mhurhangee/patent-ind-claim-en huggingface dataset:
Mounting of a system for determining angular position on a rotating member, said system comprising: - an encoder which is rigidly connected in rotation to said rotating member, said encoder comprising a primary magnetic track and a secondary magnetic track which are each suitable for emitting a periodic signal representative of the movement of said encoder; and - a sensor having two patterns of sensitive elements which are suitable for detecting the signals supplied by the tracks of the encoder , each pattern being arranged along a reading surface (S) which extends to a reading distance (L) of a track to form a representative signal of the angular position of said track, said sensor further comprising a device for processing the signals from the patterns to determine the absolute angular position of the rotating member ; each sensitive element of the patterns having at least one sensitive layer based on a magnetoresistive material wherein the resistance varies as a function of the magnetic signal of the track to be detected, each pattern being arranged such that said sensitive layer extends in a general plane (P) which is perpendicular to the reading surface (S) of said track, said mounting being characterised in that the sensor comprises an electronic board having two faces whereon respectively a pattern is arranged. - an encoder which is rigidly connected in rotation to said rotating member, said encoder comprising a primary magnetic track and a secondary magnetic track which are each suitable for emitting a periodic signal representative of the movement of said encoder; and - a sensor having two patterns of sensitive elements which are suitable for detecting the signals supplied by the tracks of the encoder , each pattern being arranged along a reading surface (S) which extends to a reading distance (L) of a track to form a representative signal of the angular position of said track, said sensor further comprising a device for processing the signals from the patterns to determine the absolute angular position of the rotating member ;
An expression cassette comprising a regulatory element having a nucleotide sequence selected from the group consisting of: (a) a sequence comprising SEQ ID NO: 1 or 3; (b) a sequence with at least 90% identity to SEQ ID NO: 1, wherein the sequence initiates transcription in silks, pericarp, endosperm, embryo, stem and leaf, but not in root, meristem, immature ear, tassel, anthers and pollen; and (c) a sequence with at least 90% identity to SEQ ID NO: 3, wherein the sequence initiates transcription in silks, pericarp, endosperm, embryo, immature ear, stem and leaf, but not in root, meristem, tassel, anthers and pollen; wherein the regulatory element is operably linked to a heterologous polynucleotide of interest. (a) a sequence comprising SEQ ID NO: 1 or 3; (b) a sequence with at least 90% identity to SEQ ID NO: 1, wherein the sequence initiates transcription in silks, pericarp, endosperm, embryo, stem and leaf, but not in root, meristem, immature ear, tassel, anthers and pollen; and (c) a sequence with at least 90% identity to SEQ ID NO: 3, wherein the sequence initiates transcription in silks, pericarp, endosperm, embryo, immature ear, stem and leaf, but not in root, meristem, tassel, anthers and pollen;
A compound of formula (I): wherein, each of R 1 , R 2 , and R 3 is independently hydrogen, alkyl or substituted alkyl, alkoxy or substituted alkoxy, heteroalkyl or substituted heteroalkyl, or heteroaryl or substituted heteroaryl; and Z is alkyl or substituted alkyl, alkoxy or substituted alkoxy, heteroalkyl or substituted heteroalkyl, aryl or substituted aryl, or heteroaryl or substituted heteroaryl; or an enantiomer, diastereomer, tautomer, or pharmaceutically acceptable salt or solvate thereof. each of R 1 , R 2 , and R 3 is independently hydrogen, alkyl or substituted alkyl, alkoxy or substituted alkoxy, heteroalkyl or substituted heteroalkyl, or heteroaryl or substituted heteroaryl; and Z is alkyl or substituted alkyl, alkoxy or substituted alkoxy, heteroalkyl or substituted heteroalkyl, aryl or substituted aryl, or heteroaryl or substituted heteroaryl; or an enantiomer, diastereomer, tautomer, or pharmaceutically acceptable salt or solvate thereof.
Haptic actuator for a touch-sensitive surface comprising a stator , a movable portion and at least one elastic element , said stator comprising a winding of electrical wire forming a coil which is able to produce a magnetic field when a current flows through the electrical wire , and a magnetic circuit which partially envelops said coil , said movable portion being at least partially made of ferromagnetic material so as to be attracted by the magnetic field causing the touch-sensitive surface to move and the elastic element to be compressed, said elastic element being interposed between the magnetic circuit and the movable portion so as to push back the movable portion when the latter is attracted to the stator by the magnetic field, characterized in that said elastic element is loaded with magnetic particles .
