mhurhangee/ep-ind-claims huggingface dataset:
Epoxy grout comprising: at least one epoxy resin; a mixture of a cycloaliphatic polyamine and a polyamidoamine; at least one mineral filler; at least one hydroxyester having a boiling point higher than or equal to 250°C. at least one epoxy resin; a mixture of a cycloaliphatic polyamine and a polyamidoamine; at least one mineral filler; at least one hydroxyester having a boiling point higher than or equal to 250°C.
A method of manufacturing a heating mat comprising the following first step: - sewing a heating wire with supply leads onto a fabric to form a thin-bed heating mat, characterised by the following further steps: - adhering the thin-bed heating mat to a smooth, flat base, - fixing the circumferential edge of the heating mat by sticking a trimming cord adhesive tape onto the flat base and/or the fabric, - spray-moulding of polyurethane on the fabric up to over the trimming cord adhesive tape, - allowing the polyurethane layer applied in this way to cool, pulling off the trimming cord from the adhesive tape by cutting through the polyurethane layer, - detaching the thin-bed heating mat, which is moulded on one side, from the flat base and turning it over; - spray-moulding of polyurethane on the turned thin-bed heating mat which has been moulded on one side, - cuting off any polyurethane protrusions that may have formed, which project beyond the edge defined by the trimming cord. - sewing a heating wire with supply leads onto a fabric to form a thin-bed heating mat, - adhering the thin-bed heating mat to a smooth, flat base, - fixing the circumferential edge of the heating mat by sticking a trimming cord adhesive tape onto the flat base and/or the fabric, - spray-moulding of polyurethane on the fabric up to over the trimming cord adhesive tape, - allowing the polyurethane layer applied in this way to cool, pulling off the trimming cord from the adhesive tape by cutting through the polyurethane layer, - detaching the thin-bed heating mat, which is moulded on one side, from the flat base and turning it over; - spray-moulding of polyurethane on the turned thin-bed heating mat which has been moulded on one side, - cuting off any polyurethane protrusions that may have formed, which project beyond the edge defined by the trimming cord.
Power switch with a switch housing and with an electronics module, wherein the electronics module comprises an electronics system controlling the switch and measurement electronics for evaluating a voltage of a primary conductor reduced by voltage dividers, wherein at least one contact is provided for tapping a voltage on a primary conductor, wherein inside the switch housing an adapter with the voltage dividers is provided for reducing the tapped voltage of the primary conductor, characterised in that the adapter is arranged outside the electronics module.
A fastening element for fastening an object to a building material body, comprising a longitudinal anchoring element to be anchored in a borehole in the building material body and having a hole extending along its longitudinal center axis in the longitudinal direction, into which hole a connecting element can be inserted that is designed for fastening in the hole of the anchoring element and serves for fastening the object to the building material body, wherein the hole of the anchoring element has a cross-section, at least over a part of its length, with a radius which increases continuously with respect to the longitudinal center axis in the circumferential direction from a minimum radius to a maximum radius, which radius transitions again into the minimum radius via a step, and the connecting element has a cross-section, over a part of its length, that is complementary to the hole and has a radius which increases continuously with respect to the longitudinal center axis in the circumferential direction from a minimum radius to a maximum radius, wherein the minimum and maximum radii (R1, R3/R2, R4) of the anchoring element and the connecting element, respectively, are substantially equal such that turning the connecting element with respect to the anchoring causes bracing of the connecting element against the inner diameter of the hole of the anchoring element, characterized in that the cross-section of the hole of the anchoring element and the cross-section of the connecting element have a radius which, with respect to the longitudinal center axis, increases continuously multiple times in the circumferential direction from a minimum radius (R1/R3) to a maximum radius (R2/R4) and decreases again to a minimum radius, that the outer diameter of the connecting element is formed by an overmolding having the radius of the cross-section that increases from a minimum radius to the maximum radius, wherein the connecting element comprises the overmolding over a part of its length in such a manner that the part exposed from the overmolding protrudes out of the anchoring element and enables inserting the connecting element into the anchoring element to an adjustable depth,
A method implemented by a computing system including one or more processors and storage media storing machine-readable instructions, wherein the method is performed using the one or more processors, the method comprising: receiving a job from a client; inserting the job into a job queue; processing a new module for the job comprising starting the new module; comparing the job with a set of cooldown modules to determine whether a compatible cooldown module is available, wherein a cooldown module refers to a module that has completed its assigned job, has not been assigned a new job, and has not been terminated; before the new module is started and ready for the job, in response to the compatible cooldown module being available, assigning the job to the compatible cooldown module and terminating processing of the new module; in response to the new module being ready and a compatible cooldown module not being available, assigning the job to the new module; in response to none of the cooldown modules within the set of cooldown modules being compatible with the job, terminating some of the cooldown modules according to their life length, wherein the life length is a duration for which a cooldown module is kept alive after completing its job and during which it may be assigned a new job and wherein the life length is positively correlated with the magnitude of resource expenditure to start up the module and the frequency of the jobs with which the module is compatible. receiving a job from a client; inserting the job into a job queue; processing a new module for the job comprising starting the new module; comparing the job with a set of cooldown modules to determine whether a compatible cooldown module is available, wherein a cooldown module refers to a module that has completed its assigned job, has not been assigned a new job, and has not been terminated; before the new module is started and ready for the job, in response to the compatible cooldown module being available, assigning the job to the compatible cooldown module and terminating processing of the new module; in response to the new module being ready and a compatible cooldown module not being available, assigning the job to the new module; in response to none of the cooldown modules within the set of cooldown modules being compatible with the job, terminating some of the cooldown modules according to their life length, wherein the life length is a duration for which a cooldown module is kept alive after completing its job and during which it may be assigned a new job and wherein the life length is positively correlated with the magnitude of resource expenditure to start up the module and the frequency of the jobs with which the module is compatible.
