mhurhangee/ep-ind-claims huggingface dataset:
A method for coating a refractory alloy part, in particular based on molybdenum, comprising the steps of: - coating at least one zone of said part, using a treatment composition comprising at least one type of preceramic polymer, a solvent and at least one active filler, - heat treatment of the part coated with the treatment composition, this heat treatment allowing to at least partially convert the preceramic polymer to form a ceramic layer, said active filler being chosen so as to form, by solid or liquid diffusion, on the surface of said refractory alloy part, at least one alloy which is at least ternary resulting from the co-reactivity of this active filler with the refractory alloy part and the preceramic polymer, this at least ternary alloy forming a continuous layer between the surface of the refractory alloy part and the ceramic layer obtained by conversion, and the heat treatment being carried out so as to form this continuous layer of at least ternary alloy, which protects said refractory alloy part from oxidation, characterised in that said treatment composition comprises, relative to its total mass, a mass proportion of between 40% and 66% of at least one active filler, and in that the active filler/preceramic polymer mass ratio is greater than or equal to 2. - coating at least one zone of said part, using a treatment composition comprising at least one type of preceramic polymer, a solvent and at least one active filler, - heat treatment of the part coated with the treatment composition, this heat treatment allowing to at least partially convert the preceramic polymer to form a ceramic layer, said active filler being chosen so as to form, by solid or liquid diffusion, on the surface of said refractory alloy part, at least one alloy which is at least ternary resulting from the co-reactivity of this active filler with the refractory alloy part and the preceramic polymer, this at least ternary alloy forming a continuous layer between the surface of the refractory alloy part and the ceramic layer obtained by conversion, and the heat treatment being carried out so as to form this continuous layer of at least ternary alloy, which protects said refractory alloy part from oxidation, characterised in that said treatment composition comprises, relative to its total mass, a mass proportion of between 40% and 66% of at least one active filler, and in that the active filler/preceramic polymer mass ratio is greater than or equal to 2.
A method for treating waste water including boron trifluoride neutralized salt comprising the steps of: - adding to the waste water a treating agent selected from the group consisting of Al compound, Ca compound and mixture thereof at temperature of 50 to 300°C for reaction, whereby the boron trifluoride neutralized salt is decomposed to form Al salt or Ca salt of fluorine component so that the fluorine component is removed in the form of the Al salt or the Ca salt of fluorine component, - removing the Al salt or the Ca salt of fluorine component from the waste water by filtration, - adding to the waste water, after the step of removing the Al salt or Ca salt of the fluorine component, a treating agent which is Al compound at the temperature of 0 to 40°C whereby any remaining fluorine component forms an insoluble salt, and - removing the insoluble salt, and wherein the waste water containing boron trifluoride neutralized salt is generated as a side-product during a preparation process of highly reactive polybutene. - adding to the waste water a treating agent selected from the group consisting of Al compound, Ca compound and mixture thereof at temperature of 50 to 300°C for reaction, whereby the boron trifluoride neutralized salt is decomposed to form Al salt or Ca salt of fluorine component so that the fluorine component is removed in the form of the Al salt or the Ca salt of fluorine component, - removing the Al salt or the Ca salt of fluorine component from the waste water by filtration, - adding to the waste water, after the step of removing the Al salt or Ca salt of the fluorine component, a treating agent which is Al compound at the temperature of 0 to 40°C whereby any remaining fluorine component forms an insoluble salt, and - removing the insoluble salt, and
Freestanding household appliance, in particular dishwasher, having a treatment container and a force absorption element that introduces clamping forces (F K) into the freestanding household appliance which act externally on the freestanding household appliance, on the upper side of which a counter top is arranged, wherein the counter top and/or the fastening of the counter top to the freestanding household appliance are embodied to form the force absorption element, into which the clamping forces (F K) can be introduced, and wherein the counter top is fastened to the freestanding household appliance via spaced fastening points, characterised in that the counter top is arranged with front fastening points on a front frame of the treatment container and with rear fastening points on a second section of the treatment container, and that the spacing (b) of the fastening points on the freestanding household appliance is set in an effective direction (y) of the clamping forces (F K) such that the compressive stress in the counter top generated by the clamping forces (F K) is smaller than a critical compressive stress at which a buckling of the counter top occurs in an inflexible region.
