mhurhangee/ep-ind-claims huggingface dataset:
Breath analyzer operable in a screening mode and a high accuracy mode, including an enclosure; a receptor for receiving a breath sample from a test subject, the receptor including i) a receptor unit having the shape of a funnel, scoop, cup or mug for receiving the breath sample from the test subject, with the breath analyzer operating without physical contact between the breath analyzer and the test subject, and ii) a tubular receptor unit for receiving the breath sample from the test subject with the dual mode breath analyzer operating with tight connection between the test subject's respiratory organs and the sensing unit, wherein said receptor units (4a, 4b) are detachably securable to the enclosure, a sensing unit located within the enclosure and having an inlet for reception of a breath sample via said receptor units (4a, 4b), the sensing unit including a sensor providing a signal corresponding to the concentration of at least one volatile substance within said sample, a signal processing unit for the identification and quantification of said volatile substance in said breath sample, characterized by said sensing unit including means (8, 12, 16) for providing a signal indicative of the dilution of said sample, including i) a differential pressure sensor for providing a dilution signal corresponding to the differential pressure exceeding a preset threshold, and ii) a sensor responsive to CO 2 or water vapour, and iii) means having a well-defined flow resistance, the means e.g. being a filter, said signal processing unit being configured to perform at least two different calculations for the quantification, and by said analyzing/processing unit being configured to automatically display the result of a selected calculation, the selection being based on the result of said signal indicating dilution. i) a receptor unit having the shape of a funnel, scoop, cup or mug for receiving the breath sample from the test subject, with the breath analyzer operating without physical contact between the breath analyzer and the test subject, and ii) a tubular receptor unit for receiving the breath sample from the test subject with the dual mode breath analyzer operating with tight connection between the test subject's respiratory organs and the sensing unit,
A mould and accessories thereof destined to the forming of an orthopedic modular spacer made of a medical cement, which defines a moulding cavity delimited by a moulding surface, which moulding surface is configured for imparting a predetermined shape to said medical cement and realize said orthopedic spacer, in which at least one sector of said forming mould defining at least one portion of said moulding surface, is made of a copolymer-based material and/or a thermoplastic polymer; characterized in that said sector is a forming insert suitable for being inserted into said moulding cavity of the forming mould; wherein the mould comprises a first moulding element and a second moulding element; said forming insert being operatively associated to said first moulding element and/or said second moulding element, and configured for imparting a pre-established shape to a further portion of said medical cement and said orthopedic spacer.
A distribution unit for granular material, such as seeds,, fertiliser, or the like, in particular a sowing unit of a distribution machine or sowing machine, comprising a housing in a cylindrical form, with at least one inlet opening for the conveyance of granular material or conveyed seeds, and with an outlet opening, as well as with a rotating conveying means, with at least one rotating conveying element for collecting the granular material or, as the case may be, the seeds, said conveying element being disposed or running about axially and radially to the housing, wherein said seeds are held to an inner cover area of the housing by centrifugal forces, where they cluster and align themselves against each other and arrange themselves in a row or line up, as the case may be, wherein the line-up at the conveying element or, as the case may be, in the inner cover area undergoes a slight, directed forward feed in an axial direction in order for the position of a specifically released seed to be safely occupied such that in each case only one single seed runs along the cover surface in a predefined path at the end of the line-up and approximately tangentially leaves the outlet opening at the end of the separation process, characterised in that the seeds transported or carried along by the conveying element have a free space at least on one side for pushing aside excess seeds so that an approximately linear seed alignment can form at the conveying element.
Grip (5, 5') or housing (7, 7') for a self-loading firearm (1, 1') comprising a bolt catch device (36, 36'), having: a bolt catch lever (39, 39') adjustable between a release position and a catch/hold position, and a locking device (42, 42') adjustable between a rest position and a locking position for selectively fixing the bolt catch lever (39, 39') in its release position, the locking device (42, 42') in its rest position being disengaged from the bolt catch lever (39, 39') and in its locking position being engaged with the bolt catch lever (39, 39') and deactivating said lever, characterised in that the locking device (42, 42') comprises a locking element (43, 93) which is longitudinally displaceable, in particular in and counter to the shooting direction, within the grip (5, 5') or the housing (7, 7'). a bolt catch lever (39, 39') adjustable between a release position and a catch/hold position, and a locking device (42, 42') adjustable between a rest position and a locking position for selectively fixing the bolt catch lever (39, 39') in its release position, the locking device (42, 42') in its rest position being disengaged from the bolt catch lever (39, 39') and in its locking position being engaged with the bolt catch lever (39, 39') and deactivating said lever, characterised in that the locking device (42, 42') comprises a locking element (43, 93) which is longitudinally displaceable, in particular in and counter to the shooting direction, within the grip (5, 5') or the housing (7, 7').
