mhurhangee/patent-ind-claim-en huggingface dataset:
A grouping method for grouping pieces of equipment that are capable of emitting sound signals and whose position is not necessarily known, together by sound spaces , the method including an operational stage (P2) comprising the steps of: · causing each piece of equipment to emit a test sound signal in succession; · causing the test sound signal to be received by each piece of equipment that is capable of receiving sound signals, and causing each of these pieces of equipment to evaluate a recognition level for said test sound signal; · for each pair of pieces of equipment Ei and Ej, evaluating a mutual recognition level representative both of a recognition level N(i, j) for the piece of equipment Ei receiving a test sound signal emitted by the piece of equipment Ej, and also of a recognition level N(j, i) for the piece of equipment Ej receiving a test sound signal emitted by the piece of equipment Ei; · on the basis of the mutual recognition level, determining whether or not the pieces of equipment Ei and Ej belong to a common sound space. · causing each piece of equipment to emit a test sound signal in succession; · causing the test sound signal to be received by each piece of equipment that is capable of receiving sound signals, and causing each of these pieces of equipment to evaluate a recognition level for said test sound signal; · for each pair of pieces of equipment Ei and Ej, evaluating a mutual recognition level representative both of a recognition level N(i, j) for the piece of equipment Ei receiving a test sound signal emitted by the piece of equipment Ej, and also of a recognition level N(j, i) for the piece of equipment Ej receiving a test sound signal emitted by the piece of equipment Ei; · on the basis of the mutual recognition level, determining whether or not the pieces of equipment Ei and Ej belong to a common sound space.
A hybrid organic-inorganic solar cell, comprising: a) a substrate; b) a transparent conductive oxide (TCO) layer deposited on said substrate; c) an electron transport material (ETM) layer, wherein said ETM comprises an n-type layer; d) a hole transport material (HTM) layer, wherein said HTM layer comprises a p-type layer; e) at least one passivating barrier layer; f) a perovskite layer, wherein said perovskite layer comprises an i-type layer; and g) an electrode layer; wherein said substrate, said TCO layer, said ETM layer, said perovskite layer, said HTM layer and said electrode layer are arranged in an n-i-p stack, or said substrate, said TCO layer, said HTM layer, said perovskite layer, said ETM layer and said electrode layer are arranged in a p-i-n stack; wherein said at least one passivating barrier layer is disposed (i) between said perovskite layer and said HTM layer, or (iii) between said perovskite and said HTM layer, and between said perovskite layer and said ETM, or (iv) between said TCO layer and said ETM layer, and between said ETM layer and said perovskite layer, and between said perovskite layer and said HTM layer, or (v) between said substrate and said TCO layer, and between said TCO layer and said ETM layer, and between ETM layer and said perovskite layer, and between said perovskite layer and said HTM layer, or (vi) between a pair of said ETM layers, or (vii) between a pair of said HTM layers. a) a substrate; b) a transparent conductive oxide (TCO) layer deposited on said substrate; c) an electron transport material (ETM) layer, wherein said ETM comprises an n-type layer; d) a hole transport material (HTM) layer, wherein said HTM layer comprises a p-type layer; e) at least one passivating barrier layer; f) a perovskite layer, wherein said perovskite layer comprises an i-type layer; and g) an electrode layer; wherein said substrate, said TCO layer, said ETM layer, said perovskite layer, said HTM layer and said electrode layer are arranged in an n-i-p stack, or said substrate, said TCO layer, said HTM layer, said perovskite layer, said ETM layer and said electrode layer are arranged in a p-i-n stack; wherein said at least one passivating barrier layer is disposed (i) between said perovskite layer and said HTM layer, or (iii) between said perovskite and said HTM layer, and between said perovskite layer and said ETM, or (iv) between said TCO layer and said ETM layer, and between said ETM layer and said perovskite layer, and between said perovskite layer and said HTM layer, or (v) between said substrate and said TCO layer, and between said TCO layer and said ETM layer, and between ETM layer and said perovskite layer, and between said perovskite layer and said HTM layer, or (vi) between a pair of said ETM layers, or (vii) between a pair of said HTM layers.
