mhurhangee/patent-ind-claim-en huggingface dataset:
Holding device arranged to be mounted to a surface inside a cargo space of a vehicle, the holding device comprising: at least one elongate rail extending between a first end and a second end , the rail further comprising a first side which is arranged to be fixedly attached to said surface, and a second side which is opposite the first side , a first holder movably connected at the second side of the rail , and arranged to slide along the rail between the first and second ends of the rail , a second holder , arranged to be fixedly connected at the second side of the rail in an optionable position along the rail , between the first holder and one of the first and second ends of the rail , characterized by that the first holder comprises a spring attached with a first end to the first holder and attached with a second end to a mount , which mount is arranged to be fixedly connected at the second side of the rail in an optionable position along the rail , between the first holder and the second holder , wherein the spring is a constant force band spring . at least one elongate rail extending between a first end and a second end , the rail further comprising a first side which is arranged to be fixedly attached to said surface, and a second side which is opposite the first side , a first holder movably connected at the second side of the rail , and arranged to slide along the rail between the first and second ends of the rail , a second holder , arranged to be fixedly connected at the second side of the rail in an optionable position along the rail , between the first holder and one of the first and second ends of the rail , characterized by that the first holder comprises a spring attached with a first end to the first holder and attached with a second end to a mount , which mount is arranged to be fixedly connected at the second side of the rail in an optionable position along the rail , between the first holder and the second holder , wherein the spring is a constant force band spring .
A method for manufacturing a tubular , the tubular comprising a composite material including a matrix and a plurality of reinforcing elements embedded within the matrix, and the method comprising: configuring the reinforcing elements and/or the matrix so as to control the direct induction of a flow of electrical current in the composite material on exposure of the composite material to a time-varying magnetic field, wherein the matrix consists of a polyether ether ketone (PEEK) matrix material, wherein the reinforcing elements comprise carbon fibre reinforcing elements and wherein the volume fraction of reinforcing elements within the matrix is greater than 55%.
A computer-implemented method for defense against social engineering attack comprising: identifying , by a computing device, potential social engineering activity associated with one or more communications on a first communication channel of a plurality of communication channels, wherein the potential social engineering activity is directed towards a user target on the first communication channel, wherein the user target is a first user, wherein the first communication channel includes a first type of communication; requesting a restriction of at least partial access to at least a second communication channel of the plurality of communication channels based upon, at least in part, the identification of the potential social engineering activity associated with the one or more communications on the first communication channel, wherein the second communication channel includes a second type of communication; and restricting at least the partial access of the user target to at least the second type of communication on the second communication channel of the plurality of communication channels based upon, at least in part, requesting the restriction; and performing an action based upon, at least in part, identifying the potential social engineering activity associated with the one or more communications on the first communication channel, wherein performing the action includes implementing a quarantine action, wherein implementing the quarantine action includes changing permissions associated with one of a file and an application. identifying , by a computing device, potential social engineering activity associated with one or more communications on a first communication channel of a plurality of communication channels, wherein the potential social engineering activity is directed towards a user target on the first communication channel, wherein the user target is a first user, wherein the first communication channel includes a first type of communication; requesting a restriction of at least partial access to at least a second communication channel of the plurality of communication channels based upon, at least in part, the identification of the potential social engineering activity associated with the one or more communications on the first communication channel, wherein the second communication channel includes a second type of communication; and restricting at least the partial access of the user target to at least the second type of communication on the second communication channel of the plurality of communication channels based upon, at least in part, requesting the restriction; and performing an action based upon, at least in part, identifying the potential social engineering activity associated with the one or more communications on the first communication channel, wherein performing the action includes implementing a quarantine action, wherein implementing the quarantine action includes changing permissions associated with one of a file and an application.
Apparatus for spatially flexible provision of a lifting system, in particular for lifting, lowering and distributing objects , wherein the apparatus comprises at least one work cell structure which circumscribes a work space , wherein the work cell structure comprises at least three vertical members and at least three horizontal members , wherein each horizontal member connects two vertical members to each other, characterized in that the apparatus has a lifting device which is movably arranged on a positioning device which is variable in length and extends longitudinally between two ends , wherein the ends of the positioning device are movable by means of movement units on the vertical members and the horizontal members , wherein the movement units , at connection points of the members, can optionally be moved along the horizontal members as well as the vertical members via switch units . wherein the apparatus comprises at least one work cell structure which circumscribes a work space , wherein the work cell structure comprises at least three vertical members and at least three horizontal members , wherein each horizontal member connects two vertical members to each other, characterized in that the apparatus has a lifting device which is movably arranged on a positioning device which is variable in length and extends longitudinally between two ends , wherein the ends of the positioning device are movable by means of movement units on the vertical members and the horizontal members , wherein the movement units , at connection points of the members, can optionally be moved along the horizontal members as well as the vertical members via switch units .
