mhurhangee/patent-ind-claim-en huggingface dataset:
An audio reproduction device (100 100a) that amplifies an input signal which is an audio signal to obtain a supply signal, and outputs the supply signal to a speaker device connected to the audio reproduction device (100 100a), the audio reproduction device (100 100a) comprising: a signal amplifier (101 101a) that amplifies the input signal; a characteristic measuring device that obtains a characteristic of the speaker device based on the supply signal obtained by using, as the input signal, a measurement signal having a predetermined frequency characteristic; a structure analyzer that identifies a structure of the speaker device based on a result obtained by the characteristic measuring device ; characterized in that the audio reproduction device (100 100a) further comprises: a delay characteristic calculator that calculates a delay characteristic of the speaker device , said delay characteristic comprising a group delay or a phase delay characteristic, according to the identified structure of the speaker device ; a correction parameter generator that generates a correction parameter based on a difference between the delay characteristic calculated by the delay characteristic calculator and a target delay characteristic; and a corrector that corrects the input signal input to the signal amplifier (101 101a) based on the correction parameter generated by the correction parameter generator . a signal amplifier (101 101a) that amplifies the input signal; a characteristic measuring device that obtains a characteristic of the speaker device based on the supply signal obtained by using, as the input signal, a measurement signal having a predetermined frequency characteristic; a structure analyzer that identifies a structure of the speaker device based on a result obtained by the characteristic measuring device ; characterized in that the audio reproduction device (100 100a) further comprises: a delay characteristic calculator that calculates a delay characteristic of the speaker device , said delay characteristic comprising a group delay or a phase delay characteristic, according to the identified structure of the speaker device ; a correction parameter generator that generates a correction parameter based on a difference between the delay characteristic calculated by the delay characteristic calculator and a target delay characteristic; and a corrector that corrects the input signal input to the signal amplifier (101 101a) based on the correction parameter generated by the correction parameter generator . a delay characteristic calculator that calculates a delay characteristic of the speaker device , said delay characteristic comprising a group delay or a phase delay characteristic, according to the identified structure of the speaker device ; a correction parameter generator that generates a correction parameter based on a difference between the delay characteristic calculated by the delay characteristic calculator and a target delay characteristic; and a corrector that corrects the input signal input to the signal amplifier (101 101a) based on the correction parameter generated by the correction parameter generator .
An ostomy plug device for sealing a stoma from within an ostomy patient, wherein said ostomy plug device comprises a sealing element , a cap element , and a tensioning element attached to said sealing element , wherein said cap element is configured to be located outside of the body of said patient, wherein said sealing element is configured to be implanted through said stoma into at least a portion of a waste collection reservoir located within said patient, and wherein said tensioning element is configured to provide tension to said sealing element , said tensioning element is attached to said cap element for anchoring therefore providing tension to said sealing element to seal said stoma , characterized in that the tensioning element is configured to be manually pulled on one end of the tensioning element to adjust the tension applied by the tensioning element on the sealing element .
A display device comprising: a first base substrate (BS1); a liquid crystal layer (LC) disposed on the first base substrate (BS1); an overcoat layer (OC) disposed on the liquid crystal layer (LC) and comprising epoxy polymer; a color conversion layer (CFL) disposed on the overcoat layer (OC); and a second base substrate (BS2) disposed on the color conversion layer (CFL), characterised in that the epoxy polymer is a polymer obtained by polymerizing 20 parts to 40 parts by weight of a cardo-based binder resin; 10 parts to 30 parts by weight of an epoxy-based monomer comprising at least one of the compounds represented by the following chemical formulae: and 15 parts to 25 parts by weight of a bisphenol A-based resin, with respect to 100 parts by weight of the epoxy polymer; wherein the cardo-based binder resin comprises compounds represented by Chemical Formula 1: wherein, n is a natural number in which the cardo-based binder resin has a molecular weight of 5,000 to 20,000. a first base substrate (BS1); a liquid crystal layer (LC) disposed on the first base substrate (BS1); an overcoat layer (OC) disposed on the liquid crystal layer (LC) and comprising epoxy polymer; a color conversion layer (CFL) disposed on the overcoat layer (OC); and a second base substrate (BS2) disposed on the color conversion layer (CFL), characterised in that the epoxy polymer is a polymer obtained by polymerizing 20 parts to 40 parts by weight of a cardo-based binder resin; 10 parts to 30 parts by weight of an epoxy-based monomer comprising at least one of the compounds represented by the following chemical formulae: and 15 parts to 25 parts by weight of a bisphenol A-based resin, with respect to 100 parts by weight of the epoxy polymer; wherein the cardo-based binder resin comprises compounds represented by Chemical Formula 1: wherein, n is a natural number in which the cardo-based binder resin has a molecular weight of 5,000 to 20,000.
