mhurhangee/ep-ind-claims huggingface dataset:
A system for measuring a characteristic of an output signal, the system comprising: a generator for generating a first output signal having a first frequency; an oscillator configured to provide a reference signal having a second frequency; a first mixer configured to generate a first down-converted signal based on the first output signal and the reference signal; an amplifier configured to amplify the first output signal to produce a second, amplified, output signal (252,, 262, 264), characterised by a second mixer configured to generate a second, down-converted signal based on the second, amplified, output signal (252, 262, 264) and the reference signal; and a controller (22, 23) configured to operate at a clock frequency lower than the first frequency, determine a frequency of the first output signal of the generator based on the first down-converted signal, and determine a phase of the second, amplified, output signal (252, 262, 264) based on the second, down-converted signal. a generator for generating a first output signal having a first frequency; an oscillator configured to provide a reference signal having a second frequency; a first mixer configured to generate a first down-converted signal based on the first output signal and the reference signal; an amplifier configured to amplify the first output signal to produce a second, amplified, output signal (252,, 262, 264), characterised by a second mixer configured to generate a second, down-converted signal based on the second, amplified, output signal (252, 262, 264) and the reference signal; and a controller (22, 23) configured to operate at a clock frequency lower than the first frequency, determine a frequency of the first output signal of the generator based on the first down-converted signal, and determine a phase of the second, amplified, output signal (252, 262, 264) based on the second, down-converted signal.
Gear mechanism, in particular coaxial gear mechanism or linear gear mechanism, having - a toothing system, - a tooth carrier with radially oriented guides, - teeth (25, 27) which are received in the guides for engagement with the toothing system, the teeth (25, 27) being mounted in the guides such that they can be displaced radially relative to the tooth carrier in the direction of their longitudinal axis, - a cam disk for radially driving the teeth (25, 27), - the tooth carrier comprising a first tooth carrier part and a second tooth carrier part - at least one bearing with rolling bodies being arranged between a housing of the gear mechanism and the tooth carrier, characterized by the rolling bodies lying directly on a tooth carrier bearing face (54, 55) of the tooth carrier. - a toothing system, - a tooth carrier with radially oriented guides, - teeth (25, 27) which are received in the guides for engagement with the toothing system, the teeth (25, 27) being mounted in the guides such that they can be displaced radially relative to the tooth carrier in the direction of their longitudinal axis, - a cam disk for radially driving the teeth (25, 27), - the tooth carrier comprising a first tooth carrier part and a second tooth carrier part - at least one bearing with rolling bodies being arranged between a housing of the gear mechanism and the tooth carrier, characterized by the rolling bodies lying directly on a tooth carrier bearing face (54, 55) of the tooth carrier.
An oral care mouth rinse composition comprising (i) at least one source of ionic tin and (ii) polyvinylpyrrolidone wherein the polyvinylpyrrolidone is present in an amount of from 2.20 to 3.00 weight %, based on the total weight of the oral care mouth rinse composition. (i) at least one source of ionic tin and (ii) polyvinylpyrrolidone
A method, comprising: receiving, by one or more processors from a first antenna located in a first housing of a first earbud worn by a user, a first signal from a beacon; receiving, by the one or more processors from a second antenna located in a second housing of a second earbud worn by the user, the second housing being separate from the first housing, a second signal from the beacon; determining, by the one or more processors based on the first signal and the second signal, at least one signal strength; determining, by the one or more processors based on the at least one signal strength, a position of the user relative to the beacon; receiving, by the one or more processors, motion data from one or more sensors indicating a movement of the user; and correlating, by the one or more processors, the motion data with the first signal and the second signal, wherein determining the position of the user relative to the beacon is further based on the correlated motion data. receiving, by one or more processors from a first antenna located in a first housing of a first earbud worn by a user, a first signal from a beacon; receiving, by the one or more processors from a second antenna located in a second housing of a second earbud worn by the user, the second housing being separate from the first housing, a second signal from the beacon; determining, by the one or more processors based on the first signal and the second signal, at least one signal strength; determining, by the one or more processors based on the at least one signal strength, a position of the user relative to the beacon; receiving, by the one or more processors, motion data from one or more sensors indicating a movement of the user; and correlating, by the one or more processors, the motion data with the first signal and the second signal, wherein determining the position of the user relative to the beacon is further based on the correlated motion data.
