mhurhangee/ep-ind-claims huggingface dataset:
A system for hardware replacement, the system comprising: a first performance monitor agent operative to: collect data from an instrumented operating system on a first computing device, the collected data including one or more of the following: boot performance, application performance, and hardware performance; and a selection engine that is operative to: receive the collected data and enterprise data, wherein the enterprise data comprises equivalents of the collected data from other user devices; determine, based at least on the collected data, a usability score, wherein determining the usability score comprises performing a weighted calculation on the collected data; determine, based at least on the usability score and the enterprise data, a score improvement selection, wherein the score improvement selection comprises at least one remediation operation selected from the list consisting of: an identification of a new hardware configuration to replace the first computing device, and changing a boot or startup process; and report the score improvement selection. a first performance monitor agent operative to: collect data from an instrumented operating system on a first computing device, the collected data including one or more of the following: boot performance, application performance, and hardware performance; and a selection engine that is operative to: receive the collected data and enterprise data, wherein the enterprise data comprises equivalents of the collected data from other user devices; determine, based at least on the collected data, a usability score, wherein determining the usability score comprises performing a weighted calculation on the collected data; determine, based at least on the usability score and the enterprise data, a score improvement selection, wherein the score improvement selection comprises at least one remediation operation selected from the list consisting of: an identification of a new hardware configuration to replace the first computing device, and changing a boot or startup process; and report the score improvement selection. receive the collected data and enterprise data, wherein the enterprise data comprises equivalents of the collected data from other user devices; determine, based at least on the collected data, a usability score, wherein determining the usability score comprises performing a weighted calculation on the collected data; determine, based at least on the usability score and the enterprise data, a score improvement selection, wherein the score improvement selection comprises at least one remediation operation selected from the list consisting of: an identification of a new hardware configuration to replace the first computing device, and changing a boot or startup process; and report the score improvement selection.
A device for measuring and collecting oxygen concentration data in welding processes, in particular in shielded arc welding, the device having at least one sensor element for sensing the oxygen concentration of a shielding atmosphere, wherein the device has a control unit, which is designed for storing oxygen concentration data during a welding process, characterized in that the at least one sensor element has an optical oxygen sensor with a fluorescent media, wherein the functionality of the optical oxygen sensor is based on the oxygen quenching process, wherein the control unit has an oxygen concentration database, which is designed for recording the oxygen concentration in dependence on a free variable during the welding operation.
The use of isomerically pure cis-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate of the formula (I.1) or of isomerically pure trans-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate of the formula (I.2) or of an isomer mixture of cis-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.1) and trans-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (1.2) wherein, when using an isomer mixture, the weight fraction of cis-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.1), based on the total weight of cis-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.1) and trans-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.2), is in a range from 90% by weight to less than 100% by weight, or the weight fraction of trans-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.2), based on the total weight of cis-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.1) and trans-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.2) is in a range from 90% by weight to less than 100% by weight, as aroma chemical. wherein, when using an isomer mixture, the weight fraction of cis-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.1), based on the total weight of cis-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.1) and trans-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.2), is in a range from 90% by weight to less than 100% by weight, or the weight fraction of trans-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.2), based on the total weight of cis-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.1) and trans-(2-isobutyl-4-methyltetrahydropyran-4-yl) acetate (I.2) is in a range from 90% by weight to less than 100% by weight, as aroma chemical.
A concentrated aqueous composition comprising: a. from 10 to 30 % by weight (wt.%) of a depolymerized carboxymethyl cellulose having a weight average molecular weight of from 10,000 to 80,000 dalton (Da); b. from 15 to 50% by weight of a compatibilizer selected from the group consisting of glycerol and sodium xylene sulfonate; and c. from 0.5 to 20 % by weight of at least surfactant. a. from 10 to 30 % by weight (wt.%) of a depolymerized carboxymethyl cellulose having a weight average molecular weight of from 10,000 to 80,000 dalton (Da); b. from 15 to 50% by weight of a compatibilizer selected from the group consisting of glycerol and sodium xylene sulfonate; and c. from 0.5 to 20 % by weight of at least surfactant.
