mhurhangee/patent-ind-claim-en huggingface dataset:
A system for determining light settings and/or daylight blocker settings based on a quality of a data signal received from one or more of a set of one or more lights , comprising at least one processor configured to: - obtain a target light level, - determine a first set of light settings for said set of one or more lights and/or a first set of daylight blocker settings for a set of one or more daylight blockers based on said target light level, - control said set of lights based on said first set of light settings and/or said set of daylight blockers based on said first set of daylight blocker settings, - receive from a user device information indicating the quality of the data signal received by said user device from said one or more lights of said set of lights , said data signal being transmitted by modulating a light signal and said signal quality being determined by said user device , - determine a second set of light settings for said set of lights based on said first set of light settings and said determined signal quality and/or a second set of daylight blocker settings for said set of daylight blockers based on said first set of daylight blocker settings and said determined signal quality, and - control said set of lights based on said second set of light settings and/or said set of daylight blockers based on said second set of daylight blocker settings. - obtain a target light level, - determine a first set of light settings for said set of one or more lights and/or a first set of daylight blocker settings for a set of one or more daylight blockers based on said target light level, - control said set of lights based on said first set of light settings and/or said set of daylight blockers based on said first set of daylight blocker settings, - receive from a user device information indicating the quality of the data signal received by said user device from said one or more lights of said set of lights , said data signal being transmitted by modulating a light signal and said signal quality being determined by said user device , - determine a second set of light settings for said set of lights based on said first set of light settings and said determined signal quality and/or a second set of daylight blocker settings for said set of daylight blockers based on said first set of daylight blocker settings and said determined signal quality, and - control said set of lights based on said second set of light settings and/or said set of daylight blockers based on said second set of daylight blocker settings.
An eyeglass frame comprising a lens retaining part having an end piece and a temple piece , said end piece having an edge with a projection , and a hinge connecting the end piece and the temple piece , said hinge comprising: a substantially cylindrical element having a cylinder axis serving as a hinge axis and being integrally formed having a slot being aligned parallel to said cylinder axis of the substantially cylindrical element ; said edge being adapted to be received in the slot of the substantially cylindrical element with said projection in holes being positioned inside said slot perpendicular to the hinge axis; and a substantially cylindrical support member coupled to the temple piece , adapted to accept the substantially cylindrical element and comprising retaining means adapted to maintain the projection in the slot of the substantially cylindrical element characterized in that said holes are aligned with said slot , said holes being aligned perpendicular to the cylinder axis of the substantially cylindrical element , the assembly means comprise recesses on the substantially cylindrical support member , the recesses being adapted to accommodate passage of the projection through the substantially cylindrical support member when the recesses are aligned with the slot .
A method for feeding an electrical alternating current (I* 1 , I* 2 , I* 3 ) into an electrical supply grid by means of a wind power installation , and - the wind power installation comprises at least one inverter with an inverter output for providing an electrical inverter current (I 1 , I 2 , I 3 ) and - the at least one inverter is coupled at its inverter output to an active filter , in order to filter the inverter current (I 1 , I 2 , I 3 ) provided at the inverter output and thereby provide a filtered alternating current (I* 1 , I* 2 , I* 3 ) for feeding into the electrical supply grid, comprising the steps of: - providing the electrical inverter current (I 1 , I 2 , I 3 ) at the inverter output by switching actions of at least one switch of the inverter , characterized in that - sensing the switching actions of the inverter by capturing of sensor signals, - controlling the active filter in dependence on the sensed switching actions, in order to filter the inverter current (I 1 , I 2 , I 3 ) provided at the inverter output and thereby create the filtered alternating current (I* 1 , I* 2 , I* 3 ). - the wind power installation comprises at least one inverter with an inverter output for providing an electrical inverter current (I 1 , I 2 , I 3 ) and - the at least one inverter is coupled at its inverter output to an active filter , in order to filter the inverter current (I 1 , I 2 , I 3 ) provided at the inverter output and thereby provide a filtered alternating current (I* 1 , I* 2 , I* 3 ) for feeding into the electrical supply grid, - providing the electrical inverter current (I 1 , I 2 , I 3 ) at the inverter output by switching actions of at least one switch of the inverter , characterized in that - sensing the switching actions of the inverter by capturing of sensor signals, - controlling the active filter in dependence on the sensed switching actions, in order to filter the inverter current (I 1 , I 2 , I 3 ) provided at the inverter output and thereby create the filtered alternating current (I* 1 , I* 2 , I* 3 ).
