mhurhangee/ep-ind-claims huggingface dataset:
An electrosurgical device, comprising: a housing defining an interior bore; a shaft telescopically moveable in the interior bore of the housing, wherein the shaft comprises a proximal portion in the housing and a distal portion that extends outwardly from the housing; an electrosurgical blade coupled to the shaft; and a helical conductor coiled around the proximal portion of the shaft and configured to supply electrosurgical energy from an electrosurgical generator to the electrosurgical blade, wherein a proximal end of the helical conductor is coupled to the proximal portion of the shaft and a distal end of the helical conductor is fixedly coupled to the housing such that when the shaft z telescopically moves relative to the housing: (i) a position of a distal end of the helical conductor remains fixed relative to the housing and (ii) a position of a proximal end of the helical conductor translates relative to the housing. a housing defining an interior bore; a shaft telescopically moveable in the interior bore of the housing, wherein the shaft comprises a proximal portion in the housing and a distal portion that extends outwardly from the housing; an electrosurgical blade coupled to the shaft; and a helical conductor coiled around the proximal portion of the shaft and configured to supply electrosurgical energy from an electrosurgical generator to the electrosurgical blade, wherein a proximal end of the helical conductor is coupled to the proximal portion of the shaft and a distal end of the helical conductor is fixedly coupled to the housing such that when the shaft z telescopically moves relative to the housing: (i) a position of a distal end of the helical conductor remains fixed relative to the housing and (ii) a position of a proximal end of the helical conductor translates relative to the housing.
A method of dynamically calibrating a heater (102, 208) having a plurality of zones (114, 222, 224) defined by one or more resistive heating elements, the method characterized in that the method comprises: controlling power to the heater having a plurality of zones based on a dynamic resistance-temperature (R-T) model to control a temperature of the heater to a temperature setpoint; for each of the plurality of zones, measuring the temperature of the respective zone based on the resistance of the one or more resistive heating elements of the respective zone and the dynamic R-T model; measuring, by one or more sensors (226, 228), a reference temperature for the respective zone; and incrementally adjusting a resistance value associated with the temperature setpoint provided in the dynamic R-T model for the respective zone to a calibrated resistance value based on the difference between the reference temperature and the temperature of the respective zone; providing the dynamic R-T model that correlates the calibrated resistance values of the plurality of zones with the temperature setpoint as a calibrated R-T model; and controlling the heater based on the calibrated R-T model. controlling power to the heater having a plurality of zones based on a dynamic resistance-temperature (R-T) model to control a temperature of the heater to a temperature setpoint; for each of the plurality of zones, measuring the temperature of the respective zone based on the resistance of the one or more resistive heating elements of the respective zone and the dynamic R-T model; measuring, by one or more sensors (226, 228), a reference temperature for the respective zone; and incrementally adjusting a resistance value associated with the temperature setpoint provided in the dynamic R-T model for the respective zone to a calibrated resistance value based on the difference between the reference temperature and the temperature of the respective zone; measuring the temperature of the respective zone based on the resistance of the one or more resistive heating elements of the respective zone and the dynamic R-T model; measuring, by one or more sensors (226, 228), a reference temperature for the respective zone; and incrementally adjusting a resistance value associated with the temperature setpoint provided in the dynamic R-T model for the respective zone to a calibrated resistance value based on the difference between the reference temperature and the temperature of the respective zone; providing the dynamic R-T model that correlates the calibrated resistance values of the plurality of zones with the temperature setpoint as a calibrated R-T model; and controlling the heater based on the calibrated R-T model.
A nozzle having a longitudinal axis (ZZ') comprising a combustion chamber having a downstream end and a divergent formed of a cone-shaped wall extending between an upstream end and a downstream end, the upstream end of the divergent being connected to the downstream end of the combustion chamber by an intermediate ring comprising an upstream flange fixed on a fixing flange secured to the combustion chamber and a downstream flange connected to the upstream end of the divergent, characterized in that the intermediate ring comprises at least one inner channel present between the upstream and downstream flanges (131, 132) of the intermediate ring and in that a material able to take heat from the ring is present in said at least one inner channel.
