mhurhangee/ep-ind-claims huggingface dataset:
A coating system, comprising: a first aqueous coating composition, comprising an aqueous carrier; a first resin component in admixture with the aqueous carrier and comprising at least one chlorinated resin; and one or more fillers; and a second aqueous coating composition, comprising an aqueous carrier; a second resin component in admixture with the aqueous carrier and comprising at least one resin compatible with the first resin component; and one or more pigments wherein a dried coating prepared from the second aqueous coating composition comprises at least 15 vol% of pigment based on the total volume of coating solids in the dried coating; or a second coating composition, comprising a carrier; a second resin component in admixture with the carrier; and one or more pigments, wherein the carrier in admixture with the second resin component may be an aqueous solvent or a non-aqueous solvent. a first aqueous coating composition, comprising an aqueous carrier; a first resin component in admixture with the aqueous carrier and comprising at least one chlorinated resin; and one or more fillers; and an aqueous carrier; a first resin component in admixture with the aqueous carrier and comprising at least one chlorinated resin; and one or more fillers; and a second aqueous coating composition, comprising an aqueous carrier; a second resin component in admixture with the aqueous carrier and comprising at least one resin compatible with the first resin component; and one or more pigments wherein a dried coating prepared from the second aqueous coating composition comprises at least 15 vol% of pigment based on the total volume of coating solids in the dried coating; or an aqueous carrier; a second resin component in admixture with the aqueous carrier and comprising at least one resin compatible with the first resin component; and one or more pigments wherein a dried coating prepared from the second aqueous coating composition comprises at least 15 vol% of pigment based on the total volume of coating solids in the dried coating; or a second coating composition, comprising a carrier; a second resin component in admixture with the carrier; and one or more pigments, wherein the carrier in admixture with the second resin component may be an aqueous solvent or a non-aqueous solvent. a carrier; a second resin component in admixture with the carrier; and one or more pigments, wherein the carrier in admixture with the second resin component may be an aqueous solvent or a non-aqueous solvent.
A core orientation tool for providing an indication of in situ orientation of a core sample extracted from a borehole by a core drill; the tool comprising an electronic orientation system coupled with the core drill; the tool being characterized in that: the electronic orientation system is configured, upon receiving a trigger signal, to log one or more first indications of orientation of the tool; and the tool further comprises a trigger system that provides the trigger signal upon detecting one or more downhole events associated with operation of the core drill. the electronic orientation system is configured, upon receiving a trigger signal, to log one or more first indications of orientation of the tool; and the tool further comprises a trigger system that provides the trigger signal upon detecting one or more downhole events associated with operation of the core drill.
A shrink material comprising a polymer and a solvent containing an anti-vanishing solvent which does not cause a resist pattern after development to vanish, said polymer comprising recurring units having the formula: wherein A is a single bond or a C 1 -C 10 alkylene group which may contain an ethereal oxygen atom at an intermediate of the chain, R 1 is hydrogen, fluorine, methyl or trifluoromethyl, R 2 is each independently hydrogen, halogen, an optionally halo-substituted, straight, branched or cyclic, C 2 -C 8 acyloxy group, an optionally halo-substituted, straight, branched or cyclic, C 1 -C 6 alkyl group, or an optionally halo-substituted, straight, branched or cyclic, C 1 -C 6 alkoxy group, L is hydrogen, a straight, branched or cyclic, C 1 -C 10 monovalent aliphatic hydrocarbon group which may contain an ethereal oxygen atom, carbonyl moiety or carbonyloxy moiety at an intermediate of the chain, or an optionally substituted, monovalent aromatic ring-containing group, R x and R y are each independently hydrogen, a straight or branched C 1 -C 15 alkyl group which may be substituted with a hydroxyl or alkoxy moiety, or an optionally substituted monovalent aromatic ring-containing group, excluding that R x and R y are hydrogen at the same time, f is an integer of 1 to 3, s is an integer of 0 to 2, a is equal to (5+2s-f), and m is 0 or 1.