An underlayment for a floor comprising: a) a dimpled substrate comprising a generally planar top side , an opposed bottom side , and a plurality of dimples formed therein, each dimple bounded by a dimple wall , and comprising a dimple opening along the top side ; and b) a smoothing layer bonded to the top side of the dimpled substrate and overlaying and occluding the dimple openings ; wherein the dimpled substrate includes a first layer bonded to the smoothing layer , and a second layer bonded to the first layer ; characterized in that the first layer is a plastic structural layer, and the second layer is a foam layer. a) a dimpled substrate comprising a generally planar top side , an opposed bottom side , and a plurality of dimples formed therein, each dimple bounded by a dimple wall , and comprising a dimple opening along the top side ; and b) a smoothing layer bonded to the top side of the dimpled substrate and overlaying and occluding the dimple openings ;
Method for eviscerating slaughtered poultry having a carcass with a viscera pack in a body cavity of the carcass, said body cavity having a breast side and a back side , as well as a vent end where the vent is or was located and a neck end , wherein the body cavity has been opened at the vent end, the method comprising: - retaining the carcass in an orientation with the neck end downwards, - entering the body cavity of the retained carcass with an eviscerating tool via the opened vent end, said eviscerating tool having a front end , - dipping the eviscerating tool deeper into the body cavity with its front end passing along the breast side of the body cavity so that the front end thereof moves past the viscera pack at least till beyond the liver , - withdrawing the eviscerating tool and thereby lifting the viscera pack out of the body cavity, wherein use is made of a gizzard pre-lifting tool (60;90), distinct from the eviscerating tool , which is entered into the body cavity of the retained carcass via the opened vent end, which gizzard pre-lifting tool is operated to grasp the gizzard and/or belly fat bonded to the gizzard and wherein the gizzard pre-lifting tool (60;90) is operated to lift the gizzard thereby entraining a further portion of the viscera pack including the liver , said lifting of the gizzard being performed prior to the front end of the eviscerating tool passing along the breast side of the body cavity past the liver as the eviscerating tool is dipped into the body cavity, wherein the introduction of the gizzard pre-lifting tool into the body cavity is to a shallow depth which is less than the maximum dipping depth of the eviscerating tool. - retaining the carcass in an orientation with the neck end downwards, - entering the body cavity of the retained carcass with an eviscerating tool via the opened vent end, said eviscerating tool having a front end , - dipping the eviscerating tool deeper into the body cavity with its front end passing along the breast side of the body cavity so that the front end thereof moves past the viscera pack at least till beyond the liver , - withdrawing the eviscerating tool and thereby lifting the viscera pack out of the body cavity, wherein use is made of a gizzard pre-lifting tool (60;90), distinct from the eviscerating tool , which is entered into the body cavity of the retained carcass via the opened vent end, which gizzard pre-lifting tool is operated to grasp the gizzard and/or belly fat bonded to the gizzard and wherein the gizzard pre-lifting tool (60;90) is operated to lift the gizzard thereby entraining a further portion of the viscera pack including the liver , said lifting of the gizzard being performed prior to the front end of the eviscerating tool passing along the breast side of the body cavity past the liver as the eviscerating tool is dipped into the body cavity, wherein the introduction of the gizzard pre-lifting tool into the body cavity is to a shallow depth which is less than the maximum dipping depth of the eviscerating tool.
A method for generating an analytical artifact used for investigating a technical system of interest comprised of components having associated machine readable functional descriptions including port definitions and component failure modes of components of the system of interest, characterised in that the method comprises generating automatically the analytical artifact by processing the machine readable functional descriptions in response to at least one system evaluation criterion, wherein generating automatically the analytical artifact comprises generating a Markov chain, wherein the Markov chain is generated by - transforming the at least one system evaluation criterion into one or more corresponding relevant system states representing corresponding state patterns at ports forming a system boundary of the system of interest and - generating the Markov chain on the basis of the relevant system states and on the basis of the component failure modes of the components of the system of interest. the method comprises generating automatically the analytical artifact by processing the machine readable functional descriptions in response to at least one system evaluation criterion, wherein generating automatically the analytical artifact comprises generating a Markov chain, wherein the Markov chain is generated by - transforming the at least one system evaluation criterion into one or more corresponding relevant system states representing corresponding state patterns at ports forming a system boundary of the system of interest and - generating the Markov chain on the basis of the relevant system states and on the basis of the component failure modes of the components of the system of interest. - transforming the at least one system evaluation criterion into one or more corresponding relevant system states representing corresponding state patterns at ports forming a system boundary of the system of interest and - generating the Markov chain on the basis of the relevant system states and on the basis of the component failure modes of the components of the system of interest.
