mhurhangee/patent-ind-claim-en huggingface dataset:
Process for making a mixed oxide according to the formula Li 1+x TM 1-x O 2 wherein x is in the range of from 0.1 to 0.2 and TM is a combination of elements according to general formula (I) (Ni a Co b Mn c ) 1-d M 1 d (I) wherein a is in the range of from 0.30 to 0.38, b being in the range of from zero to 0.05, c being in the range of from 0.60 to 0.70, and d being in the range of from zero to 0.05, M 1 is selected from Al, Ti, Zr, W, Mo, Nb, Ta, Mg and combinations of at least two of the foregoing, a + b + c = 1 , said process comprising the following steps: (a) providing a particulate hydroxide, oxide or oxyhydroxide of manganese, nickel, and, optionally, at least one of Co and M 1 , (b) adding a source of lithium, (c) calcining the mixture obtained from step (b) under an atmosphere comprising of from 0.05 to 5 vol.-% of oxygen at a maximum temperature the range of from 650 to 1000°C. a is in the range of from 0.30 to 0.38, b being in the range of from zero to 0.05, c being in the range of from 0.60 to 0.70, and d being in the range of from zero to 0.05, M 1 is selected from Al, Ti, Zr, W, Mo, Nb, Ta, Mg and combinations of at least two of the foregoing, a + b + c = 1 , said process comprising the following steps: (a) providing a particulate hydroxide, oxide or oxyhydroxide of manganese, nickel, and, optionally, at least one of Co and M 1 , (b) adding a source of lithium, (c) calcining the mixture obtained from step (b) under an atmosphere comprising of from 0.05 to 5 vol.-% of oxygen at a maximum temperature the range of from 650 to 1000°C. (a) providing a particulate hydroxide, oxide or oxyhydroxide of manganese, nickel, and, optionally, at least one of Co and M 1 , (b) adding a source of lithium, (c) calcining the mixture obtained from step (b) under an atmosphere comprising of from 0.05 to 5 vol.-% of oxygen at a maximum temperature the range of from 650 to 1000°C.
A heat-sealable, composite film said film comprising a polymeric substrate layer having a first and second surface and disposed on a surface of the substrate layer a barrier layer, wherein (i) the substrate layer has one or more venting means therein; (ii) the thickness of the barrier layer is from about 0.05 to about 40 μm; characterised in that said barrier layer is a water-soluble barrier layer, wherein water-soluble means that a mass fraction of the barrier layer of at least 0.5 is dissolved when the film is immersed in deionised water at 80°C for 2 minutes; and wherein (iii) the material of the barrier layer occupies no more than 50% of the volume of a venting means, the volume of a venting means being defined as the volume of a void formed in the substrate layer by said venting means. (i) the substrate layer has one or more venting means therein; (ii) the thickness of the barrier layer is from about 0.05 to about 40 μm; characterised in that said barrier layer is a water-soluble barrier layer, wherein water-soluble means that a mass fraction of the barrier layer of at least 0.5 is dissolved when the film is immersed in deionised water at 80°C for 2 minutes; and wherein (iii) the material of the barrier layer occupies no more than 50% of the volume of a venting means, the volume of a venting means being defined as the volume of a void formed in the substrate layer by said venting means.
