mhurhangee/patent-ind-claim-en huggingface dataset:
A drum element for a screen for screening pulp, which drum element is arranged to provide at least part of a rotor of the screen and comprises a first end and a second end (11") opposite to the first end , at least one flow channel having a first end and a second end (25"), - and the flow channel being arranged to open towards an outer circumference of the drum element , and which drum element comprises foil bits arranged at the outer circumference of the drum element , wherein a cross-sectional area of the flow channel is arranged to decrease from the first end of the flow channel towards the second end (25") of the flow channel in a flow direction of pulp in the flow channel , characterized in the flow channel being arranged to extend from one end (11', 11") of the drum element towards an opposite end (11', 11") of the drum element for a flow of pulp flowing to the flow channel through the first end of the flow channel .
Assembly for an aircraft , said assembly having: - a pylon extending along a longitudinal direction (X) and having a chassis and two side walls disposed on either side of the chassis , each provided with an aperture , - at least one reservoir (102a-b), which has fastening means and is intended to contain an extinguishing agent, - for each reservoir (102a-b), a support (111a-b) which has two support elements (110a-b), characterized in that each support (111a-b) is offset along the longitudinal direction (X) with respect to said apertures , wherein each support element (110a-b) has an upwardly facing first bearing face against which the fastening means bear, wherein each support element (110a-b) has a proximal end at said apertures and a distal end on the opposite side to said apertures , wherein each proximal end is fastened to the chassis by at least one first fastening means which ensures removable fastening of said proximal end , wherein each distal end is mounted on the chassis rotatably about a horizontal axis of rotation perpendicular to the longitudinal direction (X), and wherein each support element (110a-b) can be moved between a use position, in which the associated first bearing face is horizontal, and a fitted position, in which the first bearing face is tilted downwards, - for each reservoir (102a-b) and for each support element (110a-b), fastening elements which fasten the fastening means of said reservoir (102a-b) to said support element (110a-b). - a pylon extending along a longitudinal direction (X) and having a chassis and two side walls disposed on either side of the chassis , each provided with an aperture , - at least one reservoir (102a-b), which has fastening means and is intended to contain an extinguishing agent, - for each reservoir (102a-b), a support (111a-b) which has two support elements (110a-b), characterized in that each support (111a-b) is offset along the longitudinal direction (X) with respect to said apertures , wherein each support element (110a-b) has an upwardly facing first bearing face against which the fastening means bear, wherein each support element (110a-b) has a proximal end at said apertures and a distal end on the opposite side to said apertures , wherein each proximal end is fastened to the chassis by at least one first fastening means which ensures removable fastening of said proximal end , wherein each distal end is mounted on the chassis rotatably about a horizontal axis of rotation perpendicular to the longitudinal direction (X), and wherein each support element (110a-b) can be moved between a use position, in which the associated first bearing face is horizontal, and a fitted position, in which the first bearing face is tilted downwards, - for each reservoir (102a-b) and for each support element (110a-b), fastening elements which fasten the fastening means of said reservoir (102a-b) to said support element (110a-b).
An apparatus for the vacuum-tight leading of an electric line through a high barrier film, comprising: a hollow pipe having a collar projecting therefrom; a high barrier film having a passage hole through which the hollow pipe runs; and a pressing element that is arranged at the side of the high barrier film that is remote from the collar and that urges the high barrier film toward the collar , wherein the high barrier film is arranged between the collar of the hollow pipe and the pressing element and an electric line runs in the hollow pipe that leads from the one side of the high barrier film to its other side; characterized in that a sealing compound is present in the hollow pipe for the vacuum-tight closing of the hollow pipe ; and in that the apparatus is furthermore provided with a sealing element that has a passage hole through which the hollow pipe runs; with the sealing element being arranged between the collar and the high barrier film or between the high barrier film and the pressing element ; and in that the apparatus is configured such that the sealing element melts on exertion of a pressing force by the pressing element ; and compensates irregularities between the collar and the pressing element that presses the high barrier film toward the collar from the other side. a hollow pipe having a collar projecting therefrom; a high barrier film having a passage hole through which the hollow pipe runs; and a pressing element that is arranged at the side of the high barrier film that is remote from the collar and that urges the high barrier film toward the collar , wherein the high barrier film is arranged between the collar of the hollow pipe and the pressing element and an electric line runs in the hollow pipe that leads from the one side of the high barrier film to its other side; characterized in that a sealing compound is present in the hollow pipe for the vacuum-tight closing of the hollow pipe ; and in that the apparatus is furthermore provided with a sealing element that has a passage hole through which the hollow pipe runs; with the sealing element being arranged between the collar and the high barrier film or between the high barrier film and the pressing element ; and in that the apparatus is configured such that the sealing element melts on exertion of a pressing force by the pressing element ; and compensates irregularities between the collar and the pressing element that presses the high barrier film toward the collar from the other side.