A network-initiated deregistration method by an access and mobility m anagement function (AMF) in a wireless communication system, comprising: receiving a first message having a removal reason set to subscription withdrawn from a unified data management (UDM); and transmitting a deregistration request message for requesting the dereg istration to a user equipment (UE), wherein the AMF performs the deregistration for all accesses in which the UE is registered when the removal cause received from the UDM through th e first message indicates the subscription withdrawn of the UE. receiving a first message having a removal reason set to subscription withdrawn from a unified data management (UDM); and transmitting a deregistration request message for requesting the dereg istration to a user equipment (UE), wherein the AMF performs the deregistration for all accesses in which the UE is registered when the removal cause received from the UDM through th e first message indicates the subscription withdrawn of the UE.
A method comprising: creating a domain name cache with entries associating server domains and/or domain names with corresponding server IP addresses; identifying an IP flow from traffic data in a communication network; assigning a preliminary classification to the IP flow based on protocol information contained in a first packet of the IP flow and at least one classification override rule, the preliminary classification being indicative of at least a priority for the IP flow; performing a reverse domain name lookup in the domain name cache using a server IP address of a server end of the IP flow; in case one or more matching server domains and/or domain names are present in the domain name cache, associating the one or more matching server domains and/or domain names with the IP flow, and assigning an initial classification to the IP flow based on information contained in a header of the first packet and the one or more matching server domains and/or domain names; in case no matching server domains and/or domain names are present in the domain name cache, analyzing subsequent packets within the IP flow to determine a domain name associated with the server end of the IP flow based on one or more predetermined factors; associating the domain name with the IP flow; and assigning an initial classification to the IP flow based, at least in part, on the analysis, the domain name, and at least one classification override rule, the initial classification being indicative of at least a priority for the IP flow. creating a domain name cache with entries associating server domains and/or domain names with corresponding server IP addresses; identifying an IP flow from traffic data in a communication network; assigning a preliminary classification to the IP flow based on protocol information contained in a first packet of the IP flow and at least one classification override rule, the preliminary classification being indicative of at least a priority for the IP flow; performing a reverse domain name lookup in the domain name cache using a server IP address of a server end of the IP flow; in case one or more matching server domains and/or domain names are present in the domain name cache, associating the one or more matching server domains and/or domain names with the IP flow, and assigning an initial classification to the IP flow based on information contained in a header of the first packet and the one or more matching server domains and/or domain names; in case no matching server domains and/or domain names are present in the domain name cache, analyzing subsequent packets within the IP flow to determine a domain name associated with the server end of the IP flow based on one or more predetermined factors; associating the domain name with the IP flow; and assigning an initial classification to the IP flow based, at least in part, on the analysis, the domain name, and at least one classification override rule, the initial classification being indicative of at least a priority for the IP flow.
A method for wireless communication by a user-equipment, UE , comprising: detecting a synchronization signal block, SSB; determining a start time of a control resource set, CORESET , associated with the detected SSB, wherein the start time of the CORESET is aligned with a boundary of a symbol having a larger cyclic prefix, CP, than one or more other symbols in a same half-subframe; and monitoring the CORESET for a physical downlink control channel, PDCCH, transmission. detecting a synchronization signal block, SSB; determining a start time of a control resource set, CORESET , associated with the detected SSB, wherein the start time of the CORESET is aligned with a boundary of a symbol having a larger cyclic prefix, CP, than one or more other symbols in a same half-subframe; and monitoring the CORESET for a physical downlink control channel, PDCCH, transmission.
A catalytic converter (C) for an internal combustion engine (M) for obtaining energy from the combustion of fuel and air, wherein the resulting combustion gas (VG) is guided through the catalytic converter (C) in a conducting path at which a high-temperature resistant diffusion membrane (DM) is attached which borders on a regrind collector (R) which is maintained under a lower pressure (pR) than a general catalytic converter internal pressure (pC) and a regrind gas (RG) of the downstream internal combustion engine (M) suctioned from the combustion gas (VG) is thus added as a supplementary combustible fuel, characterized in that a swirl chamber (WK) is inserted into the conducting path, said swirl chamber bordering on the diffusion membrane (DM) and in which the catalytic converter internal pressure (pC) is increased by obstacles for the combustion gas (VG), and in that water is added to the combustion gas (VG) into the conducting path in front of the swirl chamber (WK) in a certain ratio to the burned fuel, and in that the diffusion membrane (DM) is formed from at least one grouping of a layer of a fine metal mesh that is surrounded by more coarse metal mesh , wherein the grouping is coated with palladium, and adjoins a porous impact membrane plate which delimits the swirl chamber (WK).