An access port for providing subcutaneous access to a patient, comprising: a body including a metallic material and defining a fluid cavity, the fluid cavity covered by a septum; and at least one recessed identification feature defined by the body, observable via x-ray imaging technology subsequent to subcutaneous implantation of the access port, the at least one recessed identification feature identifying the access port as a power-injectable access port, the at least one recessed identification feature being a positive relief feature in which the material surrounding the defining edges of the desired at least one recessed identification feature is removed, wherein the access port includes titanium and comprises a cavity base, which is the portion of a base of the access port directly below the fluid cavity, and the thickness of the cavity base is approximately 0.020 inch (0.51 mm) and the recessed identification feature is recessed to a depth of between about 0.009 inch (0.23 mm) and about 0.011 inch (0.28 mm), or the thickness of the cavity base is approximately 0.030 inch (0.76 mm) and the recessed identification feature is recessed to a depth of between about 0.015 inch (0.38 mm) and about 0.021 inch (0.53 mm). a body including a metallic material and defining a fluid cavity, the fluid cavity covered by a septum; and at least one recessed identification feature defined by the body, observable via x-ray imaging technology subsequent to subcutaneous implantation of the access port, the at least one recessed identification feature identifying the access port as a power-injectable access port, the at least one recessed identification feature being a positive relief feature in which the material surrounding the defining edges of the desired at least one recessed identification feature is removed, wherein the access port includes titanium and comprises a cavity base, which is the portion of a base of the access port directly below the fluid cavity, and the thickness of the cavity base is approximately 0.020 inch (0.51 mm) and the recessed identification feature is recessed to a depth of between about 0.009 inch (0.23 mm) and about 0.011 inch (0.28 mm), or the thickness of the cavity base is approximately 0.030 inch (0.76 mm) and the recessed identification feature is recessed to a depth of between about 0.015 inch (0.38 mm) and about 0.021 inch (0.53 mm).
A biologic information detecting apparatus comprising: a pair of arms (31, 32) that face each other and are adapted to sandwich a tragus as a projecting part of an auricle in the human body by an arm disposed on one of side face sides of the projecting part and an arm disposed on the other side face side of the projecting part; a spindle connecting the pair of arms (31, 32) at one end of each of the arms (31, 32); a distance varying mechanism provided for the spindle and adjusting an interval between the other ends of the arms (31, 32) by changing the angle formed between the spindle and one of the arms; a cuff (55, 56) for pressing a living body, which is attached to the other end of at least one of the arms (31, 32) and attached on the side facing the other arm (31, 32); and a sensor (33, 34) for detecting the biologic information, which is attached to the other end of at least one of the arms (31, 32) and attached on the side facing the other arm (31, 32), wherein the biologic information is a blood pressure; the cuff can vary a direction in which the cuff comes into contact with the tragus by a cuff rotating mechanism disposed in the arm; and the biologic information detecting apparatus further comprises a rotating mechanism for rotating at least one of the arms around the spindle as a center axis thereby changing an angle (β) formed by the arms (31, 32). a pair of arms (31, 32) that face each other and are adapted to sandwich a tragus as a projecting part of an auricle in the human body by an arm disposed on one of side face sides of the projecting part and an arm disposed on the other side face side of the projecting part; a spindle connecting the pair of arms (31, 32) at one end of each of the arms (31, 32); a distance varying mechanism provided for the spindle and adjusting an interval between the other ends of the arms (31, 32) by changing the angle formed between the spindle and one of the arms; a cuff (55, 56) for pressing a living body, which is attached to the other end of at least one of the arms (31, 32) and attached on the side facing the other arm (31, 32); and a sensor (33, 34) for detecting the biologic information, which is attached to the other end of at least one of the arms (31, 32) and attached on the side facing the other arm (31, 32), wherein the biologic information is a blood pressure; the cuff can vary a direction in which the cuff comes into contact with the tragus by a cuff rotating mechanism disposed in the arm; and the biologic information detecting apparatus further comprises a rotating mechanism for rotating at least one of the arms around the spindle as a center axis thereby changing an angle (β) formed by the arms (31, 32).
Structural component for a vehicle, the structural component having a surface with a riblet structure; the riblet structure having a multiplicity of grooves; a first groove having a main channel and at least two secondary channels (110A, 110B), the main channel extending in a main longitudinal direction, the main longitudinal direction corresponding to a flow direction of a fluid along the surface of the structural component; characterized in that the main channel branches in the main longitudinal direction of the structural component, in that the two secondary channels (110A, 110B) branch off from the main channel in opposite directions, wherein the first secondary channel branches off from the main channel at a first angle to the main channel, and the second secondary channel branches off from the main channel at a second angle to the main channel, so that the first and the second secondary channel each have an angle of greater than 0° to the main longitudinal direction, at least in some sections.
