mhurhangee/ep-ind-claims huggingface dataset:
A robotic instrument system, comprising: a catheter instrument comprising a deflection member; and a controller configured to control actuation of at least one servo motor operatively coupled to the deflection member, such that the catheter instrument is configured to move in response to actuation of the at least one servo motor, wherein the controller controls positioning of the catheter instrument based at least in part upon a control model, the control model comprising a kinematics model of the catheter instrument; characterized in that the control model further comprises a mechanics model of the catheter instrument, wherein the controller is configured to serially execute the kinematics and mechanics models; the controller is configured to execute the kinematics model based on a kinematics model input to generate a kinematics model output, then execute the mechanics model based on a mechanics model input comprising the kinematics model output to generate a mechanics model output, the mechanics model output comprising a calculated displacement of the deflection member; and the controller is configured to control the servo-motor utilizing the calculated displacement of the deflection member; and wherein the mechanics model output is based at least in part on the stiffness of the catheter instrument and the deflection member. a catheter instrument comprising a deflection member; and a controller configured to control actuation of at least one servo motor operatively coupled to the deflection member, such that the catheter instrument is configured to move in response to actuation of the at least one servo motor, wherein the controller controls positioning of the catheter instrument based at least in part upon a control model, the control model comprising a kinematics model of the catheter instrument; characterized in that the control model further comprises a mechanics model of the catheter instrument, wherein the controller is configured to serially execute the kinematics and mechanics models; the controller is configured to execute the kinematics model based on a kinematics model input to generate a kinematics model output, then execute the mechanics model based on a mechanics model input comprising the kinematics model output to generate a mechanics model output, the mechanics model output comprising a calculated displacement of the deflection member; and the controller is configured to control the servo-motor utilizing the calculated displacement of the deflection member; and wherein the mechanics model output is based at least in part on the stiffness of the catheter instrument and the deflection member.
A method for fastening a plurality of nanoscale structures within an anchoring structure, comprising acts of: providing a primary fluid layer on an anchoring substrate; providing a plurality of nanostructures on an initial substrate, wherein the initial substrate is a growth substrate on which the nanostructures were grown, the nanostructures each having a defined height and orientation with respect to the initial substrate; and introducing the plurality of nanostructures to a desired depth in the primary fluid layer, such that the orientation of the nanostructures relative to the growth substrate is substantially maintained; where the primary fluid layer comprises multiple fluid layers; and where ones of the multiple fluid layers are altered to form an anchoring structure and a portion of the anchoring structure is removed, leaving an anchoring structure exposing at least a portion of the nanostructures, characterized in that the growth substrate comprises a set of nanostructure cells and the nanostructures are grown in the nanostructure cells, the nanostructures each having a defined height and orientation with respect to the growth substrate, where the nanostructures extend beyond the nanostructure cells; and where, in the act of introducing the plurality of nanostructures to a desired depth in the primary fluid layer, the nanostructure cells are made to contact the primary fluid layer; whereby, the nanostructures extend beyond the primary fluid layer by a depth approximately equal to a depth of the nanostructure cells. providing a primary fluid layer on an anchoring substrate; providing a plurality of nanostructures on an initial substrate, wherein the initial substrate is a growth substrate on which the nanostructures were grown, the nanostructures each having a defined height and orientation with respect to the initial substrate; and introducing the plurality of nanostructures to a desired depth in the primary fluid layer, such that the orientation of the nanostructures relative to the growth substrate is substantially maintained; where the primary fluid layer comprises multiple fluid layers; and where ones of the multiple fluid layers are altered to form an anchoring structure and a portion of the anchoring structure is removed, leaving an anchoring structure exposing at least a portion of the nanostructures, characterized in that the growth substrate comprises a set of nanostructure cells and the nanostructures are grown in the nanostructure cells, the nanostructures each having a defined height and orientation with respect to the growth substrate, where the nanostructures extend beyond the nanostructure cells; and where, in the act of introducing the plurality of nanostructures to a desired depth in the primary fluid layer, the nanostructure cells are made to contact the primary fluid layer; whereby, the nanostructures extend beyond the primary fluid layer by a depth approximately equal to a depth of the nanostructure cells.