Starting method for a diesel engine of a drive train of a motor vehicle, the diesel engine having at least one cylinder (3a-c), and the drive train having the diesel engine, a transmission and a vibration damping member which is coupled between the diesel engine and the transmission, the method comprising: detecting of a start request to the diesel engine; reducing of a combustion air filling of the at least one cylinder (3a-c) of the diesel engine; turning of the diesel engine for a predetermined number of revolutions; and increasing of the combustion air filling of the at least one cylinder (3a-c) of the diesel engine, fuel being fed in for a first work stroke of the diesel engine while the combustion air filling is reduced and the diesel engine is being turned, and no fuel or a small fuel quantity being fed in for a following work stroke of the diesel engine. detecting of a start request to the diesel engine; reducing of a combustion air filling of the at least one cylinder (3a-c) of the diesel engine; turning of the diesel engine for a predetermined number of revolutions; and increasing of the combustion air filling of the at least one cylinder (3a-c) of the diesel engine, fuel being fed in for a first work stroke of the diesel engine while the combustion air filling is reduced and the diesel engine is being turned, and no fuel or a small fuel quantity being fed in for a following work stroke of the diesel engine.
A method of displaying additional information related to an object on a device, the method comprising: sensing a user input moving from a selected position on a progress bar providing search information regarding a plurality of objects that are displayed according to an order to an additional information area, the additional information area being divided into cells of a predetermined size providing a different type of additional information for the object; displaying additional information related to one of the plurality of objects corresponding to the selected position based on a position of the user input on the additional information area. sensing a user input moving from a selected position on a progress bar providing search information regarding a plurality of objects that are displayed according to an order to an additional information area, the additional information area being divided into cells of a predetermined size providing a different type of additional information for the object; displaying additional information related to one of the plurality of objects corresponding to the selected position based on a position of the user input on the additional information area.
An electronic device for generating an aerosol comprising a power unit and an evaporator unit, wherein the evaporator unit comprises a heating system with a heating element and a fluid transporting element, wherein the heating element comprises a dielectric substrate with at least one resistive layer area applied thereon, characterized in that the fluid transporting element is threaded through the heating element.
A method for handling piece goods moved one after the other in at least one row, in which method: - the piece goods are transported to a processing module on at least one transport device formed by at least two transport sections (31, 32), which at least two transport sections (31, 32) are adjoining one another in a transport direction of the piece goods, - wherein, in normal production operation, the piece goods are transported within a row directly one behind the other without spacing or with minimal spacing between each other as a closed formation on the first transport section and on the second transport section of the transport device and are transferred to the subsequent processing module as a closed formation, - wherein, in a starting phase before the start of the normal production operation, an arrangement of the piece goods is detected within the transport device by at least one detection device, which at least one detection device is assigned to the first transport section, wherein the at least one detection device generates sensor signals and transmits these to a control device, - wherein, after detection of a gap between successive piece goods of the row within the first transport section by the at least one detection device, the second transport section is operated by the control device at least for a short time in a reversing mode against the transport direction, until the at least one detection device transmits the signal to the control device that the gap is closed or until the second transport section has been moved back by the entire conveying length of the second transport section. - the piece goods are transported to a processing module on at least one transport device formed by at least two transport sections (31, 32), which at least two transport sections (31, 32) are adjoining one another in a transport direction of the piece goods, - wherein, in normal production operation, the piece goods are transported within a row directly one behind the other without spacing or with minimal spacing between each other as a closed formation on the first transport section and on the second transport section of the transport device and are transferred to the subsequent processing module as a closed formation, - wherein, in a starting phase before the start of the normal production operation, an arrangement of the piece goods is detected within the transport device by at least one detection device, which at least one detection device is assigned to the first transport section, wherein the at least one detection device generates sensor signals and transmits these to a control device, - wherein, after detection of a gap between successive piece goods of the row within the first transport section by the at least one detection device, the second transport section is operated by the control device at least for a short time in a reversing mode against the transport direction, until the at least one detection device transmits the signal to the control device that the gap is closed or until the second transport section has been moved back by the entire conveying length of the second transport section.
