mhurhangee/ep-ind-claims huggingface dataset:
A studless winter tire comprising: a cap tread formed from a rubber composition A; and a base tread formed from a rubber composition B, wherein the studless winter tire satisfies the following formulas and: a × c / 100 < b × d / 100; and a ≥ 8 wherein a represents the softener content (% by mass) based on 100% by mass of the rubber composition A; b represents the softener content (% by mass) based on 100% by mass of the rubber composition B; c represents the percentage by mass (% by mass) of the cap tread based on the entire tread; and d represents the percentage by mass (% by mass) of the base tread based on the entire tread. a cap tread formed from a rubber composition A; and a base tread formed from a rubber composition B, wherein the studless winter tire satisfies the following formulas and: a × c / 100 < b × d / 100; and a ≥ 8 wherein a represents the softener content (% by mass) based on 100% by mass of the rubber composition A; b represents the softener content (% by mass) based on 100% by mass of the rubber composition B; c represents the percentage by mass (% by mass) of the cap tread based on the entire tread; and d represents the percentage by mass (% by mass) of the base tread based on the entire tread. wherein a represents the softener content (% by mass) based on 100% by mass of the rubber composition A; b represents the softener content (% by mass) based on 100% by mass of the rubber composition B; c represents the percentage by mass (% by mass) of the cap tread based on the entire tread; and d represents the percentage by mass (% by mass) of the base tread based on the entire tread.
Modular lighting system for attachment to a surface comprising a) at least two lighting modules with at least one solid-state lighting unit each, b) a mounting platform which is fastened to the surface for detachably mounting the lighting modules, c) an electrical power supply to supply the lighting modules, d) a switching and/or control unit to switch and/or control the lighting modules, e) a communication means (42, 46) for each lighting module which links the lighting modules and permits them to communicate with each other, whereby f) upon detection of an error in a lighting module, adjacent lighting modules assume the task of supplying light and/or power and/or switching or controlling the lighting module, characterized in that g) the solid-state lighting unit has an external light source and is designed as a light guide which is supplied with light from an external light source, and h) a touch-sensitive sensor which completely or partially covers the lighting module, whereby the touch-sensitive sensor is designed to be transparent and diffuse scattering. a) at least two lighting modules with at least one solid-state lighting unit each, b) a mounting platform which is fastened to the surface for detachably mounting the lighting modules, c) an electrical power supply to supply the lighting modules, d) a switching and/or control unit to switch and/or control the lighting modules, e) a communication means (42, 46) for each lighting module which links the lighting modules and permits them to communicate with each other, whereby f) upon detection of an error in a lighting module, adjacent lighting modules assume the task of supplying light and/or power and/or switching or controlling the lighting module, characterized in that g) the solid-state lighting unit has an external light source and is designed as a light guide which is supplied with light from an external light source, and h) a touch-sensitive sensor which completely or partially covers the lighting module, whereby the touch-sensitive sensor is designed to be transparent and diffuse scattering.
A pipe comprising high density polyethylene blend, comprising 55 to 95 wt% of a high density multimodal polyethylene component having a density of at least 940 kg/m 3 when measured according to ISO 1183-1:2004 method A, and 5 to 45 wt% of an ultra-high molecular weight polyethylene homopolymer having a nominal viscosity molecular weight Mv of 1,500,000 to 4,000,000 g/mol (UHMW polyethylene) when measured according to ASTM D 4020 - 05; wherein components and are different; and wherein said blend has an MFR 21 of 10.0 g/10min or less when measured according to ISO 1133 at 190 °C under 21.6 kg load, and a density of at least 940 kg/m 3. 55 to 95 wt% of a high density multimodal polyethylene component having a density of at least 940 kg/m 3 when measured according to ISO 1183-1:2004 method A, and 5 to 45 wt% of an ultra-high molecular weight polyethylene homopolymer having a nominal viscosity molecular weight Mv of 1,500,000 to 4,000,000 g/mol (UHMW polyethylene) when measured according to ASTM D 4020 - 05; wherein components and are different; and wherein said blend has an MFR 21 of 10.0 g/10min or less when measured according to ISO 1133 at 190 °C under 21.6 kg load, and a density of at least 940 kg/m 3.
