mhurhangee/ep-ind-claims huggingface dataset:
A sub-aqueous capping material for covering contaminated sediment comprising a plurality of compacted particles of a reactive solid material homogeneously mixed with a dispersion aid and being compacted at a pressure of at least 1.03 MPa gauge (150 psig), the compacted particles having a specific gravity greater than 1.0, and a particle size in the range of 1.25 mm to 2.54 cm (1/16 inch to 1 inch), and having a time for disintegration of at least 50% of the particles disintegrating to their pre-compacted particle size, once in contact with water, of 5 hours or less; wherein the dispersion aid includes acrylic copolymers; polysaccharides, preferably starch; lactic acid polyesters; a combination of citric acid and sodium bicarbonate; soy protein; or combinations thereof; or lignosulfonate; amines; water-soluble acrylates; polyvinyl alcohol; or polyethylene glycol; and wherein the reactive solid material is chemically and/or biologically active to reduce or eliminate migration of contaminants from the contaminated sediment.
A debugging method for an integrated circuit device comprising multiple processing cores (102, 104), wherein each processing core (102, 104) comprises an associated program memory and operates independently from other processing cores (102, 104), the method comprising: activating by an emulator logic at a first processor core (102,104) a debugging breakpoint at said first processor core in the integrated circuit device by configuring a breakpoint register, wherein the debugging breakpoint stops execution of instructions in the first processor core; and wherein the breakpoint register comprises a bit for enabling a cross breakpoint which when set causes the first processor core upon occurrence of said debugging breakpoint to communicate a cross breakpoint signal to a second processor core in the integrated circuit device thereby stopping execution of instructions in the second processor core. activating by an emulator logic at a first processor core (102,104) a debugging breakpoint at said first processor core in the integrated circuit device by configuring a breakpoint register, wherein the debugging breakpoint stops execution of instructions in the first processor core; and wherein the breakpoint register comprises a bit for enabling a cross breakpoint which when set causes the first processor core upon occurrence of said debugging breakpoint to communicate a cross breakpoint signal to a second processor core in the integrated circuit device thereby stopping execution of instructions in the second processor core.
A spark gap-based surge protection device for tool-free, snap-on installation on a busbar arrangement, including a housing having a coupling area for mechanically and electrically contacting the busbar arrangement, surge arresters for protecting low-voltage supply systems in accordance with the minimum requirements according to DIN VDE 011-534, which are adapted to be electrically connected to the busbar arrangement by means of elements of the coupling area, configured as spring contacts, characterized in that the surge protection device includes at least one overcurrent-protected voltage tap (7; 8) for supplying power to external devices, in particular an external measuring or control unit, wherein the voltage tap (7; 8) is electrically connected, inside the housing, to the spring contacts or the surge arresters, the overcurrent protector is formed as a replaceable fuse that is integrated at the housing and accessible from the outside, and the housing has a recess or indentation on one side for a feed adapter that is adapted to be plugged on the busbar arrangement immediately adjacently.
Method for franking packages individually supplied, preferably from a stack, on a conveyor line to a franking machine, such as envelopes, mailing bags, sleeves, cards, labels, printed products, or the like, which are removed at the lower side of the stack for separation and which are supplied on the upstream conveyor line to a printing mechanism of the franking machine and after printing are discharged from the franking machine, characterized in that the separated packages are supplied on a conveying portion of the conveyor line via a switch to the franking machine and after printing are returned counter to the supply direction from the printing mechanism of the franking machine via the transposed switch to a depositing device which is arranged therebelow for the printed packages.
A system for supporting efficient packet processing in a network environment, comprising: one or more microprocessors; a plurality of direct memory access, DMA, engines for processing packets in the network environment; a pool of DMA resources associated with the plurality of DMA engines; a thread scheduling engine, running on the one or more microprocessors; a plurality of software threads, wherein said thread scheduling engine operates to assign a thread key to each software thread in the plurality of software threads; a resource manager which allocates an available DMA resource from said pool of DMA resources to said each software thread; and wherein said each software thread operates to request access to the DMA resource in the pool of DMA resources allocated to said each software thread by presenting the thread key assigned to said each software thread. one or more microprocessors; a plurality of direct memory access, DMA, engines for processing packets in the network environment; a pool of DMA resources associated with the plurality of DMA engines; a thread scheduling engine, running on the one or more microprocessors; a plurality of software threads, wherein said thread scheduling engine operates to assign a thread key to each software thread in the plurality of software threads; a resource manager which allocates an available DMA resource from said pool of DMA resources to said each software thread; and wherein said each software thread operates to request access to the DMA resource in the pool of DMA resources allocated to said each software thread by presenting the thread key assigned to said each software thread.