A touch panel comprising: a substrate having insulating properties and including a sensing region (S) and a non-sensing region (P) around the sensing region (S); a plurality of sensor electrodes formed in the sensing region (S); a plurality of external connection terminals formed in the non-sensing region (P); and a plurality of lead-out wiring lines each of which electrically connects one end of a respective one of the plurality of sensor electrodes to a respective one of the plurality of external connection terminals , characterized in that for each sensor electrode the external connection terminal and the lead-out wiring line are continuously divided by a single slit along an extension direction of the external connection terminal and the lead-out wiring line in an entire length to configure a pair of split terminals and a pair of split wiring lines , respectively, or the external connection terminal and the lead-out wiring line are continuously divided by a single slit along an extension direction of the external connection terminal and the lead-out wiring line in the entire length except an end portion at the connection of the sensor electrode of the lead-out wiring line to configure a pair of split terminals and a pair of split wiring lines , respectively. a substrate having insulating properties and including a sensing region (S) and a non-sensing region (P) around the sensing region (S); a plurality of sensor electrodes formed in the sensing region (S); a plurality of external connection terminals formed in the non-sensing region (P); and a plurality of lead-out wiring lines each of which electrically connects one end of a respective one of the plurality of sensor electrodes to a respective one of the plurality of external connection terminals , characterized in that for each sensor electrode the external connection terminal and the lead-out wiring line are continuously divided by a single slit along an extension direction of the external connection terminal and the lead-out wiring line in an entire length to configure a pair of split terminals and a pair of split wiring lines , respectively, or the external connection terminal and the lead-out wiring line are continuously divided by a single slit along an extension direction of the external connection terminal and the lead-out wiring line in the entire length except an end portion at the connection of the sensor electrode of the lead-out wiring line to configure a pair of split terminals and a pair of split wiring lines , respectively.
A method of generating and directing power to a transportation refrigeration unit having a compressor configured to compress a refrigerant, an evaporator heat exchanger operatively coupled to the compressor ; an evaporator fan configured to provide return airflow from a return air intake and flow the return airflow over the evaporator heat exchanger ; a return air temperature sensor disposed in the return airflow and configured measure the temperature of the return airflow; and a transportation refrigeration unit controller , the method comprising: determining an AC power requirement for the transportation refrigeration unit based on at least the temperature of the return airflow; providing a second three phase AC power from a generator power converter that receives a first DC power provided by a DC generator operably coupled to an axle or wheel hub, and configured to provide the first DC power ; receiving by a power management system the second three phase AC power , and directing another three phase AC power to the transportation refrigeration unit based at least in part on the AC power requirement; characterised in that the method further comprises providing a third three phase AC power to the power management system from an energy storage system based at least in part on the AC power requirement by converting a DC voltage to the third three phase AC voltage with a DC/AC converter . determining an AC power requirement for the transportation refrigeration unit based on at least the temperature of the return airflow; providing a second three phase AC power from a generator power converter that receives a first DC power provided by a DC generator operably coupled to an axle or wheel hub, and configured to provide the first DC power ; receiving by a power management system the second three phase AC power , and directing another three phase AC power to the transportation refrigeration unit based at least in part on the AC power requirement; characterised in that the method further comprises providing a third three phase AC power to the power management system from an energy storage system based at least in part on the AC power requirement by converting a DC voltage to the third three phase AC voltage with a DC/AC converter .
A vision function detection apparatus comprising: a display unit , the display unit including a display screen ; a stereo camera apparatus; a computer system , the computer system including an image data acquisition unit , a gazing point detector , a display controller , a relation detector and a visual function detector ; the display controller being configured to cause an image for determination to be displayed in a display region on the display screen of the display unit , and to move the image for determination within the display region ; the image data acquisition unit is configured to acquire the image data of the eyeball of the test subject acquired by the stereo camera apparatus; the gazing point detector being configured to detect a position of a gazing point of each of the right and left eyeballs of a test subject observing the display screen based on the image data of the eyeball acquired by the image data acquisition unit; characterized in that the relation detector is configured to detect relation information between movement of the gazing point in a first direction along a moving direction of the image for determination and movement of the gazing point in a second direction orthogonal to the first direction; and the visual function detector is configured to detect a visual function of the test subject based on the relation information. a display unit , the display unit including a display screen ; a stereo camera apparatus; a computer system , the computer system including an image data acquisition unit , a gazing point detector , a display controller , a relation detector and a visual function detector ; the display controller being configured to cause an image for determination to be displayed in a display region on the display screen of the display unit , and to move the image for determination within the display region ; the image data acquisition unit is configured to acquire the image data of the eyeball of the test subject acquired by the stereo camera apparatus; the gazing point detector being configured to detect a position of a gazing point of each of the right and left eyeballs of a test subject observing the display screen based on the image data of the eyeball acquired by the image data acquisition unit; characterized in that the relation detector is configured to detect relation information between movement of the gazing point in a first direction along a moving direction of the image for determination and movement of the gazing point in a second direction orthogonal to the first direction; and the visual function detector is configured to detect a visual function of the test subject based on the relation information.