A geared gas turbine engine, comprising: a geared architecture configured to be driven by a shaft that is rotating at a first speed, the geared architecture configured to rotate a fan at a second speed different than the first speed; and an accessory gearbox; characterised in that: said accessory gearbox is directly connected to an intermediate case of the gas turbine engine such that there is substantially no axial space between the accessory gearbox and the intermediate case, and the accessory gearbox is located in the forwardmost position within a core compartment of the engine. a geared architecture configured to be driven by a shaft that is rotating at a first speed, the geared architecture configured to rotate a fan at a second speed different than the first speed; and an accessory gearbox; said accessory gearbox is directly connected to an intermediate case of the gas turbine engine such that there is substantially no axial space between the accessory gearbox and the intermediate case, and the accessory gearbox is located in the forwardmost position within a core compartment of the engine.
A piece of luggage comprising at least one storage space, an opening/closing mechanism for accessing said storage space and an attachment member, called second attachment member, adapted to cooperate with an attachment member, called first attachment member, of an attachment terminal, the second attachment member comprising active anchoring means adapted to cooperate with passive blocking means for passively blocking the first attachment member of the attachment terminal.
A Policy and Charging Rule Function, PCRF, comprising: a first transmitting module, configured to transmit a Quality of Service, QoS, rule to a Bearer Binding and Event Reporting Function, BBERF; and characterized by a second transmitting module, configured to transmit a charging identifier associated with the QoS rule to the BBERF; and a scheduler module, configured to schedule the second transmitting module when the first transmitting module transmits the QoS rule. a first transmitting module, configured to transmit a Quality of Service, QoS, rule to a Bearer Binding and Event Reporting Function, BBERF; and characterized by a second transmitting module, configured to transmit a charging identifier associated with the QoS rule to the BBERF; and a scheduler module, configured to schedule the second transmitting module when the first transmitting module transmits the QoS rule.
Flashing system for a building, in particular for a roof or a wall, comprising at least one metal sheet for covering a part of the building and a slotted element that is part of or to be installed on or in the building, wherein the sheet comprises a stiffened and/or thickened edge for inserting and securing the sheet in the slotted element, wherein the edge has a substantially circular cross-section and/or is hook-shaped and wherein the slotted element has an at least substantially circular cross-section open at one side to allow hooking in of the metal sheet, characterized in that: a strip is folded and/or clamped about the edge of the sheet, the strip forming at least a part of the stiffened and/ or thickened edge, and in that the strip also has a substantially circular cross-section and/ or also is hook-shaped. a strip is folded and/or clamped about the edge of the sheet, the strip forming at least a part of the stiffened and/ or thickened edge, and in that the strip also has a substantially circular cross-section and/ or also is hook-shaped.
A silicone composition for use in a printing plate, the composition comprising at least: a SiH group-containing compound; a compound represented by the following general formula; and a compound represented by the following general formula; wherein Ds in the compound represented by the general formula and Gs in the compound represented by the general formula each represents an acetoxy group or a dialkyloximino group: A-Si- 3 wherein in the general formula, A represents a non-hydrolyzable functional group capable of undergoing a hydrosilylation reaction with a SiH group E-Si- 3 (wherein in the general formula, E represents a non-hydrolyzable functional group incapable of undergoing a hydrosilylation reaction with a SiH group).
A dispensing system for administration of medicaments during a medicament dosage regime and comprising: (i) a tray comprising: a frame; an interconnected array of compartments, each compartment being dimensioned to accommodate therein a plurality of medicaments; wherein the frame acts as an interconnecting member to hold the compartments in position in an interconnected array; and wherein when each compartment is removed from the frame it leaves an aperture in the frame; (ii) a closure for the compartments wherein the closure comprises a sheet which includes an individual closure for each of the compartments, the closure arranged so that the closure and the compartments form a series of sealed containers for holding medicaments; the compartments and the closure therefor being arranged so that each sealed container is frangible from the interconnected array so that a sealed container may be removed from the array further wherein each sealed container comprises information identifying a time during the dosage regime at which it is intended to administer the medication in the container and the sealed containers are arranged sequentially according to times of administration. (i) a tray comprising: a frame; an interconnected array of compartments, each compartment being dimensioned to accommodate therein a plurality of medicaments; wherein the frame acts as an interconnecting member to hold the compartments in position in an interconnected array; and wherein when each compartment is removed from the frame it leaves an aperture in the frame; a frame; an interconnected array of compartments, each compartment being dimensioned to accommodate therein a plurality of medicaments; wherein the frame acts as an interconnecting member to hold the compartments in position in an interconnected array; and wherein when each compartment is removed from the frame it leaves an aperture in the frame; (ii) a closure for the compartments wherein the closure comprises a sheet which includes an individual closure for each of the compartments, the closure arranged so that the closure and the compartments form a series of sealed containers for holding medicaments;
An isolated polypeptide having cellulolytic enhancing activity, comprising a polypeptide having at least 85% sequence identity to the mature polypeptide of SEQ ID NO: 2.