A fastening apparatus suitable for assembling a downhole tool, comprising: a retaining member comprising a shape memory material, the retaining member having an axial cross-section of a first cross sectional shape; a hole within a body into which the retaining member is disposed, the hole having an axial cross-section of a second cross sectional shape; wherein the shape memory material is configured to transform, responsive to application of a stimulus, from a first solid phase to a second solid phase; and characterised in that the first cross-sectional shape is circular, the second cross-sectional shape is non-circular and transformation of the shape memory material to the second solid phase will secure the retaining member within the hole against rotational and axial movement. a retaining member comprising a shape memory material, the retaining member having an axial cross-section of a first cross sectional shape; a hole within a body into which the retaining member is disposed, the hole having an axial cross-section of a second cross sectional shape; wherein the shape memory material is configured to transform, responsive to application of a stimulus, from a first solid phase to a second solid phase; and characterised in that the first cross-sectional shape is circular, the second cross-sectional shape is non-circular and transformation of the shape memory material to the second solid phase will secure the retaining member within the hole against rotational and axial movement.
A baling machine comprising: a frame ; a baling chamber for creating a bale; a wrap material bay for storing wrap material to be fed into the baling chamber ; and a transfer device (115; 315) for transferring a bale wrap material supply roll to the wrap material bay , the transfer device comprising: an arm (132; 332) having a first end and a second end , the arm comprising a first member and a second member , the first member being pivotally attached to the second member ; characterized in that it further comprises a pivot (134; 334, 335) positioned at the first end of the arm (132; 332), the pivot (134; 334, 335) being secured to the baling machine ; and a lifting device positioned on the arm , wherein the lifting device is configured to be attached to a bale wrap material supply roll . a frame ; a baling chamber for creating a bale; a wrap material bay for storing wrap material to be fed into the baling chamber ; and a transfer device (115; 315) for transferring a bale wrap material supply roll to the wrap material bay , the transfer device comprising: an arm (132; 332) having a first end and a second end , the arm comprising a first member and a second member , the first member being pivotally attached to the second member ; characterized in that it further comprises a pivot (134; 334, 335) positioned at the first end of the arm (132; 332), the pivot (134; 334, 335) being secured to the baling machine ; and a lifting device positioned on the arm , wherein the lifting device is configured to be attached to a bale wrap material supply roll . an arm (132; 332) having a first end and a second end , the arm comprising a first member and a second member , the first member being pivotally attached to the second member ; characterized in that it further comprises a pivot (134; 334, 335) positioned at the first end of the arm (132; 332), the pivot (134; 334, 335) being secured to the baling machine ; and a lifting device positioned on the arm , wherein the lifting device is configured to be attached to a bale wrap material supply roll .
A method for use in a buried object locator system, comprising: receiving a plurality of wirelessly transmitted signals, including timing information , at a transmitter ; generating a timing reference from the timing information at the transmitter; generating a phase-synchronized output signal having a phase determined at least in part by the timing reference at the transmitter; sending the output signal from the transmitter to a coupling device; electrically coupling the phase-synchronized output signal to a buried object to generate a buried object current; receiving , at a buried object locator, a second plurality of wirelessly transmitted signals including second timing information; independently determining a second timing reference at the locator system, based on the second timing information ; receiving an output signal based on a magnetic field signal associated with the buried object current at the buried object locator ; and the method being characterized by further comprising: determining information about the buried object current using a comparison of the phase of the received output signal and the second timing reference. receiving a plurality of wirelessly transmitted signals, including timing information , at a transmitter ; generating a timing reference from the timing information at the transmitter; generating a phase-synchronized output signal having a phase determined at least in part by the timing reference at the transmitter; sending the output signal from the transmitter to a coupling device; electrically coupling the phase-synchronized output signal to a buried object to generate a buried object current; receiving , at a buried object locator, a second plurality of wirelessly transmitted signals including second timing information; independently determining a second timing reference at the locator system, based on the second timing information ; receiving an output signal based on a magnetic field signal associated with the buried object current at the buried object locator ; and the method being characterized by further comprising: determining information about the buried object current using a comparison of the phase of the received output signal and the second timing reference.
Method for relaying a route-discovery request in order to discover at least one route from a source node device to a destination node device in a mesh communication network also comprising other node devices able to act as relays between the source node device and the destination node device, the method being implemented by at least one node device among said other node devices and comprising the following steps: - receiving the route-discovery request to be relayed, the route-discovery request being received via a link having a link quality level; - determining a waiting delay to be applied before relaying the route-discovery request; - applying the waiting delay to the route-discovery request; and - relaying the route-discovery request after expiry of the waiting delay, characterised in that the waiting delay is determined as follows: - when the link quality level is below or equal to a first predefined threshold, the waiting delay is equal to a first default value; - when the link quality level is above or equal to a second predefined threshold, the waiting delay is equal to a second default value, the second default value being lower than or equal to the first default value, the second predefined threshold being strictly higher than the first predefined threshold; and, - when the link quality level lies in the range between the first predefined threshold and the second predefined threshold, the waiting delay is below the first default value and, for at least part of the range between the first predefined threshold and the second predefined threshold, the waiting delay is also below the second default value.. - receiving the route-discovery request to be relayed, the route-discovery request being received via a link having a link quality level; - determining a waiting delay to be applied before relaying the route-discovery request; - applying the waiting delay to the route-discovery request; and - relaying the route-discovery request after expiry of the waiting delay, characterised in that the waiting delay is determined as follows: - when the link quality level is below or equal to a first predefined threshold, the waiting delay is equal to a first default value; - when the link quality level is above or equal to a second predefined threshold, the waiting delay is equal to a second default value, the second default value being lower than or equal to the first default value, the second predefined threshold being strictly higher than the first predefined threshold; and, - when the link quality level lies in the range between the first predefined threshold and the second predefined threshold, the waiting delay is below the first default value and, for at least part of the range between the first predefined threshold and the second predefined threshold, the waiting delay is also below the second default value..