A method for forming a metal can, the method characterised by: supporting a lidding material on a punch; positioning a metal can body (12, 24) having at an open end an outwardly extending curl and a sealing surface adjacent the curl, the sealing surface being parallel to or inclined outwards at an angle to a can body centre axis; supporting the opposite end of the can body on a base support; moving the can body (12, 24) and punch relative to each other; and drawing the lidding material which is carried by the punch along the parallel or inclined sealing surface of the can body (12, 24) so as to form a cup-shaped lid from the lidding material; and sealing the lidding material directly to the parallel or inclined sealing surface of the can body. supporting a lidding material on a punch; positioning a metal can body (12, 24) having at an open end an outwardly extending curl and a sealing surface adjacent the curl, the sealing surface being parallel to or inclined outwards at an angle to a can body centre axis; supporting the opposite end of the can body on a base support; moving the can body (12, 24) and punch relative to each other; and drawing the lidding material which is carried by the punch along the parallel or inclined sealing surface of the can body (12, 24) so as to form a cup-shaped lid from the lidding material; and sealing the lidding material directly to the parallel or inclined sealing surface of the can body.
A (meth)acrylated radiation curable addition product that contains (meth)acrylic groups and that is prepared from: (i) at least one (meth)acrylated compound which comprises at least one (meth)acrylated compound ( A-I) that contains 3 or more (meth)acrylic ester groups per molecule; (ii) at least one amino compound that contains one secondary amino group and no primary amino group; (iii) at least one amino compound which comprises at least one amino compound that contains one primary amino group and at least one tertiary amino group; and, optionally, (iv) the at least one (meth)acrylated compound further comprises at least one (meth)acrylated compound ( A-II) that contains 2 (meth)acrylic ester groups per molecule; (v) the at least one amino compound further comprises at least one amino compound that is selected from (B2-1) amino compounds that contain one primary amino group and/or from (B2-2) amino compounds that contain two secondary amino groups, which amino compound is different from amino compounds, wherein - the nitrogen content of the radiation curable addition product is at least 1.2 meq/g; and - the average (meth)acrylate functionality per mole of the addition product is at most 2. (i) at least one (meth)acrylated compound which comprises at least one (meth)acrylated compound ( A-I) that contains 3 or more (meth)acrylic ester groups per molecule; (ii) at least one amino compound that contains one secondary amino group and no primary amino group; (iii) at least one amino compound which comprises at least one amino compound that contains one primary amino group and at least one tertiary amino group; and, optionally, (iv) the at least one (meth)acrylated compound further comprises at least one (meth)acrylated compound ( A-II) that contains 2 (meth)acrylic ester groups per molecule; (v) the at least one amino compound further comprises at least one amino compound that is selected from (B2-1) amino compounds that contain one primary amino group and/or from (B2-2) amino compounds that contain two secondary amino groups, which amino compound is different from amino compounds, - the nitrogen content of the radiation curable addition product is at least 1.2 meq/g; and - the average (meth)acrylate functionality per mole of the addition product is at most 2.
A peripheral component interconnect express (PCIe) network system, comprising: a first management host; a PCIe switch, wherein a first upstream port of the PCIe switch is electrically coupled to the first management host; a first non-transparent bridge, disposed in the PCIe switch, electrically coupling to a first PCIe port of a first calculation host, wherein the first non-transparent bridge couples the first PCIe port of the first calculation host to the first management host; characterized in that said PCIe network system further comprising a second non-transparent bridge, disposed in the PCIe switch, electrically coupling to a second PCIe port of the first calculation host, wherein the second non-transparent bridge couples the second PCIe port of the first calculation host to the first management host. a first management host; a PCIe switch, wherein a first upstream port of the PCIe switch is electrically coupled to the first management host; a first non-transparent bridge, disposed in the PCIe switch, electrically coupling to a first PCIe port of a first calculation host, wherein the first non-transparent bridge couples the first PCIe port of the first calculation host to the first management host; characterized in that said PCIe network system further comprising a second non-transparent bridge, disposed in the PCIe switch, electrically coupling to a second PCIe port of the first calculation host, wherein the second non-transparent bridge couples the second PCIe port of the first calculation host to the first management host.
