mhurhangee/ep-ind-claims huggingface dataset:
A high oxygen permeable ionomer the ionomer having an equivalent weight of 250-930 and a glass transition temperature (Tg) of 100-130°C, comprising: 1) 5-21 mol-%, relative to all repeating units, of a repeating unit A which is at least one unit selected from a repeating unit of formula wherein m3 is an integer of 2-6: and a repeating unit of formula: wherein Y 41 each independently is F or -CF 3, n4 is 1 or 2, and m4 is an integer of 1-3; 2) 16-45 mol-%, relative to all repeating units, of a repeating unit B of the formula: wherein Z 5 is H, an alkali metal, an alkaline-earth metal or NR 51 R 52 R 53 R 54, wherein R 51 -R 54 each independently are H or C 1-3 -alkyl; and 3) 50-78 mol-%, relative to all repeating units, of a repeating unit C that is -CF 2 -CF 2 -; wherein EW is determined by immersing 2-20 cm 2 of a polymer electrolyte membrane containing an ion exchange group having a proton as a counter ion in 30 ml of a saturated aqueous NaCl solution and stirring for 30 minutes at 25°C, neutralizing by titration with 0.01 N aqueous NaOH using phenolphthalein as an indicator, rinsing the neutralized membrane with pure water, drying under reduced pressure and weighing the membrane, and determining EW from the equation EW (g/eq) = (W/M)-22, wherein M is the amount (mmol) of NaOH used for the neutralization and W is the weight (mg) of the membrane in the weighing step; and Tg is determined by measuring a membrane sample having a size of a grasp length of 20 mm and a width of 5 mm with a dynamic viscoelasticity measuring device DVA-225 using a temperature profile of heating from room temperature to 300°C at 5°C/min., and taking the measured α-dispersion temperature as Tg. 1) 5-21 mol-%, relative to all repeating units, of a repeating unit A which is at least one unit selected from a repeating unit of formula wherein m3 is an integer of 2-6: and a repeating unit of formula: wherein Y 41 each independently is F or -CF 3, n4 is 1 or 2, and m4 is an integer of 1-3; 2) 16-45 mol-%, relative to all repeating units, of a repeating unit B of the formula: wherein Z 5 is H, an alkali metal, an alkaline-earth metal or NR 51 R 52 R 53 R 54, wherein R 51 -R 54 each independently are H or C 1-3 -alkyl; and 3) 50-78 mol-%, relative to all repeating units, of a repeating unit C that is -CF 2 -CF 2 -;
A self-adjusting supporting head, comprising a vehicle body lifting column and a load-bearing detection device arranged on the vehicle body lifting column, the load-bearing detection device comprises a spring supporting plate, a spring, a limiting switch tip, a load limiting switch and a floating load-bearing adjusting device, the floating load-bearing adjusting device is mounted at the top of the vehicle body lifting column and the spring supporting plate is arranged below the floating load-bearing adjusting device, the spring is mounted on the periphery of the spring supporting plate, the upper end of the limiting switch tip is connected to the spring supporting plate and on the low end side is provided with a load limiting switch, wherein the floating load-bearing adjusting device comprises a floating load-bearing block, a floating load-bearing mounting base and a floating connector, the floating load-bearing block is mounted at the upper end of the vehicle body lifting column, the floating load-bearing block mounting base is mounted below the floating load-bearing block, the floating load-bearing block is connected with the floating load-bearing block mounting base by a floating connector, a floating gap is formed by the floating connector between the floating load-bearing block and the floating load-bearing block mounting base; the upper portion of the floating load-bearing block mounting base is provided with a cylindrical hole, and the cylindrical hole is of a two-stage step-type structure from top to bottom, including a first step and a second step, the first step is used to restrict the downward movement of the spring supporting plate, and the second step is used to restrict the downward movement of the spring; characterized in that, the floating load-bearing block is in spherical fit with the floating load-bearing block mounting base, and the floating load-bearing adjusting device is further provided with a stop block, the stop block is fixed on the floating load-bearing block, the bottom part of the stop block is probed into the interior of the cylindrical hole, and a stop block movement gap is provided between the bottom part of the stop block and the cylindrical hole; the spring supporting plate is located below the stop block.
