mhurhangee/ep-ind-claims huggingface dataset:
A combustion gas supply system, comprising: an air compressor adapted to supply compressed air; a fuel supply device adapted to supply a fuel; a combustor adapted to generate a pressurized combustion gas by combusting the fuel supplied by the fuel supply device and the compressed air supplied by the air compressor; a gas supply and recovery section (9, 21) adapted to supply the pressurized combustion gas generated by the combustor to a heat consumption apparatus (C1, C2) and adapted to recover, as a used gas, the pressurized combustion gas whose heat has been consumed; a re-pressurizing compressor adapted to supplementarily compress a part of the used gas recovered by the gas supply and recovery section (9, 21), characterized in that: the gas supply and recovery section (9, 21) is adapted to supply the part of the used gas to the compressed air supplied by the air compressor, a first flow channel is adapted to supply the compressed air from the air compressor and the fuel from the fuel supply device, to the combustor; and a second flow channel (L8, L9) is adapted to supply the part of the used gas supplementarily compressed by the re-pressurizing compressor, to the compressed air and the fuel of the first flow channel, wherein the part of the used gas is to be supplied to the combustor as a mixed gas with the compressed air and the fuel. an air compressor adapted to supply compressed air; a fuel supply device adapted to supply a fuel; a combustor adapted to generate a pressurized combustion gas by combusting the fuel supplied by the fuel supply device and the compressed air supplied by the air compressor; a gas supply and recovery section (9, 21) adapted to supply the pressurized combustion gas generated by the combustor to a heat consumption apparatus (C1, C2) and adapted to recover, as a used gas, the pressurized combustion gas whose heat has been consumed; a re-pressurizing compressor adapted to supplementarily compress a part of the used gas recovered by the gas supply and recovery section (9, 21), characterized in that: the gas supply and recovery section (9, 21) is adapted to supply the part of the used gas to the compressed air supplied by the air compressor, a first flow channel is adapted to supply the compressed air from the air compressor and the fuel from the fuel supply device, to the combustor; and a second flow channel (L8, L9) is adapted to supply the part of the used gas supplementarily compressed by the re-pressurizing compressor, to the compressed air and the fuel of the first flow channel, the gas supply and recovery section (9, 21) is adapted to supply the part of the used gas to the compressed air supplied by the air compressor, a first flow channel is adapted to supply the compressed air from the air compressor and the fuel from the fuel supply device, to the combustor; and a second flow channel (L8, L9) is adapted to supply the part of the used gas supplementarily compressed by the re-pressurizing compressor, to the compressed air and the fuel of the first flow channel, wherein the part of the used gas is to be supplied to the combustor as a mixed gas with the compressed air and the fuel.
A computer storage medium storing computer-useable instructions that, when used by one or more computing devices, cause the one or more computing devices to perform operations comprising: obtaining pulse data collected via a sensor device coupled to a farming machine, the pulse data being associated with a swath width of an implement coupled to the farming machine, wherein pulse data is a dataset collected within a pulse period; generating a pulse polygon based on the pulse data and the associated swath width, the generated pulse polygon defining a geographic area traversed by the implement and having an activity value extracted or determined from the pulse data, the activity value defining an amount of work performed by the farming machine and/or implement over the pulse period; translating the pulse polygon into a plurality of grid cells in a spatial grid system, the plurality of grid cells corresponding to the defined geographic area; and storing the activity value into a plurality of geospatial containers associated with the spatial grid system, each geospatial container of the plurality of geospatial containers corresponding to one of the at least one grid cell of the plurality of grid cells, wherein a geospatial container is a data structure corresponding to one grid cell of the spatial grid system. obtaining pulse data collected via a sensor device coupled to a farming machine, the pulse data being associated with a swath width of an implement coupled to the farming machine, wherein pulse data is a dataset collected within a pulse period; generating a pulse polygon based on the pulse data and the associated swath width, the generated pulse polygon defining a geographic area traversed by the implement and having an activity value extracted or determined from the pulse data, the activity value defining an amount of work performed by the farming machine and/or implement over the pulse period; translating the pulse polygon into a plurality of grid cells in a spatial grid system, the plurality of grid cells corresponding to the defined geographic area; and storing the activity value into a plurality of geospatial containers associated with the spatial grid system, each geospatial container of the plurality of geospatial containers corresponding to one of the at least one grid cell of the plurality of grid cells, wherein a geospatial container is a data structure corresponding to one grid cell of the spatial grid system.
