mhurhangee/ep-ind-claims huggingface dataset:
A channel monitoring method performed by a base station, characterized by comprising: configuring a specified occurrence of a power-saving signal and a specified effective time range of the specified occurrence for a terminal, the specified occurrence representing a specified effective range of the power-saving signal for subsequent discontinuous reception, DRX, wake-up period; wherein the specified effective time range represents a time range during which the specified occurrence is effective for the terminal, and is used to indicate that within the specified effective time range, the specified occurrence is used for channel monitoring by the terminal, and when the specified effective time range expires, a default occurrence is used for channel monitoring by the terminal; generating first notification information, the first notification information comprising the specified occurrence and the specified effective time range; and sending the first notification information to the terminal, wherein the power-saving signal is a wake up signaling, WUS; and the specified occurrence includes 0, 1, and an integer N greater than 1, when the specified occurrence is 0, a WUS monitoring pattern is ignored and only a DRX pattern is used; when the specified occurrence is 1, the WUS is only effective for one DRX wake-up period that follows the WUS; when the specified occurrence is N, the WUS is effective for all N consecutive DRX wake-up periods that follow the WUS. configuring a specified occurrence of a power-saving signal and a specified effective time range of the specified occurrence for a terminal, the specified occurrence representing a specified effective range of the power-saving signal for subsequent discontinuous reception, DRX, wake-up period; wherein the specified effective time range represents a time range during which the specified occurrence is effective for the terminal, and is used to indicate that within the specified effective time range, the specified occurrence is used for channel monitoring by the terminal, and when the specified effective time range expires, a default occurrence is used for channel monitoring by the terminal; generating first notification information, the first notification information comprising the specified occurrence and the specified effective time range; and sending the first notification information to the terminal, wherein the power-saving signal is a wake up signaling, WUS; and the specified occurrence includes 0, 1, and an integer N greater than 1, when the specified occurrence is 0, a WUS monitoring pattern is ignored and only a DRX pattern is used; when the specified occurrence is 1, the WUS is only effective for one DRX wake-up period that follows the WUS; when the specified occurrence is N, the WUS is effective for all N consecutive DRX wake-up periods that follow the WUS.
A gas turbine engine article (60, 120) comprising: an article wall (68, 168) defining a cavity (74, 174); and a cooling passage network (76, 176) embedded in the article wall (68, 168) between inner and outer portions (68a, 168a, 68b, 168b) of the article wall (68, 168), the cooling passage network (76, 176) having an inlet orifice through the inner portion (68a, 168a) of the article wall (68, 168) to receive cooling air from the cavity (74, 174), a sub-passage region including an array of pedestals, and at least one outlet orifice through the outer portion (68b, 168b), the outer portion (68b, 168b) of the article wall (68, 168) having a protrusion in the cooling passage network (76, 176) facing toward the inlet orifice, wherein the outer portion (68b, 168b) of the article wall (68, 168) includes at least one trip strip flanking the protrusion in the cooling passage network (76, 176); and characterised in that: the protrusion is conical, the at least one trip strip has a bowed shape, and the bowed shape follows a periphery of the protrusion. an article wall (68, 168) defining a cavity (74, 174); and a cooling passage network (76, 176) embedded in the article wall (68, 168) between inner and outer portions (68a, 168a, 68b, 168b) of the article wall (68, 168), the cooling passage network (76, 176) having an inlet orifice through the inner portion (68a, 168a) of the article wall (68, 168) to receive cooling air from the cavity (74, 174), a sub-passage region including an array of pedestals, and at least one outlet orifice through the outer portion (68b, 168b), the outer portion (68b, 168b) of the article wall (68, 168) having a protrusion in the cooling passage network (76, 176) facing toward the inlet orifice, wherein the outer portion (68b, 168b) of the article wall (68, 168) includes at least one trip strip flanking the protrusion in the cooling passage network (76, 176); and characterised in that: the protrusion is conical, the at least one trip strip has a bowed shape, and the bowed shape follows a periphery of the protrusion.