An active imaging system comprising: at least one light source , configured to emit a series of light pulses toward a region of interest; at least one image sensor comprising an array of photodetectors, configured to receive reflections of said pulses reflected from objects located in at least one depth of field (DOF) to be imaged, and to convert said reflections into an image, wherein each frame of said image comprises a plurality of gating cycles, each of said gating cycles comprising the emission of a respective pulse of said series of light pulses, and the reception of reflections of said respective pulse by said image sensor , and wherein a delay-time (T DELAY ) is defined as the duration between the end of an exposure period of said image sensor in one gating cycle (T G-cycleN ) and the beginning of the next exposure period of said sensor in a subsequent gating cycle (T G-cycleN+1 ); and a controller , coupled with said light source and with said image sensor , characterized in that said controller is configured to control the operation of said light source and of said image sensor , and to minimize said delay-time (T DELAY ) with respect to at least two successive gating cycles of an image frame, wherein said delay-time (T DELAY ) is adaptively determined in accordance with at least one system parameter or environmental condition. at least one light source , configured to emit a series of light pulses toward a region of interest; at least one image sensor comprising an array of photodetectors, configured to receive reflections of said pulses reflected from objects located in at least one depth of field (DOF) to be imaged, and to convert said reflections into an image, wherein each frame of said image comprises a plurality of gating cycles, each of said gating cycles comprising the emission of a respective pulse of said series of light pulses, and the reception of reflections of said respective pulse by said image sensor , and wherein a delay-time (T DELAY ) is defined as the duration between the end of an exposure period of said image sensor in one gating cycle (T G-cycleN ) and the beginning of the next exposure period of said sensor in a subsequent gating cycle (T G-cycleN+1 ); and a controller , coupled with said light source and with said image sensor , characterized in that said controller is configured to control the operation of said light source and of said image sensor , and to minimize said delay-time (T DELAY ) with respect to at least two successive gating cycles of an image frame, wherein said delay-time (T DELAY ) is adaptively determined in accordance with at least one system parameter or environmental condition.
Use of a composition for controlling nematode, the composition comprising, as an effective ingredient, a grammicin compound of the following chemical formula 1 or an agriculturally acceptable salt thereof:
A prosthetic atrioventricular tissue valve , , , , , , comprising: a continuous tubular member comprising decellularized extracellular matrix (ECM) from a mammalian tissue source, said tubular member further comprising proximal and distal ends , , and at least one valve leaflet formed therein, (i) said proximal end of said tubular member being configured to attach to an annular valve region of a subject's heart, (ii) said distal end of said tubular member comprising integral cardiovascular structure engagement means for connecting said tubular member to a cardiovascular structure, said cardiovascular structure engagement means comprising first and second elongated members , that extend distally from said distal end of said tubular member , (iii) said first elongated member comprising a looped member having first and second ends , , said first end of said first elongated member being attached to a first point on said distal end of said tubular member and said second end of said first elongated member being attached to a second point on said distal end of said tubular member , (iv) said second elongated member comprising a looped member having first and second ends , , said first end of said second elongated member being attached to a third point on said distal end of said tubular member and said second end of said second elongated member being attached to a fourth point on said distal end of said tubular member . (i) said proximal end of said tubular member being configured to attach to an annular valve region of a subject's heart, (ii) said distal end of said tubular member comprising integral cardiovascular structure engagement means for connecting said tubular member to a cardiovascular structure, said cardiovascular structure engagement means comprising first and second elongated members , that extend distally from said distal end of said tubular member , (iii) said first elongated member comprising a looped member having first and second ends , , said first end of said first elongated member being attached to a first point on said distal end of said tubular member and said second end of said first elongated member being attached to a second point on said distal end of said tubular member , (iv) said second elongated member comprising a looped member having first and second ends , , said first end of said second elongated member being attached to a third point on said distal end of said tubular member and said second end of said second elongated member being attached to a fourth point on said distal end of said tubular member .