A support foot for a luggage carrier, for a vehicle, said support foot comprising a main part, a first clamping part, a second clamping part wherein at least one of the clamping parts (3, 6) is horizontally movable and a clamping mechanism (4, 5, 38, 41), said clamping mechanism comprising an attachment lever, arranged to secure a load bar to vertical clamping surface of a mounting rail or similar device, wherein said attachment lever is arranged at one side of said main part and is arranged to operate in a horizontal plane between a closed and an open position, and thereby also moving said movable clamping part in a horizontal plane, the main part is arranged with a recess arranged to at least partly contain said lever in a closed position such that said attachment lever in said closed position forms a smooth and even surface of said main part, characterised in that an angle (α) between the open and the closed position of the attachment lever is at least 90°.
A pipeline pulling tool having an elongate housing, characterized by: a first roller wheel section including a separate cylindrical housing of a first diameter, and having at least two freely rotating roller wheels extending out from a sidewall of the housing; a second roller wheel section including a separate cylindrical housing of the first diameter, and having at least two freely rotating roller wheels extending out from a sidewall of the housing; wherein the freely rotating roller wheels have a diameter that is larger than the diameter of each cylindrical housing, the freely rotating roller wheels extending through each cylindrical housing; one main section having only one retractable propulsion wheel mounted on a tilting arm, and at least one actuator configured to actuate the propulsion wheel between an extended position, out from the sidewall of the housing and pushed against a wall of a pipeline or a wellbore, and a retracted position inside the housing, the main section being located between the first roller wheel section and the second roller wheel section, such that only one retractable propulsion wheel is located between the first roller wheel section and the second roller wheel section; and the distance between roller wheel sections (1, 2) and the rigidity of the pipeline pulling tool being chosen so that the tilting arm with the propulsion wheel does not bend the pipeline pulling tool so that the pipeline pulling tool contacts the wall of the pipeline or the wellbore in which the pipeline pulling tool is deployed. a first roller wheel section including a separate cylindrical housing of a first diameter, and having at least two freely rotating roller wheels extending out from a sidewall of the housing; a second roller wheel section including a separate cylindrical housing of the first diameter, and having at least two freely rotating roller wheels extending out from a sidewall of the housing; wherein the freely rotating roller wheels have a diameter that is larger than the diameter of each cylindrical housing, the freely rotating roller wheels extending through each cylindrical housing; one main section having only one retractable propulsion wheel mounted on a tilting arm, and at least one actuator configured to actuate the propulsion wheel between an extended position, out from the sidewall of the housing and pushed against a wall of a pipeline or a wellbore, and a retracted position inside the housing, the main section being located between the first roller wheel section and the second roller wheel section, such that only one retractable propulsion wheel is located between the first roller wheel section and the second roller wheel section; and the distance between roller wheel sections (1, 2) and the rigidity of the pipeline pulling tool being chosen so that the tilting arm with the propulsion wheel does not bend the pipeline pulling tool so that the pipeline pulling tool contacts the wall of the pipeline or the wellbore in which the pipeline pulling tool is deployed.
A rotor for a rotary electric machine, the rotor comprising: a rotor core having a cylindrical hole, the rotor core having a radially projecting portion (22d, 22e) on an inner peripheral surface of the cylindrical hole; a rotor shaft including; an insertion portion that is inserted into the cylindrical hole of the rotor core, an external thread portion that extends from the insertion portion to an outer side in an axis direction, the external thread portion having a thread ridge on an outer peripheral surface, and a first groove (42a, 44a, 42b, 44b) into which the projecting portion (22d, 22e) is inserted, the first groove (42a, 44a, 42b, 44b) being provided on an outer peripheral surface of the rotor shaft so as to extend in an axis direction through the external thread portion to the insertion portion; and a nut screwed into the external thread portion, characterized in that the nut has a first crimped portion (50a, 50c) crimped so as to enter the first groove (42a, 44a, 42b, 44b), and one part (42a, 42b) of first groove (42a, 44a, 42b, 44b) into which projecting portion (22d, 22e) is inserted has a greater depth in radial direction of the rotor shaft than the other part (44a, 44b) of first groove (42a, 44a, 42b, 44b) into which the first crimped portion (50a, 50c) enters. a rotor core having a cylindrical hole, the rotor core having a radially projecting portion (22d, 22e) on an inner peripheral surface of the cylindrical hole; a rotor shaft including; an insertion portion that is inserted into the cylindrical hole of the rotor core, an external thread portion that extends from the insertion portion to an outer side in an axis direction, the external thread portion having a thread ridge on an outer peripheral surface, and a first groove (42a, 44a, 42b, 44b) into which the projecting portion (22d, 22e) is inserted, the first groove (42a, 44a, 42b, 44b) being provided on an outer peripheral surface of the rotor shaft so as to extend in an axis direction through the external thread portion to the insertion portion; and an insertion portion that is inserted into the cylindrical hole of the rotor core, an external thread portion that extends from the insertion portion to an outer side in an axis direction, the external thread portion having a thread ridge on an outer peripheral surface, and a first groove (42a, 44a, 42b, 44b) into which the projecting portion (22d, 22e) is inserted, the first groove (42a, 44a, 42b, 44b) being provided on an outer peripheral surface of the rotor shaft so as to extend in an axis direction through the external thread portion to the insertion portion; and a nut screwed into the external thread portion, characterized in that the nut has a first crimped portion (50a, 50c) crimped so as to enter the first groove (42a, 44a, 42b, 44b), and one part (42a, 42b) of first groove (42a, 44a, 42b, 44b) into which projecting portion (22d, 22e) is inserted has a greater depth in radial direction of the rotor shaft than the other part (44a, 44b) of first groove (42a, 44a, 42b, 44b) into which the first crimped portion (50a, 50c) enters.
