as to modify an electrical signal generated by such detector, said measurement being made in real time, a provision being made for monitoring the frequency range of a frequency spectrum of said electrical signal emitted by said detector in order to detect the velocity of the lubricant in the oil mist, characterised in that the amplitude of said frequency spectrum is monitored in order to measure the flow rate of the lubricant in the oil mist from the analysis of said amplitude, the electrical signal generated by the detector being broken down into a combination of individual signals having amplitude and temporal duration characteristics which are different from each other and which vary as a function of the quantity of lubricant present in the oil mist and as a function of the velocity of such oil mist, the amplitude and frequency values of each individual signal being calculated, said amplitude and frequency values so obtained being correlated with each one of the flow rate and velocity of the oil present in such fluid, the analysis of the signal being performed under constant hydraulic conditions.