A method of capturing a population of T-Cell receptor and/or immunoglobulin sequences with variable regions within a patient sample, said method comprising: extracting/preparing DNA fragments from the patient sample; ligating a nucleic acid adapter to the DNA fragments, the nucleic acid adapter suitable for recognition by a pre-selected nucleic acid probe; capturing DNA fragments existing in the patient sample using a collection of nucleic acid hybrid capture probes, wherein each capture probe is designed to hybridize to a known V gene segment and/or a J gene segment within the T cell receptor and/or immunoglobulin genomic loci, wherein the hybrid capture probes are designed based on all unique V genes and J genes and these probe sets specifically target the 3' regions of V gene coding regions and the 5' regions of J gene coding regions. extracting/preparing DNA fragments from the patient sample; ligating a nucleic acid adapter to the DNA fragments, the nucleic acid adapter suitable for recognition by a pre-selected nucleic acid probe; capturing DNA fragments existing in the patient sample using a collection of nucleic acid hybrid capture probes, wherein each capture probe is designed to hybridize to a known V gene segment and/or a J gene segment within the T cell receptor and/or immunoglobulin genomic loci, wherein the hybrid capture probes are designed based on all unique V genes and J genes and these probe sets specifically target the 3' regions of V gene coding regions and the 5' regions of J gene coding regions.
A process for extracting at least one metal contained in a sample comprising a mixture of metal salts of at least two different metals, comprising the successive steps consisting in: a) contacting said sample, in a grinding device, with at least one amine comprising at least one primary or secondary amine function and at least one reactive gas, or with an adduct formed by reacting at least one such amine with a reactive gas, b) recovering the solid thus formed, c) subjecting said solid to at least one leaching sequence using a washing solution formed of at least one organic or aqueous solvent optionally containing at least one amine and/or one reactive gas, so as to generate washing waters comprising at least one of the metals contained in the sample and a solid residue enriched in at least one other metal contained in the sample, and d) recovering the metal contained in said washing waters and/or in said solid residue. a) contacting said sample, in a grinding device, with at least one amine comprising at least one primary or secondary amine function and at least one reactive gas, or with an adduct formed by reacting at least one such amine with a reactive gas, b) recovering the solid thus formed, c) subjecting said solid to at least one leaching sequence using a washing solution formed of at least one organic or aqueous solvent optionally containing at least one amine and/or one reactive gas, so as to generate washing waters comprising at least one of the metals contained in the sample and a solid residue enriched in at least one other metal contained in the sample, and d) recovering the metal contained in said washing waters and/or in said solid residue.
A transformer comprising: a first drive winding wound on a first core , wherein the transformer is adapted to drive the first drive winding with a first high frequency square wave current ; a second drive winding wound on a second core , wherein the transformer is adapted to drive the second drive winding with a second high frequency square wave current , and wherein the second high frequency square wave current has an opposite polarity of the first high frequency square wave current ; a sense winding wound across the first and second cores ; a compensation winding wound across the first and second cores ; and one or more utility lines that are threaded through a middle of the first and second cores , wherein the utility lines are adapted such that a common mode current in the one or more utility lines causes one or more pulses to appear on the sense winding , wherein the transformer is adapted to adjust a current on the compensation winding until the one or more pulses on the sense winding are cancelled out, and wherein the common mode current on the one or more utility lines is the adjusted current on the compensation winding multiplied by a turn ratio between the compensation winding and the sense winding , characterized in that the first core has a lower saturation flux density than the second core , and wherein the transformer is configured to drive the first drive winding with less current than the second drive winding such that the first core saturates at substantially the same time as the second core . a first drive winding wound on a first core , wherein the transformer is adapted to drive the first drive winding with a first high frequency square wave current ; a second drive winding wound on a second core , wherein the transformer is adapted to drive the second drive winding with a second high frequency square wave current , and wherein the second high frequency square wave current has an opposite polarity of the first high frequency square wave current ; a sense winding wound across the first and second cores ; a compensation winding wound across the first and second cores ; and one or more utility lines that are threaded through a middle of the first and second cores , wherein the utility lines are adapted such that a common mode current in the one or more utility lines causes one or more pulses to appear on the sense winding , wherein the transformer is adapted to adjust a current on the compensation winding until the one or more pulses on the sense winding are cancelled out, and wherein the common mode current on the one or more utility lines is the adjusted current on the compensation winding multiplied by a turn ratio between the compensation winding and the sense winding , characterized in that the first core has a lower saturation flux density than the second core , and wherein the transformer is configured to drive the first drive winding with less current than the second drive winding such that the first core saturates at substantially the same time as the second core .