An information processing apparatus configured to be mounted on a first vehicle , comprising a control unit comprising at least one processor configured to execute: obtaining, from the first vehicle , vehicle data relating to travel of the first vehicle ; and identifying, based on the vehicle data, one or more first points, which are one or more points at which the first vehicle has satisfied operating conditions for a predetermined driving support function included in the first vehicle while the first vehicle is traveling; the information processing apparatus being characterized in that the control unit is configured to teach the one or more first points to a user associated with the first vehicle . obtaining, from the first vehicle , vehicle data relating to travel of the first vehicle ; and identifying, based on the vehicle data, one or more first points, which are one or more points at which the first vehicle has satisfied operating conditions for a predetermined driving support function included in the first vehicle while the first vehicle is traveling; the information processing apparatus being characterized in that the control unit is configured to teach the one or more first points to a user associated with the first vehicle .
A random access method applied for a User Equipment, UE, comprising: acquiring a plurality of candidate Random Access Channel, RACH, resources; selecting a target RACH resource from the plurality of candidate RACH resources, the plurality of candidate RACH resources comprising at least two types of RACH resources selected from the following types: common RACH resource, dedicated RACH resource and additional RACH resource; and initiating a random access process through the target RACH resource; wherein the selecting the target RACH resource from the plurality of candidate RACH resources comprises: determining a contention-free RACH resource in the candidate RACH resources associated with SS blocks and/or CSI-RSs whose signal quality is greater than a first threshold as the target RACH resource; wherein the initiating the random access process through the target RACH resource comprises transmitting the preamble codes for the random access process to the network device through the target RACH resource; wherein subsequent to transmitting the preamble codes for the random access process to the network device through the target RACH resource, the random access method further comprises monitoring an RAR on SS block and/or CSI-RS resource associated with the target RACH resource. acquiring a plurality of candidate Random Access Channel, RACH, resources; selecting a target RACH resource from the plurality of candidate RACH resources, the plurality of candidate RACH resources comprising at least two types of RACH resources selected from the following types: common RACH resource, dedicated RACH resource and additional RACH resource; and initiating a random access process through the target RACH resource; wherein the selecting the target RACH resource from the plurality of candidate RACH resources comprises: determining a contention-free RACH resource in the candidate RACH resources associated with SS blocks and/or CSI-RSs whose signal quality is greater than a first threshold as the target RACH resource; wherein the initiating the random access process through the target RACH resource comprises transmitting the preamble codes for the random access process to the network device through the target RACH resource; wherein subsequent to transmitting the preamble codes for the random access process to the network device through the target RACH resource, the random access method further comprises monitoring an RAR on SS block and/or CSI-RS resource associated with the target RACH resource.
A wireless communication method implemented by a narrowband Internet-of-Things, NB-IoT, device, comprising: determining resources for a random-access signal in a region that comprises six symbol groups and 36 subcarriers occupied by the six symbol groups, wherein the six symbol groups are assigned indices 0, 1, 2, 3, 4, and 5, and wherein a subcarrier index of a channel within the 36 subcarriers in at least one symbol group of the six symbol groups is determined based on: determining a first subcarrier index corresponding to the channel in a neighboring symbol group before the symbol group in the six symbol groups, and determining the subcarrier index of the channel based on the first subcarrier index and an offset value that comprises one of 1, -1, 3, -3, 18, or -18; and transmitting the random-access signal using the determined resources, wherein, given a channel having a channel index of {0, 1, 2, ..., 35}, the resources for the random-access signal corresponding to the channel are defined according to: determining resources for a random-access signal in a region that comprises six symbol groups and 36 subcarriers occupied by the six symbol groups, wherein the six symbol groups are assigned indices 0, 1, 2, 3, 4, and 5, and wherein a subcarrier index of a channel within the 36 subcarriers in at least one symbol group of the six symbol groups is determined based on: determining a first subcarrier index corresponding to the channel in a neighboring symbol group before the symbol group in the six symbol groups, and determining the subcarrier index of the channel based on the first subcarrier index and an offset value that comprises one of 1, -1, 3, -3, 18, or -18; and determining a first subcarrier index corresponding to the channel in a neighboring symbol group before the symbol group in the six symbol groups, and determining the subcarrier index of the channel based on the first subcarrier index and an offset value that comprises one of 1, -1, 3, -3, 18, or -18; and transmitting the random-access signal using the determined resources,
Receiving apparatus for receiving and processing navigation satellite data , wherein the receiving apparatus is designed to receive navigation satellite data and to store said navigation satellite data in a memory, wherein the receiving apparatus is designed to use ephemeris data from a predetermined number of satellites for position determination, and is designed to receive and store said ephemeris data and to use said ephemeris data for immediate position determination, wherein the receiving apparatus is designed to receive (10; 10') satellite raw data, and to store (11; 11'; 11") said satellite raw data for later position determination, if the required ephemeris data are not available, wherein the satellite raw data comprise the following data: code phase and data bits; characterized in that the satellite raw data additionally comprise the following data: carrier phase and optionally signal quality, wherein the receiving apparatus can additionally store (11; 11'; 11") image data, wherein the receiving apparatus stores (11; 11'; 11") the satellite raw data in addition to the image data if the required ephemeris data are not available, wherein the image data record comprises the satellite raw data, and wherein the receiving apparatus uses the satellite raw data for later calculation of the absolute position and replaces the satellite raw data with this position in the image data record as soon as the ephemeris data have been received later , so that an image data record is obtained as would be available if the ephemeris data had already been available at the time of the image recording, wherein the receiving apparatus is designed to signal that it has not yet been possible to perform position determination, but later position determination using valid ephemeris data is possible, since the satellite raw data required therefor are stored together with the recorded image data, or that immediate position determination is possible, so that instead of the satellite raw data the currently ascertained position is stored for the image data.
