mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting blade clearance in a gas turbine engine, the method comprising: attaching a wear indicator comprising a capacitor to a surface adjacent a blade of the gas turbine engine such that the wear indicator extends above the surface; measuring a first capacitance of the capacitor; operating the gas turbine engine at a first selected speed for a first period of time to remove material from the capacitor upon passage of a tip of the blade to reduce a height of the capacitor from a first height to a second height, wherein the first capacitance corresponds to the first height of the capacitor; measuring a second capacitance of the capacitor subsequent to measuring the first capacitance, the second capacitance corresponding to the second height of the capacitor; determining a change in capacitance between the second capacitance and the first capacitance; determining an amount of material removed from the capacitor by the blade corresponding to the change in capacitance; and determining a clearance between the blade and the surface corresponding to the amount of material removed from the capacitor during engine operation. attaching a wear indicator comprising a capacitor to a surface adjacent a blade of the gas turbine engine such that the wear indicator extends above the surface; measuring a first capacitance of the capacitor; operating the gas turbine engine at a first selected speed for a first period of time to remove material from the capacitor upon passage of a tip of the blade to reduce a height of the capacitor from a first height to a second height, wherein the first capacitance corresponds to the first height of the capacitor; measuring a second capacitance of the capacitor subsequent to measuring the first capacitance, the second capacitance corresponding to the second height of the capacitor; determining a change in capacitance between the second capacitance and the first capacitance; determining an amount of material removed from the capacitor by the blade corresponding to the change in capacitance; and determining a clearance between the blade and the surface corresponding to the amount of material removed from the capacitor during engine operation.
An articulated manipulator comprising: a base plate; a movable block slidably coupled on the base plate; a rotatable block rotatably coupled on the movable block; and a rotation unit rotatably coupled to one side of the rotatable block and configured by assembly of a plurality of rotation modules (510, 520, 530, 540) characterized in that at least one support member having an adjustable length by an actuation cylinder is provided at an upper side of the base plate. a base plate; a movable block slidably coupled on the base plate; a rotatable block rotatably coupled on the movable block; and a rotation unit rotatably coupled to one side of the rotatable block and configured by assembly of a plurality of rotation modules (510, 520, 530, 540) characterized in that
Device for supporting dough portions comprising: a substantially rectangular frame, a substantially rectangular cloth, and a number of bars that are attached to the cloth substantially parallel to each other and spaced apart from each other, wherein the bars substantially extend over the full distance between two opposing sides of the frame, wherein the bars with their outer ends are movably coupled to the two opposing sides of the frame, wherein two consecutive bars in a first condition of the device in a first position are coupled to the frame at a mutual first distance between the two consecutive bars, wherein the mutual first distance is smaller than the length of the cloth extending between said bars, wherein the two consecutive bars in a second condition of the device, in a second position are coupled to the frame at a mutual second distance between the two consecutive bars, wherein the mutual second distance substantially equals the length of the cloth extending between said bars, characterised in that the frame on the two opposing sides is provided with a series of recesses (10, 20) that are open at the top for placing the outer ends of the two consecutive bars therein at the mutual first or second distance, wherein one or more of the bars is detachably placed in two opposing recesses (10, 20) of the frame, and wherein at least one of the bars is detachably coupled to the frame. a substantially rectangular frame, a substantially rectangular cloth, and a number of bars that are attached to the cloth substantially parallel to each other and spaced apart from each other, wherein the bars substantially extend over the full distance between two opposing sides of the frame, wherein the bars with their outer ends are movably coupled to the two opposing sides of the frame, wherein two consecutive bars in a first condition of the device in a first position are coupled to the frame at a mutual first distance between the two consecutive bars, wherein the mutual first distance is smaller than the length of the cloth extending between said bars, wherein the two consecutive bars in a second condition of the device, in a second position are coupled to the frame at a mutual second distance between the two consecutive bars, wherein the mutual second distance substantially equals the length of the cloth extending between said bars, characterised in that the frame on the two opposing sides is provided with a series of recesses (10, 20) that are open at the top for placing the outer ends of the two consecutive bars therein at the mutual first or second distance, wherein one or more of the bars is detachably placed in two opposing recesses (10, 20) of the frame, and wherein at least one of the bars is detachably coupled to the frame.
