mhurhangee/patent-ind-claim-en huggingface dataset:
Method to generate a code (SC) to be stored in a memory in order to be later executed by a microprocessor, comprising the steps of: - generating initial operation codes (opcodes) in abstract assembly language (AA); - interpreting each abstract assembly language opcode (O) using at least two different virtual machine engines (VM1, VM2) logics, producing disjoined sequences (S1, S2) of target assembly opcodes, each sequence (S1, S2) implementing the corresponding virtual machine logic needed to interpret one assembly language opcode (O); - randomly choosing one of the at least two sequences (S1, S2) of target assembly opcodes for each initial abstract assembly language opcode (O); - merging extremities of chosen sequences of target assembly opcodes in compliance with opcode boundaries within each interpreted target assembly opcode and with data flow, - storing the resulting code (SC) for subsequent execution, wherein code generation logics of the different virtual machines (VM1, VM2) use different patterns and different registers, wherein the step of randomly choosing one of the at least two sequences (S1, S2) of target assembly opcodes for each initial opcode is done for sets of contiguous initial opcodes (O), wherein the merging step is randomly performed. - generating initial operation codes (opcodes) in abstract assembly language (AA); - interpreting each abstract assembly language opcode (O) using at least two different virtual machine engines (VM1, VM2) logics, producing disjoined sequences (S1, S2) of target assembly opcodes, each sequence (S1, S2) implementing the corresponding virtual machine logic needed to interpret one assembly language opcode (O); - randomly choosing one of the at least two sequences (S1, S2) of target assembly opcodes for each initial abstract assembly language opcode (O); - merging extremities of chosen sequences of target assembly opcodes in compliance with opcode boundaries within each interpreted target assembly opcode and with data flow, - storing the resulting code (SC) for subsequent execution, wherein code generation logics of the different virtual machines (VM1, VM2) use different patterns and different registers, wherein the step of randomly choosing one of the at least two sequences (S1, S2) of target assembly opcodes for each initial opcode is done for sets of contiguous initial opcodes (O), wherein the merging step is randomly performed.
A polyimide resin comprising a repeating structural unit represented by the following formula and a repeating structural unit represented by the following formula , a content ratio of the repeating structural unit of formula with respect to the total of the repeating structural unit of formula and the repeating structural unit of formula being 20 to 70 mol%, and the polyimide resin having a chain aliphatic group having from 5 to 14 carbon atoms at an end thereof: wherein R 1 represents a divalent group having from 6 to 22 carbon atoms containing at least one alicyclic hydrocarbon structure; R 2 represents a divalent chain aliphatic group having from 5 to 16 carbon atoms; and X 1 and X 2 each independently represent a tetravalent group having from 6 to 22 carbon atoms containing at least one aromatic ring.
A chill-proofing composite filter aid comprising: a filtration component; and an adsorption component comprising precipitated silica at least partially coating the filtration component, wherein the composite filter aid has a pore volume of at least 0.15 cm 3 /gram to 0.35 cm 3 /gram at an average pore size between 3 nanometers and 15 nanometers, further wherein the filtration component comprises diatomaceous earth. a filtration component; and an adsorption component comprising precipitated silica at least partially coating the filtration component, wherein the composite filter aid has a pore volume of at least 0.15 cm 3 /gram to 0.35 cm 3 /gram at an average pore size between 3 nanometers and 15 nanometers, further wherein the filtration component comprises diatomaceous earth.
A ball launcher for launching a ball into a playing area of a ball gaming system, comprising at least one launch tube , and a ball gate for gating the ball into the launch tube , wherein said ball gate includes a ball shuttle adapted to be moveable from at least one ball-receiving station to said at least one launch tube to transport the ball from the ball-receiving station to said at least one launch tube , characterized in that said ball shuttle is adapted to move to a reject ball station in response to a reject ball signal to transport any ball to be replaced to said reject ball station instead of said at least one launch tube .
