mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic apparatus (1; 1') comprising: a processor (2; 2'); a peripheral (3; 3') comprising a data interface; a direct memory access (DMA) controller (6, 7; 6', 7') for the peripheral (3; 3'); a memory (4; 4'); a bus system (5; 5') connecting the processor (2; 2'), the DMA controller (6, 7; 6', 7'), and the memory (4; 4'); and a data link (8, 10; 8', 10') between the DMA controller (6, 7; 6', 7') and the peripheral (3; 3'); wherein the DMA controller (6, 7; 6', 7') comprises data-transfer circuitry configured to transfer data between the memory (4; 4') and the data interface of the peripheral (3; 3') over the data link (8, 10; 8', 10'); characterized in that : the peripheral (3; 3') comprises a data-attribute interface; the electronic apparatus (1; 1') comprises a data-attribute link (9; 9'; 11) between the DMA controller (6, 7; 6', 7') and the peripheral (3; 3'), separate from the data link (8, 10; 8', 10'); and the data-transfer circuitry is configured to transfer data-attribute information, associated with the data, between the memory (4; 4') and the data-attribute interface of the peripheral (3; 3') over the data-attribute link (9; 9'; 11). a processor (2; 2'); a peripheral (3; 3') comprising a data interface; a direct memory access (DMA) controller (6, 7; 6', 7') for the peripheral (3; 3'); a memory (4; 4'); a bus system (5; 5') connecting the processor (2; 2'), the DMA controller (6, 7; 6', 7'), and the memory (4; 4'); and a data link (8, 10; 8', 10') between the DMA controller (6, 7; 6', 7') and the peripheral (3; 3'); wherein the DMA controller (6, 7; 6', 7') comprises data-transfer circuitry configured to transfer data between the memory (4; 4') and the data interface of the peripheral (3; 3') over the data link (8, 10; 8', 10'); characterized in that : the peripheral (3; 3') comprises a data-attribute interface; the electronic apparatus (1; 1') comprises a data-attribute link (9; 9'; 11) between the DMA controller (6, 7; 6', 7') and the peripheral (3; 3'), separate from the data link (8, 10; 8', 10'); and the data-transfer circuitry is configured to transfer data-attribute information, associated with the data, between the memory (4; 4') and the data-attribute interface of the peripheral (3; 3') over the data-attribute link (9; 9'; 11). the peripheral (3; 3') comprises a data-attribute interface; the electronic apparatus (1; 1') comprises a data-attribute link (9; 9'; 11) between the DMA controller (6, 7; 6', 7') and the peripheral (3; 3'), separate from the data link (8, 10; 8', 10'); and the data-transfer circuitry is configured to transfer data-attribute information, associated with the data, between the memory (4; 4') and the data-attribute interface of the peripheral (3; 3') over the data-attribute link (9; 9'; 11).
A tool assembly comprising: a first piece having a first joint portion including a top surface and at least a first interlock surface ; a second piece having a second joint portion configured to interlock with the first joint portion , the second joint portion including a top surface and at least a second interlock surface that is complementary to the first interlock surface ; and a fastener extending through the first joint portion and the second joint portion , wherein the first interlock surface and the top surface of the first joint portion form an obtuse angle corner and the second interlock surface and the top surface of the second joint portion form an acute angle corner , wherein the first interlock surface is configured to contact the second interlock surface to inhibit relative movement between the first piece and the second piece along a longitudinal axis of the tool assembly , and wherein the first piece further comprises a third interlock surface and a first intermediate surface , and the first intermediate surface and the first interlock surface form an obtuse angle corner , and wherein the first intermediate surface and the third interlock surface form an obtuse angle corner . a first piece having a first joint portion including a top surface and at least a first interlock surface ; a second piece having a second joint portion configured to interlock with the first joint portion , the second joint portion including a top surface and at least a second interlock surface that is complementary to the first interlock surface ; and a fastener extending through the first joint portion and the second joint portion , wherein the first interlock surface and the top surface of the first joint portion form an obtuse angle corner and the second interlock surface and the top surface of the second joint portion form an acute angle corner , wherein the first interlock surface is configured to contact the second interlock surface to inhibit relative movement between the first piece and the second piece along a longitudinal axis of the tool assembly , and wherein the first piece further comprises a third interlock surface and a first intermediate surface , and the first intermediate surface and the first interlock surface form an obtuse angle corner , and wherein the first intermediate surface and the third interlock surface form an obtuse angle corner .