A method for producing a bulk moulding compound or a sheet moulding compound from pre-impregnated reinforcement fibers , comprising a step of - powdering a powdery substance that prevents sticking together of pre-impregnated reinforcement fibers on at least one surface of laminates of pre-impregnated reinforcement fibers , and - cutting the powdered laminates of pre-impregnated reinforcement fibers into a plurality of cut laminates . - powdering a powdery substance that prevents sticking together of pre-impregnated reinforcement fibers on at least one surface of laminates of pre-impregnated reinforcement fibers , and - cutting the powdered laminates of pre-impregnated reinforcement fibers into a plurality of cut laminates .
A mutein derived from human neutrophil gelatinase-associated lipocalin (hNGAL), comprising a mutated amino acid residue at amino acid sequence position 100 of the linear polypeptide sequence of mature hNGAL (SEQ ID NO: 44) and also at 14, 15, 16, 17, 18, or 19 amino acid residues selected from the group consisting of amino acid sequence positions 36, 40, 41, 49, 52, 68, 70, 72, 73, 77, 79, 81, 96, 103, 106, 125, 127, 132, and 134 of the linear polypeptide sequence of mature hNGAL, which is capable of binding a given target with a dissociation constant (K d ) of 200 nM or less, and wherein the given target does not bind to native mature hNGAL under physiological conditions, wherein the mutein has a sequence identity of more than 70% to the linear polypeptide sequence of mature hNGAL (SEQ ID NO: 44).
A method for identifying a cooking level of a food load in an electromagnetic cooking device , the method comprising: controlling a frequency and a phase of a first RF signal and a second RF signal; amplifying the first RF signal and the second RF signal thereby generating a first RF feed and a second RF feed ; emitting the first RF feed and the second RF feed into an enclosed cavity to heat a food load; measuring at least one reflection signal; calculating a Q-factor for the enclosed cavity based on the reflection signal; monitoring the Q-factor; identifying a change in the Q-factor exceeding a predetermined change threshold; and in response to identifying the change exceeding the predetermined change threshold, identifying a cooking level. controlling a frequency and a phase of a first RF signal and a second RF signal; amplifying the first RF signal and the second RF signal thereby generating a first RF feed and a second RF feed ; emitting the first RF feed and the second RF feed into an enclosed cavity to heat a food load; measuring at least one reflection signal; calculating a Q-factor for the enclosed cavity based on the reflection signal; monitoring the Q-factor; identifying a change in the Q-factor exceeding a predetermined change threshold; and in response to identifying the change exceeding the predetermined change threshold, identifying a cooking level.
A pipe assembly for a high-pressure fluid system, the pipe assembly comprising a high-pressure pipe for carrying a high-pressure fluid, the high-pressure pipe having a first end and a second end, the first end of the high-pressure pipe being provided with an external sealing surface encircling the first end of the high-pressure pipe , the pipe assembly comprising a protector element , which is arranged around the first end of the high-pressure pipe for covering the sealing surface and configured to yield for revealing the sealing surface when the protector element is compressed in the longitudinal direction of the high-pressure pipe , characterized in that the protector element comprises a spring portion .
