mhurhangee/patent-ind-claim-en huggingface dataset:
Winding device for a sheet product in which: the winding device is configured to receive the product in the form of a single sheet or in the form of parallel and adjacent strips obtained by longitudinal cutting of the sheet; the winding device is further configured to wind said strips of product by separately forming a first reel about a first winding axis and a second reel about a second winding axis; the winding device comprises a plurality of mobile diverter elements configurable such that each product strip is received by a respective single diverter or by a respective group of said diverters; said diverters being selectively positionable, individually or in groups, in a first setup adapted for directing a respective strip of product towards the first reel or in a second setup adapted for directing a respective strip of product towards the second reel ; the set of said mobile diverters thus being configurable to direct parallel and adjacent strips of product, fed to said winder, alternately towards the first reel and towards the second reel, the winding device being characterized in that said mobile diverters are arranged directly upstream of the reels thereby acting as the drawing-in means of the product strips into the reels. the winding device is configured to receive the product in the form of a single sheet or in the form of parallel and adjacent strips obtained by longitudinal cutting of the sheet; the winding device is further configured to wind said strips of product by separately forming a first reel about a first winding axis and a second reel about a second winding axis; the winding device comprises a plurality of mobile diverter elements configurable such that each product strip is received by a respective single diverter or by a respective group of said diverters; said diverters being selectively positionable, individually or in groups, in a first setup adapted for directing a respective strip of product towards the first reel or in a second setup adapted for directing a respective strip of product towards the second reel ; the set of said mobile diverters thus being configurable to direct parallel and adjacent strips of product, fed to said winder, alternately towards the first reel and towards the second reel, the winding device being characterized in that said mobile diverters are arranged directly upstream of the reels thereby acting as the drawing-in means of the product strips into the reels.
Medical instrument with a hollow shaft , at the proximal end of which a handle is arranged, and at the distal end of which a tool is arranged such that a distal end region of the shaft carrying the tool is designed as a tool tip that is deflectable with respect to the longitudinal axis of the shaft , and the tool is rotatable about the longitudinal axis of the shaft and about the longitudinal axis of the tool tip , wherein the rotation of the tool about the longitudinal axis of the shaft is effected via an actuation rod which is mounted rotatably in the hollow shaft and which is operatively connected at its proximal end to the handle , and wherein the actuation rod is composed of two parts, namely a distal sub-region mounted in the deflectable tool tip and a sub-region mounted in the proximal part of the shaft , and wherein the two mutually facing end faces of the sub-regions (8 and 9) of the actuation rod are in engagement with each other at the transition to the deflectable tool tip via end-face toothing arrangements , characterized in that the tooth flanks of the individual teeth of the two end-face toothing arrangements are designed tapering radially outwards, and in that the tooth flanks of the individual teeth of the two end-face toothing arrangements are additionally designed tapering radially inwards, and wherein the tooth flanks on both sides of the individual teeth of the two end-face toothing arrangements are composed of flat surface parts and of curved surface parts .
A surgical device comprising: a trocar ; a cannula releasably mounted on the trocar , the cannula including a hub and having a central opening through which the trocar extends; a propulsion system operatively connected to the trocar and operable to drive the trocar axially in a forward direction away from a proximal end of the surgical device ; and a positioner disposed at a distal end of the surgical device , the positioner including an engagement member having a contoured engagement surface that, when engaged with an eye of a patient, causes the trocar to be oriented relative to the eye at a predetermined oblique entry angle. a trocar ; a cannula releasably mounted on the trocar , the cannula including a hub and having a central opening through which the trocar extends; a propulsion system operatively connected to the trocar and operable to drive the trocar axially in a forward direction away from a proximal end of the surgical device ; and a positioner disposed at a distal end of the surgical device , the positioner including an engagement member having a contoured engagement surface that, when engaged with an eye of a patient, causes the trocar to be oriented relative to the eye at a predetermined oblique entry angle.