A method of creating a soft and lofty continuous fiber nonwoven web, the method comprising: providing a first molten polymer and a second molten polymer to a spinneret defining a plurality of orifices , wherein the first molten polymer has a first melting temperature, wherein the second molten polymer has a second melting temperature, and wherein the first melting temperature is in the range of 10 degrees to 180 degrees different than the second melting temperature; flowing a fluid intermediate the spinneret and a moving porous member , wherein the moving porous member is positioned below the spinneret ; using the fluid to draw or push the first and second molten polymer components, in a direction that is toward the moving porous member , through at least some of the plurality of orifices to form a plurality of individual continuous fiber strands ; depositing the continuous fiber strands onto the moving porous member at a first location to produce an intermediate continuous fiber nonwoven web ; intermittently varying a vacuum force applied to the moving porous member and to the intermediate continuous fiber nonwoven web downstream of the first location and without the addition of more continuous fibers and without any heat applied; and through-fluid bonding the intermediate continuous fiber nonwoven web after the intermittently varying the vacuum force step to produce a continuous fiber nonwoven web. providing a first molten polymer and a second molten polymer to a spinneret defining a plurality of orifices , wherein the first molten polymer has a first melting temperature, wherein the second molten polymer has a second melting temperature, and wherein the first melting temperature is in the range of 10 degrees to 180 degrees different than the second melting temperature; flowing a fluid intermediate the spinneret and a moving porous member , wherein the moving porous member is positioned below the spinneret ; using the fluid to draw or push the first and second molten polymer components, in a direction that is toward the moving porous member , through at least some of the plurality of orifices to form a plurality of individual continuous fiber strands ; depositing the continuous fiber strands onto the moving porous member at a first location to produce an intermediate continuous fiber nonwoven web ; intermittently varying a vacuum force applied to the moving porous member and to the intermediate continuous fiber nonwoven web downstream of the first location and without the addition of more continuous fibers and without any heat applied; and through-fluid bonding the intermediate continuous fiber nonwoven web after the intermittently varying the vacuum force step to produce a continuous fiber nonwoven web.
A compound preparation, wherein the compound preparation comprises raw medicinal materials consisting of: 15 parts by weight of raw Astragali radix, 15 parts by weight of Rehmaimiae radix praeparata, 15 parts by weight of Actyranthes bidentata, 10 parts by weight of Jujubae fructus, 10 parts by weight of Lycii fructus, 10 parts by weight of parched Ziziphi spinosae semen, 6 parts by weight of Angelicae smensis radix, 3 parts by weight of Carthami flos, 10 parts by weight of Poria, 10 parts by weight of parched Atractylodis macrocephalae rhizoma and 15 parts by weight of Zaocys, and wherein a dosage form of the compound preparation is oral or granules, and is prepared by rinsing the medicinal materials with water to remove impurities; soaking the raw materials in deionized water at 25°C for 120 min; performing water extraction, and decocting at 100°C for 20 min; taking the decoction and allowing same to stand at 4°C for 12 h under sterile conditions, performing filtration and concentration, and adding benzoic acid or sodium benzoate; and performing filling and sterilization to obtain an oral liquid, or performing drying, granulation, filling and sterilization to obtain granules. soaking the raw materials in deionized water at 25°C for 120 min; performing water extraction, and decocting at 100°C for 20 min; taking the decoction and allowing same to stand at 4°C for 12 h under sterile conditions, performing filtration and concentration, and adding benzoic acid or sodium benzoate; and performing filling and sterilization to obtain an oral liquid, or performing drying, granulation, filling and sterilization to obtain granules.
A local login processing method of an image forming apparatus , the local login processing method comprising: generating session information according to a remote login request upon receiving the remote login request from a mobile terminal ; transmitting the session information to the mobile terminal ; receiving, from the mobile terminal , a local login request comprising local login information generated by using at least some of the session information; and approving the local login request by comparing the session information and the local login information, wherein the local login information comprises a session identification, ID, included in the session information or a personal identification number, PIN, code generated based on the session information, and wherein, when the local login information comprises the PIN code, the approving of the local login request based on the session information comprises: generating a PIN code based on the session information; and approving the local login request when the generated PIN code and the PIN code comprised in the local login information match each other. generating session information according to a remote login request upon receiving the remote login request from a mobile terminal ; transmitting the session information to the mobile terminal ; receiving, from the mobile terminal , a local login request comprising local login information generated by using at least some of the session information; and approving the local login request by comparing the session information and the local login information, wherein the local login information comprises a session identification, ID, included in the session information or a personal identification number, PIN, code generated based on the session information, and wherein, when the local login information comprises the PIN code, the approving of the local login request based on the session information comprises: generating a PIN code based on the session information; and approving the local login request when the generated PIN code and the PIN code comprised in the local login information match each other. generating a PIN code based on the session information; and approving the local login request when the generated PIN code and the PIN code comprised in the local login information match each other.