A fan out package structure, comprising: a contact layer including a conductive interconnect layer , the conductive interconnect layer having a first surface facing an active die , a second surface facing a redistribution layer , and at least one sidewall; a barrier liner , the conductive interconnect layer including the barrier liner only on the sidewall and the first surface of the conductive interconnect layer; the redistribution layer comprising a plurality of conductive routing layers configured to couple a first conductive interconnect to the conductive interconnect layer; and a first via coupled to the barrier liner, the first via configured to couple the barrier liner to the active die through a second conductive interconnect . a contact layer including a conductive interconnect layer , the conductive interconnect layer having a first surface facing an active die , a second surface facing a redistribution layer , and at least one sidewall; a barrier liner , the conductive interconnect layer including the barrier liner only on the sidewall and the first surface of the conductive interconnect layer; the redistribution layer comprising a plurality of conductive routing layers configured to couple a first conductive interconnect to the conductive interconnect layer; and a first via coupled to the barrier liner, the first via configured to couple the barrier liner to the active die through a second conductive interconnect .
A nasal pillow for a patient interface structure configured to deliver a flow of breathable gas to a patient, comprising: - a neck portion defining a passage configured to receive the flow of breathable gas; - an outer conical portion extending from the neck portion and comprising an orifice configured to deliver the flow of breathable gas to the patient, and a sealing zone ; - an inner conical portion extending from the neck portion in the direction of the orifice and comprising an orifice configured to deliver the flow of breathable gas to the patient; wherein - - a portion of the sealing zone is configured to engage the naris of the patient; - - portions of the sealing zone extend from the neck portion in unequal distances around the neck portion ; - - the sealing zone and the orifice are concentric with the neck portion , - - the inner conical portion and the outer conical portion are tilted at an angle with respect to the neck portion . - a neck portion defining a passage configured to receive the flow of breathable gas; - an outer conical portion extending from the neck portion and comprising an orifice configured to deliver the flow of breathable gas to the patient, and a sealing zone ; - an inner conical portion extending from the neck portion in the direction of the orifice and comprising an orifice configured to deliver the flow of breathable gas to the patient; wherein - - a portion of the sealing zone is configured to engage the naris of the patient; - - portions of the sealing zone extend from the neck portion in unequal distances around the neck portion ; - - the sealing zone and the orifice are concentric with the neck portion , - - the inner conical portion and the outer conical portion are tilted at an angle with respect to the neck portion . - - a portion of the sealing zone is configured to engage the naris of the patient; - - portions of the sealing zone extend from the neck portion in unequal distances around the neck portion ; - - the sealing zone and the orifice are concentric with the neck portion , - - the inner conical portion and the outer conical portion are tilted at an angle with respect to the neck portion .
A replaceable cartridge for a plasma arc torch, the replaceable cartridge comprising: a replaceable cartridge body and being characterised by the replaceable cartridge body having a first section and a second section , the second section including an exit orifice of an arc constricting member that forms a part of the second section , the first and second sections joined at an interface to form a substantially hollow chamber, the interface providing a coupling force that secures the first and second sections together; an electrode included within the substantially hollow chamber; and a contact start spring element affixed to the electrode , wherein the contact start spring element and at least a portion of the electrode are irremovably disposed within the substantially hollow chamber of the replaceable cartridge body , the spring element imparting a separating force that biases the electrode toward the second section of the replaceable cartridge body in a direction along an axis of the contact start spring element , the separating force having a magnitude that is less than a magnitude of the coupling force, wherein the contact start spring element is integrated directly into the cartridge and is designed not to be separable or disassemblable from the cartridge. a replaceable cartridge body and being characterised by the replaceable cartridge body having a first section and a second section , the second section including an exit orifice of an arc constricting member that forms a part of the second section , the first and second sections joined at an interface to form a substantially hollow chamber, the interface providing a coupling force that secures the first and second sections together; an electrode included within the substantially hollow chamber; and a contact start spring element affixed to the electrode , wherein the contact start spring element and at least a portion of the electrode are irremovably disposed within the substantially hollow chamber of the replaceable cartridge body , the spring element imparting a separating force that biases the electrode toward the second section of the replaceable cartridge body in a direction along an axis of the contact start spring element , the separating force having a magnitude that is less than a magnitude of the coupling force, wherein the contact start spring element is integrated directly into the cartridge and is designed not to be separable or disassemblable from the cartridge.