A screw cap (10a-10n) for wine bottles, comprising: - an outer capsule screwable on a bottle; - at least one insert (11a-11n) inserted in the outer capsule and intended to be interposed between the mouth of the bottle and the outer capsule, wherein the insert (11a-11n) comprises at least one metal foil intended to stay in contact directly with the mouth of the bottle and intercept it, and wherein the metal foil is made of a precious metal inert at room temperature, or it is made of an alloy of precious metals inert at room temperature, characterized in that the insert (11a-11n) comprises a gasket positioned on the metal foil and having a radial extent greater than the metal foil itself, and wherein the outer crown of the gasket surrounds the metal foil while adhering to the mouth of the bottle. - an outer capsule screwable on a bottle; - at least one insert (11a-11n) inserted in the outer capsule and intended to be interposed between the mouth of the bottle and the outer capsule,
A method of processing an audio signal, the method comprising: receiving at least two or more digital audio streams from at least two or more audio sources; applying at least one gain value to each of the at least two or more digital audio streams by a gain adjustment unit; mixing the at least two or more digital audio streams to which the at least one gain value has been applied to obtain a mixed digital audio stream; calculating a representative gain value from the at least one gain value; calculating an extra valid headroom based on the representative gain value for correction of the mixed digital audio stream; and post-processing the mixed digital audio stream using the extra valid headroom. receiving at least two or more digital audio streams from at least two or more audio sources; applying at least one gain value to each of the at least two or more digital audio streams by a gain adjustment unit; mixing the at least two or more digital audio streams to which the at least one gain value has been applied to obtain a mixed digital audio stream; calculating a representative gain value from the at least one gain value; calculating an extra valid headroom based on the representative gain value for correction of the mixed digital audio stream; and post-processing the mixed digital audio stream using the extra valid headroom.
A method for obtaining a secured routing functionality in a white-boxes based cluster which comprises a plurality of standalone white-boxes, wherein at least two of said standalone white-boxes were manufactured by different manufacturers, and wherein said method comprising identifying a new white-box as a white-box that is about to be added to a cluster, registering said new white-box at an installer of a platform orchestrator, wherein as part of the registration process, a White-box Unique Identifier, WB-UID, is assigned to said new white-box and is automatically associated with said new the white-box serial number, S/N, performing by said new while-box a call home process to said installer, matching, by said installer, information that relates to said new white-box, with a pre-defined certified white-box hardware configuration, and if the new white-box hardware is determined to match the installer certification requirements, installing said new white-box together with a respective computing platform software comprising a software agent provided by the manufacturer of that new white-box.
An electronic cigarette atomization core, comprising an ultrasonic atomization piece disposed horizontally, liquid guide cotton being disposed above the ultrasonic atomization piece, wherein a plate is placed on the liquid guide cotton; each end of the plate is provided with a curved segment, the curved segment comprises a first contact and a second contact, the first contact is located above the second contact, the first contact and the second contact are electrically connected but distant horizontally, and a middle part of the plate presses a middle part of the liquid guide cotton against the ultrasonic atomization piece to form an atomization region, characterized in that the plate is an electrode plate, in that the second contact abuts against an atomization surface electrode of the ultrasonic atomization piece to form an electrical connection, and in that the middle part of the electrode plate is provided with a through hole for exposing the atomization region. each end of the plate is provided with a curved segment, the curved segment comprises a first contact and a second contact, the first contact is located above the second contact, the first contact and the second contact are electrically connected but distant horizontally, and a middle part of the plate presses a middle part of the liquid guide cotton against the ultrasonic atomization piece to form an atomization region, characterized in that the plate is an electrode plate, in that the second contact abuts against an atomization surface electrode of the ultrasonic atomization piece to form an electrical connection, and in that the middle part of the electrode plate is provided with a through hole for exposing the atomization region.
