mhurhangee/patent-ind-claim-en huggingface dataset:
An optical element comprising: a substrate ; and a light-shielding film on part of an outer portion of the substrate , wherein there is a coating on the light-shielding film , the coating containing a cured mixture of melamine resin or benzoguanamine resin, and a phenolic resin, in proportions by mass of the melamine resin or benzoguanamine resin to the phenolic resin of 1:5 to 7:5, wherein the melamine or benzoguanamine resin content of the coating on the light-shielding film is 20.0% by mass or more and 60.0% by mass or less, and wherein the optical element is a lens or a prism. a substrate ; and a light-shielding film on part of an outer portion of the substrate , wherein there is a coating on the light-shielding film , the coating containing a cured mixture of melamine resin or benzoguanamine resin, and a phenolic resin, in proportions by mass of the melamine resin or benzoguanamine resin to the phenolic resin of 1:5 to 7:5, wherein the melamine or benzoguanamine resin content of the coating on the light-shielding film is 20.0% by mass or more and 60.0% by mass or less, and wherein the optical element is a lens or a prism.
Station for storing a predetermined scooter, characterised in that it includes: - a top support for a first wheel of said scooter (10; 10B), including a hollow in the form of a channel extending in a top-bottom direction and oriented along a vertical plane containing said top-bottom direction and a front-rear direction transverse to the top-bottom direction , said hollow being open towards the front and delimited by walls configured to receive said first wheel and to guide it in said top-bottom direction ; - a bottom support for the second wheel of said scooter (10; 10B) disposed underneath and in front of the top support , having a hollow in the form of a channel extending in a direction inclined downwards and towards the rear and oriented along said vertical plane, said hollow being open towards the top and delimited by walls configured to receive said second wheel and to guide it in said inclined direction; and - a stop (23; 33) disposed underneath the top support and behind the bottom support and configured to hold said scooter (10; 10B) in a storage position where said scooter (10; 10B) is in contact with said stop (23; 33) whereas the first wheel is in the hollow of the top support and the second wheel in the hollow of the bottom support . - a top support for a first wheel of said scooter (10; 10B), including a hollow in the form of a channel extending in a top-bottom direction and oriented along a vertical plane containing said top-bottom direction and a front-rear direction transverse to the top-bottom direction , said hollow being open towards the front and delimited by walls configured to receive said first wheel and to guide it in said top-bottom direction ; - a bottom support for the second wheel of said scooter (10; 10B) disposed underneath and in front of the top support , having a hollow in the form of a channel extending in a direction inclined downwards and towards the rear and oriented along said vertical plane, said hollow being open towards the top and delimited by walls configured to receive said second wheel and to guide it in said inclined direction; and - a stop (23; 33) disposed underneath the top support and behind the bottom support and configured to hold said scooter (10; 10B) in a storage position where said scooter (10; 10B) is in contact with said stop (23; 33) whereas the first wheel is in the hollow of the top support and the second wheel in the hollow of the bottom support .
A fluid measurement system , the system comprising: at least one of an AC compensator configured and adapted to measure a capacitance of a fluid or a spool densitometer configured and adapted to measure a density of the fluid; a signal processor operatively connected to at least one of the AC compensator or the spool densitometer , the signal processor configured and adapted to produce a serial word 106a, 106b) that is indicative of at least one of the density of the fluid from the spool densitometer or the capacitance of the fluid from the AC compensator , the serial word configured to be communicated externally of the signal processor ; and a processing system operatively connected to the signal processor to read the serial word and decode the serial word , wherein the processing system includes a velocity of sound signal conditioner to read and decode the serial word to determine the at least one of the density of the fluid from the spool densitometer or the capacitance of the fluid from the AC compensator, wherein a transmit function of the velocity of sound signal conditioner is configured and adapted to be disabled. at least one of an AC compensator configured and adapted to measure a capacitance of a fluid or a spool densitometer configured and adapted to measure a density of the fluid; a signal processor operatively connected to at least one of the AC compensator or the spool densitometer , the signal processor configured and adapted to produce a serial word 106a, 106b) that is indicative of at least one of the density of the fluid from the spool densitometer or the capacitance of the fluid from the AC compensator , the serial word configured to be communicated externally of the signal processor ; and a processing system operatively connected to the signal processor to read the serial word and decode the serial word , wherein the processing system includes a velocity of sound signal conditioner to read and decode the serial word to determine the at least one of the density of the fluid from the spool densitometer or the capacitance of the fluid from the AC compensator, wherein a transmit function of the velocity of sound signal conditioner is configured and adapted to be disabled.
