mhurhangee/patent-ind-claim-en huggingface dataset:
A gear system for combining inputs, comprising: a first power source that generates a rotational force; a second power source that generates a rotational force identical to or different from the rotational force of the first power source ; a third power source that generates a rotational force identical or different from the rotational forces of the first power source and the second power source ; and a gear unit that generates a resultant output by combining at least two of the rotational forces from the first power source to the third power source , characterized by the first power source is a pedal and the second and third power sources are motors of an electric bicycle, the gear unit includes first to third main gears and a connection gear assembly receiving rotational forces from at least two of the first to third main gears , the first power source includes a rotary shaft rotating with the first main gear and the first main gear is directly coupled to the rotary shaft of the first power source , the second power source includes a rotary shaft rotating with the second main gear and the second main gear is directly coupled to the rotary shaft of the second power source , the third power source includes a rotary shaft rotating with the third main gear and the third main gear is directly coupled to the rotary shaft of the third power source , the connection gear assembly includes first to third clutch bearings for restricting the main gears of the first to third main gears to rotate in only one direction, and the first and third clutch bearings control any one of the first and third power sources operating as a load when any one of the first and third power sources is operated or the two power sources have different speeds, the connection gear assembly separately combines torque and speed of the first to the third power sources and generates a resultant output by combining torque of any two of the first power source to the third power source and combining a speed of the other power source with a speed of an output generated by combining torque.
A system comprising: a downhole separator disposed within a first wellbore of a well-pad and configured to receive a first production fluid from a first production zone and generate a hydrocarbon rich stream and a water stream from the first production fluid; characterised in that the system further comprises: a plurality of pumps comprising a first pump and a second pump , wherein the first pump is disposed within the first wellbore and coupled to the downhole separator and wherein the second pump is disposed within a second wellbore of the well-pad; a first surface separator coupled to the first pump via a first channel and to the second pump via a second channel, wherein the first surface separator is configured to receive the hydrocarbon rich stream from the downhole separator, using the first pump and a second production fluid from a second production zone, using the second pump and generate oil and a water rich stream from the hydrocarbon rich stream and the second production fluid; a first tube coupled to the downhole separator and configured to dispose the water stream from the downhole separator in a first disposal zone ; and a second tube coupled to the first surface separator and configured to dispose the water rich stream from the first surface separator in a second disposal zone . a downhole separator disposed within a first wellbore of a well-pad and configured to receive a first production fluid from a first production zone and generate a hydrocarbon rich stream and a water stream from the first production fluid; characterised in that the system further comprises: a plurality of pumps comprising a first pump and a second pump , wherein the first pump is disposed within the first wellbore and coupled to the downhole separator and wherein the second pump is disposed within a second wellbore of the well-pad; a first surface separator coupled to the first pump via a first channel and to the second pump via a second channel, wherein the first surface separator is configured to receive the hydrocarbon rich stream from the downhole separator, using the first pump and a second production fluid from a second production zone, using the second pump and generate oil and a water rich stream from the hydrocarbon rich stream and the second production fluid; a first tube coupled to the downhole separator and configured to dispose the water stream from the downhole separator in a first disposal zone ; and a second tube coupled to the first surface separator and configured to dispose the water rich stream from the first surface separator in a second disposal zone .
A welding rod comprising: physical marks , each of them indicating a location of the welding rod relative to either a first end of the welding rod , or a second end of the welding rod ; wherein the physical marks being configured to be detected by a camera-based detection system to determine a remaining length of the welding rod, a consumed length of the welding rod, a rate of use of the welding rod, a dipping rate of the welding rod, or some combination thereof. physical marks , each of them indicating a location of the welding rod relative to either a first end of the welding rod , or a second end of the welding rod ; wherein the physical marks being configured to be detected by a camera-based detection system to determine a remaining length of the welding rod, a consumed length of the welding rod, a rate of use of the welding rod, a dipping rate of the welding rod, or some combination thereof.