A polycarbonate resin composition comprising at least a polycarbonate resin (a) having at least structural units (a) derived from formula: and a polycarbonate resin (b) having structural units different from the polycarbonate resin (a), which satisfies the following requirements: (i) the pencil hardness of the polycarbonate resin (a) as specified by ISO 15184 is higher than the pencil hardness of the polycarbonate resin (b) as specified by ISO 15184; (ii) the weight ratio of the polycarbonate resin (a) to the polycarbonate resin (b) is from 1:99 to 45:55; (iii) the pencil hardness of the polycarbonate resin composition as specified by ISO 15184 is higher by at least two ranks than the pencil hardness of the polycarbonate resin (b) as specified by ISO 15184; and (iv) the Charpy impact strength of the polycarbonate resin composition is higher than the Charpy impact strength of the polycarbonate resin (a) and is at least 8 kJ/m 2 as determined in accordance with JIS K7111 with a notch of 0.25 mmR, wherein the polycarbonate resin (b) is a polycarbonate resin having at least 50 wt% structural units (b) derived from a compound represented by the following formula: and wherein the polycarbonate resin (a) and the polycarbonate resin (b) have a viscosity average molecular weight within a range of from 1,000 to 100,000 as measured by a method of dissolving the polycarbonate resin in methylene chloride (concentration: 6.0 g/L), the specific viscosity (ηsp) at 20°C is measured by using an Ubbelohde viscosity tube, and the viscosity average molecular weight (Mv) is calculated in accordance with the following formula: η ⁢ sp / C = η 1 + 0.28 η sp η = 1.23 × 10 − 4 Mv 0.83. (i) the pencil hardness of the polycarbonate resin (a) as specified by ISO 15184 is higher than the pencil hardness of the polycarbonate resin (b) as specified by ISO 15184; (ii) the weight ratio of the polycarbonate resin (a) to the polycarbonate resin (b) is from 1:99 to 45:55; (iii) the pencil hardness of the polycarbonate resin composition as specified by ISO 15184 is higher by at least two ranks than the pencil hardness of the polycarbonate resin (b) as specified by ISO 15184; and (iv) the Charpy impact strength of the polycarbonate resin composition is higher than the Charpy impact strength of the polycarbonate resin (a) and is at least 8 kJ/m 2 as determined in accordance with JIS K7111 with a notch of 0.25 mmR, wherein the polycarbonate resin (b) is a polycarbonate resin having at least 50 wt% structural units (b) derived from a compound represented by the following formula: and wherein the polycarbonate resin (a) and the polycarbonate resin (b) have a viscosity average molecular weight within a range of from 1,000 to 100,000 as measured by a method of dissolving the polycarbonate resin in methylene chloride (concentration: 6.0 g/L), the specific viscosity (ηsp) at 20°C is measured by using an Ubbelohde viscosity tube, and the viscosity average molecular weight (Mv) is calculated in accordance with the following formula: η ⁢ sp / C = η 1 + 0.28 η sp η = 1.23 × 10 − 4 Mv 0.83.
Process for the preparation of a hardening accelerator composition by reaction of a water-soluble calcium compound with a water-soluble silicate compound in the presence of an aqueous solution which contains a water-soluble comb polymer suitable as a plasticizer for hydraulic binders, wherein a solution of a water-soluble calcium compound and a solution of a water-soluble silicate compound are added to the aqueous solution containing a water-soluble comb polymer.
A biocidal composition comprising: 2,2-dibromomalonamide and an oxidizing biocide comprising hypochlorous acid or a salt thereof, monohalodimethylhydantoin, dichlorodimethylhydantoin, or dibromodimethylhydantoin, wherein the weight ratio of 2,2-dibromomalonamide to the oxidizing biocide is between 16:1 and 1:8.
Facility for storing a liquefied gas including a supporting structure and a sealed and thermally insulating tank arranged in the supporting structure, said sealed and thermally insulating tank having an internal space, the supporting structure comprising an upper supporting wall and the tank comprising a ceiling wall secured to the upper supporting wall, the ceiling wall comprising, in a thickness direction from the outside to the inside of the tank, at least one thermally insulating barrier (12, 15) and at least one sealing membrane supported by the thermally insulating barrier (12, 15) and intended to be in contact with the liquefied gas contained in the tank, the storage facility comprising a dome structure passing through an opening made in the ceiling wall and in the upper supporting wall,, the dome structure including a barrel which extends in the thickness direction, said barrel including a lower end which is oriented towards the internal space of the tank and at least one closure plate (25, 39) which is positioned facing the lower end of the barrel in such a way as to cover same, the closure plate including at least one hole (27, 28, 29), the storage facility including at least one pipe (20, 21, 31, 38, 44) which is intended to convey liquefied gas, said pipe (20, 21, 31) passing through the dome structure and passing through the hole (27, 28, 29) made in the closure plate. the storage facility comprising a dome structure passing through an opening made in the ceiling wall and in the upper supporting wall,, the dome structure including a barrel which extends in the thickness direction, said barrel including a lower end which is oriented towards the internal space of the tank and at least one closure plate (25, 39) which is positioned facing the lower end of the barrel in such a way as to cover same, the closure plate including at least one hole (27, 28, 29), the storage facility including at least one pipe (20, 21, 31, 38, 44) which is intended to convey liquefied gas, said pipe (20, 21, 31) passing through the dome structure and passing through the hole (27, 28, 29) made in the closure plate.