A phase analyzer comprising: a data acquisition unit that is arranged to acquire spectrum imaging data in which a position on a sample is associated with a spectrum of a signal from the sample; a candidate determination unit that is arranged to perform multivariate analysis on the spectrum imaging data to obtain a priority of the number of phases and to determine a plurality of candidates for the number of phases based on the priority of the number of phases; a phase analysis unit that is arranged to create a plurality of phase map groups by creating a phase map group including a number of phase maps corresponding to the number of phases for each of the candidates for the number of phases; and a display control unit that is arranged to cause a display unit to display the plurality of phase map groups in descending order of priority of the number of phases, wherein when the user selects one phase map group from a plurality of phase map groups on the display unit, the display control unit is arranged to display the selected phase map group on a screen for analyzing and editing. a data acquisition unit that is arranged to acquire spectrum imaging data in which a position on a sample is associated with a spectrum of a signal from the sample; a candidate determination unit that is arranged to perform multivariate analysis on the spectrum imaging data to obtain a priority of the number of phases and to determine a plurality of candidates for the number of phases based on the priority of the number of phases; a phase analysis unit that is arranged to create a plurality of phase map groups by creating a phase map group including a number of phase maps corresponding to the number of phases for each of the candidates for the number of phases; and a display control unit that is arranged to cause a display unit to display the plurality of phase map groups in descending order of priority of the number of phases, wherein when the user selects one phase map group from a plurality of phase map groups on the display unit, the display control unit is arranged to display the selected phase map group on a screen for analyzing and editing.
Method for processing a temperature signal (T S) supplied by a temperature sensor, the method comprising: receiving a temperature signal (T S) sensed by the temperature sensor, compensating the sensed signal (T S) for heat emitted by one or more heat emitting components thermally coupled to the sensor, to obtain a heat compensated signal (T COMP), adjusting the heat compensated signal (T COMP) in its dynamics, and providing the dynamics adjusted, heat compensated sensor signal (T COMP,ACC), wherein: the sensed temperature signal (T S) is compensated, in response to a power-on of the one or more components, for a heat contribution varying over time (T He-atUp) as expected in the event of a cold start of such components; and the compensated signal (T COMP) is adjusted in its dynamics by compensating the compensated signal (T COMP) for a dissipation of residual heat originating from a previous power-on period of the one or more components. receiving a temperature signal (T S) sensed by the temperature sensor, compensating the sensed signal (T S) for heat emitted by one or more heat emitting components thermally coupled to the sensor, to obtain a heat compensated signal (T COMP), adjusting the heat compensated signal (T COMP) in its dynamics, and providing the dynamics adjusted, heat compensated sensor signal (T COMP,ACC), the sensed temperature signal (T S) is compensated, in response to a power-on of the one or more components, for a heat contribution varying over time (T He-atUp) as expected in the event of a cold start of such components; and the compensated signal (T COMP) is adjusted in its dynamics by compensating the compensated signal (T COMP) for a dissipation of residual heat originating from a previous power-on period of the one or more components.
