mhurhangee/ep-ind-claims huggingface dataset:
A two-dimensional code having a rectangular region delineated from a background by a single border consisting of a plurality of border lines (6a, 6b, 6c, 6d), comprising: code blocks (10 (12, 13)) each composed of a plurality of cells which are aggregated; a first specific pattern configured to specify the positions of the cells; and a second specific pattern (3, 4) configured to distinguish the code blocks from the background of the code, wherein the code blocks (10 (12, 13)), the first specific pattern and the second specific pattern (3,4) are arranged in the rectangular region, the first specific pattern is located at a designated corner of the rectangular region and arranged in the rectangular region, characterized in that the second specific pattern is located along one or more of first border lines (6a, 6b) along which the first specific pattern is located, the first border lines (6a, 6b) being part of the border lines of the rectangular region, the code blocks (10 (12, 13)) include compressed data code blocks in which compressed data are stored, the compressed data code blocks are arranged, at least, along second border lines (6c, 6d) of the border lines (6a, 6b, 6c, 6d), the second border lines (6c, 6d) being other than the first border lines (6a, 6b) in the border lines (6a, 6b, 6c, 6d), the second specific pattern (3, 4) being located along the second border lines (6c, 6d), and the compressed data code blocks include one or more compressed data blocks arranged along each of the second border lines (6c, 6d). code blocks (10 (12, 13)) each composed of a plurality of cells which are aggregated; a first specific pattern configured to specify the positions of the cells; and a second specific pattern (3, 4) configured to distinguish the code blocks from the background of the code, wherein the code blocks (10 (12, 13)), the first specific pattern and the second specific pattern (3,4) are arranged in the rectangular region, the first specific pattern is located at a designated corner of the rectangular region and arranged in the rectangular region, characterized in that the second specific pattern is located along one or more of first border lines (6a, 6b) along which the first specific pattern is located, the first border lines (6a, 6b) being part of the border lines of the rectangular region, the code blocks (10 (12, 13)) include compressed data code blocks in which compressed data are stored, the compressed data code blocks are arranged, at least, along second border lines (6c, 6d) of the border lines (6a, 6b, 6c, 6d), the second border lines (6c, 6d) being other than the first border lines (6a, 6b) in the border lines (6a, 6b, 6c, 6d), the second specific pattern (3, 4) being located along the second border lines (6c, 6d), and the compressed data code blocks include one or more compressed data blocks arranged along each of the second border lines (6c, 6d).
Integrated radiofrequency circuit including an antenna for receiving radiofrequency signals, a rechargeable battery and a battery charger using said radiofrequency signals to charge said battery, said battery charger being integrated in the same substrate as said integrated radiofrequency circuit, the integrated radiofrequency circuit being characterized in that said battery charger includes calibrating means, a current source calibrated by said calibrating means and delivering a charge current of constant maximum intensity drawn from the received radiofrequency signals, and a comparator between a reference quantity representative of the end of battery charge level and a variable quantity representative of the battery charge level supplying at output a control signal (batchend) for charging or not charging the battery, said comparator being a voltage comparator between a reference voltage and a battery voltage, said voltage comparator including means for equation linearization of MOS transistors operating in saturation mode to convert, on the one hand, the reference voltage into said reference quantity representative of the end of battery charge level and, on the other hand, the battery voltage into said variable quantity representative of the battery charge level, the two quantities being currents.
Tyre having a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers (41, 43), each formed of reinforcing elements inserted between two calendering layers of rubber compound, itself being capped radially with a tread, said tread being joined to two beads via two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements, the tensile elastic modulus at 10% elongation of at least one calendering layer of at least one working crown layer (41, 43) being greater than 9 MPa, the measurement of said modulus being performed under tension according to standard AFNOR-NFT-46002 of September 1988 in normal temperature and relative humidity conditions according to standard AFNOR-NFT-40101 of December 1979, the maximum value of tan(δ), denoted tan(δ)max, of said at least one calendering layer of at least one working crown layer (41, 43) being less than 0.100, the measurement of tan(δ) being performed according to Standard ASTM D 5992-96, said tread comprising a tread surface intended to come into contact with a road surface and form a contact surface, characterized in that said tread consists of at least one central part extending at least in the region of the equatorial plane and two axially exterior parts and has, at least in said central part, a plurality of transversely-oriented cuts (8, 9) delimited by walls of material which face one another, a transversely-oriented cut being a cut which mean plane of at least a part of the walls of said cut forms an angle with a radial plane of less than 35° in that the depth, measured on a new tyre in at least said central part, of at least one transversely-oriented cut (8, 9) is greater than or equal to 40% of the thickness of the tread, in that the width (D f, D f ') measured at the bottom of said at least one transversely-oriented cut (8, 9) is strictly greater than 4 mm.