Self-adhesive sanitary composition for cleaning and/or disinfecting and/or deodorizing comprising - an adhesion promoter comprising by weight based on the total weight of the composition 5% to 40% of a mono or oligosaccharide or mixtures thereof, preferably a monosaccharide or disaccharide or mixture thereof; and - 3% to 15% of a metal soap of one or more fatty acid(s) comprising from 10 to 24 carbon atoms, preferably from 12 to 18, more preferably from 12 to 16. - up to 25% of a further surfactant which is an anionic and/or a cationic and/or a nonionic and/or an amphoteric surfactant. - an adhesion promoter comprising by weight based on the total weight of the composition 5% to 40% of a mono or oligosaccharide or mixtures thereof, preferably a monosaccharide or disaccharide or mixture thereof; and - 3% to 15% of a metal soap of one or more fatty acid(s) comprising from 10 to 24 carbon atoms, preferably from 12 to 18, more preferably from 12 to 16. - up to 25% of a further surfactant which is an anionic and/or a cationic and/or a nonionic and/or an amphoteric surfactant.
An electric heater for heating an air flow in a household appliance, in particular a laundry dryer appliance, the electric heater comprising - at least one heating element adapted to be connected to an electric energy source to generate heat; - a body made of thermally conductive material provided with a plurality of fins, in which said at least one heating element is arranged; wherein said at least one heating element is in contact with said body, whereby the heat generated by the at least one heating element can be transferred to the body, which is adapted to heat said air flow; the electric heater being characterized in that it comprises - a tube for water to pass, at least partially arranged in the body, whereby the heat generated by the at least one heating element can be transmitted to the tube through the body. the electric heater comprising - at least one heating element adapted to be connected to an electric energy source to generate heat; - a body made of thermally conductive material provided with a plurality of fins, in which said at least one heating element is arranged; - at least one heating element adapted to be connected to an electric energy source to generate heat; - a body made of thermally conductive material provided with a plurality of fins, in which said at least one heating element is arranged; wherein said at least one heating element is in contact with said body, whereby the heat generated by the at least one heating element can be transferred to the body, which is adapted to heat said air flow; the electric heater being characterized in that it comprises - a tube for water to pass, at least partially arranged in the body, whereby the heat generated by the at least one heating element can be transmitted to the tube through the body. - a tube for water to pass, at least partially arranged in the body, whereby the heat generated by the at least one heating element can be transmitted to the tube through the body.
A laundry treating apparatus comprising: a first cabinet; a dry chamber provided in the first cabinet and defining a dry space; a first air supply unit for supplying heated air to the dry chamber; a rack provided in the dry chamber and providing a space in which drying objects are disposed; a second cabinet disposed on a top surface of the first cabinet or supportively disposed underneath a bottom surface of the first cabinet; a drum mounted in the second cabinet and defining a space in which clothes are held; and a second air supply unit (461, 463, 467, 468) for supplying heated air to the drum, characterized in that the laundry treating apparatus further comprises a hinge unit rotatably coupling the rack in the dry chamber and capable of adjusting a rotation angle of the rack, wherein the hinge unit comprises, a rack shaft penetrating the dry chamber and forming a rotational center of the rack; a first operation body located outside the dry chamber and rotatable by the rack shaft; a stopper body comprising a first stopper and a second stopper, which are spaced a preset distance from each other, and located outside the dry chamber; and a second operation body rotatable between the first stopper and the second stopper and rotatable in the reverse direction of a rotational direction of the first operation body by contacting with the first operation body when the first operation body is rotated. a first cabinet; a dry chamber provided in the first cabinet and defining a dry space; a first air supply unit for supplying heated air to the dry chamber; a rack provided in the dry chamber and providing a space in which drying objects are disposed; a second cabinet disposed on a top surface of the first cabinet or supportively disposed underneath a bottom surface of the first cabinet; a drum mounted in the second cabinet and defining a space in which clothes are held; and a second air supply unit (461, 463, 467, 468) for supplying heated air to the drum, characterized in that the laundry treating apparatus further comprises a hinge unit rotatably coupling the rack in the dry chamber and capable of adjusting a rotation angle of the rack, wherein the hinge unit comprises, a rack shaft penetrating the dry chamber and forming a rotational center of the rack; a first operation body located outside the dry chamber and rotatable by the rack shaft; a stopper body comprising a first stopper and a second stopper, which are spaced a preset distance from each other, and located outside the dry chamber; and a second operation body rotatable between the first stopper and the second stopper and rotatable in the reverse direction of a rotational direction of the first operation body by contacting with the first operation body when the first operation body is rotated.