An active energy ray curable inkjet ink comprising a pigment (A), a colorant derivative (B), a pigment dispersing resin (C) and a polymerizable compound (D), wherein the pigment (A) contains a C.I. pigment blue 15:6 and a quinacridone-based pigment, the total mass of the blending amount of the C.I. pigment blue 15:6 and the blending amount of the quinacridone-based pigment is from 2 to 10% by mass based on the total mass of the ink, the mass ratio of the C.I. pigment blue 15:6 and the quinacridone-based pigment is from 3:1 to 1:3, the colorant derivative (B) contains a quinacridone-based pigment derivative, and satisfying the relationship C1 ≥ C2 > 0 when the acid value of the pigment dispersing resin (C) is denoted as C1(mgKOH/g), and the amine value of the pigment dispersing resin (C) is denoted as C2(mgKOH/g). the pigment (A) contains a C.I. pigment blue 15:6 and a quinacridone-based pigment, the total mass of the blending amount of the C.I. pigment blue 15:6 and the blending amount of the quinacridone-based pigment is from 2 to 10% by mass based on the total mass of the ink, the mass ratio of the C.I. pigment blue 15:6 and the quinacridone-based pigment is from 3:1 to 1:3, the colorant derivative (B) contains a quinacridone-based pigment derivative, and satisfying the relationship C1 ≥ C2 > 0 when the acid value of the pigment dispersing resin (C) is denoted as C1(mgKOH/g), and the amine value of the pigment dispersing resin (C) is denoted as C2(mgKOH/g).
A method of recovering a bead support from an emulsion, the method comprising: supplying an aqueous surfactant solution into a centrifuge tube; the surfactant solution including an anionic surfactant in a range of 5.0% to 15.0% and including a non-ionic surfactant in a range of 0.05% to 8.0%, wherein a ratio of the volume of the aqueous surfactant solution to the volume of the centrifuge tube is not greater than 0.5 and at least 0.01; and preparing an emulsion comprising a sample of template bead supports in a dispersed aqueous phase and a hydrophobic liquid in a continuous phase; applying the emulsion into the centrifuge tube while centrifuging; and recovering the sample of template bead supports from the surfactant solution. supplying an aqueous surfactant solution into a centrifuge tube; the surfactant solution including an anionic surfactant in a range of 5.0% to 15.0% and including a non-ionic surfactant in a range of 0.05% to 8.0%, wherein a ratio of the volume of the aqueous surfactant solution to the volume of the centrifuge tube is not greater than 0.5 and at least 0.01; and preparing an emulsion comprising a sample of template bead supports in a dispersed aqueous phase and a hydrophobic liquid in a continuous phase; applying the emulsion into the centrifuge tube while centrifuging; and recovering the sample of template bead supports from the surfactant solution.
A method for manufacturing a flame tube for a turbomachine, the said flame tube extending about an axis (X) and comprising an annular radially internal wall and an annular radially external wall , connected to each other by an end wall or head wall, the internal wall , the external wall and the end wall defining an internal volume , characterized in that at least one part of the said end wall forming a double wall comprising a first part and a second part connected to each other and spaced apart from each other so as to delimit a flow channel for a flow of cooling air opening into the said internal volume , characterized in that the said flow channel comprising at least one air-inlet opening , the first and second parts of the double wall being connected by connecting zones or bridges extending into the flow channel for the cooling-air flow , the said flame tube being manufactured by additive manufacturing, characterized in that at least one connecting area or bridge comprises at least one frustoconical area or flared area .