A method of transmitting a Border Gateway Protocol, BGP, message, comprising: partitioning (S101), by a routing device, a queue for holding BGP messages to be transmitted into more than two subqueues according to types of BGP routes, wherein each of the subqueues is used to hold a BGP message carrying a corresponding type of BGP route; placing (S102), by the routing device, according to the type of BGP route to be advertised, the BGP message carrying the BGP route into one of the more than two subqueues; selecting (S103), by the routing device, a target subqueue from the more than two subqueues according to a first scheduling algorithm; and transmitting (S103), by the routing device, the BGP message in the target subqueue, the method being characterised in that transmitting the BGP message in the target subqueue comprises: classifying (S202), by the routing device, more than two said target subqueues into one subqueue group, and selecting (S204), by the routing device, the BGP message from each said target subqueue in the subqueue group according to a second scheduling algorithm; and wherein the first scheduling algorithm is one of a Strict Priority, SP, scheduling algorithm and a weight-based scheduling algorithm, and the second scheduling algorithm is one of the SP scheduling algorithm and the weight-based scheduling algorithm. partitioning (S101), by a routing device, a queue for holding BGP messages to be transmitted into more than two subqueues according to types of BGP routes, wherein each of the subqueues is used to hold a BGP message carrying a corresponding type of BGP route; placing (S102), by the routing device, according to the type of BGP route to be advertised, the BGP message carrying the BGP route into one of the more than two subqueues; selecting (S103), by the routing device, a target subqueue from the more than two subqueues according to a first scheduling algorithm; and transmitting (S103), by the routing device, the BGP message in the target subqueue, the method being characterised in that transmitting the BGP message in the target subqueue comprises: classifying (S202), by the routing device, more than two said target subqueues into one subqueue group, and selecting (S204), by the routing device, the BGP message from each said target subqueue in the subqueue group according to a second scheduling algorithm; and wherein classifying (S202), by the routing device, more than two said target subqueues into one subqueue group, and selecting (S204), by the routing device, the BGP message from each said target subqueue in the subqueue group according to a second scheduling algorithm; and the first scheduling algorithm is one of a Strict Priority, SP, scheduling algorithm and a weight-based scheduling algorithm, and the second scheduling algorithm is one of the SP scheduling algorithm and the weight-based scheduling algorithm.
A wet cleaning apparatus comprising: a dirt inlet ; a motor and fan for delivering suction to the dirt inlet; a separator unit for separating water from a flow of air generated by the suction; a container for collecting the separated water, the container having a top and a bottom ; an air passage for passing the air separated from the water towards the motor and fan, the air passage being spatially separated from the bottom of the container; and characterized in that the wet cleaning apparatus comprising an internal wall extending from the top towards the bottom of the container, a space being defined between the container and the internal wall, water collected at the bottom of container being receivable in the space when the container is orientated such that the collected water moves from the bottom towards the top of the container, wherein the internal wall is arranged to prevent water received in the space from passing into the air passage. a dirt inlet ; a motor and fan for delivering suction to the dirt inlet; a separator unit for separating water from a flow of air generated by the suction; a container for collecting the separated water, the container having a top and a bottom ; an air passage for passing the air separated from the water towards the motor and fan, the air passage being spatially separated from the bottom of the container; and characterized in that the wet cleaning apparatus comprising an internal wall extending from the top towards the bottom of the container, a space being defined between the container and the internal wall, water collected at the bottom of container being receivable in the space when the container is orientated such that the collected water moves from the bottom towards the top of the container, wherein the internal wall is arranged to prevent water received in the space from passing into the air passage.
A position sensor assembly comprising: a housing having at least one inner cavity ; a stator disposed within said housing ; a moving element disposed within said housing and configured and arranged to move relative to said stator ; said stator comprising primary windings and secondary windings , said secondary windings configured and arranged to provide an output signal as a function of movement of said moving element relative to said stator ; signal conditioning electronics disposed in said housing and communicating with said primary windings and said secondary windings ; said signal conditioning electronics comprising an integrated circuit configured and arranged to provide excitation of said primary windings and to demodulate said output signal of said secondary windings ; said signal conditioning electronics further comprising a memory storing moving element positional calibration data ; said integrated circuit configured and arranged to provide a moving element position output compensated as a function of said moving element positional calibration data ; and an input element extending through said housing and connected to said moving element . a housing having at least one inner cavity ; a stator disposed within said housing ; a moving element disposed within said housing and configured and arranged to move relative to said stator ; said stator comprising primary windings and secondary windings , said secondary windings configured and arranged to provide an output signal as a function of movement of said moving element relative to said stator ; signal conditioning electronics disposed in said housing and communicating with said primary windings and said secondary windings ; said signal conditioning electronics comprising an integrated circuit configured and arranged to provide excitation of said primary windings and to demodulate said output signal of said secondary windings ; said signal conditioning electronics further comprising a memory storing moving element positional calibration data ; said integrated circuit configured and arranged to provide a moving element position output compensated as a function of said moving element positional calibration data ; and an input element extending through said housing and connected to said moving element .
A method for fitting virtual glasses comprising the steps of: - placing on the face of a user a real pair of glasses, - measuring the position of said real pair of glasses relative to the face of said user by means of a measuring device, - mapping the face of the user by a 3D mapping means, - constructing a 3D model of the face of the user and of said virtual pair of glasses taking into account the position measured in step , and - measuring the ophthalmological parameters of said user based on the 3D model of the face of the user constructed in step . - placing on the face of a user a real pair of glasses, - measuring the position of said real pair of glasses relative to the face of said user by means of a measuring device, - mapping the face of the user by a 3D mapping means, - constructing a 3D model of the face of the user and of said virtual pair of glasses taking into account the position measured in step , and - measuring the ophthalmological parameters of said user based on the 3D model of the face of the user constructed in step .