A polymer film electrode comprising: (i) an electrically-conductive substrate; and (ii) an electrically-conductive polymer applied to said electrically-conductive substrate comprising one or more dopants, wherein said conductive polymer is in electrical contact with said electrically-conductive substrate, and said electrode exhibits ohmic behavior over a range of at least one of (a) about 1 Hz to about 100 Hz and (b) about 800 Hz to about 100 kHz, wherein said conductive polymer is a compact layer that is not permeable to a solution adjacent to the electrode and said compact layer is a structure through which ionic motion is extremely slow or negligible and is overlaid with a structure that is ionically permeable, and characterized in that said one or more dopants is tetrafluoroborate, hexafluorophosphate or perchlorate, and the electrically-conductive polymer is poly(3,4-ethylenedioxythiophene) (PEDOT). (i) an electrically-conductive substrate; and (ii) an electrically-conductive polymer applied to said electrically-conductive substrate comprising one or more dopants,
A rotating vehicle seat comprising a backrest attached to a seat base frame (21,31,41) and arranged to be rotatably adjustable around a first horizontal axis, a seat base attached to the seat base frame (21,31,41) and arranged to be rotatably adjustable around a second horizontal axis parallel to the first horizontal axis, characterized in that the rotating vehicle seat further comprises a gear mechanism (20,30,40) connected to the seat base frame arranged to rotate the seat base frame (21,31,41) from a forward facing position to a backward facing position, wherein the gear mechanism (20,30,40) comprises a track (22,32,42), and the seat base frame comprises a guide (23,33,43) that is configured to engage the track (22,32,42), such that when the gear mechanism is actuated, the seat base frame (21,31,41) is translated in a XY-plane and is rotated around a first vertical axis, and wherein the backrest and the seat base, respectively, are arranged to be folded upwards during at least part of the rotation of the seat base frame (21,31,41) around the first vertical axis.
A system configured to deliver a pressurized flow of breathable gas to the airway of a subject, the system comprising: a gas circuit forming an inlet, an outlet, and a lumen that places the inlet in communication with the outlet, wherein the outlet is configured to deliver the pressurized flow of breathable gas to the airway of a subject; a valve configured to release gas inside the circuit to atmosphere; one or more sensors configured to generate one or more output signals that convey information related to (i) a first gas parameter within the gas circuit related to gas leakage from within the circuit to atmosphere and (ii) a second gas parameter; and a processor configured to control the valve such that the amount of gas released from inside the circuit to atmosphere is based on the first gas parameter, characterized in that the processor is configured to control the valve such that a flow of gas released from inside the circuit through the valve is reduced or stopped if the one or more output signals generated by the one or more sensors indicate that the first gas parameter has risen above a threshold, wherein the threshold is dynamic and varies as a function of the second gas parameter. a gas circuit forming an inlet, an outlet, and a lumen that places the inlet in communication with the outlet, wherein the outlet is configured to deliver the pressurized flow of breathable gas to the airway of a subject; a valve configured to release gas inside the circuit to atmosphere; one or more sensors configured to generate one or more output signals that convey information related to (i) a first gas parameter within the gas circuit related to gas leakage from within the circuit to atmosphere and (ii) a second gas parameter; and a processor configured to control the valve such that the amount of gas released from inside the circuit to atmosphere is based on the first gas parameter, characterized in that the processor is configured to control the valve such that a flow of gas released from inside the circuit through the valve is reduced or stopped if the one or more output signals generated by the one or more sensors indicate that the first gas parameter has risen above a threshold, wherein the threshold is dynamic and varies as a function of the second gas parameter.
A User Equipment, UE, comprising: a controller; and a transmission and reception unit, wherein during a first procedure for establishing a second Protocol Data Unit, PDU, session and releasing a first PDU session, the controller is configured for initiating a UE requested PDU session establishment procedure using information identifying a network slice for the second PDU session, and the information identifying the network slice is the same as information identifying the network slice that the UE provided in a PDU session establishment procedure for establishing the first PDU session, and the transmission and reception unit is able to switch a flow from the first PDU session to the second PDU session after the second PDU session has been established, and the transmission and reception unit is able to perform transmitting and receiving of user data by using the second PDU session after the second PDU session is established. a controller; and a transmission and reception unit, during a first procedure for establishing a second Protocol Data Unit, PDU, session and releasing a first PDU session, the controller is configured for initiating a UE requested PDU session establishment procedure using information identifying a network slice for the second PDU session, and the information identifying the network slice is the same as information identifying the network slice that the UE provided in a PDU session establishment procedure for establishing the first PDU session, and the transmission and reception unit is able to switch a flow from the first PDU session to the second PDU session after the second PDU session has been established, and the transmission and reception unit is able to perform transmitting and receiving of user data by using the second PDU session after the second PDU session is established.