A rivet connection arrangement comprising a rivet element (6, 6a - 6d) and at least two work pieces connected by means of the rivet element (6, 6a - 6d) via a rivet connection, wherein the rivet element (6, 6a - 6d) is designed to be at least in two parts and has at least one rivet shank section (6.1, 6.1a - 6.1d) which is designed in sections as a hollow rivet and one rivet flange (6.2, 6.2a - 6.2d) adjoining thereto along the longitudinal axis (LA) of the rivet element (6, 6a - 6d), which rivet flange is formed by a nut element (7, 7a - 7d), wherein in the established rivet connection the rivet shank section (6.1, 6.1a - 6.1d) is led through two perforations in the work pieces at least in sections and is deformed into a rivet collar (6.3, 6.3a - 6.3d) and the two work pieces are clamped between the rivet collar (6.3, 6.3a - 6.3d) and the rivet flange (6.2, 6.2a - 6.2d), characterized in that, the nut element (7, 7a - 7d) forming the rivet flange (6.2, 6.2a - 6.2d) is detachably connected to the rivet element via a sleeve member .
A process for producing an ultra-thin nanometer-scale polymeric membrane comprising: forming a polymer film on a first side of a nanoporous substrate including a porous region and non-porous regions surrounding the porous region; swelling the polymer film on the first side of the nanoporous substrate by applying a solvent on a second side of the nanoporous substrate opposite the first side, which solvent migrates from the second side of the nanoporous substrate through the porous region to the first side of the nanoporous substrate; and simultaneously shrinking the polymer film formed over the non-porous regions and stretching the film formed over the porous region on the first side of the nanoporous substrate by evaporating the solvent from the second side of the nanoporous substrate while limiting evaporation of the solvent from the first side of the nanoporous substrate. forming a polymer film on a first side of a nanoporous substrate including a porous region and non-porous regions surrounding the porous region; swelling the polymer film on the first side of the nanoporous substrate by applying a solvent on a second side of the nanoporous substrate opposite the first side, which solvent migrates from the second side of the nanoporous substrate through the porous region to the first side of the nanoporous substrate; and simultaneously shrinking the polymer film formed over the non-porous regions and stretching the film formed over the porous region on the first side of the nanoporous substrate by evaporating the solvent from the second side of the nanoporous substrate while limiting evaporation of the solvent from the first side of the nanoporous substrate.
A shelf-stable ready to drink coffee beverage comprising: - a coffee component ranging from 0.5 to 1.5 w/w%, - a dairy component ranging from 7.5 to 10.5 w/w% milk solids; - sodium hexametaphosphate (SHMP) ranging from 0.02 to 0.05 w/w%, - sodium bicarbonate ranging from 0.16 to 0.21 w/w%, - a cellulose component ranging from 0.2 to 0.5 w/w%, - xanthan ranging from 0.01 to 0.03 w/w%; and - gellan gum ranging from 0.01 to 0.04 w/w%. - a coffee component ranging from 0.5 to 1.5 w/w%, - a dairy component ranging from 7.5 to 10.5 w/w% milk solids; - sodium hexametaphosphate (SHMP) ranging from 0.02 to 0.05 w/w%, - sodium bicarbonate ranging from 0.16 to 0.21 w/w%, - a cellulose component ranging from 0.2 to 0.5 w/w%, - xanthan ranging from 0.01 to 0.03 w/w%; and - gellan gum ranging from 0.01 to 0.04 w/w%.