A fastening section structure of a member (1, 11) and having a plurality of concentric circle-shaped rib walls (3, 4; 16, 17, 18) around a fastening section (2, 14) of said member (1, 11), said member (1, 11) having said fastening section (2, 14), wherein a bearing strength in at least a second-layer rib wall (4, 17) is set to be lower than a bearing strength in an innermost-layer rib wall (3, 16) closest to a fastening member, characterized in that said member (1, 11) has said concentric circle-shaped rib walls (3, 4; 16, 17, 18) around said fastening section (2, 14) at a form of three or more layers, and a strength in a radial direction in a portion between said innermost-layer rib wall (3, 16) and said second-layer rib (4, 17) wall is greater than a strength in a radial direction in a portion between said second-layer rib wall (4, 17) and a third-layer rib wall.
A tuned pendulum mass damper for damping oscillations of a structure comprising a mass, a first spring system (2a, 2b, 2c) and a carrying part, said mass being carried by the carrying part to maintain a vertical position of the mass, the carrying part carrying the mass in the vertical direction extends between the mass and a position below the mass, i.e. the weight of the mass is carried or supported from or at a point or level below the mass, wherein the mass at the position below the mass is fixed and/or connected to a unit constituting a base of a supporting system for the mass which unit is floating i.e. the unit can move either horizontally or both horizontally and verticality, characterized in that said mass being balanced by the first spring system (2a, 2b, 2c),
Acoustic headset comprising: - two lateral acoustic modules (4, 6) comprising a mechanical bone excitation transducer (20, 22) which is capable of transmitting the sound signal to the auditory nerve by bone conduction, - at least one curved member (8, 10) for connecting the acoustic modules (4, 6), each acoustic module (4, 6) comprising: - a plate (16, 18) for lateral abutment against the sides of the skull, - an articulation (24, 26) between the abutment plate (16, 18) and the transducer (20, 22), characterised in that each acoustic module (4, 6) further comprises a spring for return movement, in terms of rotation about the axis of articulation (24, 26), of the transducer (20, 22) relative to the plate (16, 18) towards a rest position, and in that the return movement applied by each spring of a module (4, 6) is directed from the module (4, 6) towards the other module (4, 6). - two lateral acoustic modules (4, 6) comprising a mechanical bone excitation transducer (20, 22) which is capable of transmitting the sound signal to the auditory nerve by bone conduction, - at least one curved member (8, 10) for connecting the acoustic modules (4, 6), - a plate (16, 18) for lateral abutment against the sides of the skull, - an articulation (24, 26) between the abutment plate (16, 18) and the transducer (20, 22),
Jet propulsion system, particularly for a watercraft, comprising at least one propulsion unit, which comprises a rotor, on the inner circumference of which rotor blades are fixed, and a housing, in which the rotor is rotatably mounted by means of at least one bearing assembly; the bearing assembly comprising at least one axial bearing (5.1, 5.2) and at least one radial bearing (6.1, 6.2); characterized in that the rotor is connected to the housing in an electrically conducting manner; the at least one axial bearing (5.1, 5.2) and/or the at least one radial bearing (6.1, 6.2) respectively having one or more sliding blocks, which is/are positioned between the housing and the rotor and is/are produced from an electrically conducting material.
Conveying device for a material processing device, having a base section and a transport section, the base section being designed for coupling to the material processing device and being connected to the transport section via an hinge section in such a manner that the transport section is rotatable or pivotable and retractable between a working position and a transport position on at least a part of the adjustment path of the transport section by means of a first and a second pivot joint (36, 35) about a longitudinal axis, wherein the hinge section comprises a first and a second connection element (40, 80) and a hinge middle part, the first connection element is equipped for indirect or direct coupling to the material processing device and the second connection element is equipped for indirect or direct coupling to the transport section, and the connecting elements (40, 80) and the hinge middle part are coupled by means of the two pivot joints (35, 36), wherein a second axis of rotation of the second pivot joint is aligned in the direction of the longitudinal extension of the transport section and a first axis of rotation of the first pivot joint is aligned at an angle to the second axis of rotation, characterized in that a first actuator acts between the hinge middle part and the second connection element such that it rotates or pivots the transport section about a longitudinal axis, and in that the first actuator can be fastened to the hinge part in two different mounting positions depending on the selected stop type of the transport section on the material processing device.
