mhurhangee/patent-ind-claim-en huggingface dataset:
A method for collecting and processing user input, the method comprising: presenting, by a processing circuit, a first user with a prompt for eliciting a first response, the first response comprising: a numerical portion comprising one or more numbers, and an explanatory portion; receiving, by the processing circuit, from the first user, the first response; receiving, by the processing circuit, from each of a plurality of other users, a respective response of a plurality of other responses; displaying, by the processing circuit, to the first user, an ordered list of other responses; determining, by the processing circuit, whether the first user and the other users have reached a consensus; in response to determining that the first user and the other users have formed a consensus forecast, producing, by the processing circuit, the consensus forecast; in response to determining that the first user and the other users have not formed a consensus forecast, producing, by the processing circuit, a mediated forecast; and causing, by the processing circuit, an action to be taken, in response to the consensus forecast or in response to the mediated forecast, wherein: a second response, of the plurality of other responses, is earlier in the ordered list than a third response, of the plurality of other responses, and the second response is, according to a measure of distance, more distant than the third response from the first response. presenting, by a processing circuit, a first user with a prompt for eliciting a first response, the first response comprising: a numerical portion comprising one or more numbers, and an explanatory portion; a numerical portion comprising one or more numbers, and an explanatory portion; receiving, by the processing circuit, from the first user, the first response; receiving, by the processing circuit, from each of a plurality of other users, a respective response of a plurality of other responses; displaying, by the processing circuit, to the first user, an ordered list of other responses; determining, by the processing circuit, whether the first user and the other users have reached a consensus; in response to determining that the first user and the other users have formed a consensus forecast, producing, by the processing circuit, the consensus forecast; in response to determining that the first user and the other users have not formed a consensus forecast, producing, by the processing circuit, a mediated forecast; and causing, by the processing circuit, an action to be taken, in response to the consensus forecast or in response to the mediated forecast, wherein: a second response, of the plurality of other responses, is earlier in the ordered list than a third response, of the plurality of other responses, and the second response is, according to a measure of distance, more distant than the third response from the first response. a second response, of the plurality of other responses, is earlier in the ordered list than a third response, of the plurality of other responses, and the second response is, according to a measure of distance, more distant than the third response from the first response.
A blender, comprising a container body for receiving food a main body provided under the container body and configured to support the container body ; and wherein the main body is provided with a touch module for controlling operation of the blender and comprises a heat dissipation frame which fixedly supports a heat dissipation member provided inside the main body , characterized in that the touch module is supported by a support means being provided on an end of the heat dissipation frame . a container body for receiving food a main body provided under the container body and configured to support the container body ; and wherein the main body is provided with a touch module for controlling operation of the blender and comprises a heat dissipation frame which fixedly supports a heat dissipation member provided inside the main body , characterized in that the touch module is supported by a support means being provided on an end of the heat dissipation frame .
A metal melting furnace vortex chamber body with a vortex chamber capable of communicating with a storage space of a furnace body having the storage space storing molten metal, the metal melting furnace vortex chamber body comprising: a drop weir part which switches a communication state and an interruption state between the storage space and the vortex chamber , wherein the drop weir part includes a blind drop weir and an opening type drop weir which are formed as separate members, wherein at least the blind drop weir is movable up and down with respect to the vortex chamber body and is selectively positioned at an upward movement position and a downward movement position so as to switch the communication state and the interruption state, wherein the opening type drop weir includes outlet and inlet opening notches which are formed in a plate-like weir body with a predetermined distance there between in the width direction, said outlet and inlet opening notches communicate the vortex chamber and the storage space with each other in the communication state, and wherein the blind drop weir is disposed at the side of the furnace body and the opening type drop weir is disposed at the opposite side to the furnace body . a drop weir part which switches a communication state and an interruption state between the storage space and the vortex chamber , wherein the drop weir part includes a blind drop weir and an opening type drop weir which are formed as separate members, wherein at least the blind drop weir is movable up and down with respect to the vortex chamber body and is selectively positioned at an upward movement position and a downward movement position so as to switch the communication state and the interruption state, wherein the opening type drop weir includes outlet and inlet opening notches which are formed in a plate-like weir body with a predetermined distance there between in the width direction, said outlet and inlet opening notches communicate the vortex chamber and the storage space with each other in the communication state, and wherein the blind drop weir is disposed at the side of the furnace body and the opening type drop weir is disposed at the opposite side to the furnace body .
