mhurhangee/ep-ind-claims huggingface dataset:
Process for the continuous preparation of very highly concentrated hydrogen peroxide of concentration c P from aqueous hydrogen peroxide of concentration c E, c E being at least 80 wt.% and c P being greater than c E, comprising suspension crystallisation of the aqueous hydrogen peroxide of concentration c E and after-treatment of the hydrogen peroxide crystals contained in the suspension, characterised in that the after-treatment takes the form of countercurrent washing in a hydraulic or mechanical washing column with a packed crystal bed, and molten hydrogen peroxide of concentration c P is used as the washing medium.
An image having a plurality of optically discernible tactile regions, wherein two adjacent tactile discernible regions (40, 46; 45, 49) have different optical characteristics, a first region (40; 45) of the two adjacent tactile discernible regions having magnetically alignable flakes aligned in a different direction compared to magnetically alignable flakes within the second of said two adjacent tactile discernible regions (46, 49), and the magnetically alignable flakes within the first region having been aligned by an applied magnetic field having a predetermined orientation, characterised in that the orientation of the magnetically alignable flakes in the second region is a result of mechanically impressing the flakes within the second region.
A composition comprising of a water dispersible esterified trimer acid and a block co-polymer wherein; the water dispersible esterified trimer acid is provided by the step of neutralising an esterified trimer acid with a base; and the block co-polymer comprises polyoxyalkylene blocks and the polyoxyalkylene blocks include polyoxypropylene and polyoxyethylene. the water dispersible esterified trimer acid is provided by the step of neutralising an esterified trimer acid with a base; and the block co-polymer comprises polyoxyalkylene blocks and the polyoxyalkylene blocks include polyoxypropylene and polyoxyethylene.
Actuator provided for switching a switching unit and having a display having a display surface and an illumination element, wherein the illumination element is embodied as an LED wherein the light of the LED is guided through a light conductor arranged directly above the LED in the actuated state and wherein a housing guide is disposed within the actuator, in the interior of which a spring element is arranged, characterised in that the light conductor which is fastened to the actuation button is disposed in the interior of the spring element.
A combination of a bearing component and a sensor, wherein: (a) at least a portion of the bearing component is formed from a bearing steel; (b) the sensor comprises a sensor element and a support therefor; (c) at least a portion of the support is formed from a low carbon steel comprising no more than 0.2 wt.% carbon or from nickel or an alloy thereof or from titanium or an alloy thereof; and (d) the bearing component and the support are welded to one another via said respective portions, and wherein nickel or a nickel-containing composition is used in the formation of the weld between said respective portions. (a) at least a portion of the bearing component is formed from a bearing steel; (b) the sensor comprises a sensor element and a support therefor; (c) at least a portion of the support is formed from a low carbon steel comprising no more than 0.2 wt.% carbon or from nickel or an alloy thereof or from titanium or an alloy thereof; and (d) the bearing component and the support are welded to one another via said respective portions, and wherein nickel or a nickel-containing composition is used in the formation of the weld between said respective portions.
A data carrier comprising an at least translucent layer (16-19, 23) defining a see-through portion of the data carrier, said see-through portion having a first side and a second side, and carrying security markings, said see-through portion comprising: - a developer material, and - a filtering material, wherein the security markings are located between the developer material and the filtering material, characterized in that the developer material is able to change the appearance of said security markings such that they appear visible with a specific colour when read from the first side, under specific UV wavelength lighting conditions, and the filtering material is able to filter at least partially said UV wavelength lighting radiations, so that said security markings have another appearance by being hidden from the second side of the see-through portion, which is a different appearance from the appearance readable from the first side, and in that, under visible ambient lighting, said see-through portion appears transparent and said security markings are visible with their original colors from both sides of the see-through portion. - a developer material, and - a filtering material, wherein the security markings are located between the developer material and the filtering material, characterized in that the developer material is able to change the appearance of said security markings such that they appear visible with a specific colour when read from the first side, under specific UV wavelength lighting conditions, and the filtering material is able to filter at least partially said UV wavelength lighting radiations, so that said security markings have another appearance by being hidden from the second side of the see-through portion, which is a different appearance from the appearance readable from the first side, and in that, under visible ambient lighting, said see-through portion appears transparent and said security markings are visible with their original colors from both sides of the see-through portion.