A method for identifying an initial roasting degree of coffee beans, the method comprising steps of: measuring (S101, S202, S303) information indicating temperature change of the coffee beans while the coffee beans are roasted; and identifying (S102, S206, S304) the initial roasting degree of the coffee beans at least partially based on the measured information. measuring (S101, S202, S303) information indicating temperature change of the coffee beans while the coffee beans are roasted; and identifying (S102, S206, S304) the initial roasting degree of the coffee beans at least partially based on the measured information.
A method for decoding a multi-view video, the method comprising: determining motion prediction schemes performed for a current block to be decoded and a co-located block corresponding to the current block, the motion prediction schemes are determined to be one of a long-term prediction, a short-term prediction and an inter-view prediction; and generating a motion vector of the current block using a motion vector of the co-located block according to the determined motion prediction schemes, wherein when the inter-view prediction is performed for one of the current block and the co-located block and then the long-term prediction or the short-term prediction is performed for the other block, the motion vector of the current block is generated using a predetermined vector or the motion vector of the co-located block, wherein the co-located block includes a temporal co-located block. determining motion prediction schemes performed for a current block to be decoded and a co-located block corresponding to the current block, the motion prediction schemes are determined to be one of a long-term prediction, a short-term prediction and an inter-view prediction; and generating a motion vector of the current block using a motion vector of the co-located block according to the determined motion prediction schemes, wherein when the inter-view prediction is performed for one of the current block and the co-located block and then the long-term prediction or the short-term prediction is performed for the other block, the motion vector of the current block is generated using a predetermined vector or the motion vector of the co-located block, wherein the co-located block includes a temporal co-located block.
A computer-implemented method for providing secure services to a network device comprising a secure element in a system comprising the network device , a computer maintaining at least one cryptographic key for the secure element , and secure service providers each having a trusted service manager, TSM , the method comprising: maintaining, by the computer , said at least one cryptographic key for the secure element , the at least one cryptographic key operable to provide secure access to the secure element via a secure communication channel; receiving from the network device , by the computer , a request to select a secure service provider , among said secure server providers , from available secure service providers each having said trusted service manager, TSM , wherein the secure element includes information related to a previous TSM that is different from the TSM of the selected service provider , and wherein if the previous TSM possesses the at least one cryptographic key , the method further comprises revoking the at least one cryptographic key from the previous TSM in response to receiving the request to select the secure service provider ; and transmitting, by the computer , the at least one cryptographic key to the TSM of the selected service provider in response to receiving the request to select the service provider (160A, . maintaining, by the computer , said at least one cryptographic key for the secure element , the at least one cryptographic key operable to provide secure access to the secure element via a secure communication channel; receiving from the network device , by the computer , a request to select a secure service provider , among said secure server providers , from available secure service providers each having said trusted service manager, TSM , wherein the secure element includes information related to a previous TSM that is different from the TSM of the selected service provider , and wherein if the previous TSM possesses the at least one cryptographic key , the method further comprises revoking the at least one cryptographic key from the previous TSM in response to receiving the request to select the secure service provider ; and transmitting, by the computer , the at least one cryptographic key to the TSM of the selected service provider in response to receiving the request to select the service provider (160A, .
A security protection method, comprising: determining (501; 901), by an apparatus, a first parameter, wherein the first parameter is used to indicate an access technology used to transmit a non-access stratum, NAS, message; and performing (502; 902), by the apparatus, security protection on the NAS message based on the first parameter, a NAS key, and a NAS COUNT corresponding to the access technology used to transmit the NAS message, wherein the first parameter is an input parameter used when security protection is performed on the NAS message. determining (501; 901), by an apparatus, a first parameter, wherein the first parameter is used to indicate an access technology used to transmit a non-access stratum, NAS, message; and performing (502; 902), by the apparatus, security protection on the NAS message based on the first parameter, a NAS key, and a NAS COUNT corresponding to the access technology used to transmit the NAS message, wherein the first parameter is an input parameter used when security protection is performed on the NAS message.