Holding arrangement , in particular for a shower partition , having an in particular profile-shaped holding part and a fastening element for pre-fixing and/or fastening the holding part to a wall , wherein the fastening element has a fastening surface and a fastening portion , wherein the fastening element is arrangeable in an opening of the holding part or engages therethrough, so that the fastening surface of the fastening element faces the wall , so that the fastening portion of the fastening element engages behind the holding part and so that the fastening element with the fastening surface can be fixed and/or fastened, in particular adhered, to the wall , wherein, in the pre-fixed and/or fastened state, the holding part is movable relative to the fastening element in at least one adjustment direction (V), wherein at least one adjustment direction (V) lies in the opening plane and/or runs parallel to the wall plane, characterised in that the fastening element comprises one or more resilient arms and/or legs for engaging behind the opening and/or for pressing the holding part against the wall . wherein the fastening element has a fastening surface and a fastening portion , wherein the fastening element is arrangeable in an opening of the holding part or engages therethrough, so that the fastening surface of the fastening element faces the wall , so that the fastening portion of the fastening element engages behind the holding part and so that the fastening element with the fastening surface can be fixed and/or fastened, in particular adhered, to the wall , wherein, in the pre-fixed and/or fastened state, the holding part is movable relative to the fastening element in at least one adjustment direction (V), wherein at least one adjustment direction (V) lies in the opening plane and/or runs parallel to the wall plane, characterised in that the fastening element comprises one or more resilient arms and/or legs for engaging behind the opening and/or for pressing the holding part against the wall .
A method for increasing tensile strength of a cold workable alpha-beta titanium alloy, comprising in weight percentages based on total alloy weight: 3.5 to 4.5 aluminum; 2.0 to 3.0 vanadium; 1.2 to 1.8 iron; 0.2 to 0.3 oxygen; up to 0.08 carbon; up to 0.03 nitrogen; up to 0.015 hydrogen; up to 0.10 each other elements, total of other elements up to 0.3; balance titanium and incidental impurities; wherein the method comprises: solution heat treating the cold workable alpha-beta titanium alloy by heating the alpha-beta titanium alloy in a temperature range of T β - 106°C to T β - 72.2°C for 15 minutes to 2 hours; cooling the alpha-beta titanium alloy at a cooling rate of at least 3000°C per minute to ambient temperature; cold working the alpha-beta titanium alloy, in a temperature range from ambient temperature to no greater than 677°C, to impart an effective strain in the range of 5 percent to 35 percent; and aging the alpha-beta titanium alloy by heating the alpha-beta titanium alloy in a temperature range of T β - 669°C to T β - 517°C for 1 to 8 hours. 3.5 to 4.5 aluminum; 2.0 to 3.0 vanadium; 1.2 to 1.8 iron; 0.2 to 0.3 oxygen; up to 0.08 carbon; up to 0.03 nitrogen; up to 0.015 hydrogen; up to 0.10 each other elements, total of other elements up to 0.3; balance titanium and incidental impurities; solution heat treating the cold workable alpha-beta titanium alloy by heating the alpha-beta titanium alloy in a temperature range of T β - 106°C to T β - 72.2°C for 15 minutes to 2 hours; cooling the alpha-beta titanium alloy at a cooling rate of at least 3000°C per minute to ambient temperature; cold working the alpha-beta titanium alloy, in a temperature range from ambient temperature to no greater than 677°C, to impart an effective strain in the range of 5 percent to 35 percent; and aging the alpha-beta titanium alloy by heating the alpha-beta titanium alloy in a temperature range of T β - 669°C to T β - 517°C for 1 to 8 hours.
A system for excavating dental material , having: - a structure-borne sound sensor for detecting structure-borne sound signals during excavation, characterized by - a fluid jet generating device for generating a fluid jet for excavating the tooth material ; and - a device for regulating or controlling the fluid jet generating device based on the structure-borne sound signals . - a structure-borne sound sensor for detecting structure-borne sound signals during excavation, characterized by - a fluid jet generating device for generating a fluid jet for excavating the tooth material ; and - a device for regulating or controlling the fluid jet generating device based on the structure-borne sound signals .