An assembly set including a drip tray and a fan assembly configured to be placed in a machine compartment of a refrigerator, the drip tray comprising: a bottom panel ; a plurality of first and second walls that extend upward from the bottom panel , wherein each of the plurality of first and second walls has an inner surface and an outer surface, wherein the bottom panel , the inner surfaces of the plurality of first walls , and the outer surfaces of the plurality of second walls define a water storage space to receive water; and a fan assembly mounting space defined by the inner surfaces of the plurality of second walls in which at least a portion of a fan assembly can be mounted; wherein the water storage space is divided into a first storage space and a second storage space by the fan assembly mounting space , wherein the fan assembly mounting space is configured not to accommodate water and receives the fan assembly , wherein the fan assembly mounting space is separated by the plurality of second walls from the defrosted water storage space such that water being defrosted does not flow into the fan assembly mounting space , characterized in that the first storage space is provided on an air suction side of the fan assembly while the second storage space is arranged on an air discharge side of the fan assembly . a bottom panel ; a plurality of first and second walls that extend upward from the bottom panel , wherein each of the plurality of first and second walls has an inner surface and an outer surface, wherein the bottom panel , the inner surfaces of the plurality of first walls , and the outer surfaces of the plurality of second walls define a water storage space to receive water; and a fan assembly mounting space defined by the inner surfaces of the plurality of second walls in which at least a portion of a fan assembly can be mounted; wherein the water storage space is divided into a first storage space and a second storage space by the fan assembly mounting space , wherein the fan assembly mounting space is configured not to accommodate water and receives the fan assembly , wherein the fan assembly mounting space is separated by the plurality of second walls from the defrosted water storage space such that water being defrosted does not flow into the fan assembly mounting space , characterized in that the first storage space is provided on an air suction side of the fan assembly while the second storage space is arranged on an air discharge side of the fan assembly .
A solid state lighting device comprising: at least one electrically activated solid state emitter configured to generate emissions having a peak wavelength in a range of 430 nanometers (nm) to 480 nm; a first lumiphoric material arranged to receive at least a portion of the emissions of the at least one electrically activated solid state emitter and responsively generate first lumiphor emissions having a peak wavelength in a range of 540 nm to 570 nm; and a second lumiphoric material arranged to receive at least a portion of the emissions of the at least one electrically activated solid state emitter and responsively generate second lumiphor emissions having a peak wavelength in a range of 605 nm to 650 nm; wherein aggregated emissions of the solid state lighting device include at least a portion of the emissions of each of the at least one electrically activated solid state emitter, the first lumiphor emissions, and the second lumiphor emissions; and wherein the aggregated emissions have a correlated color temperature (CCT) in a range of 1800 Kelvin (K) to 2300 K, and have a Duv of at least 0.005. at least one electrically activated solid state emitter configured to generate emissions having a peak wavelength in a range of 430 nanometers (nm) to 480 nm; a first lumiphoric material arranged to receive at least a portion of the emissions of the at least one electrically activated solid state emitter and responsively generate first lumiphor emissions having a peak wavelength in a range of 540 nm to 570 nm; and a second lumiphoric material arranged to receive at least a portion of the emissions of the at least one electrically activated solid state emitter and responsively generate second lumiphor emissions having a peak wavelength in a range of 605 nm to 650 nm; wherein aggregated emissions of the solid state lighting device include at least a portion of the emissions of each of the at least one electrically activated solid state emitter, the first lumiphor emissions, and the second lumiphor emissions; and wherein the aggregated emissions have a correlated color temperature (CCT) in a range of 1800 Kelvin (K) to 2300 K, and have a Duv of at least 0.005.
A computer-implemented traffic signal recognition method comprising: acquiring a plurality of images by imaging multiple times a traffic signal in a traveling direction of a vehicle using an imaging unit mounted on the vehicle, acquiring a result sequence consisting of a plurality of determination results in time-series order obtained by determining a display state of the traffic signal for each image of the plurality of images, acquiring a position of a stop line corresponding to the traffic signal, calculating a first distance from a position of the vehicle to the position of the stop line, when setting a number threshold (NC) based on the first distance, setting a first threshold as the number threshold (NC) in a case where the first distance is equal to or greater than a distance threshold (D_H), setting a second threshold smaller than the first threshold as the number threshold (NC) in a case where the first distance is less than the distance threshold (D_H), and outputting a latest determination result in a case where a number of determination results identical to the latest determination result is greater than the number threshold (NC), among the determination results constituting the result sequence. acquiring a plurality of images by imaging multiple times a traffic signal in a traveling direction of a vehicle using an imaging unit mounted on the vehicle, acquiring a result sequence consisting of a plurality of determination results in time-series order obtained by determining a display state of the traffic signal for each image of the plurality of images, acquiring a position of a stop line corresponding to the traffic signal, calculating a first distance from a position of the vehicle to the position of the stop line, when setting a number threshold (NC) based on the first distance, setting a first threshold as the number threshold (NC) in a case where the first distance is equal to or greater than a distance threshold (D_H), setting a second threshold smaller than the first threshold as the number threshold (NC) in a case where the first distance is less than the distance threshold (D_H), and setting a first threshold as the number threshold (NC) in a case where the first distance is equal to or greater than a distance threshold (D_H), setting a second threshold smaller than the first threshold as the number threshold (NC) in a case where the first distance is less than the distance threshold (D_H), and outputting a latest determination result in a case where a number of determination results identical to the latest determination result is greater than the number threshold (NC), among the determination results constituting the result sequence.