Emulsion paint comprising, in each case based on the total weight of the emulsion paint, a. 1 to 15 wt.% pigment, b. 30 to 60 wt.% filler, c. 1 to 25 wt.% polymer, d. 0.1 to 3.5 wt.% alkali metal alkyl siliconate, e. 0.005 to 3 wt.% xonotlite and/or ettringite, f. 25 to 70 wt.% water, wherein the pH of the emulsion paint is from 10 to 12. a. 1 to 15 wt.% pigment, b. 30 to 60 wt.% filler, c. 1 to 25 wt.% polymer, d. 0.1 to 3.5 wt.% alkali metal alkyl siliconate, e. 0.005 to 3 wt.% xonotlite and/or ettringite, f. 25 to 70 wt.% water,
A method of performing scattering microscopy, the method comprising imaging an object comprising a surface with a scattering microscope including a light source arranged to emit illuminating light and a light detector, the microscope being arranged to illuminate an object with the illuminating light and to detect light elastically scattered from the object with the light detector, the method further comprising applying an electrical potential to the surface that affects the electrochemical properties of the object while imaging the object, characterised in that the object is being selected not to have a plasmon resonance frequency at the wavelengths of the illuminating light and at the applied electrical potential. the method comprising imaging an object comprising a surface with a scattering microscope including a light source arranged to emit illuminating light and a light detector, the microscope being arranged to illuminate an object with the illuminating light and to detect light elastically scattered from the object with the light detector, the method further comprising applying an electrical potential to the surface that affects the electrochemical properties of the object while imaging the object, characterised in that the object is being selected not to have a plasmon resonance frequency at the wavelengths of the illuminating light and at the applied electrical potential.
A method in a communication system using an embedded operation channel, eoc, and a robust management channel, RMC, different from the embedded operation channel, comprising: at a transceiver, detecting a failure of at least a robust management channel, RMC, in a first communication direction from a further transceiver to the transceiver, and transmitting, by the transceiver, a robust management channel restoration, RMCR, command via a robust management channel in a second communication direction from the transceiver to the further transceiver in response to detecting the failure. at a transceiver, detecting a failure of at least a robust management channel, RMC, in a first communication direction from a further transceiver to the transceiver, and transmitting, by the transceiver, a robust management channel restoration, RMCR, command via a robust management channel in a second communication direction from the transceiver to the further transceiver in response to detecting the failure.
Method for controlling rotation of a winding spool onto which an optical fiber is wound in a proof-testing machine, said optical fiber being guided in the proof-testing machine at a given line speed from an input pulling device to an output pulling device, then to the winding spool, said input and output pulling device being arranged to subject said optical fiber to a predetermined tensile stress, the winding spool having a rotational speed servo-controlled on the given line speed, the method comprising: - upon detection of a break between an output point of the input pulling device and between an input point of the output pulling device, controlling the rotational speed of the winding spool to bring it to a complete stop, - between an output point of the output pulling device and an input point of the winding spool, passing said optical fiber in a fiber accumulation zone adapted to accumulate a predetermined fiber length (L CD) preventing an fiber broken end resulting from the break going beyond the input point of the winding spool, the method being characterized in that said controlling comprises: - upon detection of a break by a first sensor, changing the rotational speed of the winding spool by triggering a first deceleration; - upon detection of a passage of the fiber broken end by a second sensor, changing the rotational speed of the winding spool by triggering a second deceleration, which overrules the first deceleration until the complete stop of the winding spool; and in that said predetermined fiber length (L CD) is superior or equal to a distance travelled by the broken end from the instant of detection of the passage detected by the second sensor until the complete stop of the winding spool. - upon detection of a break between an output point of the input pulling device and between an input point of the output pulling device, controlling the rotational speed of the winding spool to bring it to a complete stop, - between an output point of the output pulling device and an input point of the winding spool, passing said optical fiber in a fiber accumulation zone adapted to accumulate a predetermined fiber length (L CD) preventing an fiber broken end resulting from the break going beyond the input point of the winding spool, - upon detection of a break by a first sensor, changing the rotational speed of the winding spool by triggering a first deceleration; - upon detection of a passage of the fiber broken end by a second sensor, changing the rotational speed of the winding spool by triggering a second deceleration, which overrules the first deceleration until the complete stop of the winding spool;
A chip module comprising a chip and a chip support, the chip being held to the chip support, the chip module being configured for insertion into a recess in a support body of a data carrier so that an outer face of this chip module is parallel to an outer face of this support body, characterised in that an active face of the chip and an outer face of the chip support are angled one with respect to the other by between 1 and 15 degrees.
A method for the production of a fire resistant laminated glazing comprising a silicate based interlayer which comprises pouring a solution of an alkali metal silicate into a cavity formed between two opposed transparent panes and allowing the solution to cure without drying which is characterised in that the aforesaid solution further comprises a polyvalent metal compound.