A body electrode comprising: a first electrode configured to stimulate a muscle of a body; a second electrode and a third electrode , the second electrode and the third electrode being configured to detect a physiological signal from the muscle that is stimulated by the first electrode; a first connection portion arranged between the first electrode and the second electrode; and a second connection portion arranged between the third electrode and one of the first electrode and the second electrode, wherein the first connection portion comprises at least one first direction changing part configured to change a direction in which the first connection portion extends in a longitudinal direction of the body electrode, such that a distance and an angle between the first electrode and the second electrode is adjustable. a first electrode configured to stimulate a muscle of a body; a second electrode and a third electrode , the second electrode and the third electrode being configured to detect a physiological signal from the muscle that is stimulated by the first electrode; a first connection portion arranged between the first electrode and the second electrode; and a second connection portion arranged between the third electrode and one of the first electrode and the second electrode, wherein the first connection portion comprises at least one first direction changing part configured to change a direction in which the first connection portion extends in a longitudinal direction of the body electrode, such that a distance and an angle between the first electrode and the second electrode is adjustable.
Method for testing a turbomachine in a test bench , the method comprising the following phases: (a) visual inspection of the test bench and/or of the turbomachine in order to detect a possible anomaly of a first type; (b) testing of the turbomachine in the test bench ; the method executing phase (b) of testing only in the absence of an anomaly of the first type; characterized in that items of test equipment (30; 32) are placed in the test bench , notably on the turbomachine ; the test bench comprises an augmented-reality system performing the phase (a) of visual inspection in the test bench in order to detect the possible anomaly of the first type and verify identity and positioning of said items of test equipment (30; 32). (a) visual inspection of the test bench and/or of the turbomachine in order to detect a possible anomaly of a first type; (b) testing of the turbomachine in the test bench ;
Assembly (R1, R2) comprising at least two reflectors (A1, A2, A3) for electromagnetic antennas, said reflectors being in the form of shells and said shells being supported by a common support, wherein: - said shells (C) are made of a fibre-resin composite material; - said common support is a tubular structure (S1, S2) made of tube portions (T) of fibre-resin composite material joined to one another; and - said shells (C) are individually attached to said tubular structure (S1, S2) by spacer lugs (E), characterized in that the spacer lugs are made of a fibre-resin composite material and are in the form of an angle bracket, one leg of which is glued to the convex surface (f) of the corresponding shell (C) and the other leg of which is glued to said tubular structure (S1, S2) while maintaining a gap (e) between the latter and said convex surface. - said shells (C) are made of a fibre-resin composite material; - said common support is a tubular structure (S1, S2) made of tube portions (T) of fibre-resin composite material joined to one another; and - said shells (C) are individually attached to said tubular structure (S1, S2) by spacer lugs (E),
Vectors comprising: (a) a DNA coding sequence encoding at least one guide RNA operably linked to a promoter control sequence for expression of the at least one guide RNA in a eukaryotic cell, each guide RNA comprising (i) a first region complementary to a target site in a eukaryotic chromosomal sequence that can base pair with the target site, (ii) a second region that forms a stem and loop structure, and (iii) a third region which is essentially single stranded, wherein (i), (ii) and (iii) are arranged in the 5' to 3' direction, (b) a DNA coding sequence encoding an engineered RNA-guided endonuclease operably linked to a promoter control sequence for expression in a eukaryotic cell, wherein the RNA-guided