mhurhangee/patent-ind-claim-en huggingface dataset:
An optical wireless power transfer system, comprising: a transmission module configured to output power light and communication light comprising a first modulated signal respectively through two light sources, receive reflected light, the reflected light generated by reflecting the communication light, and process a second modulated signal comprised in the reflected light; and a reception module configured to process the first modulated signal comprised in the communication light, reflect the communication light to output the reflected light, and enable the second modulated signal to be comprised in the reflected light based on power generated by the power light, characterized in that : the transmission module includes first magnetic bodies and the reception module includes second magnetic bodies , and the first magnetic bodies and the second magnetic bodies generate an attraction with each other so that the transmission module and the reception module are fixed within a predetermined distance. a transmission module configured to output power light and communication light comprising a first modulated signal respectively through two light sources, receive reflected light, the reflected light generated by reflecting the communication light, and process a second modulated signal comprised in the reflected light; and a reception module configured to process the first modulated signal comprised in the communication light, reflect the communication light to output the reflected light, and enable the second modulated signal to be comprised in the reflected light based on power generated by the power light, characterized in that : the transmission module includes first magnetic bodies and the reception module includes second magnetic bodies , and the first magnetic bodies and the second magnetic bodies generate an attraction with each other so that the transmission module and the reception module are fixed within a predetermined distance. the transmission module includes first magnetic bodies and the reception module includes second magnetic bodies , and the first magnetic bodies and the second magnetic bodies generate an attraction with each other so that the transmission module and the reception module are fixed within a predetermined distance.
A method of operating a relay device to receive data from one or more terminal devices and relay the data to network infrastructure equipment in a wireless telecommunications system , the method comprising: receiving a plurality of blocks of data from one or more terminal devices at different times, wherein each block of data is received in association with an indication of a time by which the block of data should be transmitted to the network infrastructure equipment; storing the plurality of blocks of data at the relay device; determining the earliest time by which one of the received blocks of data should be transmitted to the network infrastructure equipment; and transmitting the plurality of blocks of data to the network infrastructure equipment together in advance of the determined earliest time by which one of the received blocks of data should be transmitted to the network infrastructure equipment. receiving a plurality of blocks of data from one or more terminal devices at different times, wherein each block of data is received in association with an indication of a time by which the block of data should be transmitted to the network infrastructure equipment; storing the plurality of blocks of data at the relay device; determining the earliest time by which one of the received blocks of data should be transmitted to the network infrastructure equipment; and transmitting the plurality of blocks of data to the network infrastructure equipment together in advance of the determined earliest time by which one of the received blocks of data should be transmitted to the network infrastructure equipment.
A system for automatic gross-examination of tissue samples, the system comprising an apparatus which includes a stainless steel bed ; a piezoelectric glass lid; a robotic arm ; a plurality of cameras; an ultrasound equipment; and an ultrasound cleaning mechanism; the system further comprising a server ; wherein the ultrasound equipment is mounted on top of the stainless steel bed and the ultrasound equipment is adapted to detect the size and dimensions of a tumor specimen that is studied, wherein the ultrasound equipment is also adapted to automate the process of cutting the specimen , wherein surgical blades on the robotic arm receive ultrasound output and slice the specimen for further analysis, wherein the stainless steel bed is mounted with the piezoelectric glass lid on top for receiving and placing a tissue sample, wherein the stainless steel bed is provided with a disposable cover for each specimen , wherein the stainless steel bed is configured to slide out for avoiding accidental injury, wherein the stainless steel bed is covered with a box having a modular design, wherein the box is provided with lock-in mechanisms to ensure that all the parts are adapted to be opened and cleaned manually by an operator or a lab technician, wherein the built-in ultrasound cleaning mechanism is provided to keep the instruments clean for sequential processing; wherein the ultrasound equipment is configured to provide an output to the robotic arm , based on a command issued from the server after the analysis by the operator and communication with the server to cut and slice the sample for analysis, wherein the ultrasound equipment is configured to provide an output to the robotic arm , for detection and dissection of the specimen into cubes of preset sizes using the plurality of surgical blades, and wherein the cubes are transferred with the robotic arm into a wax block for preparation and analysis; and wherein an artificial intelligence engine and machine learning module are provided in the server adapted to perform an analysis and to communicate the results to the apparatus from the server , wherein a plurality of classification and supervised learning algorithms or models are employed in the analysis of the samples, and wherein the artificial intelligence engine is provided for classification, probabilistic modeling and image analysis of the tissues.,