A method of preparing an antimicrobial lens comprising a metal salt, wherein said method comprises the steps of (a) treating a cured lens, with a salt precursor and (b) treating the lens of step (a) with a dispersing agent and a metal agent. (a) treating a cured lens, with a salt precursor and (b) treating the lens of step (a) with a dispersing agent and a metal agent.
A method for calibrating an in-ear headphone comprising: generating, by an integrated circuit, a sound signal and playing the sound signal at a driver of the in-ear headphone when the in-ear headphone is placed within a user's ear canal; receiving, at a first microphone of the in-ear headphone, a reflected sound signal, wherein the reflected sound signal corresponds to the generated sound signal reflected off the user's ear drum; generating, by the integrated circuit, a frequency response based on the reflected sound signal; generating, by the integrated circuit, the user's ear drum response based on the frequency response, wherein generating the user's ear drum response comprises: determining the length of a user's ear canal from the first minimum of the measured frequency response, and estimating a damping coefficient of the user's ear canal; generating, by the integrated circuit, a second sound signal; modifying, by the integrated circuit, the second sound signal based on the user's ear drum response; and playing the modified second sound signal at the driver. generating, by an integrated circuit, a sound signal and playing the sound signal at a driver of the in-ear headphone when the in-ear headphone is placed within a user's ear canal; receiving, at a first microphone of the in-ear headphone, a reflected sound signal, wherein the reflected sound signal corresponds to the generated sound signal reflected off the user's ear drum; generating, by the integrated circuit, a frequency response based on the reflected sound signal; generating, by the integrated circuit, the user's ear drum response based on the frequency response, wherein generating the user's ear drum response comprises: determining the length of a user's ear canal from the first minimum of the measured frequency response, and estimating a damping coefficient of the user's ear canal; determining the length of a user's ear canal from the first minimum of the measured frequency response, and estimating a damping coefficient of the user's ear canal; generating, by the integrated circuit, a second sound signal; modifying, by the integrated circuit, the second sound signal based on the user's ear drum response; and playing the modified second sound signal at the driver.
An acoustic structure comprising a combination of a porous background structure and an acoustic coating, characterized in that the acoustic coating is made of natural fibrous matter, does not contain any binders and is applied by spraying on at least one surface of the porous non-felted background structure, wherein the natural fibrous matter forms a fibre network on top of the holes in the surface of the porous background structure, so that said surface can be made plain.
A timing controller in a display device including a panel on which a plurality of subpixels is disposed, the timing controller comprising: a driver controller configured to control a data driver circuit; and characterised in that it further comprises: a coordinate data generator configured to compare characteristic values corresponding to characteristic sensing signals from predetermined subpixels of the plurality of subpixels with predetermined reference values, and when a difference between the characteristic value of a specific one of the predetermined subpixels and a reference value exceeds a predetermined range, to generate coordinate data of the specific subpixel for recognizing a user manipulation based on the coordinate data, wherein the predetermined subpixels are specific subpixels among the plurality of subpixels in a single frame, wherein the specific subpixels are distributed on the panel of the display device to be stochastically uniform.
A lighting system configured to provide white lighting system light, the lighting system comprising one or more first solid state light sources having a first peak wavelength selected from the range of 380-440 nm and one or more second solid state light sources having a second peak wavelength selected from the range of 430-490 nm, wherein peak lengths of the one or more first light sources and the one or more second light sources differ at least by 15 nm, and further comprising a luminescent material and/or one or more third solid-state light sources having a peak wavelength selected from the range of 660-780 nm, characterized in that the lighting system being configured to provide white lighting system light having a correlated color temperature of at least 1700 K and having a S* value of at least 33 in a first setting of the lighting system, wherein the S* value is defined as S* = 100* 2*A* + B* / W S with A* being the spectral power in the wavelength range of 380-440 nm, B* being the spectral power in the wavelength range of 660-780 nm, and W s being the total spectral power in the wavelength range of 380-780 nm of the white lighting system light, wherein one or more lighting properties, including the spectral power distribution, of the lighting system light are controllable, and the lighting system further being configured to maintain a predetermined S* value of the lighting system light while changing another lighting property of the lighting system light from a first lighting property value to a second lighting property value.