Method of cooperation between a plurality of client entities communicating with one another by way of at least one instant-communication channel established between the client entities of said plurality, said method comprising the following steps implemented by a first client entity of said plurality: - sending (E1) an executable application to at least one second client entity of said plurality; - executing (φ5) said application in cooperation with an execution of said application on the second client entity, characterized in that the executable application is sent by way of said at least one instant-communication channel and in that the cooperation between the application currently being executed on the first client entity and that currently being executed on the second client entity is performed by means of messages relating to the application (M4-M8) and transmitted by way of said at least one instant-communication channel. - sending (E1) an executable application to at least one second client entity of said plurality; - executing (φ5) said application in cooperation with an execution of said application on the second client entity,
Door for apparatus to cook and/or heat food, comprising at least a perimeter frame (12; 12a, 12b) and two panels made of an at least partly transparent material, an internal panel and an external panel to which a gripping handle is attached for opening and closing the door , located distanced and facing each other and delimited externally by said at least one perimeter frame (12; 12a, 12b), so as to form a closed chamber , wherein at least said internal panel is co-molded with the at least one perimeter frame (12; 12a, 12b) to form an hermetic seal therebetween configured to prevent penetration of steam between the internal panel and the perimeter frame into the closed chamber , characterized in that said internal panel is made by a material that is more resistant to heat than the material of said external panel , and wherein the closed chamber is hermetically sealed on an internal side, and in that said perimeter frame is co-molded with both panels .
Recuperator comprising a number of neighbouring hexagonal sheets which extend parallel to each other and which are connected to each other at at least a part of their periphery and wherein flow passages are formed between neighbouring sheets , whereby each of the sheets , at its periphery, is at least partially surrounded by and is connected to an associated connecting body and neighbouring connecting bodies are connected to each other at at least a part of the periphery of the associated sheets and together form the wall of a housing, wherein passage openings are provided in the wall which are connected to the flow passages for allowing air into the flow passages via the passage openings , wherein neighbouring connecting bodies are provided with protruding parts and with recesses respectively on sides facing each other, wherein the forms of the protruding parts and of the recesses adjoin each other in order to connect the connecting bodies to each other by a press fit.
Method for analyzing a gemstone, typically for locating an inclusion in a gemstone, comprising: - selecting a solid material which is transparent in at least a segment of the visible spectrum or a segment of the infrared spectrum; - fixing the gemstone on a holder; - melting or plasticizing said solid material and applying the immersion material while the gemstone remains fixed on the holder by immersing the gemstone in said melted or plasticized material such that the gemstone is at least partly covered therein; - allowing said melted or plasticized material to become solid such that a solid transparent block is obtained containing the gemstone; characterized by - transferring the holder with the solid transparent block containing the gemstone to a device for analyzing the gemstone; - analyzing the gemstone in said device through a surface of the transparent solid block using light rays in the visible spectrum or in the infrared spectrum. - selecting a solid material which is transparent in at least a segment of the visible spectrum or a segment of the infrared spectrum; - fixing the gemstone on a holder; - melting or plasticizing said solid material and applying the immersion material while the gemstone remains fixed on the holder by immersing the gemstone in said melted or plasticized material such that the gemstone is at least partly covered therein; - allowing said melted or plasticized material to become solid such that a solid transparent block is obtained containing the gemstone; characterized by - transferring the holder with the solid transparent block containing the gemstone to a device for analyzing the gemstone; - analyzing the gemstone in said device through a surface of the transparent solid block using light rays in the visible spectrum or in the infrared spectrum.
A handheld material analyser comprising an air-tight chamber having an analysis aperture, the analysis aperture being surrounded by a seal suitable for forming a temporary air-tight seal against a material surface to be analysed; an electron beam generation system comprising a focussed LED adapted to illuminate a photocathode, wherein the photocathode is located in the chamber and the electron beam generation system is adapted to direct a beam of electrons through the analysis aperture; an Energy-Dispersive X-ray (EDX) spectroscopy system having a detector located in the chamber; the chamber being adapted to operate at internal pressures between atmospheric pressure and a vacuum of the order of or below 1 Pa, and having an outlet adapted to be connected to a vacuum pump; and a gas inlet adapted to receive an inert gas for generating a plasma in the region of the photocathode, such that the plasma cleans the photocathode. an air-tight chamber having an analysis aperture, the analysis aperture being surrounded by a seal suitable for forming a temporary air-tight seal against a material surface to be analysed; an electron beam generation system comprising a focussed LED adapted to illuminate a photocathode, wherein the photocathode is located in the chamber and the electron beam generation system is adapted to direct a beam of electrons through the analysis aperture; an Energy-Dispersive X-ray (EDX) spectroscopy system having a detector located in the chamber; the chamber being adapted to operate at internal pressures between atmospheric pressure and a vacuum of the order of or below 1 Pa, and having an outlet adapted to be connected to a vacuum pump; and a gas inlet adapted to receive an inert gas for generating a plasma in the region of the photocathode, such that the plasma cleans the photocathode. an outlet adapted to be connected to a vacuum pump; and a gas inlet adapted to receive an inert gas for generating a plasma in the region of the photocathode, such that the plasma cleans the photocathode.