A polyurethane comprising the reaction product of reactants comprising: a 100% solids isocyanate-reactive component having hydroxyl-functional groups, said isocyanate-reactive component comprising: 30 to 95% by weight of a hydroxyl-functional polyether having a weight average molecular weight ranging from 180 to 6,500 g/mol, and 5 to 70% by weight of a hydroxyl-functional acrylic, wherein said % by weight is based on the total weight of said hydroxyl-functional polyether and said hydroxyl-functional acrylic; and a 100% solids aromatic isocyanate component having isocyanate-functional groups reactive with said hydroxyl-functional groups, wherein the molar ratio of said isocyanate-functional groups in said aromatic isocyanate component to said hydroxyl-functional groups in said isocyanate-reactive component ranges from 0.95:1 to 1.05:1. a 100% solids isocyanate-reactive component having hydroxyl-functional groups, said isocyanate-reactive component comprising: 30 to 95% by weight of a hydroxyl-functional polyether having a weight average molecular weight ranging from 180 to 6,500 g/mol, and 5 to 70% by weight of a hydroxyl-functional acrylic, wherein said % by weight is based on the total weight of said hydroxyl-functional polyether and said hydroxyl-functional acrylic; and 30 to 95% by weight of a hydroxyl-functional polyether having a weight average molecular weight ranging from 180 to 6,500 g/mol, and 5 to 70% by weight of a hydroxyl-functional acrylic, wherein said % by weight is based on the total weight of said hydroxyl-functional polyether and said hydroxyl-functional acrylic; and a 100% solids aromatic isocyanate component having isocyanate-functional groups reactive with said hydroxyl-functional groups, wherein the molar ratio of said isocyanate-functional groups in said aromatic isocyanate component to said hydroxyl-functional groups in said isocyanate-reactive component ranges from 0.95:1 to 1.05:1.
An optical tracking system, the system comprising: a computer assisted device having a processor ; at least one tracking array , wherein said tracking array is coupled with said device and in communication with said processor , wherein a first photosensor is included in the tracking array or is located on the device , wherein said tracking array comprises a first set of at least two light emitting diodes (LEDs) , wherein said LEDs are configured to be modulated to optically transmit data from said processor , and where said LEDs are adapted to concurrently emit optical signals for a redundant transmission or independently emit optical signals to increase the data transmission rate; at least one tracker having a second photosensor for optically receiving said optically transmitted data from the LEDs on said tracking array ; and an LED on said at least one tracker , wherein the LED on said tracker is configured to be modulated to optically transmit data to be received by the first photosensor , wherein said optically transmitted data is sent in two or more modes in parallel; wherein the optically transmitted data is sent in a first mode at a first data rate and in at least a second mode said optically transmitted data is sent at a second data rate different from the first data rate; and wherein the tracking system is adapted to optically transmit the data emitted by the tracking array and received by the tracker at high rates, wherein a high rate is defined as being a rate between 1 and 2000 MB/second. a computer assisted device having a processor ; at least one tracking array , wherein said tracking array is coupled with said device and in communication with said processor , wherein a first photosensor is included in the tracking array or is located on the device , wherein said tracking array comprises a first set of at least two light emitting diodes (LEDs) , wherein said LEDs are configured to be modulated to optically transmit data from said processor , and where said LEDs are adapted to concurrently emit optical signals for a redundant transmission or independently emit optical signals to increase the data transmission rate; at least one tracker having a second photosensor for optically receiving said optically transmitted data from the LEDs on said tracking array ; and an LED on said at least one tracker , wherein the LED on said tracker is configured to be modulated to optically transmit data to be received by the first photosensor , wherein said optically transmitted data is sent in two or more modes in parallel; wherein the optically transmitted data is sent in a first mode at a first data rate and in at least a second mode said optically transmitted data is sent at a second data rate different from the first data rate; and wherein the tracking system is adapted to optically transmit the data emitted by the tracking array and received by the tracker at high rates, wherein a high rate is defined as being a rate between 1 and 2000 MB/second.