A gas turbine engine airfoil assembly, comprising: a first airfoil (161A;461A) including a first set of ridges (185A;485A) protruding from a first cold side surface adjacent to a first mate face ; a second airfoil (161B;461B) including a second set of ridges (185B;485B) protruding from a second cold side surface adjacent to a second mate face , the second mate face circumferentially adjacent to the first mate face to define a leakage gap (181;481); and a seal member (182;282;382;482) abutting the first set of ridges (185A;485A) to define a first set of cooling channels , and abutting the second set of ridges (185B;485B) to define a second set of cooling channels , the seal member (182...482) spaced apart from the first cold side surface and the second cold side surface , wherein the first airfoil includes an airfoil section extending from a platform (162;462), platform (162;462) includes an upper surface bounding a core flow path (C) and an undersurface (183;483) bounding a cooling cavity (175;475), and the first cold side surface is located at the undersurface of the platform (162...462). a first airfoil (161A;461A) including a first set of ridges (185A;485A) protruding from a first cold side surface adjacent to a first mate face ; a second airfoil (161B;461B) including a second set of ridges (185B;485B) protruding from a second cold side surface adjacent to a second mate face , the second mate face circumferentially adjacent to the first mate face to define a leakage gap (181;481); and a seal member (182;282;382;482) abutting the first set of ridges (185A;485A) to define a first set of cooling channels , and abutting the second set of ridges (185B;485B) to define a second set of cooling channels , the seal member (182...482) spaced apart from the first cold side surface and the second cold side surface , wherein the first airfoil includes an airfoil section extending from a platform (162;462), platform (162;462) includes an upper surface bounding a core flow path (C) and an undersurface (183;483) bounding a cooling cavity (175;475), and the first cold side surface is located at the undersurface of the platform (162...462).
A wireless transmit/receive unit, WTRU, comprising: a processor configured to generate a channel encoded signal from source encoded data; the processor further configured to generate error check, EC, bits from systematic bits of the channel encoded signal, wherein a unique word error check, UW-EC, codeword is selected from a UW-EC codebook based on the EC bits; the processor further configured to generate a UW-EC waveform from a UW-EC sequence generated based on the UW-EC codeword and the systematic bits and parity bits; and a transceiver configured to transmit the UW-EC waveform. a processor configured to generate a channel encoded signal from source encoded data; the processor further configured to generate error check, EC, bits from systematic bits of the channel encoded signal, wherein a unique word error check, UW-EC, codeword is selected from a UW-EC codebook based on the EC bits; the processor further configured to generate a UW-EC waveform from a UW-EC sequence generated based on the UW-EC codeword and the systematic bits and parity bits; and a transceiver configured to transmit the UW-EC waveform.
A continuous authentication system , comprising: a host including an encryption unit ; a storage device including a decryption unit ; a first physical connection between the host and the storage device , wherein the first physical connection is configured to transfer one or more input/output requests, I/Os; and a second physical connection between the host and the storage device , wherein: the encryption unit is configured to encrypt an authentication signal ; the host is configured to transmit the encrypted authentication signal through the second physical connection ; the storage device is configured to receive the encrypted authentication signal through the second physical connection ; and the decryption unit is configured to decrypt the encrypted authentication signal , wherein the authentication signal includes a periodically incrementing integer value, wherein the storage device is configured to stop processing the one or more I/Os in response to the periodically incrementing integer value having a non-chronological increment. a host including an encryption unit ; a storage device including a decryption unit ; a first physical connection between the host and the storage device , wherein the first physical connection is configured to transfer one or more input/output requests, I/Os; and a second physical connection between the host and the storage device , wherein: the encryption unit is configured to encrypt an authentication signal ; the host is configured to transmit the encrypted authentication signal through the second physical connection ; the storage device is configured to receive the encrypted authentication signal through the second physical connection ; and the decryption unit is configured to decrypt the encrypted authentication signal , wherein the authentication signal includes a periodically incrementing integer value, wherein the storage device is configured to stop processing the one or more I/Os in response to the periodically incrementing integer value having a non-chronological increment. the encryption unit is configured to encrypt an authentication signal ; the host is configured to transmit the encrypted authentication signal through the second physical connection ; the storage device is configured to receive the encrypted authentication signal through the second physical connection ; and the decryption unit is configured to decrypt the encrypted authentication signal , wherein the authentication signal includes a periodically incrementing integer value, wherein the storage device is configured to stop processing the one or more I/Os in response to the periodically incrementing integer value having a non-chronological increment.