A fluid ejection and vaporization device, configured for generating vapors and comprises a maintenance apparatus, an ejection head, a vapor heater and a mouthpiece, and is configured such that, during operation, a flow of air flows through the fluid ejection and vaporization device, and a fluid is ejected from the ejection head onto the vapor heater, and the fluid is vaporized and flows though the mouthpiece out of the fluid ejection and vaporization device, wherein the maintenance apparatus comprises: a wiper blade (28, 54, 74), configured to sweep the ejection head; and an air operated mechanism (26, 50, 70), wherein the air operated mechanism is attached to the wiper blade (28, 54, 74) and configured to be operated by the flow of air to move the wiper blade (28, 54, 74) across the ejection head, wherein the air operated mechanism (26, 50, 70) has a first end (30, 76) configured to be fixed within the fluid ejection and vaporization device and a second end (32, 78) moveable relative to the first end (30, 76), the second end (32, 78) being attached to the wiper blade (28, 54, 74) and characterized in that a movement of the second end (32, 78) relative to the first end (30, 76) is linear movement parallel to an axial direction of the fluid ejection and vaporization device. a wiper blade (28, 54, 74), configured to sweep the ejection head; and an air operated mechanism (26, 50, 70), wherein the air operated mechanism is attached to the wiper blade (28, 54, 74) and configured to be operated by the flow of air to move the wiper blade (28, 54, 74) across the ejection head, wherein the air operated mechanism (26, 50, 70) has a first end (30, 76) configured to be fixed within the fluid ejection and vaporization device and a second end (32, 78) moveable relative to the first end (30, 76), the second end (32, 78) being attached to the wiper blade (28, 54, 74) and characterized in that a movement of the second end (32, 78) relative to the first end (30, 76) is linear movement parallel to an axial direction of the fluid ejection and vaporization device.
An interproximal cleaning appliance, comprising: a housing; a spray-generating assembly positioned within the housing, the assembly including a hollow body member defining a chamber, having a movable piston-spring assembly (26, 32) positioned therein, a gas inlet with a one-way valve permitting gas to enter said chamber, a separate inlet into said chamber for fluid and an outlet from said chamber for a spray of fluid droplets, wherein the piston is positioned below the gas inlet when the spring and the piston are at rest; and a system for moving the piston within the hollow body member, to compress the spring, wherein subsequent release of the piston, following entry of gas and fluid into the chamber, creates sufficient pressure within the chamber to produce a fluid droplet spray from the outlet which is directed to an applicator/nozzle assembly which extends from the housing for directing the fluid droplet spray to the interproximal area.. a housing; a spray-generating assembly positioned within the housing, the assembly including a hollow body member defining a chamber, having a movable piston-spring assembly (26, 32) positioned therein, a gas inlet with a one-way valve permitting gas to enter said chamber, a separate inlet into said chamber for fluid and an outlet from said chamber for a spray of fluid droplets, wherein the piston is positioned below the gas inlet when the spring and the piston are at rest; and a system for moving the piston within the hollow body member, to compress the spring, wherein subsequent release of the piston, following entry of gas and fluid into the chamber, creates sufficient pressure within the chamber to produce a fluid droplet spray from the outlet which is directed to an applicator/nozzle assembly which extends from the housing for directing the fluid droplet spray to the interproximal area..
A resonant device comprising an electromechanical resonator of nanometric or micrometric size comprising a mobile element and a fixed element, detection means providing detection signals representative of movement of the mobile element with respect to the fixed element to a feedback loop connected to an excitation input of the resonator, device characterized in that the resonator being formed on the same substrate as the detection means and feedback loop, the feedback loop comprises at most a first transistor and a second transistor connected in series between a reference voltage and the excitation input, a capacitive load being connected between the excitation input and reference voltage, the detection signal being directly applied on the command electrode of the first transistor for controlling the conductivity of the first transistor.
A thermoplastic composite, comprising 35-75% by weight of a thermoplastic resin, 5-45% by weight of a non-cellulosic organic fiber, and 5-20% by weight of hollow glass microspheres, based on 100% by weight of the total weight of the thermoplastic composite; wherein the thermoplastic resin is one or more selected from polypropylene, polyethylene, polyvinyl chloride, polystyrene, an ethylene-vinyl acetate copolymer, and an acrylonitrile-styrene-butadiene copolymer; and the non-cellulosic organic fiber is one or more selected from a nylon 66 fiber, a polyethylene terephthalate fiber, a polypropylene terephthalate fiber, a polyphenylene sulfide fiber, and a polyether ether ketone fiber.