A brake control apparatus for a bar-handle-type vehicle, including: a control unit for controlling the braking of the bar-handle-type vehicle using fluid pressure; a linking device; and a mechanical brake (F, R) to be pulled and operated by the linking device, the mechanical brake corresponding to at least one of front and rear wheel brakes (F, R), wherein the linking device includes: an operator-side linking device (W1, 20); and a wheel-brake-side linking device (W2, 30), wherein the operator-side linking device includes: a first pull member to be pulled due to the operation of a brake operator (L1, L2); and a master cylinder unit operable due to the pulled first pull member to generate fluid pressure and apply the generated fluid pressure to the control unit, wherein the wheel-brake-side linking device includes: a cylinder unit operable by fluid pressure output from the control unit; and a second pull member for pulling the mechanical brake (F, R) in linking with the operation of the cylinder unit, and wherein the control unit, the master cylinder unit and the cylinder unit are disposed in other portions of a vehicle body than the bar handles thereof. a control unit for controlling the braking of the bar-handle-type vehicle using fluid pressure; a linking device; and a mechanical brake (F, R) to be pulled and operated by the linking device, the mechanical brake corresponding to at least one of front and rear wheel brakes (F, R), wherein the linking device includes: an operator-side linking device (W1, 20); and a wheel-brake-side linking device (W2, 30), an operator-side linking device (W1, 20); and a wheel-brake-side linking device (W2, 30), wherein the operator-side linking device includes: a first pull member to be pulled due to the operation of a brake operator (L1, L2); and a master cylinder unit operable due to the pulled first pull member to generate fluid pressure and apply the generated fluid pressure to the control unit, a first pull member to be pulled due to the operation of a brake operator (L1, L2); and a master cylinder unit operable due to the pulled first pull member to generate fluid pressure and apply the generated fluid pressure to the control unit, wherein the wheel-brake-side linking device includes: a cylinder unit operable by fluid pressure output from the control unit; and a second pull member for pulling the mechanical brake (F, R) in linking with the operation of the cylinder unit, and a cylinder unit operable by fluid pressure output from the control unit; and a second pull member for pulling the mechanical brake (F, R) in linking with the operation of the cylinder unit, and wherein the control unit, the master cylinder unit and the cylinder unit are disposed in other portions of a vehicle body than the bar handles thereof.
Process for activating the surface of an electrode based on DLC amorphous carbon by an electrochemical treatment comprising at least the following steps (i) and (ii), carried out in this order: (i) applying, to said electrode, an electrical excitation in the form of an alternation of cathodic and anodic electrical pulses, these being current or voltage pulses, in contact with an aqueous electrolyte comprising at least one oxidizing species of a redox pair having a standard potential, at ambient temperature and atmospheric pressure, denoted E 0, strictly greater than 0, and at least one base salt; and (ii) applying, to said electrode that was previously subjected to step (i), an electrical excitation in the form of an alternation of cathodic and anodic electrical pulses, these being voltage pulses, in contact with an aqueous electrolyte devoid of electroactive species. (i) applying, to said electrode, an electrical excitation in the form of an alternation of cathodic and anodic electrical pulses, these being current or voltage pulses, in contact with an aqueous electrolyte comprising at least one oxidizing species of a redox pair having a standard potential, at ambient temperature and atmospheric pressure, denoted E 0, strictly greater than 0, and at least one base salt; and (ii) applying, to said electrode that was previously subjected to step (i), an electrical excitation in the form of an alternation of cathodic and anodic electrical pulses, these being voltage pulses, in contact with an aqueous electrolyte devoid of electroactive species.
A compound of formula wherein A is CH 2 or absent; R 1 and R 2, together with the nitrogen atom to which they are attached form substituted pyrrolidinyl or 2-oxa-6-azaspiro[3.3]heptyl, wherein substituted pyrrolidinyl is pyrrolidinyl substituted with one or two substituents independently selected from halogen, hydroxyl and alkylcarbonyloxy; and R 3 is halophenyl, alkylsulfonylphenyl, haloalkylphenyl, halopyridinyl, alkyloxadiazolyl, alkyltriazolyl, alkyltetrazolyl, oxolanyl, cycloalkyltetrazolyl or haloalkyl-1H-pyrazolyl; or a pharmaceutically acceptable salt or ester thereof. A is CH 2 or absent; R 1 and R 2, together with the nitrogen atom to which they are attached form substituted pyrrolidinyl or 2-oxa-6-azaspiro[3.3]heptyl, wherein substituted pyrrolidinyl is pyrrolidinyl substituted with one or two substituents independently selected from halogen, hydroxyl and alkylcarbonyloxy; and R 3 is halophenyl, alkylsulfonylphenyl, haloalkylphenyl, halopyridinyl, alkyloxadiazolyl, alkyltriazolyl, alkyltetrazolyl, oxolanyl, cycloalkyltetrazolyl or haloalkyl-1H-pyrazolyl; or a pharmaceutically acceptable salt or ester thereof.