A remote redundancy facility with a protection server for a plurality of N Substation Automation systems, each of which performing protection functions (111, 121, 131) for bays (11, 12, 13) of a substation (1, N) of an electric power distribution system, particularly a medium-voltage substation, the remote redundancy facility being remote from the Substation Automation systems and configured to run redundant protection functions and to transmit via communication links to the Substation Automation systems redundancy protection commands to be executed by the respective Substation Automation system for the bays (11, 12, 13).
Cooling station for at least one container that is to be cooled and has a housing surrounding a receiving space for receiving a product to be cooled, wherein the cooling station comprises at least one fan for generating a circulating air flow through the container, at least one cooler for cooling the circulating air flow and at least one docking place having at least one first docking point for removing the circulating air flow from the container to be cooled and having at least one second docking point for feeding the circulating air flow to the container to be cooled, characterized in that the cooling station comprises at least one closure element for closing a docking point (222, 226) of the cooling station in the absence of a container to be cooled, wherein the closure element during undocking of a container to be cooled from the cooling station is movable automatically from an open position, in which the closure element frees the docking point (222, 226), into a closed position, in which the closure element closes the docking point (222, 226), and/or wherein the closure element during docking of a container to be cooled with the cooling station is movable automatically from a closed position, in which the closure element closes the docking point (222, 226), into an open position, in which the closure element frees the docking point (222, 226).
A renovation mat comprising: a non-woven web of fibres; a first binder, which holds together the non-woven web of fibres before impregnation; a filler; and a second binder, used with the filler to impregnate the non-woven web of fibres; wherein the filler is present in an amount of 100 g/m 2 to 500 g/m 2 and comprises at least one of magnesium hydroxide, titanium dioxide, kaolin, or mixtures thereof; and wherein the renovation mat has: an air porosity of at least 100 1/m 2 /sec at 100 Pa according to ISO9237; and a colour difference (ΔE) of ≤2. a non-woven web of fibres; a first binder, which holds together the non-woven web of fibres before impregnation; a filler; and a second binder, used with the filler to impregnate the non-woven web of fibres; wherein the filler is present in an amount of 100 g/m 2 to 500 g/m 2 and comprises at least one of magnesium hydroxide, titanium dioxide, kaolin, or mixtures thereof; and wherein the renovation mat has: an air porosity of at least 100 1/m 2 /sec at 100 Pa according to ISO9237; and a colour difference (ΔE) of ≤2. an air porosity of at least 100 1/m 2 /sec at 100 Pa according to ISO9237; and a colour difference (ΔE) of ≤2.
A system for detecting pressure sores comprising: an artificial skin configured to be coupled to a patient's skin, the artificial skin comprising a substrate and a strain sensor configured to detect deformation of the substrate, a transmitter configured to transmit signals indicative of the deformation of the substrate, and a control system configured to receive the signals from the transmitter, the control system having a timer to track a period of time that the substrate is deformed, the control system comparing the period of time that the substrate is deformed to a predetermined time, wherein the control system activates an alert if the period of time that the substrate is deformed is greater than the predetermined time. an artificial skin configured to be coupled to a patient's skin, the artificial skin comprising a substrate and a strain sensor configured to detect deformation of the substrate, a transmitter configured to transmit signals indicative of the deformation of the substrate, and a control system configured to receive the signals from the transmitter, the control system having a timer to track a period of time that the substrate is deformed, the control system comparing the period of time that the substrate is deformed to a predetermined time, wherein the control system activates an alert if the period of time that the substrate is deformed is greater than the predetermined time.
