mhurhangee/ep-ind-claims huggingface dataset:
A lubricant composition suitable for use in drilling operations, comprising: a) ≥ 90 wt% of at least one base oil composition, the base oil composition comprising 1.0 to 15.0 wt% water, based on the total weight of the base oil and the water, and b) from 0.5 to 10.0 wt% of a friction-reducing composition consisting of at least one compound represented by Formula I: wherein X is H; R 1 is selected from branched or unbranched C 10 to C 30 alkyl and alkenyl groups and combinations thereof; R 2, R 3 and R 4 are H; and wherein the weight percentages of base oil composition and friction-reducing composition are based on the total weight of the base oil composition and the friction-reducing composition. a) ≥ 90 wt% of at least one base oil composition, the base oil composition comprising 1.0 to 15.0 wt% water, based on the total weight of the base oil and the water, and b) from 0.5 to 10.0 wt% of a friction-reducing composition consisting of at least one compound represented by Formula I: wherein X is H; R 1 is selected from branched or unbranched C 10 to C 30 alkyl and alkenyl groups and combinations thereof; R 2, R 3 and R 4 are H; and wherein the weight percentages of base oil composition and friction-reducing composition are based on the total weight of the base oil composition and the friction-reducing composition. wherein X is H; R 1 is selected from branched or unbranched C 10 to C 30 alkyl and alkenyl groups and combinations thereof; R 2, R 3 and R 4 are H; and wherein the weight percentages of base oil composition and friction-reducing composition are based on the total weight of the base oil composition and the friction-reducing composition.
A radiation-emitting semiconductor component with a semiconductor body comprising a first main surface, a second main surface and an epitaxially applied semiconductor layer sequence with an electromagnetic radiation generating active zone, wherein - the semiconductor layer sequence forms the semiconductor body and is disposed between the first and the second main surfaces (5, 9), - a first current spreading layer is disposed outside the semiconductor body on the main surface and is electrically conductively connected to the semiconductor layer sequence; - a second current spreading layer is disposed outside the semiconductor body on the second main surface and is electrically conductively connected to the semiconductor layer sequence - the semiconductor layer sequence is connected via the first main surface with a carrier, - the first current spreading layer is disposed between the carrier and the first main area, and a mirror layer is disposed on the side of the first current spreading layer, which is remote from the semiconductor layer sequence; - the first current spreading layer and the second current spreading layer contain an oxide, which is transparent to the generated radiation; - the first current spreading layer and the second current spreading layer are different from each other with respect to the material; and - the mirror layer contains a metal. - the semiconductor layer sequence forms the semiconductor body and is disposed between the first and the second main surfaces (5, 9), - a first current spreading layer is disposed outside the semiconductor body on the main surface and is electrically conductively connected to the semiconductor layer sequence; - a second current spreading layer is disposed outside the semiconductor body on the second main surface and is electrically conductively connected to the semiconductor layer sequence - the semiconductor layer sequence is connected via the first main surface with a carrier, - the first current spreading layer is disposed between the carrier and the first main area, and a mirror layer is disposed on the side of the first current spreading layer, which is remote from the semiconductor layer sequence; - the first current spreading layer and the second current spreading layer contain an oxide, which is transparent to the generated radiation; - the first current spreading layer and the second current spreading layer are different from each other with respect to the material; and - the mirror layer contains a metal.
A gloving apparatus that comprises a casing, a glove-lifting-and-positioning device, a glove-opening device, and a glove-inflating device; wherein the glove-lifting-and-positioning device comprises an activator, graspers, a vacuum tube, a vertical guide, and a horizontal guide; wherein the glove-lifting-and-positioning device can move up and down on the vertical guide and back and forth on the horizontal guide; wherein the wrist part of the glove is held by the vacuum tube and the graspers; wherein the glove-opening device comprises a polygonal circumferential frame and several spreading rods; whereby the outer end of each spreading rod is attached to the polygonal circumferential frame via an axial joint; and whereby the inner end of each spreading rod is equipped with a grasping pin; wherein the glove-lifting-and-positioning device is designed to lift a glove and insert its opening over said grasping pins; wherein the glove-opening device can move from closed position to open position, causing the glove opening to stretch open and assume the shape of the polygonal circumferential frame; wherein the glove-inflating device creates sub-pressure in the casing, causing the glove to inflate; and wherein the user may insert his or her hand into the inflated glove.