Method for mechanically classifying polycrystalline silicon chunks or granules with a vibratory screening machine, by setting silicon chunks or granules present on one or more screens each comprising a screen lining in vibration such that the silicon chunks or silicon granules perform a movement which causes the silicon chunks or silicon granules to be separated into various size classes, characterized in that a gravity screening machine is used and the screening index (Kv) is greater than or equal to 1.6 and less than or equal to 3.0, wherein the screening index (Kv) is defined as the ratio of the acceleration generated by the screening motion to the acceleration due to gravity vertical to the screening plane, and by the following formula: K v = r * ω 2 * sin α + β / g * cos β; where r: amplitude of vibration; ω: angular velocity; α: throwing angle; β angle of screen inclination; g: gravitational constant. r: amplitude of vibration; ω: angular velocity; α: throwing angle; β angle of screen inclination; g: gravitational constant.
A consolidated nonwoven consolidated by treatment with an aqueous binder composition comprising: - a polymer P, - a polyvinyl alcohol, - optional a starch compound S and - optional at least one metal compound M selected from the group consisting of magnesium, calcium and zinc, in the form of an oxide, hydroxide, carbonate or bicarbonate, wherein the polymer P is obtainable by free radical aqueous emulsion polymerization of a monomer mixture of 75 to 99 % by weight of one or more monomers a) selected from the group consisting of esters of acrylic and/or methacrylic acid with alkanols of 1 to 12 carbon atoms, aliphatic conjugated diene and aromatic vinyl compound, 1 to 25 % by weight of one or more monomers b) selected from the group consisting of N-methylolacrylamide, N-methylolmethacrylamide, glycidyl methacry-late and carboxylic acid-functional ethylenically unsaturated monomers, and ≥0 to 15 % by weight of one or more further ethylenically unsaturated monomer c) different from any of monomers a) and b), wherein the amounts of monomers a) to c) sum to 100 wt%. - a polymer P, - a polyvinyl alcohol, - optional a starch compound S and - optional at least one metal compound M selected from the group consisting of magnesium, calcium and zinc, in the form of an oxide, hydroxide, carbonate or bicarbonate,
An exhaust valve rocker arm assembly operable in a combustion engine mode and an engine braking mode, the exhaust valve rocker arm assembly comprising: a rocker shaft that defines a pressurized oil supply conduit; a rocker arm that receives the rocker shaft and is configured to rotate around the rocker shaft, the rocker arm having an oil supply passage and an accumulator piston housing defined therein; a valve bridge that engages a first exhaust valve and a second exhaust valve; a hydraulic lash adjuster assembly disposed on the rocker arm having a first plunger body movable between a first position and a second position, wherein in the first position, the first plunger body extends rigidly for cooperative engagement with the valve bridge; a check valve disposed on the rocker arm and having an actuator that selectively releases pressure in the hydraulic lash adjuster assembly; wherein the check valve is disposed between the first and a second plunger body of the hydraulic lash adjuster assembly; and an accumulator assembly disposed in the rocker arm and including an accumulator piston that translates within the accumulator piston housing between closed and open positions, the accumulator assembly configured to store a predetermined amount of oil when the first plunger body moves toward the first position. a rocker shaft that defines a pressurized oil supply conduit; a rocker arm that receives the rocker shaft and is configured to rotate around the rocker shaft, the rocker arm having an oil supply passage and an accumulator piston housing defined therein; a valve bridge that engages a first exhaust valve and a second exhaust valve; a hydraulic lash adjuster assembly disposed on the rocker arm having a first plunger body movable between a first position and a second position, wherein in the first position, the first plunger body extends rigidly for cooperative engagement with the valve bridge; a check valve disposed on the rocker arm and having an actuator that selectively releases pressure in the hydraulic lash adjuster assembly; wherein the check valve is disposed between the first and a second plunger body of the hydraulic lash adjuster assembly; and an accumulator assembly disposed in the rocker arm and including an accumulator piston that translates within the accumulator piston housing between closed and open positions, the accumulator assembly configured to store a predetermined amount of oil when the first plunger body moves toward the first position.
A method of phase error estimation and correction for a receiver, the method comprising: receiving a signal in time domain, wherein the signal is generated by repeating a length L sequence, R times to form the time-domain signal which is of length N, the time-domain signal of length N being received within a symbol; filtering the received signal to obtain a time-domain reference signal; estimating a phase error using a correlation between sections within the symbol associated with the time-domain reference signal, the correlation being used for the phase error estimation, wherein each section corresponds to each one of the sequences of length L; and correcting the phase error on a cycle of L. receiving a signal in time domain, wherein the signal is generated by repeating a length L sequence, R times to form the time-domain signal which is of length N, the time-domain signal of length N being received within a symbol; filtering the received signal to obtain a time-domain reference signal; estimating a phase error using a correlation between sections within the symbol associated with the time-domain reference signal, the correlation being used for the phase error estimation, wherein each section corresponds to each one of the sequences of length L; and correcting the phase error on a cycle of L.