A quantum dot comprising a semiconductor nanocrystal core comprising indium and phosphorus, a semiconductor nanocrystal shell disposed on the semiconductor nanocrystal core, the nanocrystal shell comprising zinc and selenium, and organic compounds disposed on a surface of the quantum dot, the organic compounds comprising a carboxyl group-containing compound and a thiol group-containing compound, wherein the carboxyl group and the thiol group are bound to the surface of the quantum dot, the quantum dot having an emission peak wavelength from 600 nm to 650 nm, or an emission peak wavelength from 500 nm to 550 nm, wherein the quantum dot exhibits an area of a peak from 400 °C to 500 °C that is about 0.17 times to about 0.5 times relative to an area of a peak from 200 °C to 300 °C in a thermogravimetric analysis graph as determined with a differential scanning calorimeter, and wherein the thiol group-containing compound is represented by one or more of Chemical Formulae 1-1, 1-2, and 1-4 to 1-6: wherein, in Chemical Formula 1-1, 1-2, and 1-4 to 1-6, R 1, R 2, and R 4 to R 7 are each independently a substituted or unsubstituted C1 to C10 alkyl group or a substituted or unsubstituted C6 to C20 aryl group, L 1 to L 4 and L 7 to L 16 are each independently a substituted or unsubstituted C1 to C10 alkylene group, and n1, n2, and n4 to n7 are each independently an integer of 0 to 10. a semiconductor nanocrystal core comprising indium and phosphorus, a semiconductor nanocrystal shell disposed on the semiconductor nanocrystal core, the nanocrystal shell comprising zinc and selenium, and organic compounds disposed on a surface of the quantum dot, the organic compounds comprising a carboxyl group-containing compound and a thiol group-containing compound, wherein the carboxyl group and the thiol group are bound to the surface of the quantum dot, the quantum dot having an emission peak wavelength from 600 nm to 650 nm, or an emission peak wavelength from 500 nm to 550 nm, wherein the quantum dot exhibits an area of a peak from 400 °C to 500 °C that is about 0.17 times to about 0.5 times relative to an area of a peak from 200 °C to 300 °C in a thermogravimetric analysis graph as determined with a differential scanning calorimeter, and wherein the thiol group-containing compound is represented by one or more of Chemical Formulae 1-1, 1-2, and 1-4 to 1-6: wherein, in Chemical Formula 1-1, 1-2, and 1-4 to 1-6, R 1, R 2, and R 4 to R 7 are each independently a substituted or unsubstituted C1 to C10 alkyl group or a substituted or unsubstituted C6 to C20 aryl group, L 1 to L 4 and L 7 to L 16 are each independently a substituted or unsubstituted C1 to C10 alkylene group, and n1, n2, and n4 to n7 are each independently an integer of 0 to 10.
A sensor system comprising: a sensor having an exterior surface and an internal matrix comprising at least one sensing complex adapted to sense analytes within aqueous environments; and a hygroscopic composition; wherein: the sensor is substantially free of water; the hygroscopic composition is coupled to one or more regions of the sensor so as to increase the rate of hydration of the sensing complex when the sensor is disposed within an aqueous environment the internal matrix of the sensor comprises air; and the sensor comprises: a gas evolving composition coupled to one or more regions of the sensor and adapted to generate carbon dioxide and force air out of the sensor when the sensor is disposed within the aqueous environment; and a carbon dioxide removing composition coupled to one or more regions of the sensor and adapted to convert the carbon dioxide into soluble bicarbonates and protons capable of diffusing out of the sensor and into the aqueous environment. a sensor having an exterior surface and an internal matrix comprising at least one sensing complex adapted to sense analytes within aqueous environments; and a hygroscopic composition; the sensor is substantially free of water; the hygroscopic composition is coupled to one or more regions of the sensor so as to increase the rate of hydration of the sensing complex when the sensor is disposed within an aqueous environment the internal matrix of the sensor comprises air; and the sensor comprises: a gas evolving composition coupled to one or more regions of the sensor and adapted to generate carbon dioxide and force air out of the sensor when the sensor is disposed within the aqueous environment; and a carbon dioxide removing composition coupled to one or more regions of the sensor and adapted to convert the carbon dioxide into soluble bicarbonates and protons capable of diffusing out of the sensor and into the aqueous environment. a gas evolving composition coupled to one or more regions of the sensor and adapted to generate carbon dioxide and force air out of the sensor when the sensor is disposed within the aqueous environment; and a carbon dioxide removing composition coupled to one or more regions of the sensor and adapted to convert the carbon dioxide into soluble bicarbonates and protons capable of diffusing out of the sensor and into the aqueous environment.