A method for identifying a target site of a dimeric site-specific nuclease, the method comprising (a) providing a dimeric site-specific nuclease that cuts a double-stranded nucleic acid target site and creates a 5' overhang, wherein the target site comprises a [left-half site]-[spacer sequence]-[right-half site] (LSR) structure, and the dimeric site-specific nuclease cuts the target site within the spacer sequence; (b) contacting the dimeric site-specific nuclease with a library of candidate nucleic acid molecules, wherein each nucleic acid molecule comprises a concatemer of a sequence comprising a candidate dimeric site-specific nuclease target site and a constant insert sequence, under conditions suitable for the dimeric site-specific nuclease to cut a candidate nucleic acid molecule comprising a target site of the dimeric site-specific nuclease; (c) filling in the 5' overhangs of a nucleic acid molecule that has been cut twice by the dimeric site-specific nuclease and comprises the constant insert sequence flanked by the left half-site and cut spacer sequence on one side, and the right half-site and cut spacer sequence on the other side, thereby creating blunt ends; and (d) identifying the nuclease target site cut by the dimeric site-specific nuclease by determining the sequence of the left-half site, the right-half-site, and the spacer sequence of the nucleic acid molecule of step (c). (a) providing a dimeric site-specific nuclease that cuts a double-stranded nucleic acid target site and creates a 5' overhang, wherein the target site comprises a [left-half site]-[spacer sequence]-[right-half site] (LSR) structure, and the dimeric site-specific nuclease cuts the target site within the spacer sequence; (b) contacting the dimeric site-specific nuclease with a library of candidate nucleic acid molecules, wherein each nucleic acid molecule comprises a concatemer of a sequence comprising a candidate dimeric site-specific nuclease target site and a constant insert sequence, under conditions suitable for the dimeric site-specific nuclease to cut a candidate nucleic acid molecule comprising a target site of the dimeric site-specific nuclease; (c) filling in the 5' overhangs of a nucleic acid molecule that has been cut twice by the dimeric site-specific nuclease and comprises the constant insert sequence flanked by the left half-site and cut spacer sequence on one side, and the right half-site and cut spacer sequence on the other side, thereby creating blunt ends; and (d) identifying the nuclease target site cut by the dimeric site-specific nuclease by determining the sequence of the left-half site, the right-half-site, and the spacer sequence of the nucleic acid molecule of step (c).
A method, comprising: launching, by a device, a core agent for a Java application ; loading, by the core agent, a first tenant and a second tenant , wherein each tenant is a functional module having its own isolated class loader; instrumenting, via the core agent and by each tenant, the Java application to capture data regarding execution of the Java application, wherein the core agent inserts instrumentation into the Java application on behalf of the tenant modules; and providing the captured data to a user interface, wherein launching, by a device, the core agent for a Java application comprises: creating tenant modules for each of the tenants; setting, by the agent loader, the tenant modules to be able to export to at least one of: a boot module or a premain module of the Java application; and setting, by the agent loader, the tenant modules to be readable by at least one of: the boot module or the premain module of the Java application. launching, by a device, a core agent for a Java application ; loading, by the core agent, a first tenant and a second tenant , wherein each tenant is a functional module having its own isolated class loader; instrumenting, via the core agent and by each tenant, the Java application to capture data regarding execution of the Java application, wherein the core agent inserts instrumentation into the Java application on behalf of the tenant modules; and providing the captured data to a user interface, wherein launching, by a device, the core agent for a Java application comprises: creating tenant modules for each of the tenants; setting, by the agent loader, the tenant modules to be able to export to at least one of: a boot module or a premain module of the Java application; and setting, by the agent loader, the tenant modules to be readable by at least one of: the boot module or the premain module of the Java application. creating tenant modules for each of the tenants; setting, by the agent loader, the tenant modules to be able to export to at least one of: a boot module or a premain module of the Java application; and setting, by the agent loader, the tenant modules to be readable by at least one of: the boot module or the premain module of the Java application.