A 1-to-N munitions adapter for an airborne platform , comprising: a physical launcher interface that is configured and arranged to mechanically and electrically connect the 1-to-N munitions adapter to a single munition launcher that is i) configured and arranged to carry and launch a single munition of a first type without use of the 1-N munitions adapter , and ii) integrated to an airborne platform ; a physical munitions interface that is configured and arranged to mechanically and electrically connect the 1-to-N munitions adapter to a plurality of munitions of a second type; and electronic control circuitry that is configured and arranged to: emulate a control interface of a single munition of the first type to the single munition launcher , at least in part by identifying the 1-to-N munitions adapter to the single munition launcher as a single munition of the first type, and selectively control the release of multiple ones of a plurality of munitions of the second type that are carried by the 1-to-N munitions adapter while the airborne platform is in flight in response to signals received from the single munition launcher . a physical launcher interface that is configured and arranged to mechanically and electrically connect the 1-to-N munitions adapter to a single munition launcher that is i) configured and arranged to carry and launch a single munition of a first type without use of the 1-N munitions adapter , and ii) integrated to an airborne platform ; a physical munitions interface that is configured and arranged to mechanically and electrically connect the 1-to-N munitions adapter to a plurality of munitions of a second type; and electronic control circuitry that is configured and arranged to: emulate a control interface of a single munition of the first type to the single munition launcher , at least in part by identifying the 1-to-N munitions adapter to the single munition launcher as a single munition of the first type, and selectively control the release of multiple ones of a plurality of munitions of the second type that are carried by the 1-to-N munitions adapter while the airborne platform is in flight in response to signals received from the single munition launcher . emulate a control interface of a single munition of the first type to the single munition launcher , at least in part by identifying the 1-to-N munitions adapter to the single munition launcher as a single munition of the first type, and selectively control the release of multiple ones of a plurality of munitions of the second type that are carried by the 1-to-N munitions adapter while the airborne platform is in flight in response to signals received from the single munition launcher .
Cosmetic device for cleansing the hair, comprising: - an ultrasonic transmitter, having an ultrasonic transducer powered by a current generator and configured to generate ultrasonic vibrations, - a handpiece comprising a probe coupled to the ultrasonic transmitter so as to transmit the ultrasonic vibrations generated by the transducer to a lock of hair to be treated, the probe extending along a longitudinal axis (X) between a proximal outer surface and a distal outer surface , wherein the handpiece also comprises a counter-form provided with a bearing surface , so as to at least partially receive the lock of hair to be treated, the probe cooperating with the counter-form so as to pinch the lock of hair between the bearing surface of the counter-form and the distal outer surface of the probe , characterized in that the counter-form delimits a receptacle of which the bottom defines the bearing surface . - an ultrasonic transmitter, having an ultrasonic transducer powered by a current generator and configured to generate ultrasonic vibrations, - a handpiece comprising a probe coupled to the ultrasonic transmitter so as to transmit the ultrasonic vibrations generated by the transducer to a lock of hair to be treated, the probe extending along a longitudinal axis (X) between a proximal outer surface and a distal outer surface , wherein the handpiece also comprises a counter-form provided with a bearing surface , so as to at least partially receive the lock of hair to be treated, the probe cooperating with the counter-form so as to pinch the lock of hair between the bearing surface of the counter-form and the distal outer surface of the probe , characterized in that the counter-form delimits a receptacle of which the bottom defines the bearing surface .
An all-solid-state lithium ion secondary battery, wherein an anode comprises anode active material particles, an electroconductive material and a solid electrolyte; wherein the anode active material particles comprise at least one active material selected from the group consisting of elemental silicon and SiO; wherein, for the anode active material particles, a value A obtained by the following formula is 6.1 or more and 54.8 or less: A = S BET × d med × D where S BET is a BET specific surface area (m 2 /g) of said anode active material particles; d med is a median diameter D50 (μm) of said anode active material particles; and D is a density (g/cm 3 ) of said anode active material particles; wherein the median diameter D50 of the anode active material particles is measured by a dynamic light scattering (DLS) particle size distribution measuring machine; and wherein the density of the anode active material particles is measured by a specific gravity measuring machine. wherein an anode comprises anode active material particles, an electroconductive material and a solid electrolyte; wherein the anode active material particles comprise at least one active material selected from the group consisting of elemental silicon and SiO; wherein, for the anode active material particles, a value A obtained by the following formula is 6.1 or more and 54.8 or less: A = S BET × d med × D where S BET is a BET specific surface area (m 2 /g) of said anode active material particles; d med is a median diameter D50 (μm) of said anode active material particles; and D is a density (g/cm 3 ) of said anode active material particles; wherein the median diameter D50 of the anode active material particles is measured by a dynamic light scattering (DLS) particle size distribution measuring machine; and wherein the density of the anode active material particles is measured by a specific gravity measuring machine.