A method for the selective non-catalytic reduction SNCR of NO x of process gas in industrial cement production systems, characterized in that it comprises the following steps: - tapping a flow of gas to be treated from any point of the cement production system in which said gas has a temperature comprised between 180°C and 800°C; - conveying said flow of gas to a filtering element adapted to separate possible solid particles from the gaseous current; - conveying the clean gas let out from said filtering element to a reactor in which a reactant in form of aqueous solution is injected; - atomizing aqueous solution containing the reactant by introducing into the gas to be treated, thus obtaining the simultaneous, immediate evaporation of water and gasification of the reactant; - reintroducing the flow (Q 1) of gas containing the reactant also in gaseous state into a preheater of said industrial cement production system into a zone with gas temperature comprised between 750 and 1100°C. - tapping a flow of gas to be treated from any point of the cement production system in which said gas has a temperature comprised between 180°C and 800°C; - conveying said flow of gas to a filtering element adapted to separate possible solid particles from the gaseous current; - conveying the clean gas let out from said filtering element to a reactor in which a reactant in form of aqueous solution is injected; - atomizing aqueous solution containing the reactant by introducing into the gas to be treated, thus obtaining the simultaneous, immediate evaporation of water and gasification of the reactant; - reintroducing the flow (Q 1) of gas containing the reactant also in gaseous state into a preheater of said industrial cement production system into a zone with gas temperature comprised between 750 and 1100°C.
Rotor bearing for an open-end spinning device, comprising two support disc pairs, the support discs (40, 41, 42, 43, 47, 48) of which are arranged respectively in such a way that they form a wedge gap, and a spinning rotor with a rotor shaft, which is mounted in the wedge gap, each of the support discs (40, 41, 42, 43, 47, 48) comprising a base body, characterised in that a respective rolling bearing (45, 49, 49A, 49B) is arranged in the base bodies, the rotor bearing has fixed bearing bolts (50, 51, 52, 53) and each of the rolling bearings (45, 49, 49A, 49B) are applied on a bearing bolt (50, 51, 52, 53).
An acoustic interface for a device such as an alarm device, the acoustic interface comprising a vibratory element, and a drive circuit (8, 5) with a processor for delivering drive electrical control signals to the element to cause it to vibrate and generate a sound signal with encoded binary data, wherein the vibrating element has a natural frequency, characterized in that, the control signals are frequency encoded with pulses having pulse widths (t p) which are shorter than the vibrating element natural frequency period (1/f N) and a frequency which is greater than said natural frequency.
Luggage-type baggage article, comprising at least two half-shells (9, 10) as well as an extendable and retractable handle mechanism which is at least partly housed in one of the half-shells and which is configured to lock/unlock a handle of the article in a position selected from a plurality of extension positions of the handle relative to the half-shells, by rotation of a grip portion of the handle; characterized in that the extendable and retractable handle mechanism comprises a handle axle to which is mechanically connected the rotatable grip portion, at least one sheath mounted to be fixed in one of the half-shells, at least one elongate member of specific cross-section mounted to be translationally movable relative to the sheath, and at least one locking/unlocking system mechanically connected to said at least one elongate member of specific cross-section, housed at least partly in said at least one sheath and configured to be actuated by the handle axle, said at least one locking/unlocking system comprising at least one bushing and being configured, in a first position of the grip portion and of the handle axle, to compress said at least one bushing such that the latter is tightly applied against an inside face of said at least one sheath to keep said at least one elongate member of specific cross-section fixed relative to said at least one sheath, so locking the handle in the selected position and being configured, in a second position of the grip portion and of the handle axle obtained by rotation of the grip portion, to decompress said at least one bushing such that the latter enables free sliding of said at least one elongate member of specific cross-section in said at least one sheath, so unlocking the handle.