A composition comprising: a carrier molecule; a biologically active molecule, wherein the carrier molecule is non-covalently associated with the biologically active molecule in one of a micelle and a liposome, wherein the carrier molecule comprises a hydrophobic domain and FFFILVFGGGKKRPKPG (SEQ ID NO: 27). a carrier molecule; a biologically active molecule, wherein the carrier molecule is non-covalently associated with the biologically active molecule in one of a micelle and a liposome, wherein the carrier molecule comprises a hydrophobic domain and FFFILVFGGGKKRPKPG (SEQ ID NO: 27).
A method for predicting indoor three-dimensional space signal field strength using an outdoor-to-indoor propagation model comprising the steps of: establishing a three-dimensional space scene model from a transmitting base station to a target building; predicting space field strength of an outer envelope of the target building according to an extended COST-231-Walfisch-lkegami propagation model; generating, on the outer envelope of the target building, a series of outdoor-to-indoor virtual rays in accordance with a certain resolution; and simulating a propagation procedure of the virtual rays using a ray tracing propagation model algorithm, and predicting three-dimensional space signal field strength within the target building; wherein predicting the space field strength of an outer envelope of the target building according to an extended COST-231-Walfisch-lkegami propagation model comprises: calculating an error between a measured value and a predicted value Δ= M rx - T rx according to an actually measured field strength M rx and a calculated field strength T rx for a test point, to correct the calculation formula of the COST-231-Walfisch-lkegami propagation model for the test point. establishing a three-dimensional space scene model from a transmitting base station to a target building; predicting space field strength of an outer envelope of the target building according to an extended COST-231-Walfisch-lkegami propagation model; generating, on the outer envelope of the target building, a series of outdoor-to-indoor virtual rays in accordance with a certain resolution; and simulating a propagation procedure of the virtual rays using a ray tracing propagation model algorithm, and predicting three-dimensional space signal field strength within the target building; wherein predicting the space field strength of an outer envelope of the target building according to an extended COST-231-Walfisch-lkegami propagation model comprises: calculating an error between a measured value and a predicted value Δ= M rx - T rx according to an actually measured field strength M rx and a calculated field strength T rx for a test point, to correct the calculation formula of the COST-231-Walfisch-lkegami propagation model for the test point.
A system for sequestering a target analyte believed to be present in a bulk liquid specimen, said system comprising: a. a bulk specimen reservoir defining a first interior volume for receiving said bulk liquid specimen suspected of containing said target analyte; b. a plurality of paramagnetic particles configured to specifically bind to said target analyte suspected of being present in said bulk liquid specimen; c. at least one vertex defining a second internal volume, said at least one vertex being detachably interconnectable with said bulk specimen reservoir such that the interior of said vertex and said interior of said bulk specimen reservoir define a specimen chamber assembly; and d. at least one magnetic capsule releasably engageable with dedicated ones of said at least one vertex , said at least one magnetic capsule configured to project a magnetic field within the second interior of said at least one vertex and magnetically sequester a portion of said paramagnetic particles distributed within said bulk liquid sample containing said target analyte of interest. a. a bulk specimen reservoir defining a first interior volume for receiving said bulk liquid specimen suspected of containing said target analyte; b. a plurality of paramagnetic particles configured to specifically bind to said target analyte suspected of being present in said bulk liquid specimen; c. at least one vertex defining a second internal volume, said at least one vertex being detachably interconnectable with said bulk specimen reservoir such that the interior of said vertex and said interior of said bulk specimen reservoir define a specimen chamber assembly; and d. at least one magnetic capsule releasably engageable with dedicated ones of said at least one vertex , said at least one magnetic capsule configured to project a magnetic field within the second interior of said at least one vertex and magnetically sequester a portion of said paramagnetic particles distributed within said bulk liquid sample containing said target analyte of interest.