Method for the management of a display of a view of an application (AppC), said application being executed on a non-secured processor (PNS) of an electronic data entry device that furthermore comprises a secured processor, said application (AppC) delivering at least one current view (VC), comprising a set of pixels, to be displayed on a screen of said device, said method comprising, under the control of said secured processor a step of analysis (AN) of said current view (VC), delivering at least one piece of data representing a presence of at least one suspect pattern, said step of analysis (AN) being implemented by a remote server with which said secured processor is capable of communicating by means of a communications network and/or by said secured processor of the electronic data entry device, said method being characterized in that said step of analysis is implemented when one of the following conditions is verified: - said application is absent from a predefined list of trusted applications; - said application is present in said predefined list of trusted applications, and said current view is absent from a list of known views for said application; and said method being further characterized in that it comprises, when a presence of at least one suspect pattern is detected within said current view (VC), a step of implementation (PT) by the secured processor of at least one protection measure. - said application is absent from a predefined list of trusted applications; - said application is present in said predefined list of trusted applications, and said current view is absent from a list of known views for said application; and
A chamber for separating particles from a liquid, the chamber comprising: a side wall defining a volume, wherein at least a portion of the side wall defines a conical volume that makes up the volume, wherein the volume comprises a first cross-sectional area and a second cross-sectional area, the second cross-sectional area being smaller than the first cross-sectional area, wherein the at least a portion of the side wall is angled with respect to a central axis ; a first port in fluid communication with the volume, wherein the first port is located in the side wall adjacent a first downward projecting baffle , wherein the first downward projecting baffle is configured to direct particles and liquid, introduced through the first port, toward an inside surface of the side wall; a second downward projecting baffle , wherein at least a portion of the second downwardly projecting baffle is located diametrically opposite the first downward projecting baffle ; a second port in fluid communication with the volume, wherein the second port is located in a lower portion of the volume, below the first port; and a third port in fluid communication with the volume, wherein the third port is located in an upper portion of the volume, above the second port. a side wall defining a volume, wherein at least a portion of the side wall defines a conical volume that makes up the volume, wherein the volume comprises a first cross-sectional area and a second cross-sectional area, the second cross-sectional area being smaller than the first cross-sectional area, wherein the at least a portion of the side wall is angled with respect to a central axis ; a first port in fluid communication with the volume, wherein the first port is located in the side wall adjacent a first downward projecting baffle , wherein the first downward projecting baffle is configured to direct particles and liquid, introduced through the first port, toward an inside surface of the side wall; a second downward projecting baffle , wherein at least a portion of the second downwardly projecting baffle is located diametrically opposite the first downward projecting baffle ; a second port in fluid communication with the volume, wherein the second port is located in a lower portion of the volume, below the first port; and a third port in fluid communication with the volume, wherein the third port is located in an upper portion of the volume, above the second port.
A leg assembly for a legged robot, comprising: a first leg having a first end and a second end; a motor arranged at the first end of the first leg , and having an output shaft ; an output flange connected to the output shaft of the motor , and configured to be driven by the output shaft of the motor to rotate; a second leg pivotably connected to the second end of the first leg ; and a transmission component connected to the output flange and the second leg , and configured to drive the second leg to rotate relative to the first leg , characterised in that the output flange is provided with a first limiting portion , in that the first leg is provided with a first stop portion and a second stop portion , wherein the first stop portion and the second stop portion are spaced apart and configured to stop the first limiting portion to limit a rotation angle of the output flange , and in that the first leg is provided with a second limiting portion configured to stop the second leg to limit rotation of the second leg . a first leg having a first end and a second end; a motor arranged at the first end of the first leg , and having an output shaft ; an output flange connected to the output shaft of the motor , and configured to be driven by the output shaft of the motor to rotate; a second leg pivotably connected to the second end of the first leg ; and a transmission component connected to the output flange and the second leg , and configured to drive the second leg to rotate relative to the first leg , characterised in that the output flange is provided with a first limiting portion , in that the first leg is provided with a first stop portion and a second stop portion , wherein the first stop portion and the second stop portion are spaced apart and configured to stop the first limiting portion to limit a rotation angle of the output flange , and in that the first leg is provided with a second limiting portion configured to stop the second leg to limit rotation of the second leg .
