mhurhangee/patent-ind-claim-en huggingface dataset:
A tooling for holding a blade during its friction welding to a rotor element of an aircraft turbomachine, comprising a fixed jaw comprising : • a central part designed to be fixed to a vibrating plate of a friction welding machine; • two arms essentially parallel to each other, separated by a distance d for receiving at least a portion of the blade and essentially perpendicular to said central part ; • a fixed jaw body disposed between the two arms , comprising bearing surfaces and a bore for receiving at least a portion of the vane , the bearing surfaces being intended to come into contact with faces of the vane ; characterized in that it comprises : - a movable jaw able to slide along the two arms and comprising a movable bearing surface intended to come into contact with a face of the blade ; - pressing means for moving said movable jaw towards the fixed jaw body to press the blade between the movable jaw and the fixed jaw body . • a central part designed to be fixed to a vibrating plate of a friction welding machine; • two arms essentially parallel to each other, separated by a distance d for receiving at least a portion of the blade and essentially perpendicular to said central part ; • a fixed jaw body disposed between the two arms , comprising bearing surfaces and a bore for receiving at least a portion of the vane , the bearing surfaces being intended to come into contact with faces of the vane ; - a movable jaw able to slide along the two arms and comprising a movable bearing surface intended to come into contact with a face of the blade ; - pressing means for moving said movable jaw towards the fixed jaw body to press the blade between the movable jaw and the fixed jaw body .
A system for treating a patient with a heart condition, comprising: an atrial assist device (AAD) configured to be positioned in the patient's heart to pump blood from an atrium of the patient's heart into a ventricle associated with the atrium; and a controller operatively connected to the AAD and being configured to control the AAD to pump blood from the atrium of the patient's heart into the ventricle associated with the atrium, wherein the controller is configured to control the AAD to assist with the filling of the ventricle during the normal cardiac cycle of the heart by modulating the electrical current supplied to the AAD and synchronizing the current modulation to coincide with diastole and systole phases of the cardiac cycle of the heart; wherein modulating the electrical current supplied to the AAD comprises modulating the electrical current supplies to the AAD between a first current and second current, wherein the second current is greater than the first current; and synchronizing the current modulation to coincide with diastole and systole phases of the cardiac cycle of the heart comprises: supplying the first current to the AAD at least partially in synchronization with a diastole phase of the cardiac cycle of the patient's heart; and supplying the second current to the AAD at least partially in synchronization with a diastole phase of the cardiac cycle of the patient's heart. an atrial assist device (AAD) configured to be positioned in the patient's heart to pump blood from an atrium of the patient's heart into a ventricle associated with the atrium; and a controller operatively connected to the AAD and being configured to control the AAD to pump blood from the atrium of the patient's heart into the ventricle associated with the atrium, wherein the controller is configured to control the AAD to assist with the filling of the ventricle during the normal cardiac cycle of the heart by modulating the electrical current supplied to the AAD and synchronizing the current modulation to coincide with diastole and systole phases of the cardiac cycle of the heart; wherein modulating the electrical current supplied to the AAD comprises modulating the electrical current supplies to the AAD between a first current and second current, wherein the second current is greater than the first current; and synchronizing the current modulation to coincide with diastole and systole phases of the cardiac cycle of the heart comprises: supplying the first current to the AAD at least partially in synchronization with a diastole phase of the cardiac cycle of the patient's heart; and supplying the second current to the AAD at least partially in synchronization with a diastole phase of the cardiac cycle of the patient's heart. supplying the first current to the AAD at least partially in synchronization with a diastole phase of the cardiac cycle of the patient's heart; and supplying the second current to the AAD at least partially in synchronization with a diastole phase of the cardiac cycle of the patient's heart.
A device interconnection method, performed by a vehicular device and comprising: in response to an operation of starting up a screen mirroring application program, starting up the screen mirroring application program, wherein the screen mirroring application program comprises a screen mirroring identifier used in screen mirroring; generating an audio file carrying the screen mirroring identifier; and playing the audio file at least once to generate an acoustic wave signal, such that a screen mirroring application program in a terminal device collects the acoustic wave signal, and establishes a screen mirroring link with the vehicular device based on the screen mirroring identifier in the acoustic wave signal. in response to an operation of starting up a screen mirroring application program, starting up the screen mirroring application program, wherein the screen mirroring application program comprises a screen mirroring identifier used in screen mirroring; generating an audio file carrying the screen mirroring identifier; and playing the audio file at least once to generate an acoustic wave signal, such that a screen mirroring application program in a terminal device collects the acoustic wave signal, and establishes a screen mirroring link with the vehicular device based on the screen mirroring identifier in the acoustic wave signal.