An interlayer film for a laminated glass, having a large number of recesses on at least one surface, the recesses each having a groove shape with a continuous bottom and being regularly adjacent and parallel to each other, the recesses each having a radius of rotation R of a bottom of the groove shape with a continuous bottom, R being as measured according to the method in the description, of 45 μm or less, wherein a highest point determined, as measured according to the method in the description, from a roughness curve drawn in conformity with JIS B 0601 in a direction of a line representing the shortest distance between deepest bottoms of adjacent recesses each having a groove shape with a continuous bottom is not at the center of the line representing the shortest distance between the deepest bottoms.
A method for generating an image of an electron density in an object or in a part thereof, comprising the following steps of: receiving: i) for at least one energy value, a phase-contrast sinogram, p dφ, derived from data detected by a radiation sensitive detector of a scanner, with p dφ relating to phase shift gradients of phase shifts experienced by radiation after the radiation's passage through the object; and ii) a Compton attenuation sinogram, p C, derived from the data detected by the radiation sensitive detector or from data detected by a different radiation sensitive detector, with p C recording essentially the Compton scatter contribution to an overall attenuation experienced by the radiation in said passage through the object; based on both of the two sinograms p dφ and p C, jointly reconstructing for a cross sectional image of the electron density. receiving: i) for at least one energy value, a phase-contrast sinogram, p dφ, derived from data detected by a radiation sensitive detector of a scanner, with p dφ relating to phase shift gradients of phase shifts experienced by radiation after the radiation's passage through the object; and ii) a Compton attenuation sinogram, p C, derived from the data detected by the radiation sensitive detector or from data detected by a different radiation sensitive detector, with p C recording essentially the Compton scatter contribution to an overall attenuation experienced by the radiation in said passage through the object; i) for at least one energy value, a phase-contrast sinogram, p dφ, derived from data detected by a radiation sensitive detector of a scanner, with p dφ relating to phase shift gradients of phase shifts experienced by radiation after the radiation's passage through the object; and ii) a Compton attenuation sinogram, p C, derived from the data detected by the radiation sensitive detector or from data detected by a different radiation sensitive detector, with p C recording essentially the Compton scatter contribution to an overall attenuation experienced by the radiation in said passage through the object; based on both of the two sinograms p dφ and p C, jointly reconstructing for a cross sectional image of the electron density.
A substrate, the substrate comprising: a. a sheet comprising at least one of a glass, a ceramic, and a glass ceramic, the sheet having a first surface, a second surface, and at least two parallel high strength edges joining the first surface and the second surface, wherein each of the at least two parallel high strength edges has a bend strength capable of less than 2% failure probability at a stress level of 200 MPa over a test length of 50 mm; and b. a polymeric edge coating covering at least a portion of each of the at least two parallel high strength edges, wherein the polymeric edge coating has a thickness in a range from 5 μm to 50 μm and protects each of the at least two parallel high strength edges from the introduction of defects and damage, characterised in that each of the at least two parallel high strength edges is unfinished; in that the first surface of the sheet and the second surface of the sheet are each entirely free of the polymeric edge coating; and in that the polymeric edge coating comprises at least one of a silicone, an epoxy, an acrylate, a urethane, and combinations thereof. a. a sheet comprising at least one of a glass, a ceramic, and a glass ceramic, the sheet having a first surface, a second surface, and at least two parallel high strength edges joining the first surface and the second surface, wherein each of the at least two parallel high strength edges has a bend strength capable of less than 2% failure probability at a stress level of 200 MPa over a test length of 50 mm; and b. a polymeric edge coating covering at least a portion of each of the at least two parallel high strength edges, wherein the polymeric edge coating has a thickness in a range from 5 μm to 50 μm and protects each of the at least two parallel high strength edges from the introduction of defects and damage,
Heating article comprising a substrate presenting a surface intended to be heated in a temperature range T 1 of use of between 50°C and 400°C and a design applied to at least a portion of said surface, in which said design is in the form of a coating layer with at least one pattern (41, 42), which comprises a thermochromic pigment composition with at least one thermochromic semiconducting pigment that is lipid-sensitive under heat, characterized in that said thermochromic pigment composition includes: - composite pigment grains with a core-envelope structure, the diameter of which is between 20 nm and 25000 nm and each of which include: ▪ a core including said thermochromic semiconducting pigment, and ▪ a solid, transparent and continuous envelope, formed by a mineral or organomineral hybrid material, and - at least one thermostable pigment, and said article is also characterized in that said thermochromic pigment composition shows a reversible change in colour in a thermal colour-change area with an amplitude of no more than 40°C within the range of variation of said temperature T 1 of use. - composite pigment grains with a core-envelope structure, the diameter of which is between 20 nm and 25000 nm and each of which include: ▪ a core including said thermochromic semiconducting pigment, and ▪ a solid, transparent and continuous envelope, formed by a mineral or organomineral hybrid material, and ▪ a core including said thermochromic semiconducting pigment, and ▪ a solid, transparent and continuous envelope, formed by a mineral or organomineral hybrid material, and - at least one thermostable pigment,
A system for measuring an under foot load profile of a patient during a period of weight bearing, the system comprising: a housing configured to be oriented with respect to the patient's leg, said housing including a curved, flexible first surface and a rigid second surface said curved, flexible first surface and said rigid second surface defining a cavity; a pressure sensor configured to monitor the load profile of the patient during the desired period of weight bearing, said pressure sensor being located within said cavity; and a non-compressible gel positioned within said cavity and adjacent said pressure sensor to transmit pressure within said housing to said pressure sensor, characterized in that said pressure sensor is fully encapsulated within said non-compressible gel. a housing configured to be oriented with respect to the patient's leg, said housing including a curved, flexible first surface and a rigid second surface said curved, flexible first surface and said rigid second surface defining a cavity; a pressure sensor configured to monitor the load profile of the patient during the desired period of weight bearing, said pressure sensor being located within said cavity; and a non-compressible gel positioned within said cavity and adjacent said pressure sensor to transmit pressure within said housing to said pressure sensor, characterized in that said pressure sensor is fully encapsulated within said non-compressible gel.