Process for producing a strength member which contains filaments of poly(p-phenylene-2,6-benzobisoxazole) for reinforcing rubber products comprising at least the steps of: a) providing a strength member which contains filaments of poly(p-phenylene-2,6-benzobisoxazole) in the form of a continuous individual yarn or individual cord, b) passing the strength member through an atmospheric pressure plasma with air as the process gas at a voltage up to 15 kV and a frequency up to 100 kHz to activate the surface of the filaments of poly(p-phenylene-2,6-benzobisoxazole), c) not more than 40 seconds after the plasma treatment directly passing the strength member through an immersion bath comprising an RFL dip (resorcinol-formaldehyde-latex dip), d) passing the strength member out of the immersion bath, e) passing the strength member onwards through a drying apparatus, f) passing the strength member onwards through a baking apparatus to react the reactive surface of the filaments of poly(p-phenylene-2,6-benzobisoxazole) with the RFL dip. a) providing a strength member which contains filaments of poly(p-phenylene-2,6-benzobisoxazole) in the form of a continuous individual yarn or individual cord, b) passing the strength member through an atmospheric pressure plasma with air as the process gas at a voltage up to 15 kV and a frequency up to 100 kHz to activate the surface of the filaments of poly(p-phenylene-2,6-benzobisoxazole), c) not more than 40 seconds after the plasma treatment directly passing the strength member through an immersion bath comprising an RFL dip (resorcinol-formaldehyde-latex dip), d) passing the strength member out of the immersion bath, e) passing the strength member onwards through a drying apparatus, f) passing the strength member onwards through a baking apparatus to react the reactive surface of the filaments of poly(p-phenylene-2,6-benzobisoxazole) with the RFL dip.
A cover which is configured to constitute an external appearance of a member , wherein an outer surface (OS) of the cover is provided with a design cover portion (10; 10A; 10B; 10C; 11; 11A, 11B, 11C) and a general cover portion (20; 21) in a state where a positional relationship between the design cover portion (10; 10A; 10B; 10C; 11; 11A, 11B, 11C) and the general cover portion (20; 21) is maintained, the design cover portion (10; 10A; 10B; 10C; 11; 11A, 11B, 11C) having a geometric planar shape, and the general cover portion (20; 21) including a part provided to a back side of the design cover portion (10; 10A; 10B; 10C; 11; 11A, 11B, 11C), characterized in that a back surface (RS) of the cover , which is opposite to the outer surface (OS) of the cover , is provided with a linear mountain fold portion (Lm) and a linear valley fold portion (Lv) which surround the design cover portion (10; 10A; 10B; 10C; 11; 11A, 11B, 11C), and the general cover portion (20; 21) is configured by mountain-folding the cover along the mountain fold portion (Lm) and valley-folding the cover along the valley fold portion (Lv) in a case where the cover is viewed from the back surface side.
A pharmaceutical composition, comprising: cannabidiol and/or a pharmaceutically acceptable salt or ester thereof; and one or more hypoglycemic agents; wherein the hypoglycemic agent is selected from a group consisting of: metformin, metformin hydrochloride and glibenclamide; and a weight ratio of the cannabidiol and/or the pharmaceutically acceptable salt or ester thereof to the hypoglycemic agent is (10:1) to (1:10). cannabidiol and/or a pharmaceutically acceptable salt or ester thereof; and one or more hypoglycemic agents; wherein the hypoglycemic agent is selected from a group consisting of: metformin, metformin hydrochloride and glibenclamide; and a weight ratio of the cannabidiol and/or the pharmaceutically acceptable salt or ester thereof to the hypoglycemic agent is (10:1) to (1:10).
Voltage controller of a generator for controlling the output voltage of the generator comprising • a first control unit , and • a second control unit independent of the first control unit , • wherein the first control unit is designed to lower an output voltage of the generator when a first maximum value is exceeded, and • wherein the second control unit is designed to lower the output voltage either when the first maximum value is exceeded or when a second maximum value different from the first maximum value is exceeded, characterized in that , in a normal state in which the first control unit is operative, the second control unit is adapted to lower the output voltage when a second maximum value is exceeded and wherein, in the case of a fault at the first control unit , the second control unit is furthermore adapted to lower the output voltage when the first maximum value is exceeded, wherein the second maximum value is above the first maximum value. • a first control unit , and • a second control unit independent of the first control unit , • wherein the first control unit is designed to lower an output voltage of the generator when a first maximum value is exceeded, and • wherein the second control unit is designed to lower the output voltage either when the first maximum value is exceeded or when a second maximum value different from the first maximum value is exceeded,