A separation device comprising two or more sorbents that comprise: (a) a sorbent that contains at least one hydrophobic component and at least one water-wettable hydrophilic component; and (b) an additional sorbent having a specific affinity to phospholipids that is a silica containing a modified or unmodified octadecyl (C 18 ) or C 8 to C 30 alkyl component.
Mitoxantrone liposome and pegaspargase for use in treating NK/T-cell lymphoma.
A process for the incorporation of at least one cosmetic or pharmaceutical water-soluble active agent in a hydrophilic polymer foam, comprising the stages of: a) deposition of the water-soluble active agent on an impermeable nonporous support, b) preparation of a precursor mixture of the foam in the form of an aqueous dispersion comprising either monomers or prepolymers, c) pouring the mixture obtained in stage b) over the active agent which has been deposited on the support at the end of stage a), d) polymerization and production of the hydrophilic polymer foam incorporating the water-soluble active agent, e) drying the hydrophilic polymer foam. characterized in that said active agent dissolves in the aqueous dispersion comprising the precursor mixture of the foam during the pouring of stage c), and in that said active agent is chosen from the list consisting of antibacterial agents, antiinflammatory agents, keratolytic agents, immunomodulating agents, chelating agents, pH-modifying agents, compounds of the extracellular matrix, agents which promote healing, antiviral agents, antifungal agents and painkillers. a) deposition of the water-soluble active agent on an impermeable nonporous support, b) preparation of a precursor mixture of the foam in the form of an aqueous dispersion comprising either monomers or prepolymers, c) pouring the mixture obtained in stage b) over the active agent which has been deposited on the support at the end of stage a), d) polymerization and production of the hydrophilic polymer foam incorporating the water-soluble active agent, e) drying the hydrophilic polymer foam.
A system for characterizing an active device , comprising a device class including - a set of component attributes , wherein a component attribute indicates a purpose of an active device , - a set of capability attributes (34.1, 34.2, 34.3), wherein a capability attribute (34.1) indicates a functionality of an active device , wherein the set of component attributes and the set of capability attributes are selected to build up a complete and consistent abstraction model that allows to characterize any active device as regards its purpose and functionality, and wherein each component attribute is linked to at least one of the capability attributes (34.1, 34.2, 34.3) so that any active device can be characterized by at least one of the component attributes and at least one of the capability attributes (34.1, 34.2, 34.3) linked to that at least one component attribute , - a software framework implementing at least the device class ; and - a software application based on the software framework, wherein the software application, when executed on a computing device (18; 20), is configured to allow: - generation and addition of a device object, based on the device class , to a device management system in a computing network; - connecting an active device to the device object; and - communicating with the active device via the device management system over the computing network by means of a controller device . - a set of component attributes , wherein a component attribute indicates a purpose of an active device , - a set of capability attributes (34.1, 34.2, 34.3), wherein a capability attribute (34.1) indicates a functionality of an active device , wherein the set of component attributes and the set of capability attributes are selected to build up a complete and consistent abstraction model that allows to characterize any active device as regards its purpose and functionality, and wherein each component attribute is linked to at least one of the capability attributes (34.1, 34.2, 34.3) so that any active device can be characterized by at least one of the component attributes and at least one of the capability attributes (34.1, 34.2, 34.3) linked to that at least one component attribute , - a software framework implementing at least the device class ; and - a software application based on the software framework, - generation and addition of a device object, based on the device class , to a device management system in a computing network; - connecting an active device to the device object; and - communicating with the active device via the device management system over the computing network by means of a controller device .