A protective head cover for an animal, the protective head cover comprising: a first rectangular cover portion adjustably fastenable around the neck of the animal and a second closed curvilinear cover portion comprising a tangential edge which attaches to the first cover portion, and tapering outward sections on either side of the tangential edge, the second cover portion being adjustably fastenable and adapted to cover at least the occiput and ears of the animal; a first fastener part located on the first cover portion and near the tangential edge of the second cover portion, the first fastener part being adapted to attach to a second fastener part on the second cover portion, wherein the first and the second fastener parts (3, 4) are located on a first axis perpendicular to the tangential edge of the second cover portion, wherein the first and the second fastener parts (3, 4) can be adjustably fastened to each other so as to vary an amount of overlap between the first and the second cover portions (1, 2) whereby a part of the second cover portion is arranged to be disposed in a folding position on top of the first cover portion, wherein the first and the second fastener parts (3, 4) are located on an outer part of the protective head cover. a first rectangular cover portion adjustably fastenable around the neck of the animal and a second closed curvilinear cover portion comprising a tangential edge which attaches to the first cover portion, and tapering outward sections on either side of the tangential edge, the second cover portion being adjustably fastenable and adapted to cover at least the occiput and ears of the animal; a first fastener part located on the first cover portion and near the tangential edge of the second cover portion, the first fastener part being adapted to attach to a second fastener part on the second cover portion, wherein the first and the second fastener parts (3, 4) are located on a first axis perpendicular to the tangential edge of the second cover portion, wherein the first and the second fastener parts (3, 4) can be adjustably fastened to each other so as to vary an amount of overlap between the first and the second cover portions (1, 2) whereby a part of the second cover portion is arranged to be disposed in a folding position on top of the first cover portion, wherein the first and the second fastener parts (3, 4) are located on an outer part of the protective head cover.
A packaging laminate for a retortable packaging container, the packaging laminate (200; 300) comprising a core layer (201; 301) consisting of paper or paperboard, which, on both sides, has outer, liquid-tight coatings (202, 203; 302, 303) consisting of thermoplastic, and which, between the core layer (201; 301) and one of the two outer, liquid-tight plastic coatings (202; 302), has a polymer film (204; 304) serving as gas barrier which is laminated to the core layer (201; 301) by means of a layer (211; 311) of polypropylene, and between the polymer film serving as a gas barrier, and the core layer, having a layer serving as a supplementary gas barrier, wherein the polymer film serving as a gas barrier (204; 304) is a film selected from the group comprising polyester, amorphous polyester (APET), polyamide, amorphous polyamide, liquid crystalline polymers, cyclic olefin copolymers, ethylene vinyl alcohol (EVOH), polyvinyl alcohol (PVOH) and films of said polymers with a coating of inorganic or organic material, and wherein the polymer film serving as a gas barrier (204; 304) has at least one outer coating (206 and 207; 306 and 307) applied on both sides of the film, of a water-soluble adhesion-promoting polymer component and a water-soluble barrier-increasing polymer component, the water-soluble, adhesion-promoting polymer component being a modified polyethylene imine and the water-soluble, barrier-increasing polymer component being selected from the group consisting of ethylene vinyl alcohol (EVOH) and polyvinylalcohol (PVOH), and wherein the supplementary gas barrier layer consists of a polymer which has been selected from the group comprising ethylene vinyl alcohol (EVOH) and polyamide.
An eyewear display system comprising: a scanner including a measuring unit configured to irradiate pulsed distance-measuring light and acquire three-dimensional coordinates of an irradiation point by measuring a distance and an angle to the irradiation point, and a point cloud data acquiring unit configured to acquire point cloud data as observation data by rotationally irradiating distance-measuring light in the vertical direction and the horizontal direction by the measuring unit and an eyewear device including a display, a relative position detection sensor configured to detect a position of the device, and a relative direction detection sensor configured to detect a direction of the device; characterized by a storage device configured to store an observation route calculated in consideration of three-dimensional CAD design data of an observation site and instrument information of the scanner; and an information processing device including a coordinate synchronizing unit configured to synchronize information on a position and a direction of the eyewear device and a coordinate space of the observation route, and a display control unit configured to control display of the observation route on the display, wherein the scanner, the eyewear device, the storage device, and the information processing device are capable of inputting and outputting information to each other, and the eyewear device superimposes and displays the observation route on a landscape of the site. a scanner including a measuring unit configured to irradiate pulsed distance-measuring light and acquire three-dimensional coordinates of an irradiation point by measuring a distance and an angle to the irradiation point, and a point cloud data acquiring unit configured to acquire point cloud data as observation data by rotationally irradiating distance-measuring light in the vertical direction and the horizontal direction by the measuring unit and an eyewear device including a display, a relative position detection sensor configured to detect a position of the device, and a relative direction detection sensor configured to detect a direction of the device; a storage device configured to store an observation route calculated in consideration of three-dimensional CAD design data of an observation site and instrument information of the scanner; and an information processing device including a coordinate synchronizing unit configured to synchronize information on a position and a direction of the eyewear device and a coordinate space of the observation route, and a display control unit configured to control display of the observation route on the display, wherein the scanner, the eyewear device, the storage device, and the information processing device are capable of inputting and outputting information to each other, and the eyewear device superimposes and displays the observation route on a landscape of the site.