An amino acid formulation for oral administration, comprising granulates of ten or more of the following amino acids in the recited weight parts: Amino Acid Weight Parts L-Alanine 2.0-12.0 L-Arginine 3.0-10.5 L-Aspartic Acid 5.0-10.5 L-Cystine 1.5-4.0 L-Glutamic Acid + Glutamine 7.0-25.0 Glycine 3.5-15.0 L-Histidine 2.0-6.5 L-Isoleucine 2.0-8.5 L-Leucine 8.0-15.0 L-Lysine 4.5-10.5 L-Methionine 1.0-3.0 L-Phenylalanine 0.0 or 4.0-7.5 L-Proline 3.5-15.0 L-Serine 2.0-8.5 L-Threonine 4.0-7.5 L-Tryptophan 1.0-4.0 L-Tyrosine 0.0 or 2.5-14.0 L-Valine 2.5-10.0 L-Carnitine 0.0-0.2 Taurine 0.05-1.0 wherein the granulates are coated by a coating of from 1 wt% to 15 wt% ethylcellulose based on the weight of the amino acids; and wherein 2 g of said amino acids in said granulates release no more than 60% of the amino acids in 30 minutes of dissolution testing performed in a <711> USP 39 NF 34, paddle apparatus, at 37 °C, in 500 mL, 0.1 N hydrochloric acid (pH 1.2), paddle speed 50 rpm. wherein the granulates are coated by a coating of from 1 wt% to 15 wt% ethylcellulose based on the weight of the amino acids; and wherein 2 g of said amino acids in said granulates release no more than 60% of the amino acids in 30 minutes of dissolution testing performed in a <711> USP 39 NF 34, paddle apparatus, at 37 °C, in 500 mL, 0.1 N hydrochloric acid (pH 1.2), paddle speed 50 rpm.
A materials handling vehicle comprising: a load handling assembly including a mast assembly ; a fork carriage assembly comprising a fork support and at least one fork assembly , the at least one fork assembly including a first fork member , which is fixed to the fork support , and a second fork member ; and a fork extension/retraction assembly configured to move the second fork member relative to the first fork member in a first direction that is parallel to the central axis of the at least one fork assembly such that the fork extension/retraction assembly is configured to selectively move the second fork member toward or away from the fork support in the first direction characterized by a tilt assembly configured to tilt the fork support relative to the mast assembly such that a central axis of the at least one fork assembly is positionable in a plurality of different positions relative to a horizontal direction, the horizontal direction defined with respect to a floor surface on which the vehicle is located; wherein the tilt assembly comprises at least one tilt cylinder assembly including a cylinder and a piston ; and the materials handling vehicle further comprises at least one cam assembly coupled to a corresponding tilt cylinder assembly , the cam assembly configured to be driven by the piston of the tilt cylinder assembly to tilt the fork support relative to the mast assembly , wherein the cam assembly comprises a cam weldment including a roller stud that is not concentric with a bearing surface of the cam weldment . a load handling assembly including a mast assembly ; a fork carriage assembly comprising a fork support and at least one fork assembly , the at least one fork assembly including a first fork member , which is fixed to the fork support , and a second fork member ; and a fork extension/retraction assembly configured to move the second fork member relative to the first fork member in a first direction that is parallel to the central axis of the at least one fork assembly such that the fork extension/retraction assembly is configured to selectively move the second fork member toward or away from the fork support in the first direction characterized by a tilt assembly configured to tilt the fork support relative to the mast assembly such that a central axis of the at least one fork assembly is positionable in a plurality of different positions relative to a horizontal direction, the horizontal direction defined with respect to a floor surface on which the vehicle is located; wherein the tilt assembly comprises at least one tilt cylinder assembly including a cylinder and a piston ; and the materials handling vehicle further comprises at least one cam assembly coupled to a corresponding tilt cylinder assembly , the cam assembly configured to be driven by the piston of the tilt cylinder assembly to tilt the fork support relative to the mast assembly , wherein the cam assembly comprises a cam weldment including a roller stud that is not concentric with a bearing surface of the cam weldment .