A biological information obtainment device comprising: a signal decomposition unit configured to decompose a hemodynamic signal detected from an organism into a plurality of component signals; a periodicity calculation unit configured to calculate a periodicity of each of the plurality of component signals; and an identification unit configured to identify a hemodynamic element based on the periodicity, wherein the signal decomposition unit is configured to decompose a first hemodynamic signal and a second hemodynamic signal detected from at least two locations of the organism into a plurality of component signals each, and the identification unit is configured to identify the hemodynamic element based on a correlation between the periodicity of the component signals included in the first hemodynamic signal and the periodicity of the component signals included in the second hemodynamic signal and an evaluation value E of the correlation calculated through Formula using an evaluation value P A1 of the periodicity of a component signal D A1 included in a first hemodynamic signal S A , an evaluation value P B1 of the periodicity of a component signal D B1 included in a second hemodynamic signal S B , and a number N of sampling data contained in the component signals, wherein Formula comprises: E = ∑ i = 1 N P A 1 i − P B 1 i a signal decomposition unit configured to decompose a hemodynamic signal detected from an organism into a plurality of component signals; a periodicity calculation unit configured to calculate a periodicity of each of the plurality of component signals; and an identification unit configured to identify a hemodynamic element based on the periodicity, wherein the signal decomposition unit is configured to decompose a first hemodynamic signal and a second hemodynamic signal detected from at least two locations of the organism into a plurality of component signals each, and the identification unit is configured to identify the hemodynamic element based on a correlation between the periodicity of the component signals included in the first hemodynamic signal and the periodicity of the component signals included in the second hemodynamic signal and an evaluation value E of the correlation calculated through Formula using an evaluation value P A1 of the periodicity of a component signal D A1 included in a first hemodynamic signal S A , an evaluation value P B1 of the periodicity of a component signal D B1 included in a second hemodynamic signal S B , and a number N of sampling data contained in the component signals, wherein Formula comprises: E = ∑ i = 1 N P A 1 i − P B 1 i
Use of a saturated polyalpha-olefin ("PAO") base stock having: a kinematic viscosity at 100°C determined pursuant to ASTM D445 ("KV100") in the range from 3.0 ×10 -6 to 4.5 ×10 -6 m 2 /s (3.0 to 4.5 mm 2 /s (cSt)); and a Noack volatility determined pursuant to ASTM D5800 ("NV") not higher than 15%; as a base stock for the preparation of a functional fluid for engine transmissions for internal combustion engines, including automatic and manual transmissions, gas/electric hybrid engine transmissions, diesel/electric hybrid engine transmissions, electric motors, and battery packs, for purposes of lubricating and/or cooling the transmissions, electrical motors and/or the battery packs; wherein the concentration of said PAO base stock in the functional fluid is in the range from 50 wt% to 98 wt%, based on the weight of the functional fluid. a kinematic viscosity at 100°C determined pursuant to ASTM D445 ("KV100") in the range from 3.0 ×10 -6 to 4.5 ×10 -6 m 2 /s (3.0 to 4.5 mm 2 /s (cSt)); and a Noack volatility determined pursuant to ASTM D5800 ("NV") not higher than 15%; as a base stock for the preparation of a functional fluid for engine transmissions for internal combustion engines, including automatic and manual transmissions, gas/electric hybrid engine transmissions, diesel/electric hybrid engine transmissions, electric motors, and battery packs, for purposes of lubricating and/or cooling the transmissions, electrical motors and/or the battery packs; wherein the concentration of said PAO base stock in the functional fluid is in the range from 50 wt% to 98 wt%, based on the weight of the functional fluid.
A method of inspecting an air data probe for physical degradation, the method comprising: providing an identification of the air data probe to be inspected; retrieving, based on the identification, 2. known physical dimension data of the air data probe and/or a known silhouette of the air data probe ; generating the silhouette of the air data probe based on the retrieved physical dimension data and/or silhouette ; simultaneously displaying, on a display , the silhouette and an image of the air data probe produced by a camera ; causing the displayed image of the air data probe to conform to the silhouette on the display; capturing an image of the air data probe while the displayed image of the air data probe conforms to the silhouette on the display; analyzing the captured image to identify physical degradation of the air data probe, the analyzing comprising a comparison of the captured image of the air data probe to the retrieved physical dimension data of the air data probe to identify physical deformation of the air data probe and/or a comparison of the captured image data to threshold corrosion criteria to identify corrosion on a surface of the air data probe; generating, based on the identified physical degradation of the air data probe, a maintenance recommendation for the air data probe; and outputting the maintenance recommendation. providing an identification of the air data probe to be inspected; retrieving, based on the identification, 2. known physical dimension data of the air data probe and/or a known silhouette of the air data probe ; generating the silhouette of the air data probe based on the retrieved physical dimension data and/or silhouette ; simultaneously displaying, on a display , the silhouette and an image of the air data probe produced by a camera ; causing the displayed image of the air data probe to conform to the silhouette on the display; capturing an image of the air data probe while the displayed image of the air data probe conforms to the silhouette on the display; analyzing the captured image to identify physical degradation of the air data probe, the analyzing comprising a comparison of the captured image of the air data probe to the retrieved physical dimension data of the air data probe to identify physical deformation of the air data probe and/or a comparison of the captured image data to threshold corrosion criteria to identify corrosion on a surface of the air data probe; generating, based on the identified physical degradation of the air data probe, a maintenance recommendation for the air data probe; and outputting the maintenance recommendation.