A lyophilized implant configured to fit at or near a bone defect to promote bone growth, the lyophilized implant comprising collagen in an amount of 0.1 wt.% to 20 wt.% of the implant, tricalcium phosphate and hydroxyapatite in a ratio of 70:75 to 90:10 and in an amount from 0.1 wt. % to 75 wt. % of the implant, and 17-((S)-2-hydroxyoctan-2-yl)- 10, 13-dimethylhexadecahydro-H-cyclopenta[a]phenanthrene-3,6-diol (Oxy133), Oxy153 or hydrates, solvates, amorphous forms, or pharmaceutically acceptable salts thereof in an amount of 0.01 wt. % to 90 wt. % of the implant, and carboxymethylcellulose in an amount from 2 wt.% to 4 wt.% of the implant.
A casing , in particular an exhaust casing, for a turbomachine, comprising an inner hub having an axis (A) of revolution and an outer annular shell extending around the hub, said shell being configured to define with the hub an annular flow duct of a gas stream and being rigidly connected to the hub by arms , the hub comprising at one longitudinal end, a scalloped annular flange comprising solid portions (22c1) distributed at regular intervals around said axis and spaced apart from each other by hollow portions (22c2), characterized in that the hub is produced by assembling by welding several angular sectors of hub which are arranged circumferentially end to end around said axis (A), each sector being connected to an adjacent hub sector by a longitudinal weld bead which extends over the entire axial extent of the hub and which is axially aligned with a hollow portion (22c2) of the scalloped flange .
A session handling method, comprising: receiving , by a first access and mobility management function network element, a first message from a second access and mobility management function network element, wherein the first message comprises a session identifier of a current session of a terminal and information about a network slice corresponding to the current session; and when determining that the first access and mobility management function network element does not support the network slice corresponding to the current session, sending , by the first access and mobility management function network element, a first notification message comprising the identifier of the current session to the second access and mobility management function network element, wherein, by sending the first notification message, the first access and mobility management function network element notifies the second access and mobility management function network element that the first access and mobility management function network element does not support the network slice corresponding to the current session and to release a network resource of the current session. receiving , by a first access and mobility management function network element, a first message from a second access and mobility management function network element, wherein the first message comprises a session identifier of a current session of a terminal and information about a network slice corresponding to the current session; and when determining that the first access and mobility management function network element does not support the network slice corresponding to the current session, sending , by the first access and mobility management function network element, a first notification message comprising the identifier of the current session to the second access and mobility management function network element, wherein, by sending the first notification message, the first access and mobility management function network element notifies the second access and mobility management function network element that the first access and mobility management function network element does not support the network slice corresponding to the current session and to release a network resource of the current session.
Electrical machine with a stator , with a rotor and with multiple machine coils , wherein the electrical machine comprises a cooling device, which is suitable for cooling a superconductive material at least to below a transition temperature, wherein a winding at least of one machine coil consists of the superconductive material, wherein the winding is operatively connected to the cooling device in order to cool the winding to below the transition temperature, wherein the windings are enclosed by a thermal insulator and wherein the electrical machine comprises an open-loop- or closed-loop-controllable power supply device connected electrically conductively to the winding for the electrical supply and activation of the machine coil , wherein an open-loop- or closed-loop-controllable power output stage of the power supply device is arranged inside the thermal insulator and is connected electrically conductively to the winding of the at least one machine coil , wherein the thermal insulator is a vacuum and the power output stage is arranged inside the vacuum.
A core-shell microcapsule comprising: a) an oil-based core comprising a hydrophobic material, preferably a perfume oil; and b) a polymeric shell comprising chitosan particles; wherein the chitosan particles are cross-linked chitosan particles. a) an oil-based core comprising a hydrophobic material, preferably a perfume oil; and b) a polymeric shell comprising chitosan particles;
A vehicle that is able to be driven by a driver, the vehicle comprising: a control unit (110; 208) configured to perform control related to switching between driving by the driver and remote driving from an outside of the vehicle , wherein the control unit (110; 208) is configured to control authority of a driving operation in each of the driving by the driver and the remote driving and a timing of the switching between the driving by the driver and the remote driving as the control related to the switching, characterized in that the control unit (110; 208) is configured to control the authority of the driving operation so that the remote driving enters a restricted state when the driving by the driver is in a valid state in which the driving operation is not restricted, and wherein the control unit (110; 208) is configured to control the authority of the driving operation so that the driving by the driver enters the restricted state when the remote driving is in the valid state, wherein in the restricted state some of the driving operations are restricted. a control unit (110; 208) configured to perform control related to switching between driving by the driver and remote driving from an outside of the vehicle , wherein the control unit (110; 208) is configured to control authority of a driving operation in each of the driving by the driver and the remote driving and a timing of the switching between the driving by the driver and the remote driving as the control related to the switching, characterized in that the control unit (110; 208) is configured to control the authority of the driving operation so that the remote driving enters a restricted state when the driving by the driver is in a valid state in which the driving operation is not restricted, and wherein the control unit (110; 208) is configured to control the authority of the driving operation so that the driving by the driver enters the restricted state when the remote driving is in the valid state, wherein in the restricted state some of the driving operations are restricted.