A composite resin molded product, comprising: a main agent resin; and a plurality of natural fibers dispersed in the main agent resin, wherein the plurality of natural fibers each contain a microorganism or an enzyme, when the composite resin molded product is 100% by mass, a content rate of the plurality of natural fibers each containing the microorganism or the enzyme in the composite resin molded product is 10% by mass or more and 99% by mass or less, at least one of the plurality of natural fibers is exposed on a surface of the composite resin molded product, and at least a part of a surface of the at least one of the plurality of natural fibers is coated with a hydrolyzable coating resin. a main agent resin; and a plurality of natural fibers dispersed in the main agent resin, wherein the plurality of natural fibers each contain a microorganism or an enzyme, when the composite resin molded product is 100% by mass, a content rate of the plurality of natural fibers each containing the microorganism or the enzyme in the composite resin molded product is 10% by mass or more and 99% by mass or less, at least one of the plurality of natural fibers is exposed on a surface of the composite resin molded product, and at least a part of a surface of the at least one of the plurality of natural fibers is coated with a hydrolyzable coating resin.
A method, performed by a first playback device of a media playback system comprising a plurality of playback devices, the method comprising: receiving first audio information from a first audio information source via a first wired or wireless connection ; generating first audio signals based on the first audio information via the first playback device; receiving, from a second audio information source via a second wired or wireless connection , a first control message; in response to receiving the first control message, changing a signal source from the first audio information source to the second audio information source such that the first playback device receives second audio information from the second audio information source via the second wired or wireless connection ; and in response to receiving a second control message via the second wired or wireless connection from the second audio information source to change audio volume, changing a volume of the second audio information output by the first playback device, wherein the second control message is based on a volume command received by the second audio information source from a user input device . receiving first audio information from a first audio information source via a first wired or wireless connection ; generating first audio signals based on the first audio information via the first playback device; receiving, from a second audio information source via a second wired or wireless connection , a first control message; in response to receiving the first control message, changing a signal source from the first audio information source to the second audio information source such that the first playback device receives second audio information from the second audio information source via the second wired or wireless connection ; and in response to receiving a second control message via the second wired or wireless connection from the second audio information source to change audio volume, changing a volume of the second audio information output by the first playback device, wherein the second control message is based on a volume command received by the second audio information source from a user input device .
A method of performing a fast initial link setup, FILS, authentication, the method comprising: receiving, by a station, an initiation frame; transmitting , by the station, a FILS authentication request comprising an extensible authentication protocol ,EAP, over local area network, LAN, EAPOL, Start containing the FILS, and security parameters for a FILS handshake; receiving, by the station, a first authentication response message formatted for FILS authentication from an access point after a pairwise master key, PMK is obtained and stored by the access point, the message including EAP authentication information; transmitting , by the station, an association request; and receiving, by the station, a second authentication response. receiving, by a station, an initiation frame; transmitting , by the station, a FILS authentication request comprising an extensible authentication protocol ,EAP, over local area network, LAN, EAPOL, Start containing the FILS, and security parameters for a FILS handshake; an extensible authentication protocol ,EAP, over local area network, LAN, EAPOL, Start containing the FILS, and security parameters for a FILS handshake; receiving, by the station, a first authentication response message formatted for FILS authentication from an access point after a pairwise master key, PMK is obtained and stored by the access point, the message including EAP authentication information; transmitting , by the station, an association request; and receiving, by the station, a second authentication response.