A safety filter cartridge , for use, in an air cleaner assembly , in the interior of a main filter cartridge; the safety filter cartridge comprising: (a) media extending between first and second ends (604a,b) and surrounding and defining a central axis and an open central interior ; and, (b) an end piece adjacent the second end of the media; (i) the end piece having an inner surface with a central recess therein; (ii) the central recess being defined by a projection extending away from the media first end having a wall surrounded by, and spaced from, the media; and, (iii) the projection having a tip , remote from the media first end, with an aperture therethrough; (c) a resilient cushion member , formed from a resilient thermoplastic elastomer, positioned extending through the aperture in the central projection ; and, (d) a radially outwardly directed housing seal arrangement . (a) media extending between first and second ends (604a,b) and surrounding and defining a central axis and an open central interior ; and, (b) an end piece adjacent the second end of the media; (i) the end piece having an inner surface with a central recess therein; (ii) the central recess being defined by a projection extending away from the media first end having a wall surrounded by, and spaced from, the media; and, (iii) the projection having a tip , remote from the media first end, with an aperture therethrough; (i) the end piece having an inner surface with a central recess therein; (ii) the central recess being defined by a projection extending away from the media first end having a wall surrounded by, and spaced from, the media; and, (iii) the projection having a tip , remote from the media first end, with an aperture therethrough; (c) a resilient cushion member , formed from a resilient thermoplastic elastomer, positioned extending through the aperture in the central projection ; and, (d) a radially outwardly directed housing seal arrangement .
A combustible heat source for a smoking article , the combustible heat source comprising: carbon; and a binding agent including at least one organic polymeric binder material, at least one carboxylate burn salt and at least one non-combustible inorganic binder material, wherein the at least one non-combustible inorganic binder material comprises a sheet silicate material.
A catheter apparatus , comprising: an elongated shaft having a proximal portion and a distal portion , wherein the distal portion of the shaft is configured for intravascular delivery to a body vessel of a human patient; a therapeutic assembly at the distal portion of the elongated shaft comprising a pre-formed shape, and wherein the therapeutic assembly is transformable between- a substantially straight delivery configuration; and a treatment configuration having the pre-formed helical shape to position the therapeutic assembly in stable contact with a wall of the body vessel; an isolating element including a first portion operably connected to the therapeutic assembly , a second portion operably connected to the shaft , and a connector therebetween, wherein the isolating element is configured to allow the shaft to move while the therapeutic assembly remains stationary ; and a locking and/or activation mechanism operably connected to the isolating element so that the release of the therapeutic assembly from the shaft can be controlled, wherein the distal portion of the elongated shaft and the therapeutic assembly are sized and configured for intravascular delivery into the pulmonary artery. an elongated shaft having a proximal portion and a distal portion , wherein the distal portion of the shaft is configured for intravascular delivery to a body vessel of a human patient; a therapeutic assembly at the distal portion of the elongated shaft comprising a pre-formed shape, and wherein the therapeutic assembly is transformable between- a substantially straight delivery configuration; and a treatment configuration having the pre-formed helical shape to position the therapeutic assembly in stable contact with a wall of the body vessel; an isolating element including a first portion operably connected to the therapeutic assembly , a second portion operably connected to the shaft , and a connector therebetween, wherein the isolating element is configured to allow the shaft to move while the therapeutic assembly remains stationary ; and a locking and/or activation mechanism operably connected to the isolating element so that the release of the therapeutic assembly from the shaft can be controlled, wherein the distal portion of the elongated shaft and the therapeutic assembly are sized and configured for intravascular delivery into the pulmonary artery.