Use of an ionic liquid in an electrolytic composition comprising an organic solvent and one or several non-lithiated ionic salts dissolved in said organic solvent to increase the flammability temperature of said composition.
A picture coding device using a merge mode, the picture coding device comprising a merging candidate selector structured to add a merge motion vector difference defined by a direction index indicating a direction and a distance index indicating a distance to a selected candidate motion vector of a merging candidate list, wherein the candidate motion vector is selected from the merging candidate list using a merge index, wherein, when the length of the motion vector of the selected merging candidate is smaller than a predetermined distance indicated by a predetermined distance index among a plurality of the distance indexes, the merging candidate selector changes said predetermined distance indicated by the distance index to a smaller distance. the picture coding device comprising a merging candidate selector structured to add a merge motion vector difference defined by a direction index indicating a direction and a distance index indicating a distance to a selected candidate motion vector of a merging candidate list, wherein the candidate motion vector is selected from the merging candidate list using a merge index, wherein, when the length of the motion vector of the selected merging candidate is smaller than a predetermined distance indicated by a predetermined distance index among a plurality of the distance indexes, the merging candidate selector changes said predetermined distance indicated by the distance index to a smaller distance.
A hardfacing composition consisting of a plurality of hard particles selected from one or more of crushed sintered cemented (cobalt) macrocrystalline tungsten carbide particles, cemented tungsten carbide-cobalt pellets, and cast tungsten carbide particlesdiamonds, cermets and ceramics, and optionally a deoxidizer, wherein the hard particles comprise a mode particle size distribution having a size range greater than 420 micrometers and less than 595 micrometers (-30+40 Mesh), one particle size distribution smaller than the mode particle size distribution having a size range greater than 177 micrometers and less than 420 micrometers (-40+80 Mesh), and another particle size distribution larger than the mode particle size distribution having a size range greater than 595 micrometers and less than 841 micrometers (-20+30 Mesh); and there being a smooth transition between the mode particle size distribution and the one particle size distribution and there being a smooth transition between the mode particle size distribution and the other particle size distribution; and wherein the hard particles in the size range greater than 420 micrometers and less than 595 micrometers (-30+40 Mesh) comprise between 30 weight percent and 35 weight percent of the hard particles, the hard particles in the size range greater than 177 micrometers and less than 420 micrometers (-40+80 Mesh) comprising between 10 weight percent and 20 weight percent of the hard particles, and the other hard particles in the size range greater than 595 micrometers and less than 841 micrometers (-20+30 Mesh) comprising between 20 weight percent and 26 weight percent of the hard particles of the hardfacing composition; and wherein the hardfacing composition further comprises hard particles having a particle size distribution with a size range of between greater than 841 μm and less than 1.19 mm (-16+20 Mesh) and comprising between 10 and 20 weight percent, of the hard particles of the hardfacing composition, hard particles having a particle size distribution with a size range of between greater than 74 μm and less than 149 μm (-100+200 Mesh) and comprising between 3 weight percent and 7 weight percent of the hard particles of the hardfacing composition, and hard particles having a particle size distribution with a size range of less than or equal to 44 μm (-325 Mesh) and comprising between 3 weight percent and 7 weight percent of the hard particles of the hardfacing composition.