A cross polarization interference canceling method based on a reception local synchronization scheme for canceling interference between main polarization and opposite polarization, comprising the steps of: extracting a first phase noise difference that is phase noise difference between said main polarization and said opposite polarization in a receiver-side local oscillator, by comparing an error signal, that indicates a difference between a demodulated signal that is said main polarization signal in which compensation for cross polarization interference has been made and a received signal which indicates an ideal state of said main polarization, with a cross polarization interference compensating signal that is said opposite polarization signal in which compensation for cross polarization interference has been made; and suppressing a second phase noise difference that is phase noise difference contained in said cross polarization interference compensating signal, by using said first phase noise difference. extracting a first phase noise difference that is phase noise difference between said main polarization and said opposite polarization in a receiver-side local oscillator, by comparing an error signal, that indicates a difference between a demodulated signal that is said main polarization signal in which compensation for cross polarization interference has been made and a received signal which indicates an ideal state of said main polarization, with a cross polarization interference compensating signal that is said opposite polarization signal in which compensation for cross polarization interference has been made; and suppressing a second phase noise difference that is phase noise difference contained in said cross polarization interference compensating signal, by using said first phase noise difference.
LED module with at least one passage opening from a first side of the LED module to a mounting side of the LED module, located opposite the first side, wherein the passage opening is formed in such a way that a screw for fixing the LED module to a mounting element can be inserted into the passage opening from the first side to the mounting side of the LED module, and with a film which, at least in part, is arranged in an adhesive manner on the first side of the LED module, wherein the film has at least one structure which comprises at least one piercing of the film in the area of the at least one passage opening of the LED module characterized in that the structure is formed in such a way that, in order to remove from the passage opening a screw that penetrates the film, has at least in part been inserted into the passage opening of the LED module but not tightened, a force which is greater than the weight of the inserted screw is required.
A looseness-prevention screw thread structure including a screw thread having a predetermined pitch, a no-load flank which is an inclined surface in an axial direction in which the screw thread is advanced, and a load flank which is an inclined surface in a direction in which the screw thread is retracted, the no-load flank and the load flank being formed at both sides of the screw thread, wherein the no-load flank of the screw thread includes: a first tangential portion which is suitable for abutting against an arc portion formed at a thread crest of an opposing fastening object; and a second tangential portion which has a preset angle with respect to the first tangential portion and is suitable for abutting against the arc portion, characterized in that the screw thread is formed to have a dimension that satisfies the international standard, and the first tangential portion has an angle of 5° with respect to an axial line.
A computer-implemented method for processing digital information in which information items are mapped into an N-dimensional map such that similar information items map to similar positions within the map, comprising the steps of - providing at least one information item and - mapping said information item into said N-dimensional map by determining a matching position within the map for the information item, wherein - each information item is represented by a multi-dimensional vector with M components,' characterized in that - the N-dimensional map is represented by a set of M functions of the map position, - each of said M functions is associated with a respective one of the M vector components of the information item, and - each of said M functions has a maximum at one point of the N-dimensional map, wherein the respective function is monotonically decreasing from said maximum in any direction along the N-dimensional map, wherein each information item is a representation of a process state of an automated industrial process, wherein the M components of the multi-dimensional information item are values of pre-defined process parameters, and wherein by mapping said information item to a particular position in said N-dimensional map an anomalous process state is detected. - providing at least one information item and - mapping said information item into said N-dimensional map by determining a matching position within the map for the information item, wherein - each information item is represented by a multi-dimensional vector with M components,' characterized in that - the N-dimensional map is represented by a set of M functions of the map position, - each of said M functions is associated with a respective one of the M vector components of the information item, and - each of said M functions has a maximum at one point of the N-dimensional map, wherein the respective function is monotonically decreasing from said maximum in any direction along the N-dimensional map, wherein each information item is a representation of a process state of an automated industrial process, wherein the M components of the multi-dimensional information item are values of pre-defined process parameters, and wherein by mapping said information item to a particular position in said N-dimensional map an anomalous process state is detected.