Decoding apparatus for decoding encoded audio signals , wherein the decoding apparatus is configured to provide decoded audio signals , wherein the decoding apparatus comprises: a filter provider ; and a filter applicator , wherein the filter provider is configured to provide a signal filter (W (repro) ) based on locations of actuators (L1, L2, L3, L4, L5) used for reproducing the decoded audio signals and based on locations associated with the encoded audio signals , wherein the filter applicator is configured to apply the signal filter (W (repro) ) to the encoded audio signals in order to provide adapted audio signals , and wherein the decoded audio signals are based on the adapted audio signals , the decoding apparatus is characterised in that the filter provider is configured to provide the signal filter (W (repro) ) by performing the following steps: calculating a hull describing the locations of the actuators (L1, L2, L3, L4, L5), calculating normal vectors based on the hull, and calculating basis functions based on transfer functions of the actuators (L1, L2, L3, L4, L5) and based on the normal vectors. a filter provider ; and a filter applicator , wherein the filter provider is configured to provide a signal filter (W (repro) ) based on locations of actuators (L1, L2, L3, L4, L5) used for reproducing the decoded audio signals and based on locations associated with the encoded audio signals , wherein the filter applicator is configured to apply the signal filter (W (repro) ) to the encoded audio signals in order to provide adapted audio signals , and wherein the decoded audio signals are based on the adapted audio signals , the decoding apparatus is characterised in that the filter provider is configured to provide the signal filter (W (repro) ) by performing the following steps: calculating a hull describing the locations of the actuators (L1, L2, L3, L4, L5), calculating normal vectors based on the hull, and calculating basis functions based on transfer functions of the actuators (L1, L2, L3, L4, L5) and based on the normal vectors. calculating a hull describing the locations of the actuators (L1, L2, L3, L4, L5), calculating normal vectors based on the hull, and calculating basis functions based on transfer functions of the actuators (L1, L2, L3, L4, L5) and based on the normal vectors.
A data center, comprising: a plurality of nodes comprising 4^N nodes, wherein N is an integer number of at least 2; and a plurality of communication links comprising 3*N*(4^N) communication links which connect the plurality of nodes, wherein: the nodes are arranged in 4^(N-1) quad full mesh networks; each quad full mesh network comprises four nodes; within each quad full mesh network, communication links connect each node to each other node; the quad full mesh networks and the plurality of communication links are arranged in N dimensions; and in each dimension, each node of a quad full mesh network is connected to three other nodes, each belonging to a different quad full mesh network, via respective communication links. a plurality of nodes comprising 4^N nodes, wherein N is an integer number of at least 2; and a plurality of communication links comprising 3*N*(4^N) communication links which connect the plurality of nodes, wherein: the nodes are arranged in 4^(N-1) quad full mesh networks; each quad full mesh network comprises four nodes; within each quad full mesh network, communication links connect each node to each other node; the quad full mesh networks and the plurality of communication links are arranged in N dimensions; and in each dimension, each node of a quad full mesh network is connected to three other nodes, each belonging to a different quad full mesh network, via respective communication links. the nodes are arranged in 4^(N-1) quad full mesh networks; each quad full mesh network comprises four nodes; within each quad full mesh network, communication links connect each node to each other node; the quad full mesh networks and the plurality of communication links are arranged in N dimensions; and in each dimension, each node of a quad full mesh network is connected to three other nodes, each belonging to a different quad full mesh network, via respective communication links.
A method for stabilizing the potency of a LP2086 (fHBP) Subfamily A polypeptide and a LP2086 (fHBP) Subfamily B polypeptide in an immunogenic composition by storing the LP2086 (fHBP) Subfamily A polypeptide and the LP2086 (fHBP) Subfamily B polypeptide in a buffer with between about 0.1 mg/ml and about 1 mg/ml aluminum and a molar ratio of detergent to protein of between about 0.5:1 and about 10:1, wherein the immunogenic composition does not include further active immunogens.