Process for the preparation of a procatalyst suitable for preparing a catalyst composition for olefin polymerization, said process comprising the steps of providing a magnesium-based support, contacting said magnesium-based support with a Ziegler-Natta type catalytic species, an internal donor, activated by an activator, to yield a procatalyst, wherein the activator is a benzamide according to Formula X wherein R 70 and R 71 are each independently selected from hydrogen or an alkyl, and R 72, R 73, R 74, R 75, R 76 are each independently selected from hydrogen, a heteroatom, or a hydrocarbyl group, selected from alkyl, alkenyl, aryl, aralkyl, alkoxycarbonyl or alkylaryl groups, and one or more combinations thereof.
A fabric access device comprising: a plurality of system interfaces (102, 104, 202, 204, 304, 306) each being configured to receive data from and send data to an external source connected to the system interface (102, 104, 202, 204, 304, 306), and wherein the plurality of system interfaces (102, 104, 202, 204, 304, 306) may be associated to fabric interface links; a fabric interface (106, 108, 310-316) configured to receive data from and send data to a switch fabric (110, 318); a routing circuit configured to send data received on one of the plurality of system interfaces (102, 104, 202, 204, 304, 306) to the switch fabric (110, 318) via the fabric interface (106, 108, 310-316); and the routing circuit is configured to: in a first mode, send data received on one of the plurality of system interfaces (102, 104, 202, 204, 304, 306) to the switch fabric (110, 318) via the fabric interface (106, 108, 310-316); and in a second mode, send data received on a first one of the plurality of system interfaces (102, 104, 202, 204, 304, 306) to a second one of the plurality of system interfaces (102, 104, 202, 204, 304, 306). a plurality of system interfaces (102, 104, 202, 204, 304, 306) each being configured to receive data from and send data to an external source connected to the system interface (102, 104, 202, 204, 304, 306), and wherein the plurality of system interfaces (102, 104, 202, 204, 304, 306) may be associated to fabric interface links; a fabric interface (106, 108, 310-316) configured to receive data from and send data to a switch fabric (110, 318); a routing circuit configured to send data received on one of the plurality of system interfaces (102, 104, 202, 204, 304, 306) to the switch fabric (110, 318) via the fabric interface (106, 108, 310-316); and the routing circuit is configured to: in a first mode, send data received on one of the plurality of system interfaces (102, 104, 202, 204, 304, 306) to the switch fabric (110, 318) via the fabric interface (106, 108, 310-316); and in a second mode, send data received on a first one of the plurality of system interfaces (102, 104, 202, 204, 304, 306) to a second one of the plurality of system interfaces (102, 104, 202, 204, 304, 306). in a first mode, send data received on one of the plurality of system interfaces (102, 104, 202, 204, 304, 306) to the switch fabric (110, 318) via the fabric interface (106, 108, 310-316); and in a second mode, send data received on a first one of the plurality of system interfaces (102, 104, 202, 204, 304, 306) to a second one of the plurality of system interfaces (102, 104, 202, 204, 304, 306).
A processor comprising: at least one core to execute instructions; and a memory controller (1572; 1630) coupled to the at least one core, the memory controller (1572; 1630) including a spare logic to cause a dynamic transfer of data stored on a first memory device coupled to the processor to a spare memory device coupled to the processor, responsive to a temperature of the first memory device exceeding a thermal threshold, the memory controller (1572; 1630) further comprises a plurality of first counters each associated with a memory device of the first and the spare memory devices (1612a, 1614a) coupled to the processor and to count a duration of a temperature of the associated memory device (1612a, 1614a) exceeding the thermal threshold, wherein the spare logic is to cause the dynamic transfer further when a first counter of the plurality of first counters associated with the first memory device exceeds a second threshold, and characterized in that the memory controller (1572; 1630) also comprises a second counter to count a number of times that the dynamic transfer has occurred between the first and spare memory devices (1612a, 1614a), wherein the spare logic is to update the second counter on occurrence of the dynamic transfer; wherein the spare logic, responsive to the second counter exceeding a third threshold, is to disable the dynamic transfer and to cause the first memory device to be throttled. at least one core to execute instructions; and a memory controller (1572; 1630) coupled to the at least one core, the memory controller (1572; 1630) including a spare logic to cause a dynamic transfer of data stored on a first memory device coupled to the processor to a spare memory device coupled to the processor, responsive to a temperature of the first memory device exceeding a thermal threshold, the memory controller (1572; 1630) further comprises a plurality of first counters each associated with a memory device of the first and the spare memory devices (1612a, 1614a) coupled to the processor and to count a duration of a temperature of the associated memory device (1612a, 1614a) exceeding the thermal threshold, wherein the spare logic is to cause the dynamic transfer further when a first counter of the plurality of first counters associated with the first memory device exceeds a second threshold, and characterized in that the memory controller (1572; 1630) also comprises a second counter to count a number of times that the dynamic transfer has occurred between the first and spare memory devices (1612a, 1614a), wherein the spare logic is to update the second counter on occurrence of the dynamic transfer; wherein the spare logic, responsive to the second counter exceeding a third threshold, is to disable the dynamic transfer and to cause the first memory device to be throttled.