An assembly of a sample collector and a storage container , - said sample collector being arranged to take and hold a biopsy sample from an organism upon being driven into the organism, the sample collector comprising a punch that includes a cutter with a cutting edge formed at a cutting end of the punch to remove and retain said biopsy sample, and a unique identifier on or in the sample collector, the unique identifier being machine readable at the time of use of the sample collector to take the biopsy sample, wherein the unique identifier comprises a sample collector EID embedded in a body of the sample collector, - said storage container comprising a container body having an opening closed by a removable cap together defining a containment region, the removable cap including a passage into said containment region, wherein the storage container comprises a storage container EID, and wherein the removable cap, in use, is sealed by said sample collector, said sample collector holding said biopsy sample in said containment region. - said sample collector being arranged to take and hold a biopsy sample from an organism upon being driven into the organism, the sample collector comprising a punch that includes a cutter with a cutting edge formed at a cutting end of the punch to remove and retain said biopsy sample, and a unique identifier on or in the sample collector, the unique identifier being machine readable at the time of use of the sample collector to take the biopsy sample, wherein the unique identifier comprises a sample collector EID embedded in a body of the sample collector, - said storage container comprising a container body having an opening closed by a removable cap together defining a containment region, the removable cap including a passage into said containment region, wherein the storage container comprises a storage container EID, and wherein the removable cap, in use, is sealed by said sample collector, said sample collector holding said biopsy sample in said containment region.
Method for suppressing interference in a received signal (s) received by a radar sensor of a motor vehicle , wherein for detecting a target object in an environment of the motor vehicle a transmit signal including a sequence of consecutive frequency-modulated chirp signals is emitted by means of the radar sensor and an echo signal reflected on the target object is received as the received signal (s) with the superimposed interference, and wherein after receiving the received signal (s) by the radar sensor the interference of the received signal (s) is detected and suppressed in the received signal (s) by means of an electronic computing device, wherein at least two signal correction algorithms different from each other for suppressing the interference are stored in the computing device, wherein the control device selects at least one of the at least two signal correction algorithms depending on the detected interference in order to suppress the interference in the received signal (s), characterized in that the selection of a signal correction algorithm from the at least two signal correction algorithms is effected individually for each chirp signal of the received signal (s), in which the interference is detected, and that the selection of the at least one signal correction algorithm is effected depending on: - the position of the chirp signal affected by interference within the sequence, and - the number of samples of the interference to be suppressed within a chirp signal. - the position of the chirp signal affected by interference within the sequence, and - the number of samples of the interference to be suppressed within a chirp signal.
A computer-implemented method for managing a blockchain-based centralized ledger system, the method comprising: receiving a trust timestamp and an associated signature from a trust time server by a centralized ledger server in the blockchain-based centralized ledger system, the trust time server being associated with a trust time authority and independent from the blockchain-based centralized ledger system, the blockchain-based centralized ledger system storing data in a plurality of data blockchains, each of the plurality of data blockchains comprising a plurality of data blocks storing transaction data; storing the trust timestamp and the associated signature from the trust time server in a centralized trust timestamp blockchain by the centralized ledger server, the centralized trust timestamp blockchain comprising a plurality of timestamp blocks storing trust timestamp information of the trust time server for the blockchain-based centralized ledger system; and maintaining the centralized trust timestamp blockchain by the centralized ledger server, wherein the centralized ledger server is configured to sequentially store trust timestamps and associated signatures received from the trust time server in respective timestamp blocks according to a chronological order of receiving the trust timestamps and associated signatures from the trust time server, wherein the centralized trust timestamp blockchain is independent from the plurality of data blockchains and configured to be an independent time authority for providing timestamp services to data blockchains stored in the blockchain-based centralized ledger system. receiving a trust timestamp and an associated signature from a trust time server by a centralized ledger server in the blockchain-based centralized ledger system, the trust time server being associated with a trust time authority and independent from the blockchain-based centralized ledger system, the blockchain-based centralized ledger system storing data in a plurality of data blockchains, each of the plurality of data blockchains comprising a plurality of data blocks storing transaction data; storing the trust timestamp and the associated signature from the trust time server in a centralized trust timestamp blockchain by the centralized ledger server, the centralized trust timestamp blockchain comprising a plurality of timestamp blocks storing trust timestamp information of the trust time server for the blockchain-based centralized ledger system; and maintaining the centralized trust timestamp blockchain by the centralized ledger server, wherein the centralized ledger server is configured to sequentially store trust timestamps and associated signatures received from the trust time server in respective timestamp blocks according to a chronological order of receiving the trust timestamps and associated signatures from the trust time server, wherein the centralized trust timestamp blockchain is independent from the plurality of data blockchains and configured to be an independent time authority for providing timestamp services to data blockchains stored in the blockchain-based centralized ledger system.