Method of manufacturing a ladder comprising the steps of: - cutting away defined sections in a plane plate of metal to form longitudinally extending sections and transversally extending sections between the longitudinally extending sections; - forming the transversally extending sections to generally tubular rungs by; - pressing the transversally extending sections in a first die , forming a generally U-shape in cross-section, wherein the first die comprises a lower die section and an upper die section , where the lower and upper die sections have complementary shape in cross-section; - placing the lower part of the U-shape in a lower die section of a second die and pressing on the upper part of the U-shape with an upper die section of the second die; wherein the lower die section of the second die has a shape corresponding to the shape of the lower die section of the first die and wherein the upper die section of the second die has a shape corresponding to the lower die section of the second die but with an opposite orientation to form tubular rungs, wherein the edges of the transversally extending sections are brought in contact with each other; and - forming the longitudinally extending sections to profiled side profiles, wherein the side profiles are formed to generally rectangular C-shape in cross-section. - cutting away defined sections in a plane plate of metal to form longitudinally extending sections and transversally extending sections between the longitudinally extending sections; - forming the transversally extending sections to generally tubular rungs by; - pressing the transversally extending sections in a first die , forming a generally U-shape in cross-section, wherein the first die comprises a lower die section and an upper die section , where the lower and upper die sections have complementary shape in cross-section; - placing the lower part of the U-shape in a lower die section of a second die and pressing on the upper part of the U-shape with an upper die section of the second die; wherein the lower die section of the second die has a shape corresponding to the shape of the lower die section of the first die and wherein the upper die section of the second die has a shape corresponding to the lower die section of the second die but with an opposite orientation to form tubular rungs, wherein the edges of the transversally extending sections are brought in contact with each other; and - forming the longitudinally extending sections to profiled side profiles, wherein the side profiles are formed to generally rectangular C-shape in cross-section.
A method for coding (k, r) data comprising steps consisting in: - dividing an initial datum a into k data blocks a i of the same size; - grouping the k data blocks into r-1 disconnected subsets S j of data blocks; - generating , for each subset S j , a linear function g j (a) defined as a linear combination of the data blocks assigned to said sub-block S j ; and - generating r parity functions comprising a primary parity function f 0 (a) as a linear combination of the k data blocks a i , and r-1 secondary parity functions, each secondary parity function f j (a) being defined as the sum of the primary parity function f 0 (a) and of a linear function g j (a), wherein the step of generating r parity functions consists in generating r encoding vectors comprising: - a primary encoding vector C 0 composed of k primary encoding coefficients c 0,i to c 0,k in which each primary encoding coefficient c 0,i corresponds to a non-zero random number; and - r-1 secondary encoding vectors C j (1<j<=r-1), each secondary encoding vector being composed of k secondary encoding coefficients c j,1 to c j,k in which a secondary encoding coefficient c j,i corresponds to a non-zero or zero random number depending on whether the data block a i belongs to or does not belong to the subset S j . - dividing an initial datum a into k data blocks a i of the same size; - grouping the k data blocks into r-1 disconnected subsets S j of data blocks; - generating , for each subset S j , a linear function g j (a) defined as a linear combination of the data blocks assigned to said sub-block S j ; and - generating r parity functions comprising a primary parity function f 0 (a) as a linear combination of the k data blocks a i , and r-1 secondary parity functions, each secondary parity function f j (a) being defined as the sum of the primary parity function f 0 (a) and of a linear function g j (a), wherein the step of generating r parity functions consists in generating r encoding vectors comprising: - a primary encoding vector C 0 composed of k primary encoding coefficients c 0,i to c 0,k in which each primary encoding coefficient c 0,i corresponds to a non-zero random number; and - r-1 secondary encoding vectors C j (1<j<=r-1), each secondary encoding vector being composed of k secondary encoding coefficients c j,1 to c j,k in which a secondary encoding coefficient c j,i corresponds to a non-zero or zero random number depending on whether the data block a i belongs to or does not belong to the subset S j . - a primary encoding vector C 0 composed of k primary encoding coefficients c 0,i to c 0,k in which each primary encoding coefficient c 0,i corresponds to a non-zero random number; and - r-1 secondary encoding vectors C j (1<j<=r-1), each secondary encoding vector being composed of k secondary encoding coefficients c j,1 to c j,k in which a secondary encoding coefficient c j,i corresponds to a non-zero or zero random number depending on whether the data block a i belongs to or does not belong to the subset S j .