Method (100, 200) for the production of a flexible substrate comprising at least one functional element of micrometric or sub-micrometric dimensions, said method comprising the following steps: - deposition of a sacrificial layer on a rigid, thus-termed master substrate, - production of said functional element on said sacrificial layer, - transfer (106, 108, 110) of said functional element onto a flexible substrate, said transfer step comprising the following steps: o production of the flexible substrate on said sacrificial layer, and o removal of said sacrificial layer; characterized in that the sacrificial layer comprises a molybdenum oxide. - deposition of a sacrificial layer on a rigid, thus-termed master substrate, - production of said functional element on said sacrificial layer, - transfer (106, 108, 110) of said functional element onto a flexible substrate, said transfer step comprising the following steps: o production of the flexible substrate on said sacrificial layer, and o removal of said sacrificial layer; o production of the flexible substrate on said sacrificial layer, and o removal of said sacrificial layer;
A combined reservoir and degas bottle for receiving liquid coolant from two or more separate cooling circuits each having a different operating temperature requirement, the combined reservoir and degas bottle having an upper reservoir chamber including a single filler to permit the reservoir chamber to be filled with liquid coolant and a like number of separate degas chambers as there are separate cooling circuits wherein each of the degas chambers has respective inlet and outlet connections for connecting the degas chamber to a respective one of the separate cooling circuits, is separated from an adjacent degas chamber by a dividing wall forming a thermal barrier therebetween and is separated from the reservoir chamber by a transverse wall having at least one transfer aperture in communication with the respective degas chamber to allow top-up coolant to pass in use from the reservoir chamber to the respective degas chamber and any extracted gas to flow from the degas chamber to the reservoir chamber, characterised therein there are first and second degas chambers arranged in a side by side relationship below the reservoir chamber.
Computer program with program code to execute the method steps of a method for training a preferred retinal locus of fixation for a person having an eye with a field of vision comprising an area of partially diminished or entirely degenerated visual acuity if the computer program is loaded in the computer or executed in the computer, whereby the method being characterized in the steps: - determining an inefficient retinal region (Inefficient PRL) for a specific vision task outside said area (Central Scotoma) of partially diminished or entirely degenerated visual acuity in said field of vision of said eye of said person and a more efficient retinal region (Efficient PRL) for said specific vision task outside said area (Central Scotoma) of partially diminished or entirely degenerated visual acuity in said field of vision of said eye of said person - inducing a preferred retinal locus of fixation (Efficient PRL) for said specific vision task outside said inefficient retinal region (Inefficient PRL) but in said more efficient retinal region (Efficient PRL), whereby said inducing said preferred retinal locus of fixation (Efficient PRL) for said specific vision task outside said inefficient retinal region (Inefficient PRL) but in said more efficient retinal region (Efficient PRL) comprises one or both of - measures to encourage said person to move head and/or eye in order to gaze such that said retinal location of fixation of the eye of said person lies outside said inefficient retinal region (Inefficient PRL) and - measures to discourage said person to move head and/or eye in order to gaze in a direction such that said retinal location of fixation of the eye of said person lies inside said inefficient retinal region (Inefficient PRL). - determining an inefficient retinal region (Inefficient PRL) for a specific vision task outside said area (Central Scotoma) of partially diminished or entirely degenerated visual acuity in said field of vision of said eye of said person and a more efficient retinal region (Efficient PRL) for said specific vision task outside said area (Central Scotoma) of partially diminished or entirely degenerated visual acuity in said field of vision of said eye of said person - inducing a preferred retinal locus of fixation (Efficient PRL) for said specific vision task outside said inefficient retinal region (Inefficient PRL) but in said more efficient retinal region (Efficient PRL), whereby said inducing said preferred retinal locus of fixation (Efficient PRL) for said specific vision task outside said inefficient retinal region (Inefficient PRL) but in said more efficient retinal region (Efficient PRL) comprises one or both of - measures to encourage said person to move head and/or eye in order to gaze such that said retinal location of fixation of the eye of said person lies outside said inefficient retinal region (Inefficient PRL) and - measures to discourage said person to move head and/or eye in order to gaze in a direction such that said retinal location of fixation of the eye of said person lies inside said inefficient retinal region (Inefficient PRL).