An exhaust hanger (10, 110) comprising a body (12, 112) of resilient material, the body defining two sets (14, 16; 114, 116) of suspension openings for receiving hanger rods (18, 20; 24, 26), each set consisting of two spaced suspension openings (14A, 14B; 16A, 16B; 114A, 114B; 116A, 116B); wherein the body (12, 112) also comprises at least one elongate slot (30, 30A, 130) located between the two spaced suspension openings (14A, 14B; 16A, 16B; 114A, 114B; 116A, 116B) of at least one set; and wherein the body (12, 112) also comprises abutment members (32A, 32B; 34A, 34B; 132A, 132B; 134A, 134B) arranged in pairs on opposite sides of the or each slot (30, 30A, 130), said abutment members being configured to mutually engage to limit movement of the suspension openings in either set (14, 16; 114, 116) towards each other in use; wherein the suspension openings extend along parallel axes (AX14A, AX14B), the suspension openings (14A, 14B; 114A, 114B) in the first set (14; 114) being aligned in a first plane (22; 122) and the suspension openings (16A, 16B; 116A, 116B) of the second set (16; 116) being aligned in a second plane (28; 128) different from the first plane; and wherein the first and second planes (22, 122; 28, 128) extend at an angle to one another; characterized in that: the body (12, 112) comprises a first pair of abutment members (32A, 32B; 132A, 132B) aligned on the first plane (22; 122) and a second pair of abutment members (34A, 34B; 134A, 134B) aligned on the second plane (28; 128). the body (12, 112) comprises a first pair of abutment members (32A, 32B; 132A, 132B) aligned on the first plane (22; 122) and a second pair of abutment members (34A, 34B; 134A, 134B) aligned on the second plane (28; 128).
A method of manufacturing a roller bearing, in which a plurality of rollers are interposed between an inner ring raceway and an outer ring raceway, and a crowning (13b,13c) is formed on at least one of the inner ring raceway the outer ring raceway, and a roller rolling contact surface, the roller bearing, the method comprising forming the crowning such that: an optimal value z m [ μm] of a drop amount of the crowning at an end of an effective length is determined using Expression, below, from a diameter d[mm] of a roller and. an effective length L[mm] of the roller; with a center of the effective length of the roller as a point of origin, when a bus-line direction position is made dimensionless by being divided by L/2, and the drop amount of the crowning (13b, 13c) is made dimensionless by being divided by z m, drop amounts of the crowning at a plurality of positions in a bus-line direction of the crowning (13b, 13c) are within an allowable range described in Table 1, below, [Expression 1] 0.40 d + L + 0.66 ≤ z m ≤ 0.46 d + L + 1,03 [Table 1] Bus-line Direction Position (Dimensionless Amount) Allowable Range of Drop Amount (Dimensionless Amount) ±0.7 0-0.1 ±0.9 0.6∼0.8 ±1.0 1.25∼1.75 an optimal value z m [ μm] of a drop amount of the crowning at an end of an effective length is determined using Expression, below, from a diameter d[mm] of a roller and. an effective length L[mm] of the roller; with a center of the effective length of the roller as a point of origin, when a bus-line direction position is made dimensionless by being divided by L/2, and the drop amount of the crowning (13b, 13c) is made dimensionless by being divided by z m, drop amounts of the crowning at a plurality of positions in a bus-line direction of the crowning (13b, 13c) are within an allowable range described in Table 1, below, [Expression 1] 0.40 d + L + 0.66 ≤ z m ≤ 0.46 d + L + 1,03 [Table 1] Bus-line Direction Position (Dimensionless Amount) Allowable Range of Drop Amount (Dimensionless Amount) ±0.7 0-0.1 ±0.9 0.6∼0.8 ±1.0 1.25∼1.75
Survey system comprising: an antenna configured for receiving at least one positioning signal; a sensor configured for at least one of: determining whether the antenna is in a static state, and producing information based on which a determination as to whether the antenna is in a static state can be made; a control unit configured for, if the antenna is determined to be in a static state, obtaining a positioning measurement based on the at least one positioning signal; and a survey pole to which the antenna is attached in such a manner that, when the antenna is in a static state, the survey pole is also in a static state; wherein the determination as to whether the antenna is in a static state is independent from whether the survey pole nears a vertical position or not; and characterized in that the survey system is configured for using data from the sensor to retrieve the survey pole's attitude, and correcting the positioning measurement using the retrieved attitude and a length of the survey pole if the survey pole is not vertically oriented. an antenna configured for receiving at least one positioning signal; a sensor configured for at least one of: determining whether the antenna is in a static state, and producing information based on which a determination as to whether the antenna is in a static state can be made; determining whether the antenna is in a static state, and producing information based on which a determination as to whether the antenna is in a static state can be made; a control unit configured for, if the antenna is determined to be in a static state, obtaining a positioning measurement based on the at least one positioning signal; and a survey pole to which the antenna is attached in such a manner that, when the antenna is in a static state, the survey pole is also in a static state; wherein the determination as to whether the antenna is in a static state is independent from whether the survey pole nears a vertical position or not; and characterized in that the survey system is configured for using data from the sensor to retrieve the survey pole's attitude, and correcting the positioning measurement using the retrieved attitude and a length of the survey pole if the survey pole is not vertically oriented.