A method for activating a distraction prevention safety protocol behavior in a mobile device when the mobile device satisfies a specific condition, the method comprising: discovering, by the mobile device, at least one protocol activator configured to transmit a discovery information trigger signal associated with the specific condition, wherein the discovery information trigger signal corresponds to a unique universal identification, UUID, code of the protocol activator, and wherein at least a portion of the code identifies at least one of: a specified environment in which the protocol activator operates, and a specified working group information in a specified environment in which the protocol activator operates; when discovering said trigger signal, accessing a look-up table embedded on the mobile device as firmware and determining therefrom an entry corresponding to the discovery information trigger signal, and activating, by the mobile device, the distraction prevention safety protocol behavior in the mobile device based on the entry read from the look-up table, the protocol behavior being based on a state law or enacted rule created by a state or protocol enforcement agency. discovering, by the mobile device, at least one protocol activator configured to transmit a discovery information trigger signal associated with the specific condition, wherein the discovery information trigger signal corresponds to a unique universal identification, UUID, code of the protocol activator, and wherein at least a portion of the code identifies at least one of: a specified environment in which the protocol activator operates, and a specified working group information in a specified environment in which the protocol activator operates; a specified environment in which the protocol activator operates, and a specified working group information in a specified environment in which the protocol activator operates; when discovering said trigger signal, accessing a look-up table embedded on the mobile device as firmware and determining therefrom an entry corresponding to the discovery information trigger signal, and activating, by the mobile device, the distraction prevention safety protocol behavior in the mobile device based on the entry read from the look-up table, the protocol behavior being based on a state law or enacted rule created by a state or protocol enforcement agency.
Method for testing a rotor blade ice detection system for a wind turbine, wherein the rotor blade ice detection system is configured to output a warning in the event of icing or damage to a rotor blade being monitored, and the method has the following steps: • acquiring data relating to a rotor blade to be monitored, • providing at least one value of an operating and/or environmental parameter, • modifying the at least one value provided in such a manner that the at least one modified value differs from an actual value of the parameter, • evaluating the data and the at least one modified value by means of the rotor blade ice detection system, and • testing whether the rotor blade ice detection system outputs a warning. • acquiring data relating to a rotor blade to be monitored, • providing at least one value of an operating and/or environmental parameter, • modifying the at least one value provided in such a manner that the at least one modified value differs from an actual value of the parameter, • evaluating the data and the at least one modified value by means of the rotor blade ice detection system, and • testing whether the rotor blade ice detection system outputs a warning.
A control electronics in modular design, comprising an electronic base module and a plurality of functional modules, wherein the base module provides at least one DC link voltage U ZK at a voltage supply output for supplying voltage to the functional modules, and the functional modules are electrically and mechanically connected to the base module and supplied with the DC link voltage U ZK from the base module, wherein the base module and the functional modules each have a carrier (12, 22) with electronic components (11, 21), the electronic components of the base module produce the intermediate circuit voltage U ZK, at least one functional module is attached to the carrier of the base module, and wherein the electronic components (11, 21) of the base module and of the functional modules are arranged separated from each other by means of thermal decoupling and/or EMC shield, characterized in that the electronic components (11, 21) are separated into groups according to their function, the groups are evaluated according to their electronic power input or power output, and the evaluation of the power input or power output determines an allocation of the components (11, 21) to the base module and to the functional modules as well as their relative position to each other, and wherein the evaluation of the power input or power output determines a distance between the functional modules and a distance of the respective functional module to the base module. the base module provides at least one DC link voltage U ZK at a voltage supply output for supplying voltage to the functional modules, and the functional modules are electrically and mechanically connected to the base module and supplied with the DC link voltage U ZK from the base module, wherein the base module and the functional modules each have a carrier (12, 22) with electronic components (11, 21), the electronic components of the base module produce the intermediate circuit voltage U ZK, at least one functional module is attached to the carrier of the base module, and wherein the electronic components (11, 21) of the base module and of the functional modules are arranged separated from each other by means of thermal decoupling and/or EMC shield, characterized in that the electronic components (11, 21) are separated into groups according to their function, the groups are evaluated according to their electronic power input or power output, and the evaluation of the power input or power output determines an allocation of the components (11, 21) to the base module and to the functional modules as well as their relative position to each other, and wherein the evaluation of the power input or power output determines a distance between the functional modules and a distance of the respective functional module to the base module.