Supporting element (200; 400; 500; 600a; 600b; 600c; 700) for a shoe (550; 650a; 650b; 650c; 750; 800), in particular a soccer shoe or American football shoe, wherein the supporting element (200; 400; 500; 600a; 600b; 600c; 700) is provided such that it a. comprises a first bending stiffness for bendings from an initial state without bending up to a threshold angle range; and b. comprises a second bending stiffness for bendings beyond the threshold angle range, wherein c. the second bending stiffness is larger than the first bending stiffness, and wherein d. the supporting element is provided to support the front half of the foot. a. comprises a first bending stiffness for bendings from an initial state without bending up to a threshold angle range; and b. comprises a second bending stiffness for bendings beyond the threshold angle range, wherein c. the second bending stiffness is larger than the first bending stiffness, and wherein d. the supporting element is provided to support the front half of the foot.
A method for laying paint indicia on a road surface, the method including: laying a base coat of paint; allowing the base coat of paint to dry to bind the base coat to the road surface; selecting a pre-defined binary signal for transmission from the paint indicia ; and applying a plurality of magnetic particles within the base coat of paint using a paint outlet , by using a controller to activate a magnetic force generator , that aligns the particles at the paint outlet , and operate the paint outlet , the controller controlling how the magnetic particles are laid in the paint indicia , the magnetic particles being applied in accordance with the pre-defined binary signal for providing to a vehicle by way of flux density variations of the binary signal being detected by a magnet flux detector of the vehicle and from which a processor of the vehicle determines the binary signal, to enable determinative action on the part of the vehicle, including at least one of stop, slow down, lane limit, remain within lane and which lane to travel on. laying a base coat of paint; allowing the base coat of paint to dry to bind the base coat to the road surface; selecting a pre-defined binary signal for transmission from the paint indicia ; and applying a plurality of magnetic particles within the base coat of paint using a paint outlet , by using a controller to activate a magnetic force generator , that aligns the particles at the paint outlet , and operate the paint outlet , the controller controlling how the magnetic particles are laid in the paint indicia , the magnetic particles being applied in accordance with the pre-defined binary signal for providing to a vehicle by way of flux density variations of the binary signal being detected by a magnet flux detector of the vehicle and from which a processor of the vehicle determines the binary signal, to enable determinative action on the part of the vehicle, including at least one of stop, slow down, lane limit, remain within lane and which lane to travel on.
A method of operating a health care apparatus, the method comprising: generating (S320) a temperature waveform according to time based on a skin temperature of the user; determining (S330), from the generated temperature waveform, a dietary temperature waveform corresponding to heat generated by food consumed by the user; determining (S610), from the dietary temperature waveform, a unit caloric value of the user by using a reference temperature, a dietary temperature and a dietary time, the unit caloric value is an amount of the heat generated by the food per unit surface area of the user, the reference temperature is a skin temperature of the user before heat is generated by the food, the dietary time is a time when heat is generated by the food; determining (S340) current diet metabolism information of the user by calculating a diet induced heat by multiplying the unit caloric value of the user for the dietary time and a body surface area of the user, the current diet metabolism information of the user is defined as a ratio of the diet induced heat with respect to a calorie intake; determining (S1130) a type of the food consumed by the user by using the current diet metabolism information outputting the current diet metabolism information ; and displaying information about the type of food consumed by the user in text or a graph. generating (S320) a temperature waveform according to time based on a skin temperature of the user; determining (S330), from the generated temperature waveform, a dietary temperature waveform corresponding to heat generated by food consumed by the user; determining (S610), from the dietary temperature waveform, a unit caloric value of the user by using a reference temperature, a dietary temperature and a dietary time, the unit caloric value is an amount of the heat generated by the food per unit surface area of the user, the reference temperature is a skin temperature of the user before heat is generated by the food, the dietary time is a time when heat is generated by the food; determining (S340) current diet metabolism information of the user by calculating a diet induced heat by multiplying the unit caloric value of the user for the dietary time and a body surface area of the user, the current diet metabolism information of the user is defined as a ratio of the diet induced heat with respect to a calorie intake; determining (S1130) a type of the food consumed by the user by using the current diet metabolism information outputting the current diet metabolism information ; and displaying information about the type of food consumed by the user in text or a graph.