Method for optical measurement of an internal thread at a sleeve or a sleeve end of a metal tube, wherein the method comprises the following steps: A) providing an optical system with at least one optical sensor and at least one further optical element, which are arranged on an optical axis at a defined mutual spacing, B) adjusting the optical system in the longitudinal axis of the metal tube or the sleeve or parallelly to the longitudinal axis of the metal tube or the sleeve, preferably within the metal tube, or adjusting the metal tube relative to the system, which is arranged in a fixed location, in the longitudinal axis or parallelly to the longitudinal axis of the metal tube or the sleeve, C) scanning the internal thread during a linear adjustment of the optical system and/or during a rotation of the optical element at an angle to the optical axis and D) detecting and/or storing and/or processing the measurement values detected by the sensor, characterised in that the optical system comprises at least one galvo-scanner, which during a linear adjustment of the optical system scans at least a part circumference of the internal thread, and multiple scanning of the internal thread by the galvo-scanner with different anglings of the light is provided and the signals of a plurality of scans are superimposed. A) providing an optical system with at least one optical sensor and at least one further optical element, which are arranged on an optical axis at a defined mutual spacing, B) adjusting the optical system in the longitudinal axis of the metal tube or the sleeve or parallelly to the longitudinal axis of the metal tube or the sleeve, preferably within the metal tube, or adjusting the metal tube relative to the system, which is arranged in a fixed location, in the longitudinal axis or parallelly to the longitudinal axis of the metal tube or the sleeve, C) scanning the internal thread during a linear adjustment of the optical system and/or during a rotation of the optical element at an angle to the optical axis and D) detecting and/or storing and/or processing the measurement values detected by the sensor,
A surgical instrument, comprising: a transducer configured to produce vibrations at a predetermined frequency; an ultrasonic blade extending along a longitudinal axis coupled to the transducer; a controller adapted to receive a feedback signal from the ultrasonic blade; and a lumen adapted to couple to a pump, wherein the lumen is to conduct a fluid therethrough based on the feedback signal; characterized in that: the feedback signal is derived from frequency variations of the ultrasonic blade from the predetermined frequency, and wherein the feedback signal is proportional to the temperature of the ultrasonic blade, and the controller is adapted to control operation of the pump and/or a fluid temperature regulator to control the temperature of the ultrasonic blade based on said feedback signal. a transducer configured to produce vibrations at a predetermined frequency; an ultrasonic blade extending along a longitudinal axis coupled to the transducer; a controller adapted to receive a feedback signal from the ultrasonic blade; and a lumen adapted to couple to a pump, wherein the lumen is to conduct a fluid therethrough based on the feedback signal; characterized in that: the feedback signal is derived from frequency variations of the ultrasonic blade from the predetermined frequency, and wherein the feedback signal is proportional to the temperature of the ultrasonic blade, and the controller is adapted to control operation of the pump and/or a fluid temperature regulator to control the temperature of the ultrasonic blade based on said feedback signal. the feedback signal is derived from frequency variations of the ultrasonic blade from the predetermined frequency, and wherein the feedback signal is proportional to the temperature of the ultrasonic blade, and the controller is adapted to control operation of the pump and/or a fluid temperature regulator to control the temperature of the ultrasonic blade based on said feedback signal.
Roof box system for motor vehicles, wherein the roof box system comprises a roof of a motor vehicle which has at least one ceiling element arranged at a roof base element, and an insertion body with at least one outer wall, wherein the at least one ceiling element is movable from an initial state to a receiving state by forming an interspace suitable for receiving the insertion body between the at least one ceiling element and the roof base element, wherein in the receiving state the insertion body can be arranged in the interspace in such a way that the at least one outer wall of the insertion body forms an outer surface (26, 27) of the roof box system, and wherein the insertion body comprises a, particularly closed or lockable, receiving space, which is suitable for receiving transport goods.