A bioreactor for RNA in vitro transcription comprising: (a) a reaction vessel suitable to hold magnetic particles, DNA templates, a DNA immobilization buffer, DNA magnetic particles and an IVT master mix, wherein the DNA magnetic particles are DNA templates immobilized on the free-floating magnetic particles, wherein the IVT master mix comprises ribonucleoside triphosphates and DNA dependent RNA polymerase; and (b) a magnet unit positioned at the reaction vessel, wherein the magnet unit is configured to capture the magnetic particles and the DNA magnetic particles or to introduce a movement into the magnetic particles and the DNA magnetic particles, wherein the magnet unit is ring-shaped and encircles the reaction vessel. (a) a reaction vessel suitable to hold magnetic particles, DNA templates, a DNA immobilization buffer, DNA magnetic particles and an IVT master mix, wherein the DNA magnetic particles are DNA templates immobilized on the free-floating magnetic particles, wherein the IVT master mix comprises ribonucleoside triphosphates and DNA dependent RNA polymerase; and (b) a magnet unit positioned at the reaction vessel, wherein the magnet unit is configured to capture the magnetic particles and the DNA magnetic particles or to introduce a movement into the magnetic particles and the DNA magnetic particles,
A dual-flow turbomachine for aircraft including: - an intermediate casing including an inner ferrule and an outer ferrule between which structural arms are fitted, where the inner ferrule has a first surface internally delimiting an annular secondary vein; - a central casing extending the said intermediate casing towards the rear; and - means forming a case fitted in the rear extension of the said inner ferrule of the intermediate casing, and positioned around the said central casing, where these means have a second surface internally delimiting the annular secondary vein positioned in the rear extension of the said first internal delimitation surface, the said means forming a case include firstly a structural upstream ferrule assembled on the inner ferrule of the intermediate casing, and defining the front portion of the second internal delimitation surface, and secondly a main case extending the said upstream ferrule towards the rear, characterised in that the said turbomachine also includes structural means (72, 172) of rigidifying the central casing, surrounded by the said main case, and extending towards the rear between the upstream ferrule and the central casing on which these means (72, 172) are assembled. - an intermediate casing including an inner ferrule and an outer ferrule between which structural arms are fitted, where the inner ferrule has a first surface internally delimiting an annular secondary vein; - a central casing extending the said intermediate casing towards the rear; and - means forming a case fitted in the rear extension of the said inner ferrule of the intermediate casing, and positioned around the said central casing, where these means have a second surface internally delimiting the annular secondary vein positioned in the rear extension of the said first internal delimitation surface,
Portable device for helping to tie a shoelace, said device comprising a base portion and a mast portion in a use configuration, characterized in that said mast has, at one end, in a longitudinal direction, a bearing surface for a portion of the shoelace, and a friction retaining means designed to hold said shoelace portion on said surface. characterized in that said mast has, at one end, in a longitudinal direction, a bearing surface for a portion of the shoelace, and a friction retaining means designed to hold said shoelace portion on said surface.
A Device to Device, D2D, communication method, comprising: transmitting, by a user equipment, a preamble over a set of sub-channels in a competition area, and monitoring, by the user equipment, a preamble to be transmitted by another user equipment over the set of sub-channels in the competition area; and transmitting, by the user equipment, data over a set of sub-channels in a data area corresponding to the set of sub-channels in the competition area when there is no preamble monitored over the set of sub-channels in the competition area, wherein different sets of sub-channels in the competition area correspond to different sets of sub-channels in the data area; wherein the competition area and the data area are divided from D2D resources. transmitting, by a user equipment, a preamble over a set of sub-channels in a competition area, and monitoring, by the user equipment, a preamble to be transmitted by another user equipment over the set of sub-channels in the competition area; and transmitting, by the user equipment, data over a set of sub-channels in a data area corresponding to the set of sub-channels in the competition area when there is no preamble monitored over the set of sub-channels in the competition area, wherein different sets of sub-channels in the competition area correspond to different sets of sub-channels in the data area; wherein the competition area and the data area are divided from D2D resources.