A computer system including a non- transient storage medium having stored thereon a computer program comprising instructions which, when the program is executed by a computer, cause the computer to carry out a method for minimizing RMS error in data collected during a seismic survey over a predetermined area, comprising the steps of: a) obtaining field measurements of the following dimensions: i) source x, y, and z positions at the time of each of a plurality of shots, ii) receiver x, y, and z positions for each of a plurality of receivers, iii) speed of sound in water as a function of time and depth, iv) receiver timing comprising the times at which the receivers sense each of the plurality of shots, and v) clock drift which is measured by comparing an internal clock of each of the receivers to a master clock; b) measuring an actual travel time from each source to each of the plurality of receivers for the plurality of shots; c) calculating a model travel time for the plurality of shots from each source to each of the plurality of receivers, based on said field measurements; d) comparing the actual travel times and the model travel times and calculating a travel time RMS error between the actual travel times and the model travel times; e) perturbing at least a first one of said field measurements; f) re-calculating the model travel times using travel time inversion, after step e); g) repeating steps d) - f) until an acceptable RMS error has been calculated. a) obtaining field measurements of the following dimensions: i) source x, y, and z positions at the time of each of a plurality of shots, ii) receiver x, y, and z positions for each of a plurality of receivers, iii) speed of sound in water as a function of time and depth, iv) receiver timing comprising the times at which the receivers sense each of the plurality of shots, and v) clock drift which is measured by comparing an internal clock of each of the receivers to a master clock; i) source x, y, and z positions at the time of each of a plurality of shots, ii) receiver x, y, and z positions for each of a plurality of receivers, iii) speed of sound in water as a function of time and depth, iv) receiver timing comprising the times at which the receivers sense each of the plurality of shots, and v) clock drift which is measured by comparing an internal clock of each of the receivers to a master clock; b) measuring an actual travel time from each source to each of the plurality of receivers for the plurality of shots; c) calculating a model travel time for the plurality of shots from each source to each of the plurality of receivers, based on said field measurements; d) comparing the actual travel times and the model travel times and calculating a travel time RMS error between the actual travel times and the model travel times; e) perturbing at least a first one of said field measurements; f) re-calculating the model travel times using travel time inversion, after step e); g) repeating steps d) - f) until an acceptable RMS error has been calculated.
A method for operating an injection system for injecting water into an injection zone of an Internal combustion engine by an Injector with a working chamber which is filled with water during normal operation of the internal combustion engine, characterised in that when the internal combustion engine is disconnected, at least some of the water, present in the working chamber of the injector is displaced by a gas mixture which flows into the working chamber from a combustion chamber of the internal combustion engine and the working chamber is at least partly filled with the gas mixture.
A fuel filter comprising: A mesh filter screen including a first hollow member; and a heating element disposed within the first hollow member; characterised by further comprising: a coating formed of a thermally conductive, electrically insulating ceramic in a hydrodynamic filtering pattern surrounding the mesh filter screen but having a different shape than a shape of the hollow member, wherein the hydrodynamic filtering pattern includes a plurality of bellmouth apertures. A mesh filter screen including a first hollow member; and a heating element disposed within the first hollow member; characterised by further comprising: a coating formed of a thermally conductive, electrically insulating ceramic in a hydrodynamic filtering pattern surrounding the mesh filter screen but having a different shape than a shape of the hollow member, wherein the hydrodynamic filtering pattern includes a plurality of bellmouth apertures.
A method for manufacturing a printed circuit board, the method comprising: applying an adhesive on an area of a support board for mounting an electronic device; attaching an electronic device on the adhesive; forming an insulation layer for burying the electronic device; separating the insulation layer from the support board; forming a lower insulation layer under the insulation layer; and forming a via connected to terminals of the electronic device in the insulation layer or the lower insulation layer, wherein the adhesion is only applied on a central area between the terminals of the electronic device on the area on which the electronic device is mounted. applying an adhesive on an area of a support board for mounting an electronic device; attaching an electronic device on the adhesive; forming an insulation layer for burying the electronic device; separating the insulation layer from the support board; forming a lower insulation layer under the insulation layer; and forming a via connected to terminals of the electronic device in the insulation layer or the lower insulation layer, wherein the adhesion is only applied on a central area between the terminals of the electronic device on the area on which the electronic device is mounted.