A light emitting device comprising: a light source which emits near-ultraviolet laser light; a fluorescent member (12, 17) which includes a fluorescent body that is excited by the light emitted from the light source so as to emit light, the fluorescent member (12, 17) including: a substrate comprising a highly heat conductive member; and a fluorescent body layer in which particles of the fluorescent body are deposited on one surface of the substrate and in which the particles of the fluorescent body are connected to each other; and further characterised by a mirror which faces the fluorescent body layer, wherein the laser light enters the fluorescent body layer through a surface on a side opposite to the substrate, wherein the substrate is inclined with respect to an axial direction of a reflective surface that is a paraboloidal surface formed on an inner surface of the mirror. a light source which emits near-ultraviolet laser light; a fluorescent member (12, 17) which includes a fluorescent body that is excited by the light emitted from the light source so as to emit light, the fluorescent member (12, 17) including: a substrate comprising a highly heat conductive member; and a fluorescent body layer in which particles of the fluorescent body are deposited on one surface of the substrate and in which the particles of the fluorescent body are connected to each other; and further characterised by a mirror which faces the fluorescent body layer, wherein the laser light enters the fluorescent body layer through a surface on a side opposite to the substrate, wherein the substrate is inclined with respect to an axial direction of a reflective surface that is a paraboloidal surface formed on an inner surface of the mirror. a substrate comprising a highly heat conductive member; and a fluorescent body layer in which particles of the fluorescent body are deposited on one surface of the substrate and in which the particles of the fluorescent body are connected to each other; and further characterised by a mirror which faces the fluorescent body layer, wherein the laser light enters the fluorescent body layer through a surface on a side opposite to the substrate, wherein the substrate is inclined with respect to an axial direction of a reflective surface that is a paraboloidal surface formed on an inner surface of the mirror.
A method of operating a heating element in a food processor for at least partially automatic preparation of food, comprising the steps of: a) detecting an electrical resistance of the heating element so that at least one resistance value is determined, b) performing a heating operation on the heating element based on the at least one determined resistance value to perform the heating operation depending on a temperature of the heating element, wherein the heating operation is performed as a temperature control of the heating element with the temperature as a controlled variable, and during the heating operation, the resistance is repeatedly detected in accordance with step a), the resistance value being determined in each case by comparing at least one current measurement value from a current measurement at the heating element and at least one voltage measurement value from a voltage measurement at the heating element with one another. comprising the steps of: a) detecting an electrical resistance of the heating element so that at least one resistance value is determined, b) performing a heating operation on the heating element based on the at least one determined resistance value to perform the heating operation depending on a temperature of the heating element, a) detecting an electrical resistance of the heating element so that at least one resistance value is determined, b) performing a heating operation on the heating element based on the at least one determined resistance value to perform the heating operation depending on a temperature of the heating element, wherein the heating operation is performed as a temperature control of the heating element with the temperature as a controlled variable, and during the heating operation, the resistance is repeatedly detected in accordance with step a), the resistance value being determined in each case by comparing at least one current measurement value from a current measurement at the heating element and at least one voltage measurement value from a voltage measurement at the heating element with one another.
A dust-collecting device comprising: a first suction port; a second suction port which is different from the first suction port; suction means which is connected selectively to one of the first suction port and the second suction port and which is driven to suck dust and dirt through the one of the first suction port and the second suction port; and control means which controls operation of the suction means, characterized in that in a state where the first suction port is connected to the suction means, the control means drives the suction means and automatically stops the suction means after elapsing of a first specified period of time, while in a state where the second suction port is connected to the suction means, the control means drives the suction means, and enables stopping the suction means through specified operation and also stops the suction means automatically when the suction means is not stopped even after elapsing of a second specified period of time or longer in a state where the suction means is driven, the second specified period of time being different from the first specified period of time. a first suction port; a second suction port which is different from the first suction port; suction means which is connected selectively to one of the first suction port and the second suction port and which is driven to suck dust and dirt through the one of the first suction port and the second suction port; and control means which controls operation of the suction means, characterized in that in a state where the first suction port is connected to the suction means, the control means drives the suction means and automatically stops the suction means after elapsing of a first specified period of time, while in a state where the second suction port is connected to the suction means, the control means drives the suction means, and enables stopping the suction means through specified operation and also stops the suction means automatically when the suction means is not stopped even after elapsing of a second specified period of time or longer in a state where the suction means is driven, the second specified period of time being different from the first specified period of time.