Method for controlling, during cold-starting, a circuit for cooling, by means of a heat-transfer fluid, an internal-combustion engine mounted in an automobile, the cooling circuit being provided, downstream of the internal-combustion engine, with a means for interrupting the flow able to create a discontinuity in the flow of the heat-transfer fluid through the internal-combustion engine initially in a no through-flow position, characterized in that it comprises the following steps: determining a characteristic temperature for the thermal condition of a specific zone in the internal-combustion engine, the valve bridge, by applying an autoregressive moving-average model depending on the temperature inside the internal-combustion engine, the speed of rotation, the load and the quantity of fuel injected into the internal-combustion engine and the speed of the vehicle and switching the flow interruption means into a through-flow position if the characteristic temperature for the thermal condition of the valve bridge in the internal-combustion engine is higher than a maximum temperature. determining a characteristic temperature for the thermal condition of a specific zone in the internal-combustion engine, the valve bridge, by applying an autoregressive moving-average model depending on the temperature inside the internal-combustion engine, the speed of rotation, the load and the quantity of fuel injected into the internal-combustion engine and the speed of the vehicle and switching the flow interruption means into a through-flow position if the characteristic temperature for the thermal condition of the valve bridge in the internal-combustion engine is higher than a maximum temperature.
Magic-angle spinning NMR analysis system comprising a probe system, itself comprising a NMR analysis probe and a thermal insulation device, said thermal insulation device comprising a screen (101; 102; 103; 104) insulating a first member and/or a second member (20; 30; 16; 10; 30) from a thermal radiation, the device comprising: - a first heat-exchange element exchanging heat between the heat screen and a stream of fluid, notably a stream of gas, and - a guide element guiding the first member using the stream and/or a drive element driving the first member using the stream and/or a second heat-exchange element of the first member using the stream, the analysis system comprising a cryostat and a cryogenic line connecting the probe onto the cryostat, characterized in that the cryogenic line comprises a vacuum barrier and a set of valves, in such a way that the NMR analysis probe can be disconnected from the cryostat without the need to switch off said cryostat. - a first heat-exchange element exchanging heat between the heat screen and a stream of fluid, notably a stream of gas, and - a guide element guiding the first member using the stream and/or a drive element driving the first member using the stream and/or a second heat-exchange element of the first member using the stream,
A method for evaporative cooling, the method comprising the steps of bringing a composition comprising 1,1,1-trifluoro-3-chloropropene (HFCO-1233zd) into contact, either directly or indirectly, with a body to be cooled and thereafter permitting the composition to evaporate or boil while in contact with said body, thereby absorbing heat from said body, wherein the composition is in liquid form and is sprayed onto the body to be cooled, wherein the method is not a method for treatment of the human or animal body by surgery or therapy.
A method comprising: performing a beacon position determination process with respect to at least one beacon usable for range determination by a robotic vehicle responsive to initiation of operation of the robotic vehicle; determining a position of the at least one beacon based on the position determination process; and employing the position of the at least one beacon as determined for position information determination of the robotic vehicle during continued operation of the robotic vehicle, the method being characterized in that performing the beacon position determination process comprises: receiving information indicative of a known initial position of the robotic vehicle; measuring a first range to the at least one beacon at the known initial position; receiving movement information regarding movement of the robotic vehicle away from the known initial position; measuring a second range to the at least one beacon after the movement of the robotic vehicle; and estimating the position of the at least one beacon based on a combination of a change between the first and second range values and the movement information. performing a beacon position determination process with respect to at least one beacon usable for range determination by a robotic vehicle responsive to initiation of operation of the robotic vehicle; determining a position of the at least one beacon based on the position determination process; and employing the position of the at least one beacon as determined for position information determination of the robotic vehicle during continued operation of the robotic vehicle, the method being characterized in that performing the beacon position determination process comprises: receiving information indicative of a known initial position of the robotic vehicle; measuring a first range to the at least one beacon at the known initial position; receiving movement information regarding movement of the robotic vehicle away from the known initial position; measuring a second range to the at least one beacon after the movement of the robotic vehicle; and receiving information indicative of a known initial position of the robotic vehicle; measuring a first range to the at least one beacon at the known initial position; receiving movement information regarding movement of the robotic vehicle away from the known initial position; measuring a second range to the at least one beacon after the movement of the robotic vehicle; and estimating the position of the at least one beacon based on a combination of a change between the first and second range values and the movement information.