A road antenna for a communication device , where the antenna is capable of operation when installed in or on the ground , the road antenna having a structure comprising: a circular conductive base plate , a radiating cone , wherein the cone has an apex that points towards the center of the circular base plate , the apex is positioned on or near the base plate on one side of the base plate , and the cone opens/expands away from the base plate , and a solid frusto-conical body , wherein the body has an encompassing side which extends from the base plate to near an edge on the widest point on the cone , and the material of the body substantially fills the space inside the encompassing side and between the base plate and the cone , characterized in that : the road antenna further comprises a number of adjustable tuning screws or adjustable tuning struts extending between the cone and the base plate . a circular conductive base plate , a radiating cone , wherein the cone has an apex that points towards the center of the circular base plate , the apex is positioned on or near the base plate on one side of the base plate , and the cone opens/expands away from the base plate , and a solid frusto-conical body , wherein the body has an encompassing side which extends from the base plate to near an edge on the widest point on the cone , and the material of the body substantially fills the space inside the encompassing side and between the base plate and the cone , characterized in that : the road antenna further comprises a number of adjustable tuning screws or adjustable tuning struts extending between the cone and the base plate .
A medical device to be inserted into a biological lumen to destroy an object (B) in the biological lumen comprising: a long shaft portion that is configured to be rotationally driven; a drive unit that is configured to rotate the shaft portion ; a breaking member that is provided at a distal portion of the shaft portion and is rotatable; and a control unit that is configured to control the rotation of the drive unit ; wherein the control unit is configured to control the drive unit so as to repeat the rotation while interposing a stop of the rotation in between, characterized in that the medical device is configured in such a manner that after stopping the rotation of the drive unit , the control unit is configured to stop the rotation of the drive unit for a predetermined time in order to release twist of the shaft portion . a long shaft portion that is configured to be rotationally driven; a drive unit that is configured to rotate the shaft portion ; a breaking member that is provided at a distal portion of the shaft portion and is rotatable; and a control unit that is configured to control the rotation of the drive unit ; wherein the control unit is configured to control the drive unit so as to repeat the rotation while interposing a stop of the rotation in between, characterized in that the medical device is configured in such a manner that after stopping the rotation of the drive unit , the control unit is configured to stop the rotation of the drive unit for a predetermined time in order to release twist of the shaft portion .
A belt pulling tool for aligning a belt on a sheave having a rotational mass of 100 kilograms or more, the belt pulling tool comprised of a handle , a body and two prongs , the handle and body each having two ends with one end of each being attached to the other forming a longitudinal length and the two prongs being attached to the body orthogonal to the length , wherein at least one prong is configured to be moved and fixed along a portion of the body parallel or nearly parallel to the longitudinal length for gripping a thickness of a belt, wherein the body has walls defining a top face , bottom face , sides such that the distance between top and bottom face define a body thickness and the distance between the sides define a body width , said body width and thickness being orthogonal to the length characterised in that the body has a prong accepting slot running along a length of the top face with a slot depth and slot width that only partially traverses the body thickness and body width , wherein at least one prong has a prong attachment end and distal end defining a prong length , the prong having a flat surface on a portion of the prong length starting from the prong attachment end with said prong attachment end being configured to be accepted into the slot of the body . wherein the body has walls defining a top face , bottom face , sides such that the distance between top and bottom face define a body thickness and the distance between the sides define a body width , said body width and thickness being orthogonal to the length characterised in that the body has a prong accepting slot running along a length of the top face with a slot depth and slot width that only partially traverses the body thickness and body width , wherein at least one prong has a prong attachment end and distal end defining a prong length , the prong having a flat surface on a portion of the prong length starting from the prong attachment end with said prong attachment end being configured to be accepted into the slot of the body .