Revolving multilevel tubular magazine comprising a plurality of tool holder levels (101, 102) and tool holder rows, in the interior of which magazine a plurality of work spindles, one per tool holder level (101, 102), are mounted in a dimensionally stable central block that is arranged in a stationary manner on the machine tool side, - wherein the central block rollingly and/or slidingly bears a single- or multipart magazine tube carrier (21, 35, 36), which can be shifted in a driven manner transversely to the centre line of the central block, - wherein the single- or multipart magazine tube carrier (21, 35, 36) rollingly or slidingly bears a magazine tube body (100, 106) that comprises a plurality of tool holder levels (101, 102) and tool holder rows and that can be rotated in a driven manner about the central block, - wherein the magazine tube body (100, 106) comprises one storage cover per tool holder row for magazining a plurality of tool holders (200, 230, 250, 270, 310, 340), the number of which at most corresponds to the number of tool holder levels (101, 102), - wherein the storage cover can be positioned in a work position with the tool holders (200, 230, 250, 270, 310, 340) required for machining workpieces in front of the front end faces of the work spindles both in the direction of revolution of the magazine tube body (100, 106) and in the shifting direction of the magazine tube carrier (21, 35, 36), - wherein the storage cover can be secured in the work position on the central block by means of a storage cover clamping system (400, 440) and - wherein the work spindles are arranged one next to the other and the centre lines thereof are oriented in parallel with the shifting direction of the magazine tube carrier (21, 35, 36). - wherein the central block rollingly and/or slidingly bears a single- or multipart magazine tube carrier (21, 35, 36), which can be shifted in a driven manner transversely to the centre line of the central block, - wherein the single- or multipart magazine tube carrier (21, 35, 36) rollingly or slidingly bears a magazine tube body (100, 106) that comprises a plurality of tool holder levels (101, 102) and tool holder rows and that can be rotated in a driven manner about the central block, - wherein the magazine tube body (100, 106) comprises one storage cover per tool holder row for magazining a plurality of tool holders (200, 230, 250, 270, 310, 340), the number of which at most corresponds to the number of tool holder levels (101, 102), - wherein the storage cover can be positioned in a work position with the tool holders (200, 230, 250, 270, 310, 340) required for machining workpieces in front of the front end faces of the work spindles both in the direction of revolution of the magazine tube body (100, 106) and in the shifting direction of the magazine tube carrier (21, 35, 36), - wherein the storage cover can be secured in the work position on the central block by means of a storage cover clamping system (400, 440) and - wherein the work spindles are arranged one next to the other and the centre lines thereof are oriented in parallel with the shifting direction of the magazine tube carrier (21, 35, 36).
A server, comprising: a plurality of a game emulator units (34, 48); a composite image generating unit; and a video transmitting unit that transmits a video to a video receiving device; and a data receiving unit configured to receive from the video receiving device information indicating a first user's input, wherein the composite image generating unit generates a composite image of a plurality of game screens in different sizes generated by respective ones of the game emulator units, including a game emulator unit of the first user; the game emulating unit of the first user executes an update of game situation data in a manner that reflects the first user's input; and wherein the video transmitting unit transmits, to the video receiving device, the composite image. a plurality of a game emulator units (34, 48); a composite image generating unit; and a video transmitting unit that transmits a video to a video receiving device; and a data receiving unit configured to receive from the video receiving device information indicating a first user's input, wherein the composite image generating unit generates a composite image of a plurality of game screens in different sizes generated by respective ones of the game emulator units, including a game emulator unit of the first user; the game emulating unit of the first user executes an update of game situation data in a manner that reflects the first user's input; and wherein the video transmitting unit transmits, to the video receiving device, the composite image.
Screw spindle pump, comprising a housing having a running bore consisting of at least two intersecting bores (15, 16) in which in each case one spindle (4, 5) is received, wherein the spindles (4, 5) have screw profiles (6, 7, 8, 9) meshing with one another in sections and, during operation, bend in a defined bending direction as a result of a hydraulic bending pressure, characterized in that each bore (15, 16) is formed in the manner of an elongated hole with a relatively long first axis of symmetry and with a relatively short second axis of symmetry which is orthogonal thereto, wherein the relatively long first axis of symmetry extends in the bending direction.
An antimicrobial cross-linked collagen construct comprising: a cross-linked collagen comprising collagen and one or more moieties of one or more cross-linking agents and an antimicrobial amount of silver incorporated into the construct, wherein at least a portion of the silver is incorporated to the one or more moieties of the cross-linking agent(s), wherein the one or more cross-linking agents comprise a 1,2-benzoquinone and/or a 1,2-dihydroxy phenyl moiety.