A disaster prevention device (10; 10A; 10B), comprising: a circuit block; and a housing (50; 50A; 50B) having a front wall (61; 610) and a rear wall (71; 71A), the housing (50; 50A; 50B) accommodating the circuit block between the front wall (61; 610) and the rear wall (71; 71A), characterized in that the front wall (61; 610) has one surface which faces an outer side of the housing (50; 50A; 50B), the rear wall (71; 71A) is configured to be fixed to a mounting surface, at least one of the front wall (61; 610) or the rear wall (71; 71A) has a recess (63, 73; 630) in a surface of the at least one of the front wall (61; 610) or the rear wall (71; 71A) such that the at least one of the front wall (61; 610) or the rear wall (71; 71A) has a partially reduced thickness, the surface facing an inner side of the housing (50; 50A; 50B), and the circuit block has a part (22a, 40) located in the recess (63,73;630), the at least one of the front wall (61; 610) or the rear wall (71; 71A) has a prescribed part (61a, 71a; 610a) forming the recess (63, 73; 630) and a peripheral part (61b, 71b; 610b) surrounding the prescribed part (61a, 71a; 610a), and the prescribed part (61a, 71a; 610a) is thinner than the peripheral part (61b, 71b; 610b). a circuit block; and a housing (50; 50A; 50B) having a front wall (61; 610) and a rear wall (71; 71A), the housing (50; 50A; 50B) accommodating the circuit block between the front wall (61; 610) and the rear wall (71; 71A), characterized in that the front wall (61; 610) has one surface which faces an outer side of the housing (50; 50A; 50B), the rear wall (71; 71A) is configured to be fixed to a mounting surface, at least one of the front wall (61; 610) or the rear wall (71; 71A) has a recess (63, 73; 630) in a surface of the at least one of the front wall (61; 610) or the rear wall (71; 71A) such that the at least one of the front wall (61; 610) or the rear wall (71; 71A) has a partially reduced thickness, the surface facing an inner side of the housing (50; 50A; 50B), and the circuit block has a part (22a, 40) located in the recess (63,73;630), the at least one of the front wall (61; 610) or the rear wall (71; 71A) has a prescribed part (61a, 71a; 610a) forming the recess (63, 73; 630) and a peripheral part (61b, 71b; 610b) surrounding the prescribed part (61a, 71a; 610a), and the prescribed part (61a, 71a; 610a) is thinner than the peripheral part (61b, 71b; 610b).
A system for hot tapping a plurality of nested pipes (50,60,70,80) including an exterior pipe, a bore, and at least one interior pipe contained within the bore, each of the pipes having an exterior surface, the system comprising: (a) a hot tap tool guide assembly having an attachment that enables the assembly to be detachably connected to the exterior pipe, the assembly including at least one plate having a plate opening: (b) a hot tapping tool capable of penetrating a selected one or more of the pipes, the tool including a hot tapping tip; (c) the assembly including: a swiveling connection supported next to the plate opening for supporting the hot tapping tip wherein the tip can be articulated angularly relative to the plate from a line that is generally perpendicular to the plate and wherein the tip is extendable through the plate opening, and wherein the hot tapping tip makes a hot tapping seal against the exterior surface of the pipe (50,60,70,80) when the hot tapping tip is in contact with the exterior surface of the pipe; and a drill bit being part of the hot tapping tool and configured to be linearly moveable within, and relative to, the hot tapping tip while the hot tapping tip makes the hot tapping seal against the exterior surface of the pipe (50,60,70,80). (a) a hot tap tool guide assembly having an attachment that enables the assembly to be detachably connected to the exterior pipe, the assembly including at least one plate having a plate opening: (b) a hot tapping tool capable of penetrating a selected one or more of the pipes, the tool including a hot tapping tip; (c) the assembly including: a swiveling connection supported next to the plate opening for supporting the hot tapping tip wherein the tip can be articulated angularly relative to the plate from a line that is generally perpendicular to the plate and wherein the tip is extendable through the plate opening, and wherein the hot tapping tip makes a hot tapping seal against the exterior surface of the pipe (50,60,70,80) when the hot tapping tip is in contact with the exterior surface of the pipe; and a drill bit being part of the hot tapping tool and configured to be linearly moveable within, and relative to, the hot tapping tip while the hot tapping tip makes the hot tapping seal against the exterior surface of the pipe (50,60,70,80). a swiveling connection supported next to the plate opening for supporting the hot tapping tip wherein the tip can be articulated angularly relative to the plate from a line that is generally perpendicular to the plate and wherein the tip is extendable through the plate opening, and wherein the hot tapping tip makes a hot tapping seal against the exterior surface of the pipe (50,60,70,80) when the hot tapping tip is in contact with the exterior surface of the pipe; and a drill bit being part of the hot tapping tool and configured to be linearly moveable within, and relative to, the hot tapping tip while the hot tapping tip makes the hot tapping seal against the exterior surface of the pipe (50,60,70,80).