A method for securely measuring end-to-end Quality of Service, QoS, in a network, comprising: at a first endpoint comprising a first physical Ethernet controller or Physical Network Interface Controller, NIC, detecting a first packet marked for QoS measurement; generating, using a secure clock, a first timestamp for the first packet; determining packet identifying metadata for the first packet; reporting the first timestamp and the packet identifying metadata for the first packet to an external monitor; at a second endpoint comprising a second physical Ethernet controller or physical NIC, detecting the first packet is marked for QoS measurement; generating, using a secure clock, a second timestamp for the first packet; determining packet identifying metadata for the first packet; reporting the second timestamp and the packet identifying metadata for the first packet to the external monitor; and employing the first and second timestamps and the packet identifying metadata for the first packet to measure a latency incurred by the first packet from the first endpoint to the second endpoint. at a first endpoint comprising a first physical Ethernet controller or Physical Network Interface Controller, NIC, detecting a first packet marked for QoS measurement; generating, using a secure clock, a first timestamp for the first packet; determining packet identifying metadata for the first packet; reporting the first timestamp and the packet identifying metadata for the first packet to an external monitor; detecting a first packet marked for QoS measurement; generating, using a secure clock, a first timestamp for the first packet; determining packet identifying metadata for the first packet; reporting the first timestamp and the packet identifying metadata for the first packet to an external monitor; at a second endpoint comprising a second physical Ethernet controller or physical NIC, detecting the first packet is marked for QoS measurement; generating, using a secure clock, a second timestamp for the first packet; determining packet identifying metadata for the first packet; reporting the second timestamp and the packet identifying metadata for the first packet to the external monitor; and detecting the first packet is marked for QoS measurement; generating, using a secure clock, a second timestamp for the first packet; determining packet identifying metadata for the first packet; reporting the second timestamp and the packet identifying metadata for the first packet to the external monitor; and employing the first and second timestamps and the packet identifying metadata for the first packet to measure a latency incurred by the first packet from the first endpoint to the second endpoint.
A sealing device for a turbine including: a stator, a rotor with a plurality of rotor blades, and a plurality of stationary blades extending radially inward from the stator which is arranged to surround the rotor blades, each of the stationary blades being cooled by a cooling medium, the sealing device comprising: a sealing member provided in a gap between the rotor and the stator, wherein a fluid path is provided within the stator, to introduce, into the stator, a cooling medium used to cool stationary blades, characterized in that: the sealing member is provided between a tip of one of the rotor blades and the stator; and the fluid path being provided to flow the cooling medium to an upstream side of the sealing member. a stator, a rotor with a plurality of rotor blades, and a plurality of stationary blades extending radially inward from the stator which is arranged to surround the rotor blades, each of the stationary blades being cooled by a cooling medium, the sealing device comprising: a sealing member provided in a gap between the rotor and the stator, wherein a fluid path is provided within the stator, to introduce, into the stator, a cooling medium used to cool stationary blades, characterized in that: the sealing member is provided between a tip of one of the rotor blades and the stator; and the fluid path being provided to flow the cooling medium to an upstream side of the sealing member. a sealing member provided in a gap between the rotor and the stator, wherein a fluid path is provided within the stator, to introduce, into the stator, a cooling medium used to cool stationary blades, characterized in that: the sealing member is provided between a tip of one of the rotor blades and the stator; and the fluid path being provided to flow the cooling medium to an upstream side of the sealing member. the sealing member is provided between a tip of one of the rotor blades and the stator; and the fluid path being provided to flow the cooling medium to an upstream side of the sealing member.