A method for detecting and characterizing a microorganism that is present in a blood sample, said method comprising: combining a blood sample containing a microorganism with a blood culture medium forming a blood culture, utilizing a spectroscopic technique to obtain at least two time-dependent measurements over time directly from said blood culture, wherein said spectroscopic technique comprises front-face fluorescence at multiple wavelengths and diffuse reflectance, and comparing said measurements to a database of Excitation-Emission Matrix and scattering data from known microorganism strains to detect and characterize said microorganism present in said blood culture based on the comparison and wherein said characterization comprises broad categorization or classification of said microorganism. combining a blood sample containing a microorganism with a blood culture medium forming a blood culture, utilizing a spectroscopic technique to obtain at least two time-dependent measurements over time directly from said blood culture, wherein said spectroscopic technique comprises front-face fluorescence at multiple wavelengths and diffuse reflectance, and comparing said measurements to a database of Excitation-Emission Matrix and scattering data from known microorganism strains to detect and characterize said microorganism present in said blood culture based on the comparison and wherein said characterization comprises broad categorization or classification of said microorganism.
A horizontal tube bundle evaporator longitudinally extending along a horizontal axis, comprising a shell, a tube bundle housed inside said shell, a shell-side refrigerant fluid, a tube-side refrigerated fluid, a lower zone of said evaporator flooded by the refrigerant fluid in the liquid state and containing a first number of tubes of said tube bundle, a process fluid distributor positioned in an upper zone of said evaporator, a second number of tubes of said tube bundle positioned outside said flooded lower zone, and at least one outlet of refrigerant fluid in the gaseous state from the shell, further comprising inside the shell, a tortuous circuit for the refrigerant fluid which vaporises on contact with said second number of tubes comprising at least one descending portion of said circuit, wherein the descending portion of circuit is delimited by at least one separating primary vertical partition, longitudinally extended along said horizontal axis, said primary vertical partition separating a first upper chamber of said evaporator where the second number of tubes is positioned from a second upper lateral chamber of said evaporator where said outlet from the shell is positioned, characterized in that it comprises a plurality of secondary vertical longitudinal partitions which divide said first upper chamber into a plurality of sectors where said tubes of said second number of tubes are distributed, and wherein said secondary vertical partitions are provided with a plurality of longitudinal deflecting fins of the refrigerant fluid.
A method comprising: receiving one or more known values via a white list portal; populating a white list repository with the one or more known values; receiving a communication from a cloud computing node associated with a remote trust agent; selecting a protocol specific plug-in from a plurality of protocol specific plug-ins based on a hypervisor protocol corresponding to the communication; retrieving the one or more known values from the white list repository; using the selected protocol specific plug-in to conduct a trust analysis of one or more digitally signed geo-location values in the communication, wherein the trust analysis is conducted on a per-hypervisor protocol basis and the trust analysis includes comparing the one or more digitally signed geo-location values to the one or more known values; and processing a cloud attestation request based on the trust analysis, wherein processing the cloud attestation request includes generating a location verification output for the cloud computing node. receiving one or more known values via a white list portal; populating a white list repository with the one or more known values; receiving a communication from a cloud computing node associated with a remote trust agent; selecting a protocol specific plug-in from a plurality of protocol specific plug-ins based on a hypervisor protocol corresponding to the communication; retrieving the one or more known values from the white list repository; using the selected protocol specific plug-in to conduct a trust analysis of one or more digitally signed geo-location values in the communication, wherein the trust analysis is conducted on a per-hypervisor protocol basis and the trust analysis includes comparing the one or more digitally signed geo-location values to the one or more known values; and processing a cloud attestation request based on the trust analysis, wherein processing the cloud attestation request includes generating a location verification output for the cloud computing node.