Thoracic orthosis for relieving a human user's spine when required, comprising - a back rail made in one piece from a sheet-like carbon material which is compression-resistant in its direction of longitudinal extension and resting, when in use, with a ventral flat side against back extensor muscles adjacent to both sides of the user's spine in the region of the thoracic and at least the upper lumbar vertebrae of the user, and - a shoulder carrier system connected to the back rail and having two carrier elements reaching around the user's shoulders in a backpack-style when in use, characterized in that the carbon material of the back rail is sagittally bending-elastic and each carrier element of the shoulder carrier system is made from a sheet-like carbon material and, when in use, forms a ring embracing the respectively associated shoulder of the user and, starting from the cranial end of the back rail , being guided back parallel to the user's rib arches to the back rail , to which it is connected in the lower region of the back rail's upper third and/or the upper region of the back rail's middle third, lying flat against the user's shoulder, collarbone and chest muscle. - a back rail made in one piece from a sheet-like carbon material which is compression-resistant in its direction of longitudinal extension and resting, when in use, with a ventral flat side against back extensor muscles adjacent to both sides of the user's spine in the region of the thoracic and at least the upper lumbar vertebrae of the user, and - a shoulder carrier system connected to the back rail and having two carrier elements reaching around the user's shoulders in a backpack-style when in use,
A system for identifying cancerous regions in a subject, comprising: an ultrasonic imaging device configured to acquire a first set of time series data from a region of a subject during a first temporal period and a second set of time series data during a second temporal period; a comparison device configured to receive first and second sets of time series data and compute differential data between the first and second sets of time series data at one or more features, wherein the differential data are directly indicative of a change in tissue characteristics between the first and second sets of time series data; a processing device configured to receive the differential data and input the differential data into a classifier trained with reference differential data concerning the one or more features obtained from the same region in a plurality of reference subjects, said reference differential data further including an identification of whether a tissue type is cancerous or benign based on a histopathology of the tissue; and a determination device configured to determine whether the region is cancerous based on an output from the classifier. an ultrasonic imaging device configured to acquire a first set of time series data from a region of a subject during a first temporal period and a second set of time series data during a second temporal period; a comparison device configured to receive first and second sets of time series data and compute differential data between the first and second sets of time series data at one or more features, wherein the differential data are directly indicative of a change in tissue characteristics between the first and second sets of time series data; a processing device configured to receive the differential data and input the differential data into a classifier trained with reference differential data concerning the one or more features obtained from the same region in a plurality of reference subjects, said reference differential data further including an identification of whether a tissue type is cancerous or benign based on a histopathology of the tissue; and a determination device configured to determine whether the region is cancerous based on an output from the classifier.
A circuit configured to operate as an ideal diode circuit comprising: a p-channel transistor having: a gate; a first terminal connected to an input voltage node (V in ); and a second terminal connected to an output voltage node (V out ); a first amplifier having: a first input connected to the input voltage node (V in ); a second input connected to the output voltage node (V out ); and a first amplifier output coupled to the gate of the p-channel transistor , the first amplifier configured to bias the gate of the transistor as a function of the voltage across the transistor to enable a fast forward recovery speed; and a second amplifier having: a first input connected to the input voltage node (V in ); a second input connected to the output voltage node (V out ); and a second amplifier output connected to turn off the gate of the p-channel transistor responsive to the input voltage node (V in ) having a voltage lower than the output voltage node (V out ) to provide a shortened turn-off time. a p-channel transistor having: a gate; a first terminal connected to an input voltage node (V in ); and a second terminal connected to an output voltage node (V out ); a first amplifier having: a first input connected to the input voltage node (V in ); a second input connected to the output voltage node (V out ); and a first amplifier output coupled to the gate of the p-channel transistor , the first amplifier configured to bias the gate of the transistor as a function of the voltage across the transistor to enable a fast forward recovery speed; and a second amplifier having: a first input connected to the input voltage node (V in ); a second input connected to the output voltage node (V out ); and a second amplifier output connected to turn off the gate of the p-channel transistor responsive to the input voltage node (V in ) having a voltage lower than the output voltage node (V out ) to provide a shortened turn-off time.
A method performed by a network node for determining a mobility criterion related to a wireless communications device in a wireless communications network , the method comprising: obtaining an information related to an UL propagation condition associated to the wireless communications device , determining a measure of imbalance between the UL propagation condition and a DL propagation condition associated to the wireless communications device , which measure of imbalance is based on the information related to the UL propagation condition, determining the mobility criterion based on the measure of imbalance between the UL propagation condition and the DL propagation condition, and initiating handover of the wireless communications device when the mobility criterion is met, wherein the information related to the UL propagation condition comprises information related to an UL path loss, and wherein determining the measure of imbalance comprises determining a measure of imbalance between the UL path loss and a DL path loss. obtaining an information related to an UL propagation condition associated to the wireless communications device , determining a measure of imbalance between the UL propagation condition and a DL propagation condition associated to the wireless communications device , which measure of imbalance is based on the information related to the UL propagation condition, determining the mobility criterion based on the measure of imbalance between the UL propagation condition and the DL propagation condition, and initiating handover of the wireless communications device when the mobility criterion is met, wherein the information related to the UL propagation condition comprises information related to an UL path loss, and wherein determining the measure of imbalance comprises determining a measure of imbalance between the UL path loss and a DL path loss.