Disk wheel for a motor vehicle, wherein the disk wheel comprises a wheel hub, which is arranged concentrically with respect to an axis of rotation of the disk wheel, for mounting the disk wheel on the motor vehicle, a wheel rim which is likewise concentric with respect to said wheel hub, and a first and a second wheel disk (21, 22), wherein the first wheel disk and the second wheel disk each extend from the wheel rim in the direction of the wheel hub, are spaced apart from one another on the wheel hub in a transverse direction parallel to the axis of rotation of the disk wheel and converge with each other toward the wheel hub, characterized in that the disk wheel furthermore comprises at least two reinforcing ribs (40, 41) which extend from the first wheel disk to the second wheel disk and connect them to each other, and wherein the reinforcing ribs (40, 41) are distributed uniformly about the axis of rotation of the disk wheel. wherein the disk wheel comprises a wheel hub, which is arranged concentrically with respect to an axis of rotation of the disk wheel, for mounting the disk wheel on the motor vehicle, a wheel rim which is likewise concentric with respect to said wheel hub, and a first and a second wheel disk (21, 22), wherein the first wheel disk and the second wheel disk each extend from the wheel rim in the direction of the wheel hub, are spaced apart from one another on the wheel hub in a transverse direction parallel to the axis of rotation of the disk wheel and converge with each other toward the wheel hub, characterized in that the disk wheel furthermore comprises at least two reinforcing ribs (40, 41) which extend from the first wheel disk to the second wheel disk and connect them to each other, and wherein the reinforcing ribs (40, 41) are distributed uniformly about the axis of rotation of the disk wheel.
A machine to process panels made of wood or the like comprising a base; a locking device to hold at least one panel on the base; an overhead crane, which is movable along the base in a first direction and extends above the base in a second direction, which is substantially transverse to the first direction; and an edgebanding assembly, which is designed to edgeband a lateral profile of the panel with a finishing edge, is mounted on the overhead crane so as to move, relative to the overhead crane, in the second direction and in a third direction, which is orthogonal to said first and second directions (6, 9), and comprises, in turn, a gluing device to apply glue on the lateral profile of the panel and/or on the finishing edge and an activation device to activate a heat-melting layer of the finishing edge; and characterized in that it further comprises a covering device, which is movable between an operating position, in which the covering device is arranged between the gluing device and the finishing edge so as to prevent the finishing edge from coming into contact with the gluing device, and a rest position, in which the finishing edge comes into contact with the gluing device; and wherein the activation device is movable between an operating position for the activation of the heat-melting layer of the finishing edge and a rest position; said operating and rest positions being arranged on opposite sides of a feeding path of the finishing edge through the edgebanding assembly.
Reflecting product, comprising a carrier and a pattern consisting of at least two different coatings, characterised in that both coatings have virtually identical colours and wherein both coatings have different reflecting properties; and in that the carrier is a textile.
An on-cell Touch Screen Panel, TSP, Active Matrix Organic Light Emitting Diode, AMOLED, structure, the structure comprising: an AMOLED comprising a layer made of a light emitting organic material; a display driver for driving the AMOLED; a polarizing plate; a display driver protecting material positioned above the display driver; and a window positioned at an upper part of the display driver protecting material, wherein a resin or Optical Clear Adhesive, OCA, is applied to an upper surface of the display driver protecting material and the polarizing plate; wherein the window is disposed at an upper surface of the resin or OCA; and wherein the display driver is positioned at an upper surface of one side of the layer. an AMOLED comprising a layer made of a light emitting organic material; a display driver for driving the AMOLED; a polarizing plate; a display driver protecting material positioned above the display driver; and a window positioned at an upper part of the display driver protecting material, wherein a resin or Optical Clear Adhesive, OCA, is applied to an upper surface of the display driver protecting material and the polarizing plate; wherein the window is disposed at an upper surface of the resin or OCA; and wherein the display driver is positioned at an upper surface of one side of the layer.