A converter for feeding a load (L S) via an inductor with a current (i L) having a controlled intensity between a maximum level and a minimum level, the converter including: - a switch switcheable on and off to permit or prevent, respectively, feeding of current towards said inductor, - a first current sensor (R SHH) sensitive to the current flowing through said switch when said switch is on, - a second current sensor (R SHL) sensitive to the current flowing through said inductor when said switch is off, - drive circuitry (B3, B4) of said switch to turn said switch off and on upon receiving a first and a second logic signal, respectively, and - comparison circuitry (B2, B5) coupled to said first (R SHH) and second (R SHL) current sensors to generate said first and said second logic signals, characterized in that said converter is configured to regulate said current (i L) irrespective of the values of the converter input voltage (V H) and the converter output voltage (V O) by generating said first and said second logic signals when, respectively: - the current intensity detected by said first current sensor (R SHH) is offset of a first given amount (R AH, R BH) with respect to said maximum level, wherein said first given amount (R AH, R BH) is determined on the basis of the difference between the converter input voltage (V H) and the converter output voltage (V O), and - the current intensity detected by said second current sensor (R SHl) is offset of a second given amount (R AL, R BL) with respect to said minimum level, wherein said second given amount (R AL, R BL) is determined on the basis of the converter output voltage (V O). - a switch switcheable on and off to permit or prevent, respectively, feeding of current towards said inductor, - a first current sensor (R SHH) sensitive to the current flowing through said switch when said switch is on, - a second current sensor (R SHL) sensitive to the current flowing through said inductor when said switch is off, - drive circuitry (B3, B4) of said switch to turn said switch off and on upon receiving a first and a second logic signal, respectively, and - comparison circuitry (B2, B5) coupled to said first (R SHH) and second (R SHL) current sensors to generate said first and said second logic signals, - the current intensity detected by said first current sensor (R SHH) is offset of a first given amount (R AH, R BH) with respect to said maximum level, wherein said first given amount (R AH, R BH) is determined on the basis of the difference between the converter input voltage (V H) and the converter output voltage (V O), and - the current intensity detected by said second current sensor (R SHl) is offset of a second given amount (R AL, R BL) with respect to said minimum level, wherein said second given amount (R AL, R BL) is determined on the basis of the converter output voltage (V O).
A liquid dispenser for animals, including: a tank; a pump provided in the tank to pump liquid through a pipe coupled to the pump; a plate provided above the tank including a hole that communicates with an outlet of the pipe and an upper surface over which liquid supplied from the pipe flows; and, at least one filter (42, 44) provided in the tank, characterised in that the filter (42, 44) is provided surrounding the pump. a tank; a pump provided in the tank to pump liquid through a pipe coupled to the pump; a plate provided above the tank including a hole that communicates with an outlet of the pipe and an upper surface over which liquid supplied from the pipe flows; and, at least one filter (42, 44) provided in the tank, characterised in that the filter (42, 44) is provided surrounding the pump.
A computer-implemented method for identifying a set of target nucleotide sequences capable of identifying a member of a group of related nucleotide sequences related by sequence identity and having at least 50% sequence identity, the method comprising the steps of: (i) dividing the nucleotide sequence of each member of the group into a plurality of subsequences, wherein at least two of the subsequences overlap and each of the subsequences is from about 10 to 50 nucleotides in length; (ii) analyzing at least a portion of the subsequences for the presence of at least two redundant sequences, wherein the at least two redundant subsequences are functionally identical by virtue of being identical in nucleotide sequence and/or being capable of binding to a single nucleotide subsequence; and (iii) removing at least one redundant sequence from the plurality of subsequences of (i), thereby identifying the set of target nucleotide sequences. (i) dividing the nucleotide sequence of each member of the group into a plurality of subsequences, wherein at least two of the subsequences overlap and each of the subsequences is from about 10 to 50 nucleotides in length; (ii) analyzing at least a portion of the subsequences for the presence of at least two redundant sequences, wherein the at least two redundant subsequences are functionally identical by virtue of being identical in nucleotide sequence and/or being capable of binding to a single nucleotide subsequence; and (iii) removing at least one redundant sequence from the plurality of subsequences of (i), thereby identifying the set of target nucleotide sequences.
A method for breaking an electrolyte crust by means of separation cutting in a reduction cell for production of aluminum, characterized in that crust cutting and breaking includes thermal melting a crust material with a high-speed high-temperature concentrated flow of thermal plasma jet heat energy, for which a directed thermal plasma jet is generated and moved above the electrolyte crust along a predetermined path, a formed molten material is continuously removed from a zone of the thermal plasma jet impact to create in the electrolyte crust a slit with the thermal plasma jet, wherein the slit is enough to perform continuous separation cutting and breaking of the crust.