An antenna system for interrogating radio frequency identification (RFID) tags with backscatter coupling techniques, said antenna system suitable for mounting on the tine of a forklift, characterised by a support structure adapted for mounting on said tine, said support structure including a mounting section and a component section (307;) each extending along at least a portion of said support structure, said mounting section configured to secure said support structure to said tine and said component section including at least one cavity wherein said cavity has a first opening; a first antenna mounted in said cavity, said antenna comprising a first radiating element (305, 315, 330, 340) extending from a channel through an insulated gap in a wall of the cavity and into the cavity and a first power distribution network (350, 330) connected to the first radiating element in the channel; a first cover for said radiating element, said first cover mounted to and essentially flush with the component section so as to permit said radiating.element to project a first radio frequency signal through said opening.
A mobile patient bed for moving a patient between at least two locations during a medical procedure, the mobile patient bed comprising: a communication device configured to selectively couple the mobile patient bed to at least one medical system; at least one processor configured to: receive a medical system command via the communication device and process the medical system command when the mobile patient bed is coupled to the at least one medical system; and receive and process a user command when the mobile patient bed is not coupled to the at least one medical system; and refrain from processing the user command when the mobile patient bed is coupled to the at least one medical system; a seat; and a plurality of motors (101X, 101Y, 101Z) configured to position the seat along a first axis that is longitudinal with respect to the bed, a second axis substantially perpendicular to the first axis, and a third axis substantially perpendicular to the first and second axes, wherein the positioning of the seat along each axis is independent of the positioning of each other axis, respectively, and wherein the positioning of the seat is performed in response to the processed medical system command or the processed user command. a communication device configured to selectively couple the mobile patient bed to at least one medical system; at least one processor configured to: receive a medical system command via the communication device and process the medical system command when the mobile patient bed is coupled to the at least one medical system; and receive and process a user command when the mobile patient bed is not coupled to the at least one medical system; and receive a medical system command via the communication device and process the medical system command when the mobile patient bed is coupled to the at least one medical system; and receive and process a user command when the mobile patient bed is not coupled to the at least one medical system; and refrain from processing the user command when the mobile patient bed is coupled to the at least one medical system; a seat; and a plurality of motors (101X, 101Y, 101Z) configured to position the seat along a first axis that is longitudinal with respect to the bed, a second axis substantially perpendicular to the first axis, and a third axis substantially perpendicular to the first and second axes, wherein the positioning of the seat along each axis is independent of the positioning of each other axis, respectively, and wherein the positioning of the seat is performed in response to the processed medical system command or the processed user command.
A protective device for a universal shaft comprising: an attachment element formed so as to be positioned around a shaft journal projecting from a housing and to be attached to said housing, a tubular protective guard extending along a longitudinal axis and configured to be positioned around a universal shaft connected to the shaft journal, and at least one latching device (24, 25) for attaching the tubular protective guard to the attachment element, characterised in, that the tubular protective guard has at least one joining location (9, 10) extending in longitudinal direction separating the tubular protective guard for opening the protective guard, and that at least one of the joining locations (9, 10) has a closure mechanism (15, 16, 18) to which the tubular protective guard can be connected for closure, in that the closure mechanism has form-fit elements (15, 16), in particular eyelets and/or hooks, at longitudinal edges (13, 14) of the respective joining point (9, 10), which are respectively to be connected and which are designed to engage one into the other, and the form-fit elements (15, 16) are aligned to each other in the closed condition of the tubular protective guard and form a connection channel, wherein a connection pin is accommodated within the connection channel. an attachment element formed so as to be positioned around a shaft journal projecting from a housing and to be attached to said housing, a tubular protective guard extending along a longitudinal axis and configured to be positioned around a universal shaft connected to the shaft journal, and at least one latching device (24, 25) for attaching the tubular protective guard to the attachment element, that the tubular protective guard has at least one joining location (9, 10) extending in longitudinal direction separating the tubular protective guard for opening the protective guard, and that at least one of the joining locations (9, 10) has a closure mechanism (15, 16, 18) to which the tubular protective guard can be connected for closure, in that the closure mechanism has form-fit elements (15, 16), in particular eyelets and/or hooks, at longitudinal edges (13, 14) of the respective joining point (9, 10), which are respectively to be connected and which are designed to engage one into the other, and the form-fit elements (15, 16) are aligned to each other in the closed condition of the tubular protective guard and form a connection channel, wherein a connection pin is accommodated within the connection channel.