A container comprising: a) a base portion with a plurality of edges along its perimeter; b) a lid portion which is distanced from and parallel to the base portion when the container (10, 110) is in a closed configuration; c) a wall projecting orthogonally from each edge forming a plurality of side walls; wherein at least one side wall is integrally connected to both the base portion and lid portion; and the container is formed from a blank which is initially flat with a plurality of fold lines, wherein the base portion and the plurality of side walls extending from the plurality of peripherical edges define a box compartment, wherein a front lid flap is provided, integrally connected to the lid portion and including a closure aid which mates with a mating closure aid located on one of the side walls of the container, such that an inner facing surface of the front lid flap is in planar contact with an exterior facing surface of said one of the side walls, characterised in that the assembled container (10, 110) is free of visible slits and free of visible perforations, and wherein said perforations and/or slits are employed for folding in regions that are not visible in the assembled container, wherein the front lid flap includes the closure aid on the inner facing surface that faces inward toward the box compartment when the container (10,110) is closed, and wherein the mating closure aid is located on the exterior facing surface of said one of the side walls, wherein the base portion includes a plurality of layers which are stacked to form the base portion, the blank being folded along a fold line to crease said multiple layers at the base portion, and wherein fold lines include: - creases, for folding in regions that are visible in the assembled container; - said perforations and/or slits, for folding in regions that are not visible in the assembled container. a) a base portion with a plurality of edges along its perimeter; b) a lid portion which is distanced from and parallel to the base portion when the container (10, 110) is in a closed configuration; c) a wall projecting orthogonally from each edge forming a plurality of side walls; - creases, for folding in regions that are visible in the assembled container; - said perforations and/or slits, for folding in regions that are not visible in the assembled container.
A method for operating a wind turbine, the wind turbine comprising a tower and a rotor with at least one rotor blade, the rotor being connected to the tower and being adapted to drive a generator, wherein a pitch angle of each rotor blade is adjustable, the method comprising detecting an oscillation of the tower, and selectively enabling damping the oscillation of the tower, characterized in that selectively enabling damping the oscillation comprises - determining a requirement to damp the oscillation, - determining a resulting damping effect if enabling damping the oscillation of the tower will be selected, and - selecting enabling damping the oscillation based on the determined requirement to damp and on the determined resulting damping effect. - determining a requirement to damp the oscillation, - determining a resulting damping effect if enabling damping the oscillation of the tower will be selected, and - selecting enabling damping the oscillation based on the determined requirement to damp and on the determined resulting damping effect.
An electronic component mounting machine which is configured to mount an electronic component, to an electrode of which a viscous fluid is transferred, on a circuit board, the electronic component mounting machine comprising: a mounting head configured to hold the electronic component; a viscous fluid tray for storing the viscous fluid and transferring the viscous fluid to the electrode of the electronic component which is held by the mounting head; a height sensor capable of detecting a height of the electrode of the electronic component which is held by the mounting head; an electrode height detection section (120, 122) configured to detect a pre-transfer electrode height which is the height of the electrode before transferring of the viscous fluid and a post-transfer electrode height which is the height of the electrode after transferring of the viscous fluid using the height sensor; and a transfer state confirmation section configured to confirm a transfer state of the viscous fluid to the electrode by comparing the pre-transfer electrode height and the post-transfer electrode height which are detected by the electrode height detection section (120, 122), characterized in that the height sensor is a line sensor which includes an irradiation section installed in a linear shape configured to irradiate a measurement target with laser light in a linear manner, and a light receiving section configured to receive the light which irradiates the measurement target from the irradiation section and is reflected by the measurement target. a mounting head configured to hold the electronic component; a viscous fluid tray for storing the viscous fluid and transferring the viscous fluid to the electrode of the electronic component which is held by the mounting head; a height sensor capable of detecting a height of the electrode of the electronic component which is held by the mounting head; an electrode height detection section (120, 122) configured to detect a pre-transfer electrode height which is the height of the electrode before transferring of the viscous fluid and a post-transfer electrode height which is the height of the electrode after transferring of the viscous fluid using the height sensor; and a transfer state confirmation section configured to confirm a transfer state of the viscous fluid to the electrode by comparing the pre-transfer electrode height and the post-transfer electrode height which are detected by the electrode height detection section (120, 122), characterized in that the height sensor is a line sensor which includes an irradiation section installed in a linear shape configured to irradiate a measurement target with laser light in a linear manner, and a light receiving section configured to receive the light which irradiates the measurement target from the irradiation section and is reflected by the measurement target. an irradiation section installed in a linear shape configured to irradiate a measurement target with laser light in a linear manner, and a light receiving section configured to receive the light which irradiates the measurement target from the irradiation section and is reflected by the measurement target.