A method for avoiding activation of a sailing functionality (F S ) in a vehicle (V), wherein the vehicle (V) comprises a powertrain with a transmission system , wherein the transmission system is configured for automatic gear-shifting in an operational automatic mode (M A ) and manual gear-shifting by a user of the vehicle (V) in an operational manual mode (M M ), wherein the transmission system comprises a user input device configured for manually changing the operational mode of the transmission system between the automatic mode (M A ) and the manual mode (M M ), wherein the transmission system comprises a transmission control unit for determining a recommended gear (G R ) in the automatic mode (M A ) and the manual mode (M M ), wherein the method comprises the steps: operating the transmission system in the manual mode (M M ), and in the manual mode (M M ) detecting an operating gear (Go) of the transmission system by the transmission control unit ; detecting a change of the operational mode of the transmission system from the manual mode (M M ) to the automatic mode (M A ) by means of the user input device , wherein if the detected operating gear (G O ) in the manual mode (M M ) when changing the operational mode to the automatic mode (M A ) by means of the user input device is lower than the recommended gear (G R ) the sailing functionality (F S ) in the automatic mode (M A ) is deactivated. operating the transmission system in the manual mode (M M ), and in the manual mode (M M ) detecting an operating gear (Go) of the transmission system by the transmission control unit ; detecting a change of the operational mode of the transmission system from the manual mode (M M ) to the automatic mode (M A ) by means of the user input device , wherein if the detected operating gear (G O ) in the manual mode (M M ) when changing the operational mode to the automatic mode (M A ) by means of the user input device is lower than the recommended gear (G R ) the sailing functionality (F S ) in the automatic mode (M A ) is deactivated.
Cleaning device intended for spraying at least one fluid towards a surface to be cleaned of a motor vehicle, such as an optical sensor of an optical detection system, the cleaning device comprising at least one fluid conveying body inside which a distribution duct is formed and which has, at its terminal distribution part , a fluid distribution element in which at least one cleaning fluid spraying nozzle is formed, the distribution element having a distribution channel fluidically connected to the distribution duct formed in the fluid conveying body and to the spraying nozzle , the cleaning fluid distribution element being formed in two parts , a first part having a base of the distribution element that is fixed to the conveying body , and a second part which has a cover and is pressed against the first part, the distribution channel being formed by pressing the first and second parts of the cleaning fluid distribution element one against the other, at least one of the first and second parts having an impression on its contact face , characterized in that each of the first and second parts of the distribution element forms part of the distribution channel by way of an impression made in their contact face, these impressions facing towards one another.
A measurement method for measuring the position of a movable body that is movable relative to a fixed body, the measurement method making use of a measurement device comprising a fixed portion for securing to the fixed body and a movable portion for securing to the movable body, the fixed portion including a first printed circuit (7; 20) having formed thereon first tracks defining at least one emission pattern (10; 24) and also a plurality of measurement patterns (11; 25), the movable portion including a second printed circuit (8; 21) having formed thereon second tracks defining at least one reception pattern (15; 27) and also at least one target pattern (16; 28), the first and second printed circuits being coupled together electromagnetically in such a manner that, when the emission pattern is excited by an excitation signal, an induced signal is received by the reception pattern and is then re-emitted by the target pattern, the measurement patterns then picking up measurement signals that are representative of the position of the target pattern, and thus also of the second printed circuit, of the movable portion, and of the movable body, the measurement method comprising the steps of: • determining a first measurement pattern that is the measurement pattern closest to the target pattern, the first measurement pattern picking up a first measurement signal that presents the greatest amplitude from among all the measurement signals; • determining a second measurement pattern that is the measurement pattern that is the next closest to the target pattern after the first measurement pattern, the second measurement pattern picking up a second measurement signal; and • defining the position of the target pattern as a function of the position of the first measurement pattern or of the second measurement pattern, and as a function of the first measurement signal and of the second measurement signal. • determining a first measurement pattern that is the measurement pattern closest to the target pattern, the first measurement pattern picking up a first measurement signal that presents the greatest amplitude from among all the measurement signals; • determining a second measurement pattern that is the measurement pattern that is the next closest to the target pattern after the first measurement pattern, the second measurement pattern picking up a second measurement signal; and • defining the position of the target pattern as a function of the position of the first measurement pattern or of the second measurement pattern, and as a function of the first measurement signal and of the second measurement signal.