Panel comprising: - a first sheet and a second sheet, made of a composite material comprising a mineral filler bound by a polymeric matrix, said first sheet and second sheet being attached to each other and to a supporting element which keeps them positioned respectively with a first external face and a second external face of them facing away from said supporting element and lying on a same lying plane, said first sheet and second sheet facing each other respectively with a first flat face and a second flat face spaced apart one another so as to define a gap therebetween; - one or more wedges (10, 10a, 10b, 10c) made of said composite material comprising a mineral filler bound by a polymeric matrix, interposed between said first flat face and said second flat face to close said gap with the interposition of an adhesive, characterized in that said first flat face and/or said second flat face and/or said one or more wedges (10, 10a, 10b, 10c) are shaped in such a way to generate, as a result of a pressure exerted on said one or more wedges (10, 10a, 10b, 10c) towards the inside of said gap, in an direction of insertion along which they are inserted in said gap, a force (F1, F2) that acts among said one or more wedges (10, 10a, 10b, 10c) and said first and/or second flat face (80, 90), having at least a component parallel to said laying plane, which pushes said one or more wedges (10, 10a, 10b, 10c) towards said first flat face and/or towards said second flat face. - a first sheet and a second sheet, made of a composite material comprising a mineral filler bound by a polymeric matrix, said first sheet and second sheet being attached to each other and to a supporting element which keeps them positioned respectively with a first external face and a second external face of them facing away from said supporting element and lying on a same lying plane, said first sheet and second sheet facing each other respectively with a first flat face and a second flat face spaced apart one another so as to define a gap therebetween; - one or more wedges (10, 10a, 10b, 10c) made of said composite material comprising a mineral filler bound by a polymeric matrix, interposed between said first flat face and said second flat face to close said gap with the interposition of an adhesive,
A sensor arrangement comprising two rotational angle sensors of different type, the sensor arrangement having a rotor and a stator, the first rotational angle sensor having an antenna comprised by the stator and a modulator comprised by the rotor, and the second rotational angle sensor having a magnet comprised by the rotor and a magnetoresistive element or a hall sensor comprised by the stator, characterised in - that the magnetoresistive element or hall sensor lies in a projection in the direction of the axis of rotation within a circular discshaped zone concentric with the axis of rotation, - in that the modulator lies in a projection in the direction of the axis of rotation within a circular ring concentric with the axis of rotation, - that the circular disc-shaped zone lies within the circular ring and has an outer diameter which is smaller than the inner diameter of the circular ring, - that the antenna has a circular contour, which is provided in a zone within the circular ring, - that a zone in the form of a circular ring is provided between zone in the center and zone, - that zone creates a distance between zone and zone, which is large enough to prevent mutual disturbances between the first rotational angle sensor and the second rotational angle sensor. - that the magnetoresistive element or hall sensor lies in a projection in the direction of the axis of rotation within a circular discshaped zone concentric with the axis of rotation, - in that the modulator lies in a projection in the direction of the axis of rotation within a circular ring concentric with the axis of rotation, - that the circular disc-shaped zone lies within the circular ring and has an outer diameter which is smaller than the inner diameter of the circular ring, - that the antenna has a circular contour, which is provided in a zone within the circular ring, - that a zone in the form of a circular ring is provided between zone in the center and zone, - that zone creates a distance between zone and zone, which is large enough to prevent mutual disturbances between the first rotational angle sensor and the second rotational angle sensor.