Process for the bonding of at least one continuous-fibre-reinforced semifinished product to at least one thermoplastic part, where a) in a press unit, local heating of at least one continuous-fibre-reinforced semifinished product is carried out at locations where continuous-fibre-reinforced semifinished product is to be bonded to at least one thermoplastic part, b) at least one initially pyramidal or conical rivet mandrel or rivet spigot as constituent of the at least one thermoplastic part is caused to penetrate the at least one locally heated continuous-fibre-reinforced semifinished product, which previously has been neither perforated nor drilled, with retention of the original geometry of the rivet mandrel(s) or rivet spigot(s) and c) by use of at least one riveting punch, the shape of the at least one rivet mandrel or rivet spigot protruding after step b) through the at least one continuous-fibre-reinforced semifinished product is changed to a rivet head or rivet heads, and the said mandrel or spigot is caused to cool, where the continuous-fibre-reinforced semifinished product involves at least one ply of a continuous-fibre textile in a thermoplastic as matrix plastic. a) in a press unit, local heating of at least one continuous-fibre-reinforced semifinished product is carried out at locations where continuous-fibre-reinforced semifinished product is to be bonded to at least one thermoplastic part, b) at least one initially pyramidal or conical rivet mandrel or rivet spigot as constituent of the at least one thermoplastic part is caused to penetrate the at least one locally heated continuous-fibre-reinforced semifinished product, which previously has been neither perforated nor drilled, with retention of the original geometry of the rivet mandrel(s) or rivet spigot(s) and c) by use of at least one riveting punch, the shape of the at least one rivet mandrel or rivet spigot protruding after step b) through the at least one continuous-fibre-reinforced semifinished product is changed to a rivet head or rivet heads, and the said mandrel or spigot is caused to cool, where the continuous-fibre-reinforced semifinished product involves at least one ply of a continuous-fibre textile in a thermoplastic as matrix plastic.
An ethylene-1-hexene-1-butene terpolymer, of which CI (Co-monomer Incorporation) Index represented by the following Equation 1 is 0.5 to 5; density is 0.900 to 0.916 g/cm 3; melt index measured according to ASTM D1238 at 190°C and 2.16 kg load condition is 2.0 to 5.0 g/10mins; and weight ratio of 1-hexene to 1-butene is 1 to 5: CI Index = SCB content at high molecular weight side − SCB content at low molecular weight side SCB content at low molecular weight side in Equation 1, the SCB (short chain branch) content (unit: ea/1,000C) means the content of C2-C7 branches per 1000 carbons, and the SCB content at low molecular weight side and the SCB content at high molecular weight side mean the SCB content values at the left boundary (the SCB content at low molecular weight side) and the right boundary (the SCB content at high molecular weight side) of the middle range that occupies 60% of the whole area except the right 20% of the area and the left 20 % of the area in the molecular weight distribution graph obtained by plotting log value of molecular weight M of the ethylene-1-hexene-1-butene terpolymer (log M) on x axis against the molecular weight distribution to the log value (dwt/dlog M) on y axis. the SCB (short chain branch) content (unit: ea/1,000C) means the content of C2-C7 branches per 1000 carbons, and the SCB content at low molecular weight side and the SCB content at high molecular weight side mean the SCB content values at the left boundary (the SCB content at low molecular weight side) and the right boundary (the SCB content at high molecular weight side) of the middle range that occupies 60% of the whole area except the right 20% of the area and the left 20 % of the area in the molecular weight distribution graph obtained by plotting log value of molecular weight M of the ethylene-1-hexene-1-butene terpolymer (log M) on x axis against the molecular weight distribution to the log value (dwt/dlog M) on y axis.