A heat exchanger, comprising - at least one electrical resistance heating element, in particular at least one PTC element, - at least two conductors, in particular conductor plates (6, 7), connected in electrically conductive fashion to the at least one electrical resistance heating element in order to conduct electrical current through the at least one electrical resistance heating element and thereby heat the electrical resistance heating element, - at least one heat-conducting element for transmitting heat from the at least one electrical resistance heating element to a fluid to be heated, - at least one electrical insulation element which electrically insulates the at least two conductors from the at least one heat-conducting element, - at least one tube, wherein - the at least two conductors and the at least one electrical resistance heating element are arranged within a cavity delimited by the tube, and the tube, at at least one contact surface, lies against the at least one electrical insulation element under the action of a pressure force, characterised in that the tube and the contact surface are connected such that the pressure force at the at least one contact surface is variable, in particular the pressure force at the at least one contact surface is greater, preferably by at least 10%, 50% or 100%, in the centre than at the edge, and/or the tube has a greater thickness at the at least one contact surface than outside the at least one contact surface and, owing to said varying thickness, a shoulder is formed on the inside of the tube between the contact surface and outside the contact surface. - at least one electrical resistance heating element, in particular at least one PTC element, - at least two conductors, in particular conductor plates (6, 7), connected in electrically conductive fashion to the at least one electrical resistance heating element in order to conduct electrical current through the at least one electrical resistance heating element and thereby heat the electrical resistance heating element, - at least one heat-conducting element for transmitting heat from the at least one electrical resistance heating element to a fluid to be heated, - at least one electrical insulation element which electrically insulates the at least two conductors from the at least one heat-conducting element, - at least one tube, wherein - the at least two conductors and the at least one electrical resistance heating element are arranged within a cavity delimited by the tube, and the tube, at at least one contact surface, lies against the at least one electrical insulation element under the action of a pressure force,
A measurement apparatus for imaging a road surface, the measurement apparatus configured to be mounted on a vehicle, the measurement apparatus comprising: a plurality of imaging devices for imaging the road surface including at least a first imaging device and a second imaging device, wherein the first imaging device and second imaging device are separated in a width dimension of the vehicle such that a first image capture range of the first imaging device in the width dimension and a second image capture range of the second imaging device in the width dimension at least partially overlap at the road surface, wherein, when a first inclination angle "θ2A" of the first imaging device with respect to the width dimension of the vehicle is defined between a first image capture direction of the first imaging device and a perpendicular line extended perpendicularly from the road surface, and a second inclination angle "θB" of the second imaging device with respect to the width dimension of the vehicle is defined between a second image capture direction of the second imaging device and the perpendicular line extended perpendicularly from the road surface, the first inclination angle "θ2A" and the second inclination angle "θB" satisfy a condition of "θ2A > θB", and characterized in that the measurement apparatus is configured such that the first imaging device is disposed closer to the road surface than the second imaging device. a plurality of imaging devices for imaging the road surface including at least a first imaging device and a second imaging device, wherein the first imaging device and second imaging device are separated in a width dimension of the vehicle such that a first image capture range of the first imaging device in the width dimension and a second image capture range of the second imaging device in the width dimension at least partially overlap at the road surface, wherein, when a first inclination angle "θ2A" of the first imaging device with respect to the width dimension of the vehicle is defined between a first image capture direction of the first imaging device and a perpendicular line extended perpendicularly from the road surface, and a second inclination angle "θB" of the second imaging device with respect to the width dimension of the vehicle is defined between a second image capture direction of the second imaging device and the perpendicular line extended perpendicularly from the road surface, the first inclination angle "θ2A" and the second inclination angle "θB" satisfy a condition of "θ2A > θB", and characterized in that the measurement apparatus is configured such that the first imaging device is disposed closer to the road surface than the second imaging device.