An ultrasonic system for nondestructive testing, comprising: an array of air-coupled ultrasonic transducers; a controller operatively coupled to the array of air-coupled ultrasonic transducers and configured to cause the array of ultrasonic transducers to emit primary ultrasound waves that interfere with each other, generate a plurality of frequency harmonics in the air, and form ultrasound shock waves that increase an acoustic impedance of the air, wherein the primary ultrasound waves comprise at least two fundamental frequency components that are multiples of each other and emitted simultaneously in locked phase;; and at least one receiver (104, 106, 108, 110) configured to receive ultrasonic waves emitted from an object under test. an array of air-coupled ultrasonic transducers;
A method of manufacturing a guard element, wherein the guard element is configured to be used in a hair-cutting unit as a guard for a movable hair-cutting element of the hair-cutting unit, and wherein the design of the guard element includes a shaving track with a plurality of hair-entry apertures, the shaving track having a thickness profile with at least one thickness value, the method comprising: an initial step of providing a sheet from which the guard element is to be formed, and the method comprising steps aimed at creating the shaving track according to the design of the guard element in the sheet, including a thickness-adapting step of realizing the at least one thickness value of the thickness profile of the shaving track according to the design of the guard element in the sheet at a position where the shaving track is to be formed, and a material-removing step of removing material from the sheet at the position where the shaving track is to be formed so as to form the hair-entry apertures, characterised in that: the thickness-adapting step is performed prior to the material-removing step without any thickness-adapting action as finishing action being performed on the guard element as a near-final product which has already been provided with the hair-entry apertures.
An engine, comprising: a housing; a combustion assembly carried by the housing, the combustion assembly comprising: an annular bore defined by the engine, and a combustion piston assembly disposed within the annular bore, the combustion piston assembly comprising: a set of pistons, and a first sealing ring connected to each piston of the combustion piston assembly, the first sealing ring configured to limit the flow of combustion gas past each piston of the combustion piston assembly along a direction of rotation of the combustion piston assembly; and at least one valve configured to move between a first position within the annular bore to allow the combustion piston assembly to travel within the annular bore from a first location proximate to the at least one valve to a second location distal to the at least one valve and a second position within the annular bore to define a combustion chamber relative to the combustion piston assembly at the second location, characterized in that the combustion piston assembly further comprises a second sealing ring connected to each piston of the combustion piston assembly, the second sealing ring configured to provide selective access between the annular bore and at least one fluid conduit carried by the engine. a housing; a combustion assembly carried by the housing, the combustion assembly comprising: an annular bore defined by the engine, and a combustion piston assembly disposed within the annular bore, the combustion an annular bore defined by the engine, and a combustion piston assembly disposed within the annular bore, the combustion piston assembly comprising: a set of pistons, and a first sealing ring connected to each piston of the combustion piston assembly, the first sealing ring configured to limit the flow of combustion gas past each piston of the combustion piston assembly along a direction of rotation of the combustion piston assembly; and a set of pistons, and a first sealing ring connected to each piston of the combustion piston assembly, the first sealing ring configured to limit the flow of combustion gas past each piston of the combustion piston assembly along a direction of rotation of the combustion piston assembly; and at least one valve configured to move between a first position within the annular bore to allow the combustion piston assembly to travel within the annular bore from a first location proximate to the at least one valve to a second location distal to the at least one valve and a second position within the annular bore to define a combustion chamber relative to the combustion piston assembly at the second location, characterized in that the combustion piston assembly further comprises a second sealing ring connected to each piston of the combustion piston assembly, the second sealing ring configured to provide selective access between the annular bore and at least one fluid conduit carried by the engine.
An input device for reliably inputting a parameter into an electronic and/or optical device, comprising a signal generator having a first and a second output (40, 45), wherein an output signal is provided at each output and wherein the output signals are offset in phase relative to each other; a first evaluation means connected to the first output but not to the second output; a second evaluation means connected to the second output but not to the first output; wherein the first and second evaluation means (60, 65) are configured for counting pulses based on the respective received output signal; and at least one comparison means (70, 75) configured for comparing the measurement results of the first and second evaluation means (60, 65).