A turbine generator assembly comprising: • a turbine configured to be supplied with combustion gases by a combustion device ; • a compressor mechanically coupled to the turbine by a central element ; and • a motor-generator axially offset from the compressor and mechanically coupled to the turbine and the compressor by the central element ; characterized in that the turbine generator assembly comprises an angular position detector for the central element comprising: - a target attached to one end of the central element , and - an inductive sensor stationary relative to a stator of the motor-generator , wherein the inductive sensor is connected to an electronic device which comprises an angular position acquisition card and which axially extends and is aligned with the inductive sensor , without projecting radially with respect to the latter. • a turbine configured to be supplied with combustion gases by a combustion device ; • a compressor mechanically coupled to the turbine by a central element ; and • a motor-generator axially offset from the compressor and mechanically coupled to the turbine and the compressor by the central element ; characterized in that the turbine generator assembly comprises an angular position detector for the central element comprising: - a target attached to one end of the central element , and - an inductive sensor stationary relative to a stator of the motor-generator , - a target attached to one end of the central element , and - an inductive sensor stationary relative to a stator of the motor-generator , wherein the inductive sensor is connected to an electronic device which comprises an angular position acquisition card and which axially extends and is aligned with the inductive sensor , without projecting radially with respect to the latter.
A method of synchronizing a clock of a patient monitoring device with a clock of a central server , the method comprising: transmitting a patient data packet from the patient monitoring device to the server ; receiving at the patient monitoring device an acknowledgement, ACK, message transmitted by the central server in response to the central server receiving the transmitted patient data packet , the acknowledgement message having a timestamp supplied from the clock of the server indicative of the time and date when the central server received the patient data packet ; comparing the timestamp of the ACK message with the current time of the clock of the patient monitoring device ; and if the difference between the current time of the clock of the patient monitoring device and the timestamp of the ACK message is greater than a first predetermined time, synchronizing the clock to the time and date in the timestamp in the ACK message ; and characterized in that the method further comprises: generating a sync warning in response to the step of synchronizing changing the time of the clock more than a second predetermined time; and generating a sync warning indicator and marking the sync warning indicator on a patient record, wherein the patient record comprises the patient data packet. transmitting a patient data packet from the patient monitoring device to the server ; receiving at the patient monitoring device an acknowledgement, ACK, message transmitted by the central server in response to the central server receiving the transmitted patient data packet , the acknowledgement message having a timestamp supplied from the clock of the server indicative of the time and date when the central server received the patient data packet ; comparing the timestamp of the ACK message with the current time of the clock of the patient monitoring device ; and if the difference between the current time of the clock of the patient monitoring device and the timestamp of the ACK message is greater than a first predetermined time, synchronizing the clock to the time and date in the timestamp in the ACK message ; and characterized in that the method further comprises: generating a sync warning in response to the step of synchronizing changing the time of the clock more than a second predetermined time; and generating a sync warning indicator and marking the sync warning indicator on a patient record, wherein the patient record comprises the patient data packet. generating a sync warning in response to the step of synchronizing changing the time of the clock more than a second predetermined time; and generating a sync warning indicator and marking the sync warning indicator on a patient record, wherein the patient record comprises the patient data packet.
An apparatus comprising: decode circuitry to decode an instance of a single instruction, the single instruction to include fields for an opcode, an identification of a location of a first packed data source operand, an identification of a location of a second packed data source operand, and an identification of a packed data destination operand, wherein the opcode is to indicate that execution circuitry is to perform, for each data element position of the packed data source operands, a floating point scale operation of a FP8 data element of the first packed data source by multiplying the data element by a power of 2 value, wherein a value of the exponent of the power of 2 value is a floor value of a FP8 data element of the second packed data source , and store a result of the floating point scale operation into a corresponding data element position of the packed data destination operand; and the execution circuitry to execute the decoded instruction according to the opcode, wherein the floor value is a zero when the data element of the second packed data source is a denormal and wherein the data element of the first packed data source is a zero when the data element of the first packed data source is a denormal. decode circuitry to decode an instance of a single instruction, the single instruction to include fields for an opcode, an identification of a location of a first packed data source operand, an identification of a location of a second packed data source operand, and an identification of a packed data destination operand, wherein the opcode is to indicate that execution circuitry is to perform, for each data element position of the packed data source operands, a floating point scale operation of a FP8 data element of the first packed data source by multiplying the data element by a power of 2 value, wherein a value of the exponent of the power of 2 value is a floor value of a FP8 data element of the second packed data source , and store a result of the floating point scale operation into a corresponding data element position of the packed data destination operand; and the execution circuitry to execute the decoded instruction according to the opcode, wherein the floor value is a zero when the data element of the second packed data source is a denormal and wherein the data element of the first packed data source is a zero when the data element of the first packed data source is a denormal.