Screw comprising - a shank having a tip end, a rear end, which is located opposite the tip end, and a longitudinal axis, which extends through the rear end and through the tip end, - at least one screw thread, which is arranged on the shank, winds around the shank and protrudes from the shank, and - a separate helix element, which is arranged non-monolithically on the shank, wherein the separate helix element winds around the shank, protrudes from the shank, and constitutes at least a section of the at least one screw thread, - wherein the screw further comprises at least one first claw, which projects from the shank, and which has both radial and axial overlap with the separate helix element, - wherein the shank and the at least one first claw are monolithic with respect to one another, - wherein the shank is provided with a helical groove, which winds around the longitudinal axis of the shank, and which projects, on the lateral surface of the shank, radially into the shank, wherein the separate helix element is arranged within the groove, characterized in that - the groove subducts in its starting section located close to the tip end, wherein this subduction of the groove is accompanied by a subduction of the screw thread in its starting section located close to the tip end. - a shank having a tip end, a rear end, which is located opposite the tip end, and a longitudinal axis, which extends through the rear end and through the tip end, - at least one screw thread, which is arranged on the shank, winds around the shank and protrudes from the shank, and - a separate helix element, which is arranged non-monolithically on the shank, wherein the separate helix element winds around the shank, protrudes from the shank, and constitutes at least a section of the at least one screw thread, - wherein the screw further comprises at least one first claw, which projects from the shank, and which has both radial and axial overlap with the separate helix element, - wherein the shank and the at least one first claw are monolithic with respect to one another, - wherein the shank is provided with a helical groove, which winds around the longitudinal axis of the shank, and which projects, on the lateral surface of the shank, radially into the shank, wherein the separate helix element is arranged within the groove, - the groove subducts in its starting section located close to the tip end, wherein this subduction of the groove is accompanied by a subduction of the screw thread in its starting section located close to the tip end.
A process for the preparation of 1,2-propanediol, in which a) a glycerol-containing stream is provided having a water content in the range of from 3 to 30 % by weight and b) the glycerol-containing stream is subjected to a hydrogenation in the presence of a copper-containing, heterogeneous catalyst at a temperature of from 100 to 320°C and a pressure of from 100 to 325 bar. a) a glycerol-containing stream is provided having a water content in the range of from 3 to 30 % by weight and b) the glycerol-containing stream is subjected to a hydrogenation in the presence of a copper-containing, heterogeneous catalyst at a temperature of from 100 to 320°C and a pressure of from 100 to 325 bar.
A method for the accumulation of phosphorus from wastewater containing sewage sludge containing thick matter using a wastewater treatment plant, comprising a) anaerobically treating the sewage sludge in an anaerobic region of the wastewater treatment plant within the wastewater stream, wherein thick matter and sludge settle in a bottom zone, b) withdrawing the settled sludge and transporting it into at least one separator comprising outer and inner containers, wherein the separator is located outside of the wastewater stream and comprises a biological microfilter formed from a natural substrate or another filter material, said microfilter being attached to a perforated outer surface of the inner container and further having a drain/return pipe for draining the matter and retaining bacteria enriched with phosphorus by the biological microfilter, c) aerobically treating the sludge in the separator, preferably by additional air supply, d) active process control by analyzing the inflow values for contents and volumes of the wastewater over time in the aerobic region of the purification plant, and, derived from the analysis of the inflow values, actively controlling the retaining times of the sewage sludge in the wastewater treatment plant and of the volumes of the sludge withdrawn from the bottom zone of the anaerobic region and transferred into one or several separators, and e) active process control of the filter performance in the separator by measuring and analyzing the water levels and volumes of a floating layer and of indicators for assessing the performance ability of the bacteria and active oxygen supply control derived therefrom. a) anaerobically treating the sewage sludge in an anaerobic region of the wastewater treatment plant within the wastewater stream, wherein thick matter and sludge settle in a bottom zone, b) withdrawing the settled sludge and transporting it into at least one separator comprising outer and inner containers, wherein the separator is located outside of the wastewater stream and comprises a biological microfilter formed from a natural substrate or another filter material, said microfilter being attached to a perforated outer surface of the inner container and further having a drain/return pipe for draining the matter and retaining bacteria enriched with phosphorus by the biological microfilter, c) aerobically treating the sludge in the separator, preferably by additional air supply, d) active process control by analyzing the inflow values for contents and volumes of the wastewater over time in the aerobic region of the purification plant, and, derived from the analysis of the inflow values, actively controlling the retaining times of the sewage sludge in the wastewater treatment plant and of the volumes of the sludge withdrawn from the bottom zone of the anaerobic region and transferred into one or several separators, and e) active process control of the filter performance in the separator by measuring and analyzing the water levels and volumes of a floating layer and of indicators for assessing the performance ability of the bacteria and active oxygen supply control derived therefrom.