endonuclease is a type II CRISPR/Cas9 endonuclease comprising at least one nuclear localization signal, wherein (a) and (b) are located on the same or different vectors, whereby the RNA-guided endonuclease is directed to specific nucleic acid sequences by the at least one guide RNA and the RNA-guided endonuclease cleaves the specific nucleic acid sequences, whereby the nucleic acid sequence is modified by a deletion of at least one nucleotide, an insertion of at least one nucleotide, a substitution of at least one nucleotide or a combination thereof. (a) a DNA coding sequence encoding at least one guide RNA operably linked to a promoter control sequence for expression of the at least one guide RNA in a eukaryotic cell, each guide RNA comprising (i) a first region complementary to a target site in a eukaryotic chromosomal sequence that can base pair with the target site, (ii) a second region that forms a stem and loop structure, and (iii) a third region which is essentially single stranded, wherein (i), (ii) and (iii) are arranged in the 5' to 3' direction, (i) a first region complementary to a target site in a eukaryotic chromosomal sequence that can base pair with the target site, (ii) a second region that forms a stem and loop structure, and (iii) a third region which is essentially single stranded, (b) a DNA coding sequence encoding an engineered RNA-guided endonuclease operably linked to a promoter control sequence for expression in a eukaryotic cell, wherein the RNA-guided endonuclease is a type II CRISPR/Cas9 endonuclease comprising at least one nuclear localization signal,
A method for automatically releasing a resource occupied by a process in a background of a terminal , comprising: determining (S100) whether the process is in a cache state in an Android system when the process is transferred to the background; closing (S101) all of monitoring of a hardware resource if the process is in the cache state, wherein the hardware resource is in a system of the terminal , the process registers to the hardware resource, and the process comprises BLUETOOTH, a GPS monitor, or WiFi; determining (S200) whether the process is in a running state if the process is not in the cache state; maintaining (S200) a current state if the process is not in the running state; determining (S300) whether a maintaining time of the running state reaches an upper limit of a preset time threshold value if the process is in the running state; releasing (S300) the hardware resource occupied by the process automatically if the maintaining time of the running state reaches the upper limit of the preset time threshold value; and maintaining (S300) the current state if the maintaining time of the running state does not reach the upper limit of the preset time threshold value. determining (S100) whether the process is in a cache state in an Android system when the process is transferred to the background; closing (S101) all of monitoring of a hardware resource if the process is in the cache state, wherein the hardware resource is in a system of the terminal , the process registers to the hardware resource, and the process comprises BLUETOOTH, a GPS monitor, or WiFi; determining (S200) whether the process is in a running state if the process is not in the cache state; maintaining (S200) a current state if the process is not in the running state; determining (S300) whether a maintaining time of the running state reaches an upper limit of a preset time threshold value if the process is in the running state; releasing (S300) the hardware resource occupied by the process automatically if the maintaining time of the running state reaches the upper limit of the preset time threshold value; and maintaining (S300) the current state if the maintaining time of the running state does not reach the upper limit of the preset time threshold value.
A porous composite comprising octacalcium phosphate and collagen, having a pore size of 5 to 40 μm as determined by measurement using a mercury porosimeter, wherein the rate of pores of 71 to 200 μm represented by the following formula using a cumulative micropore volume and a total micropore volume measured by the mercury porosimeter is less than or equal to 8%: Rate of pores of 71 to 200 μ m % = cumulative micropore volume of pores of 71 to 200 μ m / total micropore volume of pores of less than or equal to 200 μ m × 100 .