A system, comprising: a first milking box stall of a size sufficient to accommodate a dairy livestock; an equipment portion located adjacent to and at the rear of the first milking box stall, the equipment portion housing a robotic attacher; a second milking box stall of a size sufficient to accommodate a dairy livestock, the second milking box stall located adjacent to the equipment portion; wherein the robotic attacher is configured to service both the first milking box stall and the second milking box stall by extending from the rear between the rear legs of a dairy livestock located within either stall (120a, 120b) in order to attach milking equipment to the dairy livestock, caracterized in that the first milking box stall comprises a gate on one side of the first milking box stall and a wall on the other side of the first milking box stall; and wherein the second milking box stall comprises a gate on one side of the second milking box stall and shares the wall with the first milking box stall on the other side of the second milking box. a first milking box stall of a size sufficient to accommodate a dairy livestock; an equipment portion located adjacent to and at the rear of the first milking box stall, the equipment portion housing a robotic attacher; a second milking box stall of a size sufficient to accommodate a dairy livestock, the second milking box stall located adjacent to the equipment portion; wherein the robotic attacher is configured to service both the first milking box stall and the second milking box stall by extending from the rear between the rear legs of a dairy livestock located within either stall (120a, 120b) in order to attach milking equipment to the dairy livestock, caracterized in that the first milking box stall comprises a gate on one side of the first milking box stall and a wall on the other side of the first milking box stall; and wherein the second milking box stall comprises a gate on one side of the second milking box stall and shares the wall with the first milking box stall on the other side of the second milking box.
A water-soluble substrate comprising a first and a second surface opposite to said first surface, and having water-insoluble particles applied to at least one of said first or second surfaces (12, 14), characterized in that said water-insoluble particles are partially embedded in said water-soluble substrate and form protruberances on said first and/or second surface (12, 14), said protruberances have an average height of from 10 nanometer to 100 micrometer, and the average distance between adjacent peaks of said protruberances is from 10 nanometer to 200 micrometer, wherein said water-insoluble particles have an average diameter of from 0.10 to 0.1 micrometer.
Vehicle, in particular motor vehicle, having a device for controlling the temperature of a battery of the vehicle with: - a first fluid path of an air-conditioning unit having a first blower for controlling the temperature of and carrying air, which fluid path opens into an interior space of the vehicle, - a second fluid path which is thermally assigned to the battery and which serves for carrying a coolant of a radiator and of the air-conditioning unit, - a third fluid path assigned to the air-conditioning unit and passing through this for carrying a refrigerant of a refrigerating machine for generating cold, the first fluid path having a refrigerant-air heat exchanger of the third fluid path and, downstream of this, a coolant-air heat exchanger of the second fluid path of the air-conditioning unit, characterized in that the second fluid path has, downstream of the coolant-air heat exchanger, a further coolant-air heat exchanger, the latter being thermally assigned to the battery by means of a fourth fluid path which has a second blower and which serves for circulating air between the battery and the coolant-air heat exchanger. - a first fluid path of an air-conditioning unit having a first blower for controlling the temperature of and carrying air, which fluid path opens into an interior space of the vehicle, - a second fluid path which is thermally assigned to the battery and which serves for carrying a coolant of a radiator and of the air-conditioning unit, - a third fluid path assigned to the air-conditioning unit and passing through this for carrying a refrigerant of a refrigerating machine for generating cold,
An environmental sensor system comprising: an environmental sensor comprising at least a first heater and a second heater, wherein the first heater is configured to consume a lower power compared to the second heater; a controller coupled with the environmental sensor, wherein the controller is configured to: store a set of measured values; analyse a predetermined number of recent measured values from the set of measured values; determine which of the first and second heaters (4, 2) to be switched on based on the analysed results of the predetermined number of recent measured values; switch on the first heater if the controller determines from the analysed results that there are no measured values or the measured values are less than a pre-determined threshold limit; and switch on the second heater or both the first and second heaters (4, 2) if the controller determines from the analysed results that the measured values are more than a pre-determined threshold limit. an environmental sensor comprising at least a first heater and a second heater, wherein the first heater is configured to consume a lower power compared to the second heater; a controller coupled with the environmental sensor, wherein the controller is configured to: store a set of measured values; analyse a predetermined number of recent measured values from the set of measured values; determine which of the first and second heaters (4, 2) to be switched on based on the analysed results of the predetermined number of recent measured values; switch on the first heater if the controller determines from the analysed results that there are no measured values or the measured values are less than a pre-determined threshold limit; and switch on the second heater or both the first and second heaters (4, 2) if the controller determines from the analysed results that the measured values are more than a pre-determined threshold limit. store a set of measured values; analyse a predetermined number of recent measured values from the set of measured values; determine which of the first and second heaters (4, 2) to be switched on based on the analysed results of the predetermined number of recent measured values; switch on the first heater if the controller determines from the analysed results that there are no measured values or the measured values are less than a pre-determined threshold limit; and switch on the second heater or both the first and second heaters (4, 2) if the controller determines from the analysed results that the measured values are more than a pre-determined threshold limit.