A steel sheet comprising: a chemical composition containing, by mass%, C: more than 0.006 % and not more than 0.012 %, Si: 0.02 % or less, Mn: 0.10 % or more and 0.60 % or less, P: 0.020 % or less, S: 0.020 % or less, Al: 0.01 % or more and 0.07 % or less, and N: 0.0080 % or more and 0.0200 % or less, and optionally one or more of Cu: 0.2 % or less, Ni: 0.15 % or less, Cr: 0.10 % or less, and Mo: 0.05 % or less, with the balance being Fe and inevitable impurities; wherein a dislocation density at a depth position of 1/2 of a sheet thickness from a surface of the steel sheet is 2.0 × 10 14 /m 2 or more and 1.0 × 10 15 /m 2 or less when measured by X-ray diffraction according to the method disclosed in the description. a chemical composition containing, by mass%, C: more than 0.006 % and not more than 0.012 %, Si: 0.02 % or less, Mn: 0.10 % or more and 0.60 % or less, P: 0.020 % or less, S: 0.020 % or less, Al: 0.01 % or more and 0.07 % or less, and N: 0.0080 % or more and 0.0200 % or less, and optionally one or more of Cu: 0.2 % or less, Ni: 0.15 % or less, Cr: 0.10 % or less, and Mo: 0.05 % or less, with the balance being Fe and inevitable impurities; wherein C: more than 0.006 % and not more than 0.012 %, Si: 0.02 % or less, Mn: 0.10 % or more and 0.60 % or less, P: 0.020 % or less, S: 0.020 % or less, Al: 0.01 % or more and 0.07 % or less, and N: 0.0080 % or more and 0.0200 % or less, and optionally one or more of Cu: 0.2 % or less, Ni: 0.15 % or less, Cr: 0.10 % or less, and Mo: 0.05 % or less, with the balance being Fe and inevitable impurities; wherein a dislocation density at a depth position of 1/2 of a sheet thickness from a surface of the steel sheet is 2.0 × 10 14 /m 2 or more and 1.0 × 10 15 /m 2 or less when measured by X-ray diffraction according to the method disclosed in the description.
A brush head comprising: a hard neck having a brush neck; a plurality of bristle tufts, each of which comprises a plurality of bristle strands having a free end and a proximal end, the proximal end comprising a proximal end head portion; a plurality of retention rings, each configured to receive the proximal end of at least one of the plurality of bristle tufts; and an elastomeric matrix bonded to at least a portion of the brush neck, the plurality of retention rings, and the proximal end of the plurality of bristle tufts, wherein the proximal end head portion of each of the plurality of bristle tufts is configured to comprise a space between the proximal end head portion and the respective retention ring; characterized in that the elastomeric matrix at least partially encompasses the brush neck, the plurality of retention rings, and the proximal end head portion of each of the plurality of bristle tufts. a hard neck having a brush neck; a plurality of bristle tufts, each of which comprises a plurality of bristle strands having a free end and a proximal end, the proximal end comprising a proximal end head portion; a plurality of retention rings, each configured to receive the proximal end of at least one of the plurality of bristle tufts; and an elastomeric matrix bonded to at least a portion of the brush neck, the plurality of retention rings, and the proximal end of the plurality of bristle tufts, wherein the proximal end head portion of each of the plurality of bristle tufts is configured to comprise a space between the proximal end head portion and the respective retention ring; characterized in that the elastomeric matrix at least partially encompasses the brush neck, the plurality of retention rings, and the proximal end head portion of each of the plurality of bristle tufts.