A crystalline salt of 2-(tert-butylamino)-4-( -3-hydroxy-4-methylcyclohexylamino)-pyrimidine-5-carboxamide, wherein the crystalline salt is a hydrochloride salt, a sulfate salt, a phosphate salt, an L-tartrate salt, or an L-lactate salt.
An oral treatment device for use in treating an oral cavity of a user, the oral treatment device comprising: intraoral image sensor equipment configured to generate image data representing at least a portion of the oral cavity of the user during use by the user of the oral treatment device ; and a controller configured to: process the generated image data to determine location data indicating a location of an interproximal gap between adjacent teeth in the oral cavity of the user, wherein the controller is configured to process the generated image data using a trained classification algorithm configured to identify interproximal gaps, the trained classification algorithm having been trained prior to the use of the oral treatment device ; and during the use of the oral treatment device , control the oral treatment device to deliver a treatment to the detected interproximal gap based on the location data. intraoral image sensor equipment configured to generate image data representing at least a portion of the oral cavity of the user during use by the user of the oral treatment device ; and a controller configured to: process the generated image data to determine location data indicating a location of an interproximal gap between adjacent teeth in the oral cavity of the user, wherein the controller is configured to process the generated image data using a trained classification algorithm configured to identify interproximal gaps, the trained classification algorithm having been trained prior to the use of the oral treatment device ; and during the use of the oral treatment device , control the oral treatment device to deliver a treatment to the detected interproximal gap based on the location data. process the generated image data to determine location data indicating a location of an interproximal gap between adjacent teeth in the oral cavity of the user, wherein the controller is configured to process the generated image data using a trained classification algorithm configured to identify interproximal gaps, the trained classification algorithm having been trained prior to the use of the oral treatment device ; and during the use of the oral treatment device , control the oral treatment device to deliver a treatment to the detected interproximal gap based on the location data.
A receiver circuit (RC) for an ultrasonic flow meter, the receiver circuit (RC) comprising a receiving operational amplifier (ROA), characterized in that : the receiver circuit (RC) being arranged so that a first receiver impedance (ZR1) between a receiving ultrasonic transducer (TR1, TR2) and an output of the receiving operational amplifier (ROA) is less than or equal to a second receiver impedance (ZR2) between the receiving ultrasonic transducer (TR1, TR2) and an inverting input of said receiving operational amplifier (ROA).
A particle formation and collection equipment assembly comprising: at least one high pressure particle formation system comprising a pressurizable precipitation chamber comprising a supercritical fluid (SCF) inlet , a process fluid inlet , a fluid outlet , a process fluid disperser configured to disperse process fluid into the chamber, wherein the system is configured to form a particle-containing high pressure liquid suspension; wherein the collection equipment assembly comprises at least one particle filtration system comprising: at least one high pressure harvesting filter system comprising at least one gas supply , at least one porous element , and a housing defining a cavity , wherein the system is configured to receive a particle-containing high pressure liquid suspension from the particle formation system, to filter the high pressure liquid suspension through the porous element such that particles are retained in the cavity and high pressure liquid passes through the porous element in a first forward process direction, to flow a low pressure gas from the gas supply through the porous element in a second reverse process direction, and to dispense a particle-containing low pressure gaseous suspension, wherein process direction is with respect to flow through the porous element; and at least one low pressure collection filter system in tandem and downstream to the harvesting filter and configured to receive a particle-containing low pressure gaseous suspension from the harvesting filter , to separate gas from particles and to dispense particles to at least one collection system; and at least one particle collection system comprising at least one collection vessel and being configured to receive and collect particles from the at least one low pressure collection filter system.