A method of operation of a device programming system comprising: sending, by a programmer, a data transfer command to a universal flash storage, UFS, memory device via a UFS baseboard communicatively coupled to the programmer, and the UFS memory device inserted into a socket adapter coupled to the UFS baseboard; the UFS baseboard attached to the programmer via a board clamp, the UFS baseboard including one or more adapter connector, and the socket adapter mounted on the one or more adapter connector, the UFS baseboard including a field programmable gate array configured as a protocol bridge to translate between embedded multimedia card, eMMC, commands and UFS commands, and the UFS baseboard including an eMMC interface and a UFS interface coupled to the protocol bridge, and the eMMC interface connected to the programmer; receiving, by the eMMC interface, the data transfer command from the programmer; transferring, by the eMMC interface, the data transfer command to the protocol bridge; converting, by the protocol bridge, the data transfer command to UFS commands; transferring data between the protocol bridge and the UFS memory device via the UFS interface; and transferring data between the protocol bridge and the programmer via the eMMC interface. sending, by a programmer, a data transfer command to a universal flash storage, UFS, memory device via a UFS baseboard communicatively coupled to the programmer, and the UFS memory device inserted into a socket adapter coupled to the UFS baseboard; the UFS baseboard attached to the programmer via a board clamp, the UFS baseboard including one or more adapter connector, and the socket adapter mounted on the one or more adapter connector, the UFS baseboard including a field programmable gate array configured as a protocol bridge to translate between embedded multimedia card, eMMC, commands and UFS commands, and the UFS baseboard including an eMMC interface and a UFS interface coupled to the protocol bridge, and the eMMC interface connected to the programmer; receiving, by the eMMC interface, the data transfer command from the programmer; transferring, by the eMMC interface, the data transfer command to the protocol bridge; converting, by the protocol bridge, the data transfer command to UFS commands; transferring data between the protocol bridge and the UFS memory device via the UFS interface; and transferring data between the protocol bridge and the programmer via the eMMC interface.
A cementitious mixture for a 3D printer which comprises a) cement or hydraulic binder, b) latent hydraulic addition, c) filler, d) aggregates, e) additives, f) water, said mixture being characterized in that component c) i.e. the filler in accordance with standard UNI EN 12620-1: 2008, selected from calcareous, silica or silico-calcareous fillers, preferably calcareous fillers, alone or in a mixture, has a particle size which is such that at least 90% by weight of the filler passes through an 0.063 mm sieve; component d) is present in a quantity ranging from 25% to 50% by weight, with respect to the total weight of the cementitious mixture, and is composed of calcareous, silica or silico-calcareous aggregates, in accordance with standard UNI EN 206: 2014, alone or mixed with each other, having a particle size with a maximum diameter lower than 1 mm, said component d) being composed of one or more fractions having a particle size with a diameter greater than 0.2 mm, preferably with a diameter greater than 0.6 mm, and a fraction having a particle size with a diameter less than or equal to 0.2 mm and such that less than 2% by weight passes through a sieve of 0.063 mm; component e) comprises superfluidifying additives, rheology modifiers, shrinkage reducing agents, hydrophobic agents and mixtures thereof, said cementitious mixture being characterized by a viscosity value ranging from 80,000 Pa·s to 150,000 Pa·s, measured at a shear rate of 0.01 s -1 and at a temperature of 20°C. component c) i.e. the filler in accordance with standard UNI EN 12620-1: 2008, selected from calcareous, silica or silico-calcareous fillers, preferably calcareous fillers, alone or in a mixture, has a particle size which is such that at least 90% by weight of the filler passes through an 0.063 mm sieve; component d) is present in a quantity ranging from 25% to 50% by weight, with respect to the total weight of the cementitious mixture, and is composed of calcareous, silica or silico-calcareous aggregates, in accordance with standard UNI EN 206: 2014, alone or mixed with each other, having a particle size with a maximum diameter lower than 1 mm, said component d) being composed of one or more fractions having a particle size with a diameter greater than 0.2 mm, preferably with a diameter greater than 0.6 mm, and a fraction having a particle size with a diameter less than or equal to 0.2 mm and such that less than 2% by weight passes through a sieve of 0.063 mm; component e) comprises superfluidifying additives, rheology modifiers, shrinkage reducing agents, hydrophobic agents and mixtures thereof, said cementitious mixture being characterized by a viscosity value ranging from 80,000 Pa·s to 150,000 Pa·s, measured at a shear rate of 0.01 s -1 and at a temperature of 20°C.