Method for separating terpenes from an aqueous alcohol mixture, comprising the steps of: - feeding the terpene-containing aqueous alcohol mixture into a central region of a heatable distillation column ; - feeding hot water into a top region of the distillation column ; - removing the top vapours from the distillation column and feeding them to a condenser in which a top vapour condensate is produced by condensation; - feeding the top vapour condensate to a phase separator downstream of the condenser , in which phase separator a terpene-rich phase and a terpene-poor phase are separated from the top vapour condensate; and - removing the terpene-rich phase as the end product, characterised in that the method further comprises returning the low-terpene phase to the top region of the distillation column , below the hot water. - feeding the terpene-containing aqueous alcohol mixture into a central region of a heatable distillation column ; - feeding hot water into a top region of the distillation column ; - removing the top vapours from the distillation column and feeding them to a condenser in which a top vapour condensate is produced by condensation; - feeding the top vapour condensate to a phase separator downstream of the condenser , in which phase separator a terpene-rich phase and a terpene-poor phase are separated from the top vapour condensate; and - removing the terpene-rich phase as the end product,
A method comprising: obtaining closed-loop data associated with operation of an industrial process controller , the industrial process controller configured to control at least part of an industrial process using at least one model ; generating at least one noise model, associated with the industrial process controller using at least some of the closed-loop data; filtering the closed-loop data based on the at least one noise model; and estimating one or more model parameters, for the industrial process controller using the filtered closed-loop data; characterized in that , generating the at least one noise model comprises performing a first model identification process, the first model identification process comprises a high-order autoregressive with exogenous terms (ARX) model identification process; and wherein estimating the one or more model parameters comprises performing a second model identification process, the second model identification process comprises an output-error (OE) model identification process. obtaining closed-loop data associated with operation of an industrial process controller , the industrial process controller configured to control at least part of an industrial process using at least one model ; generating at least one noise model, associated with the industrial process controller using at least some of the closed-loop data; filtering the closed-loop data based on the at least one noise model; and estimating one or more model parameters, for the industrial process controller using the filtered closed-loop data; characterized in that , generating the at least one noise model comprises performing a first model identification process, the first model identification process comprises a high-order autoregressive with exogenous terms (ARX) model identification process; and wherein estimating the one or more model parameters comprises performing a second model identification process, the second model identification process comprises an output-error (OE) model identification process.
A self-driving safety evaluation method , comprising: obtaining (S610) r b and r c , wherein r b is a risk value of a vehicle in a shadow driving mode in a first measurement unit, r c is a risk value of the vehicle in a self-driving mode based on a preset route in the first measurement unit, the shadow driving mode is a self-driving mode of the vehicle that is based on a real-time route, the real-time route is a route predicted based on a location and a movement parameter of the vehicle in a manual driving mode, and the first measurement unit is a time period or a distance; determining (S620) R B based on r b , wherein R B is a risk value of the vehicle in the shadow driving mode in a plurality of measurement units, and the plurality of measurement units comprise the first measurement unit; and determining (S630) R C based on r c , wherein R C is a risk value of the vehicle in the self-driving mode based on the preset route in the plurality of measurement units, wherein R B and R C are used to determine whether safety of the vehicle in the self-driving mode meets a requirement. obtaining (S610) r b and r c , wherein r b is a risk value of a vehicle in a shadow driving mode in a first measurement unit, r c is a risk value of the vehicle in a self-driving mode based on a preset route in the first measurement unit, the shadow driving mode is a self-driving mode of the vehicle that is based on a real-time route, the real-time route is a route predicted based on a location and a movement parameter of the vehicle in a manual driving mode, and the first measurement unit is a time period or a distance; determining (S620) R B based on r b , wherein R B is a risk value of the vehicle in the shadow driving mode in a plurality of measurement units, and the plurality of measurement units comprise the first measurement unit; and determining (S630) R C based on r c , wherein R C is a risk value of the vehicle in the self-driving mode based on the preset route in the plurality of measurement units, wherein R B and R C are used to determine whether safety of the vehicle in the self-driving mode meets a requirement.