A sorbent recharger, comprising: at least a first receiving compartment for a first sorbent module ; the first receiving compartment having a first sorbent module inlet and a first sorbent module outlet; one or more fluid sources fluidly connected to the first sorbent module inlet through a first set of one or more fluid connectors; one or more pumps positioned on the one or more fluid connectors for pumping fluid from the one or more fluid sources to the first sorbent module inlet; and a first effluent line fluidly connected to the first sorbent module outlet, further comprising: at least a second receiving compartment for a second sorbent module ; the second receiving compartment having a second sorbent module inlet and a second sorbent module outlet; one or more fluid sources fluidly connected to the second module inlet through a second set of one or more fluid connectors; and one or more pumps positioned on the one or more fluid connectors for pumping fluid from the one or more fluid sources to the second sorbent module inlet; and a second effluent line fluidly connected to the second sorbent module outlet; wherein the first effluent line and the second effluent line are fluidly connected to a common drain line ; and wherein the drain line is fluidly connected to any one of a drain, a common reservoir, or combinations thereof. at least a first receiving compartment for a first sorbent module ; the first receiving compartment having a first sorbent module inlet and a first sorbent module outlet; one or more fluid sources fluidly connected to the first sorbent module inlet through a first set of one or more fluid connectors; one or more pumps positioned on the one or more fluid connectors for pumping fluid from the one or more fluid sources to the first sorbent module inlet; and a first effluent line fluidly connected to the first sorbent module outlet, further comprising: at least a second receiving compartment for a second sorbent module ; the second receiving compartment having a second sorbent module inlet and a second sorbent module outlet; one or more fluid sources fluidly connected to the second module inlet through a second set of one or more fluid connectors; and one or more pumps positioned on the one or more fluid connectors for pumping fluid from the one or more fluid sources to the second sorbent module inlet; and at least a second receiving compartment for a second sorbent module ; the second receiving compartment having a second sorbent module inlet and a second sorbent module outlet; one or more fluid sources fluidly connected to the second module inlet through a second set of one or more fluid connectors; and one or more pumps positioned on the one or more fluid connectors for pumping fluid from the one or more fluid sources to the second sorbent module inlet; and a second effluent line fluidly connected to the second sorbent module outlet; wherein the first effluent line and the second effluent line are fluidly connected to a common drain line ; and wherein the drain line is fluidly connected to any one of a drain, a common reservoir, or combinations thereof.
A gas spring-powered fastener driver comprising: a cylinder ; a moveable piston positioned within the cylinder ; a driver blade attached to the piston and movable therewith between a ready position and a driven position; a lifter operable to move the driver blade from the driven position to the ready position; a transmission for providing torque to the lifter ; a first clutch mechanism permitting a transfer of torque to an output shaft of the transmission in a single rotational direction; and a second clutch mechanism limiting an amount of torque transferred to the transmission output shaft and the lifter . a cylinder ; a moveable piston positioned within the cylinder ; a driver blade attached to the piston and movable therewith between a ready position and a driven position; a lifter operable to move the driver blade from the driven position to the ready position; a transmission for providing torque to the lifter ; a first clutch mechanism permitting a transfer of torque to an output shaft of the transmission in a single rotational direction; and a second clutch mechanism limiting an amount of torque transferred to the transmission output shaft and the lifter .
An aerosol delivery device comprising: a control body, comprising a cartridge-engaging portion configured to support engagement of the control body with a cartridge via a threaded engagement, a press-fit engagement, an interference fit, or a magnetic engagement; a puff sensor configured to detect a puff input to the aerosol delivery device; and processing circuitry coupled with the puff sensor, wherein the processing circuitry is configured to cause the aerosol delivery device to at least: determine a characteristic of the puff input; determine a control function having a defined association with the characteristic; and perform the control function rather than form an inhalable substrate from the aerosol precursor composition, in response to the puff input, wherein the processing circuitry is configured to cause the aerosol delivery device to perform the control function at least in part by causing the aerosol delivery device to modify a configuration setting of the aerosol delivery device . a control body, comprising a cartridge-engaging portion configured to support engagement of the control body with a cartridge via a threaded engagement, a press-fit engagement, an interference fit, or a magnetic engagement; a puff sensor configured to detect a puff input to the aerosol delivery device; and processing circuitry coupled with the puff sensor, wherein the processing circuitry is configured to cause the aerosol delivery device to at least: determine a characteristic of the puff input; determine a control function having a defined association with the characteristic; and perform the control function rather than form an inhalable substrate from the aerosol precursor composition, in response to the puff input, determine a characteristic of the puff input; determine a control function having a defined association with the characteristic; and perform the control function rather than form an inhalable substrate from the aerosol precursor composition, in response to the puff input, wherein the processing circuitry is configured to cause the aerosol delivery device to perform the control function at least in part by causing the aerosol delivery device to modify a configuration setting of the aerosol delivery device .