Medical ventilator comprising: - an internal gas circuit for conveying gas, comprising a gas outlet, - at least one flowrate sensor (15, 17) and at least one pressure sensor, which are arranged on the internal gas circuit in order to perform flowrate and pressure measurements within said internal gas circuit, - control means with at least one microprocessor, which are configured to process the flowrate and pressure measurements performed by said flowrate (15, 17) and pressure sensors, - a patient circuit fluidically connected to the gas outlet of the internal gas circuit, and - a respiratory interface fluidically connected to the patient circuit, characterized in that the control means are configured to: a) determine a resistance value R tot (t) from at least flowrate and pressure measurements performed by said flowrate (15, 17) and pressure sensors, b) compare the determined resistance value R tot (t) against a given minimum resistance value R min, c) determine a disconnection of the patient circuit or of the respiratory interface when the resistance value R tot (t) is less than or equal to the given minimum resistance value R min, and d) trigger an alarm when a disconnection of the patient circuit or of the respiratory interface is determined. - an internal gas circuit for conveying gas, comprising a gas outlet, - at least one flowrate sensor (15, 17) and at least one pressure sensor, which are arranged on the internal gas circuit in order to perform flowrate and pressure measurements within said internal gas circuit, - control means with at least one microprocessor, which are configured to process the flowrate and pressure measurements performed by said flowrate (15, 17) and pressure sensors, - a patient circuit fluidically connected to the gas outlet of the internal gas circuit, and - a respiratory interface fluidically connected to the patient circuit, a) determine a resistance value R tot (t) from at least flowrate and pressure measurements performed by said flowrate (15, 17) and pressure sensors, b) compare the determined resistance value R tot (t) against a given minimum resistance value R min, c) determine a disconnection of the patient circuit or of the respiratory interface when the resistance value R tot (t) is less than or equal to the given minimum resistance value R min, and d) trigger an alarm when a disconnection of the patient circuit or of the respiratory interface is determined.
A scroll shape of a compressor that forms into a spiral shape a flow path of fluid discharged from a diffuser provided on a downstream side of the compressor in a fluid flow direction, the scroll shape having a scroll outer diameter that is not constant in a circumferential direction, wherein a change rate of a ratio A/R is set to be increased in a range from a winding start position to a winding end position of a scroll portion where A is a passage cross-sectional area of the scroll portion and R is a radius from a center of the compressor to a center of a passage cross section of the scroll portion, characterized in that the ratio A/R at the winding start position of the scroll portion is set to be equal to or higher than 20% of the ratio A/R at the winding end position of the scroll portion, and in that in a graph in which a horizontal axis indicates range shift from the winding start position to the winding end position of the scroll portion and a vertical axis indicates the ratio A/R, a line shape of the ratio A/R has a downward convex shape projecting toward a zero side in at least a range of about 60° to 240° shifted toward a winding start side of the scroll portion. a change rate of a ratio A/R is set to be increased in a range from a winding start position to a winding end position of a scroll portion where A is a passage cross-sectional area of the scroll portion and R is a radius from a center of the compressor to a center of a passage cross section of the scroll portion, characterized in that the ratio A/R at the winding start position of the scroll portion is set to be equal to or higher than 20% of the ratio A/R at the winding end position of the scroll portion, and in that in a graph in which a horizontal axis indicates range shift from the winding start position to the winding end position of the scroll portion and a vertical axis indicates the ratio A/R, a line shape of the ratio A/R has a downward convex shape projecting toward a zero side in at least a range of about 60° to 240° shifted toward a winding start side of the scroll portion.
A device for dimensioning the soft tissues of the face in relation to the oral device and teeth, comprising the following parts: a face support, a bipupillary alignment rule, lateral alignment rules, a parallelizer of the occlusal plane, a ruler for reference of the Wilson curve, an inclination guide of the midline or an electronic device which registers the inclination angle of said midline and shows it on a screen or has an interface for unloading the data to a computer, and an articulator support.
A swing control apparatus for construction equipment comprising; first and second hydraulic pumps and a pilot pump; a work device including a boom, an arm and a bucket, which are operated by a boom cylinder, an arm cylinder and a bucket cylinder, respectively, driven by hydraulic fluid of the first and second hydraulic pumps; a work device control valve which is configured to control hydraulic fluid supplied from the first and second hydraulic pumps to the boom cylinder, arm cylinder and bucket cylinder, respectively; a swing motor for swinging an upper swing body which is driven by hydraulic fluid supplied from one of the first and second hydraulic pumps; a swing control valve for controlling the hydraulic fluid supplied to the swing motor from the first or second hydraulic pump; a swing operation lever; a direction control valve (14; 15) for applying to the swing control valve a pilot pressure supplied by operating the swing operation lever, or a pilot pressure supplied by selecting a semiautomatic swing mode; and at least one electronic proportional variable relief valve (16; 17) installed in the swing motor, which variably controls a preset relief pressure so as to vary a braking torque of the swing motor; characterized in that the swing control apparatus further comprises: a controller for applying an electric control signal to the electronic proportional variable relief valve (16; 17) to be relieved so that the relief pressure of the electronic proportional variable relief valve is preset to increase or decrease in order to make a target swing angle become the sum of a swing braking angle predicted from the inertia moment of the upper swing body plus a swing angle detected of the upper swing body, when the semiautomatic mode is selected and the work device is operated during a return swing of the upper swing body.