A mortar or plaster composition for interior covering, said composition comprising at least one binder, in particular mineral, and also generally comprising at least granules or aggregates or sands or fillers, said composition being characterized in that it further comprises between 1 and 10 wt% of said composition when dry of at least one activated carbon, preferably in the form of granules, having: - a specific surface area greater than or equal to 875 m 2 /g and less than or equal to 1200 m 2 /g and/or an iodine number greater than or equal to 900 mg/g and/or a sorption capacity of at least 7 mg of toluene per g of activated carbon, and - an average weight change Δ m(S) in sorption of at least 2% and a weight change Δ m(D4) after 4 cycles of sorption/desorption of at most 1.5%. - a specific surface area greater than or equal to 875 m 2 /g and less than or equal to 1200 m 2 /g and/or an iodine number greater than or equal to 900 mg/g and/or a sorption capacity of at least 7 mg of toluene per g of activated carbon, and - an average weight change Δ m(S) in sorption of at least 2% and a weight change Δ m(D4) after 4 cycles of sorption/desorption of at most 1.5%.
A method for processing data, performed by an electronic device, wherein the method comprises: responsive to it is detected that a front camera is activated, acquiring an image acquisition instruction; characterized in that responsive to that the acquired image acquisition instruction is a depth image acquisition instruction, controlling a second processor interface, that connects a first image processor to a rear camera, to disconnect a connection between the first image processor and the rear camera, wherein the front camera is a dual-camera and the first image processor is connected to the front camera through a first processor interface; and controlling the first image processor to be connected to a second image processor through the second processor interface, wherein the second image processor is connected to the front camera. responsive to it is detected that a front camera is activated, acquiring an image acquisition instruction; characterized in that responsive to that the acquired image acquisition instruction is a depth image acquisition instruction, controlling a second processor interface, that connects a first image processor to a rear camera, to disconnect a connection between the first image processor and the rear camera, wherein the front camera is a dual-camera and the first image processor is connected to the front camera through a first processor interface; and controlling the first image processor to be connected to a second image processor through the second processor interface, wherein the second image processor is connected to the front camera.
A laundry treatment apparatus comprising: a cabinet including a receiving space to receive laundry; an air supply device ; an air supply part configured to supply air from the air supply device to the receiving space ; an air suction part including a through-hole formed in a portion thereof, the air suction part being configured to suck air in the receiving space through the through-hole and to remove foreign substances or water from the receiving space ; and an air inlet assembly including a cover mounted on the air suction part , wherein the cover comprises: a base plate configured to cover the air suction part when viewed in a plan view, by forming a portion corresponding to the through-hole as an opened plate shape; characterized in that said cover further comprises: an outer wall configured to continuously protrude along the periphery of the base plate ; and a rib configured to protrude from an inner portion spaced apart from the outer wall so as to form a water discharge channel in a space between the outer wall and the rib , the water discharge channel extending to the through-hole . a cabinet including a receiving space to receive laundry; an air supply device ; an air supply part configured to supply air from the air supply device to the receiving space ; an air suction part including a through-hole formed in a portion thereof, the air suction part being configured to suck air in the receiving space through the through-hole and to remove foreign substances or water from the receiving space ; and an air inlet assembly including a cover mounted on the air suction part , wherein the cover comprises: a base plate configured to cover the air suction part when viewed in a plan view, by forming a portion corresponding to the through-hole as an opened plate shape; characterized in that said cover further comprises: an outer wall configured to continuously protrude along the periphery of the base plate ; and a rib configured to protrude from an inner portion spaced apart from the outer wall so as to form a water discharge channel in a space between the outer wall and the rib , the water discharge channel extending to the through-hole . an outer wall configured to continuously protrude along the periphery of the base plate ; and a rib configured to protrude from an inner portion spaced apart from the outer wall so as to form a water discharge channel in a space between the outer wall and the rib , the water discharge channel extending to the through-hole .