An electronic device comprising: an input sensing module comprising: a flexible circuit board (601; 935; 1110; 1210), at least one fingerprint recognition sensor (2591; 710) and at least one touch sensor (2593; 720) each electrically connected to the flexible circuit board, and an input processor (630; 730; 830; 930; 1120; 1220) configured to receive and process an input from the at least one fingerprint recognition sensor and the at least one touch sensor through the flexible circuit board, the at least one fingerprint recognition sensor being mounted in an upper portion of the input processor; a mounting structure in which the input sensing module is mounted; and a support structure that has space to house the mounting structure and that is located within the electronic device, wherein the mounting structure comprises: a casing (920; 1130; 1230) that mounts the input processor, a circumferential edge portion (950; 1150) physically divided from the casing and disposed to enclose a side surface of the input processor of the input sensing module, and a cover glass stacked in an upper portion of the input sensing module. an input sensing module comprising: a flexible circuit board (601; 935; 1110; 1210), at least one fingerprint recognition sensor (2591; 710) and at least one touch sensor (2593; 720) each electrically connected to the flexible circuit board, and an input processor (630; 730; 830; 930; 1120; 1220) configured to receive and process an input from the at least one fingerprint recognition sensor and the at least one touch sensor through the flexible circuit board, the at least one fingerprint recognition sensor being mounted in an upper portion of the input processor; a flexible circuit board (601; 935; 1110; 1210), at least one fingerprint recognition sensor (2591; 710) and at least one touch sensor (2593; 720) each electrically connected to the flexible circuit board, and an input processor (630; 730; 830; 930; 1120; 1220) configured to receive and process an input from the at least one fingerprint recognition sensor and the at least one touch sensor through the flexible circuit board, the at least one fingerprint recognition sensor being mounted in an upper portion of the input processor; a mounting structure in which the input sensing module is mounted; and a support structure that has space to house the mounting structure and that is located within the electronic device, wherein the mounting structure comprises: a casing (920; 1130; 1230) that mounts the input processor, a circumferential edge portion (950; 1150) physically divided from the casing and disposed to enclose a side surface of the input processor of the input sensing module, and a cover glass stacked in an upper portion of the input sensing module. a casing (920; 1130; 1230) that mounts the input processor, a circumferential edge portion (950; 1150) physically divided from the casing and disposed to enclose a side surface of the input processor of the input sensing module, and a cover glass stacked in an upper portion of the input sensing module.
A method to automatically select an optimal PCI value to be configured at a cell belonging to a network of cells, using a radio environment map, wherein the geographic area over which the cells are deployed is split into a set of Level 1-Radio Blocks, wherein the size of a Level 1-Radio Block is based on the average transmission power of cells deployed, wherein a pool of PCIs is pre-allocated for each Level 1-Radio Block, wherein said cell is associated with a specific Level 1-Radio Block based on its geographical location and its radio coverage footprint, composed of one the following two operations: i. for each PCI in the pool of PCIs of the Level 1-Radio Block associated with said cell, computation of a handicap value, incremented for each constraint that is not satisfied between this PCI and the PCI configured at a neighbor cell, and addition of this handicap value to the "totalPCIHandicap" value associated with this PCI, followed by the selection of the PCI whose associated "totalPCIHandicap" value is the smallest, or, ii. for each PCI in the pool of PCIs of the Level 1-Radio Block associated with said cell, addition of the PCI to a "PCI candidates" list each time all the constraints between this PCI and the PCI configured at a neighbor cell are satisfied, followed by the selection of the PCI that appears the most frequently within this "PCI candidates" list. i. for each PCI in the pool of PCIs of the Level 1-Radio Block associated with said cell, computation of a handicap value, incremented for each constraint that is not satisfied between this PCI and the PCI configured at a neighbor cell, and addition of this handicap value to the "totalPCIHandicap" value associated with this PCI, followed by the selection of the PCI whose associated "totalPCIHandicap" value is the smallest, or, ii. for each PCI in the pool of PCIs of the Level 1-Radio Block associated with said cell, addition of the PCI to a "PCI candidates" list each time all the constraints between this PCI and the PCI configured at a neighbor cell are satisfied, followed by the selection of the PCI that appears the most frequently within this "PCI candidates" list.