Horse-riding stirrup comprising: - a stirrup frame which comprises a hooking portion to a stirrup leather, a first side arm and a support arm connected to each other in an incident manner to define a frame compartment engageable by a user's foot; - a support element for the user's foot, fitted to the support arm and shape-coupled with an element seat of said arm; wherein the element seat is delimited by an undercut portion which an optionally tapered portion of the support element is wedged into one side, another portion of said element being constrained to the support arm by means of one or more mechanical fastenings, for example comprising one or more screws, which extend through the thickness of the stirrup frame; the stirrup being characterised by the fact that the stirrup frame comprises a reinforcement core, preferably metallic, to which a polymer material is co-moulded or over-moulded, said reinforcement core extending from the hooking portion along the first side arm and along at least part of the support arm, and by the fact that said reinforcement core comprises at least one lug projecting towards the frame compartment which delimits in part the undercut portion and which makes an abutment surface to prevent the disengagement of the support element. - a stirrup frame which comprises a hooking portion to a stirrup leather, a first side arm and a support arm connected to each other in an incident manner to define a frame compartment engageable by a user's foot; - a support element for the user's foot, fitted to the support arm and shape-coupled with an element seat of said arm;
A gas turbine engine comprising: a nacelle and an engine core cowl; the nacelle comprising; a substantially cylindrical housing, the substantially cylindrical housing having a leading rim and a trailing rim, the leading rim having upper, lateral and lower quadrants (37, 39a, 39b, 38), the trailing rim having upper, lateral and lower quadrants (32, 34a, 34b, 33), wherein the substantially cylindrical housing includes an axial aft edge curvature such that the substantially cylindrical housing has a first axial length that is greater than a second axial length, where the first axial length is at an annular top-center of the substantially cylindrical housing and the second axial length is circumferentially offset therefrom; and the nacelle and the substantially cylindrical housing share a central longitudinal axis; characterised in that: the nacelle or housing trailing rim is aligned with a circumferential hump in the engine core cowl, the engine core cowl disposed within the substantially cylindrical housing, the circumferential hump located at the nearest point along the engine core cowl to the trailing rim. a nacelle and an engine core cowl; the nacelle comprising; a substantially cylindrical housing, the substantially cylindrical housing having a leading rim and a trailing rim, the leading rim having upper, lateral and lower quadrants (37, 39a, 39b, 38), the trailing rim having upper, lateral and lower quadrants (32, 34a, 34b, 33), wherein the substantially cylindrical housing includes an axial aft edge curvature such that the substantially cylindrical housing has a first axial length that is greater than a second axial length, where the first axial length is at an annular top-center of the substantially cylindrical housing and the second axial length is circumferentially offset therefrom; and the nacelle and the substantially cylindrical housing share a central longitudinal axis; characterised in that: the nacelle or housing trailing rim is aligned with a circumferential hump in the engine core cowl, the engine core cowl disposed within the substantially cylindrical housing, the circumferential hump located at the nearest point along the engine core cowl to the trailing rim.
A powered ophthalmic lens, the powered ophthalmic lens comprising: a contact lens including an optic zone and a peripheral zone; a rear-facing pupil diameter sensor system incorporated into the contact lens for measuring pupil diameter, the pupil diameter sensor system including at least one sensor; a forward-facing photosensor adapted to detect ambient light; a system controller operatively associated with the at least one sensor and with the forward-facing photosensor and configured for determining the diameter of the pupil and outputting a control signal based on pupil diameter, and at least one actuator configured to receive the output control signal and implement a predetermined function., a contact lens including an optic zone and a peripheral zone; a rear-facing pupil diameter sensor system incorporated into the contact lens for measuring pupil diameter, the pupil diameter sensor system including at least one sensor; a forward-facing photosensor adapted to detect ambient light;
A polyolefin container coated with a gas barrier coating comprising a first layer of hydrogenated amorphous silicon nitride characterized in that the container has a second layer of hydrogenated amorphous carbon; the hydrogenated amorphous silicon nitride layer being deposited on the container, and the hydrogenated amorphous carbon layer being deposited on the hydrogenated amorphous silicon nitride layer, wherein the container is closed by a membrane sealed to the container in a gas and moisture tight manner.
Method of estimating by a programmable computer a quantity of fresh air admitted inside a combustion chamber of an engine cylinder during an engine cycle from a model based on parameters including the opening and closing angles of the intake and exhaust valves; these opening and closing angles being estimated or measured during an engine calibration phase at a nominal engine operating temperature, characterized in that during operation of the engine at a temperature different from the nominal temperature, the model estimate of the quantity of fresh air admitted is modified by correcting the opening and closing angle parameters as a function of the estimate of the distribution clearances between the valves and their rocker arms at said temperature different from the nominal temperature, the estimation of the distribution clearances being carried out using a physical quantity representative of the temperature of the engine and the time elapsed since the engine started.