A method of controlling the concentration of water treatment composition in an aqueous system, comprising: (a) introducing into said aqueous system, a water treatment composition comprising at least one pH-sensitive tagged polymer to provide treated water, wherein the pH-sensitive tagged polymer comprises at least one fluorescent monomeric unit derived from a fluorophore having at least one terminal end comprising an olefinic group; (b) extracting a sample of the treated water; (c) measuring a background fluorescence signal of the extracted water; (d) adjusting the pH of the extracted sample to provide a pH adjusted sample having an enhanced fluorescence signal; (e) measuring the enhanced fluorescence signal; (f) determining a concentration of the tagged polymer in the sample using the difference between the fluorescence signals measured in (c) and (e) above; (g) introducing a fresh amount of the water treatment composition into the aqueous system, if the concentration of the tagged polymer determined in (f) is below a selected set point, wherein the water treatment composition controls growth of at least one fouling material in the aqueous system. (a) introducing into said aqueous system, a water treatment composition comprising at least one pH-sensitive tagged polymer to provide treated water, wherein the pH-sensitive tagged polymer comprises at least one fluorescent monomeric unit derived from a fluorophore having at least one terminal end comprising an olefinic group; (b) extracting a sample of the treated water; (c) measuring a background fluorescence signal of the extracted water; (d) adjusting the pH of the extracted sample to provide a pH adjusted sample having an enhanced fluorescence signal; (e) measuring the enhanced fluorescence signal; (f) determining a concentration of the tagged polymer in the sample using the difference between the fluorescence signals measured in (c) and (e) above; (g) introducing a fresh amount of the water treatment composition into the aqueous system, if the concentration of the tagged polymer determined in (f) is below a selected set point,
A connector (30, 40, 53, 62), configured to provide a Peripheral Component Interconnect Express, PCIe, communications interface, wherein the PCIe communications interface is configured to connect a non-volatile memory express, NVMe, storage device and a computer device, and the connector (30, 40, 53, 62) comprises at least a first pin (31, 41), a second pin (32, 42), a third pin (33, 43), and a fourth pin (34, 44); the first pin (31, 41) is configured to indicate an in-service signal of the NVMe storage device; the second pin (32, 42) is configured to indicate a power supply signal of the NVMe storage device; the third pin (33, 43) is configured to indicate a clock signal of the NVMe storage device; the fourth pin (34, 44) is configured to indicate a PCIe port signal of the NVMe storage device; characterized by: the first pin (31, 41), the second pin (32, 42), the third pin (33, 43), and the fourth pin (34, 44) have an equal length; and the connector (30, 40, 53, 62) comprises a first face (30a, 40a) and a second face, a limiting structure is arranged on the first face, the limiting structure is a boss or a groove, and the first pin is located in the middle of the first face. the first pin (31, 41) is configured to indicate an in-service signal of the NVMe storage device; the second pin (32, 42) is configured to indicate a power supply signal of the NVMe storage device; the third pin (33, 43) is configured to indicate a clock signal of the NVMe storage device; the fourth pin (34, 44) is configured to indicate a PCIe port signal of the NVMe storage device; characterized by: the first pin (31, 41), the second pin (32, 42), the third pin (33, 43), and the fourth pin (34, 44) have an equal length; and the connector (30, 40, 53, 62) comprises a first face (30a, 40a) and a second face, a limiting structure is arranged on the first face, the limiting structure is a boss or a groove, and the first pin is located in the middle of the first face. the first pin (31, 41), the second pin (32, 42), the third pin (33, 43), and the fourth pin (34, 44) have an equal length; and the connector (30, 40, 53, 62) comprises a first face (30a, 40a) and a second face, a limiting structure is arranged on the first face, the limiting structure is a boss or a groove, and the first pin is located in the middle of the first face.
A membrane filtration module comprising: a membrane module comprising a plurality of permeable hollow membranes arranged in an elongate bundle and extending between vertical spaced upper and lower headers, and a fluid distribution device extending circumferentially around the bundle at or adjacent the lower header and adapted to removably surround the membranes of the membrane module, said fluid distribution device including a plurality of through-hole openings for distributing a fluid, and being adapted to distribute a flow of the fluid along a surface of the permeable hollow membranes; and wherein the fluid distribution device is a clip formed from two or more detachable inter-engaging clip portions. a membrane module comprising a plurality of permeable hollow membranes arranged in an elongate bundle and extending between vertical spaced upper and lower headers, and a fluid distribution device extending circumferentially around the bundle at or adjacent the lower header and adapted to removably surround the membranes of the membrane module, said fluid distribution device including a plurality of through-hole openings for distributing a fluid, and being adapted to distribute a flow of the fluid along a surface of the permeable hollow membranes; and wherein the fluid distribution device is a clip formed from two or more detachable inter-engaging clip portions.
A method for manufacturing a protective layer against bedsores, characterized in that it comprises steps of forming a mixture, of polymerizing at least partially the mixture to obtain a polymer gel, and of forming a protective layer using the polymer gel, the mixture comprising: 15% of dimethyl-vinyl-terminated polydimethylsiloxane with a viscosity greater than 20,000 mPa.s, 25% of dimethyl-vinyl-terminated polydimethylsiloxane with a viscosity between 200 and 20,000 mPa.s, 45% of trimethyl-terminated polydimethylsiloxane, 12% of trimethylsiloxy-treated pyrogenic silica, and 3% of dimethyl-hydrogen-terminated co-polydimethylsiloxane-polymethyl-hydrogen-siloxane, the polymer gel having at 35°C, when a stress frequency varies between 0 and 100 rd/s, a rigidity or elastic component varying from 11,000 to 20,000 Pa, a viscosity or cushioning component varying from 700 to 8,000 Pa, and a cushioning factor or Tan Delta varying from 0.06 to 0.38. 15% of dimethyl-vinyl-terminated polydimethylsiloxane with a viscosity greater than 20,000 mPa.s, 25% of dimethyl-vinyl-terminated polydimethylsiloxane with a viscosity between 200 and 20,000 mPa.s, 45% of trimethyl-terminated polydimethylsiloxane, 12% of trimethylsiloxy-treated pyrogenic silica, and 3% of dimethyl-hydrogen-terminated co-polydimethylsiloxane-polymethyl-hydrogen-siloxane,
A method of coating a component having a multiple of cooling holes comprising: removing (100,300) at least a portion of a prior coating (30,32) from a component; mapping a location of each of the multiple of cooling holes to generate a map of cooling holes; subsequent to said mapping, applying (108,312,314) a coat (30,32) to the component; subsequent to applying (108,312,314) the coat (30,32) to the component, adjusting the map of cooling holes to account for said coat (30,32) to generate an adjusted map of cooling holes, wherein the adjustment is performed by an algorithm on a computing device that utilizes the map of cooling holes and compensates for the thickness of said coat (30,32) and deformation from the coating process to generate the adjusted map of cooling holes; and re-drilling the multiple of cooling holes in response to the adjusted map of cooling holes. removing (100,300) at least a portion of a prior coating (30,32) from a component; mapping a location of each of the multiple of cooling holes to generate a map of cooling holes; subsequent to said mapping, applying (108,312,314) a coat (30,32) to the component; subsequent to applying (108,312,314) the coat (30,32) to the component, adjusting the map of cooling holes to account for said coat (30,32) to generate an adjusted map of cooling holes, wherein the adjustment is performed by an algorithm on a computing device that utilizes the map of cooling holes and compensates for the thickness of said coat (30,32) and deformation from the coating process to generate the adjusted map of cooling holes; and re-drilling the multiple of cooling holes in response to the adjusted map of cooling holes.
A system for determining the activities of at least one machine (14, 16, 18, 20) which can be used on construction sites and/or in mining and which can change its position and/or make movements with at least one portion, the activities comprising construction site activities or mining activities, the system comprising at least one sensor unit which can be arranged on the at least one machine, and at least one evaluation unit (12, 48), wherein the at least one sensor unit is configured to determine information concerning the at least one machine (14, 16, 18, 20), wherein the information determined by the at least one sensor unit comprises at least one item of information from the following group: position information of the machine, at least one speed value in at least one direction, at least one acceleration value in at least one direction, wherein the at least one evaluation unit (12, 48) is configured to determine at least one activity of the at least one machine (14, 16, 18, 20) on the basis of the information determined by the at least one sensor unit, wherein the at least one evaluation unit (12, 48) is configured to determine information patterns in the information determined by the at least one sensor unit, wherein the at least one evaluation unit is configured to determine an activity of at least one machine (14, 16, 18, 20) on the basis of the determined information patterns. wherein the at least one sensor unit is configured to determine information concerning the at least one machine (14, 16, 18, 20), wherein the information determined by the at least one sensor unit comprises at least one item of information from the following group: position information of the machine, at least one speed value in at least one direction, at least one acceleration value in at least one direction, wherein the at least one evaluation unit (12, 48) is configured to determine at least one activity of the at least one machine (14, 16, 18, 20) on the basis of the information determined by the at least one sensor unit, wherein the at least one evaluation unit (12, 48) is configured to determine information patterns in the information determined by the at least one sensor unit, wherein the at least one evaluation unit is configured to determine an activity of at least one machine (14, 16, 18, 20) on the basis of the determined information patterns.