A terminal configured to communicate with a base station , the terminal comprising: a downlink subframe processing unit configured to receive a first physical channel which is allocated with six resource blocks of which location is pre-defined, the first physical channel carrying a first broadcast information, and the downlink subframe processing unit being configured to monitor an enhanced physical downlink control channel in an enhanced physical downlink control channel common search space, wherein a first starting OFDM symbol is specified by the first broadcast information, and the enhanced physical downlink control channel is an enhanced physical downlink control channel related to paging. a downlink subframe processing unit configured to receive a first physical channel which is allocated with six resource blocks of which location is pre-defined, the first physical channel carrying a first broadcast information, and the downlink subframe processing unit being configured to monitor an enhanced physical downlink control channel in an enhanced physical downlink control channel common search space, wherein a first starting OFDM symbol is specified by the first broadcast information, and the enhanced physical downlink control channel is an enhanced physical downlink control channel related to paging.
A method comprising: receiving (S526), by a third computer , from a first computer , an authorization request message for a transaction, the authorization request message including a token and a first verification value; sending (S528), by the third computer, the token and the first verification value to a second computer , wherein the second computer identifies a random value based on the token, wherein the second computer generates a second verification value based on the random value and the token, and wherein the second computer determines (S530) that the second verification value matches the first verification value, and wherein the second computer obtains a value credential based on said determination; receiving, by the third computer, from the second computer, the value credential associated with the token; and sending, by the third computer, the authorization request message and the value credential to an authorizing entity computer , wherein the authorizing entity computer authorizes (S540) the transaction based on the value credential. receiving (S526), by a third computer , from a first computer , an authorization request message for a transaction, the authorization request message including a token and a first verification value; sending (S528), by the third computer, the token and the first verification value to a second computer , wherein the second computer identifies a random value based on the token, wherein the second computer generates a second verification value based on the random value and the token, and wherein the second computer determines (S530) that the second verification value matches the first verification value, and wherein the second computer obtains a value credential based on said determination; receiving, by the third computer, from the second computer, the value credential associated with the token; and sending, by the third computer, the authorization request message and the value credential to an authorizing entity computer , wherein the authorizing entity computer authorizes (S540) the transaction based on the value credential.
An ophthalmologic apparatus , comprising: a data acquisition unit including a concave mirror and an optical scanner configured to deflect light (LS) from a light source to guide to a reflective surface of the concave mirror , and configured to acquire a first data set group in an A-scan direction by performing optical coherence tomography on a subject's eye (E) placed at a subject's eye position or a conjugate position of the subject's eye position using light reflected by the reflective surface; a storage unit configured to store correction data for correcting an incident angle of the light at the subject's eye position depending on a deflection angle of the light by the optical scanner ; characterised by a correction unit configured to generate a second data set group by correcting at least a part of the first data set group based on the correction data stored in the storage unit . a data acquisition unit including a concave mirror and an optical scanner configured to deflect light (LS) from a light source to guide to a reflective surface of the concave mirror , and configured to acquire a first data set group in an A-scan direction by performing optical coherence tomography on a subject's eye (E) placed at a subject's eye position or a conjugate position of the subject's eye position using light reflected by the reflective surface; a storage unit configured to store correction data for correcting an incident angle of the light at the subject's eye position depending on a deflection angle of the light by the optical scanner ; characterised by a correction unit configured to generate a second data set group by correcting at least a part of the first data set group based on the correction data stored in the storage unit .
A pneumatic tire , comprising: a carcass layer ; a belt layer disposed on an outer side of the carcass layer in a radial direction; and a tread rubber disposed on an outer side of the belt layer in the radial direction, the carcass layer having a cord angle of 80 ° or more and 100 ° or less, the belt layer being formed by layering a first reinforcing belt , a second reinforcing belt that is narrower than the first reinforcing belt , and an auxiliary belt that is spaced apart from a tire equatorial plane (CL) and disposed between the carcass layer and the first reinforcing belt , the first reinforcing belt and the second reinforcing belt having cord angles of 11 ° or more and 30 ° or less, and the auxiliary belt having a cord angle of 55 ° or more and 70 ° or less, wherein a distance De5 from the tire equatorial plane (CL) to an outer end portion of the auxiliary belt in a tire width direction has a relationship 0.75 ≤ De5/De1 ≤ 0.99 with respect to a distance De1 from the tire equatorial plane (CL) to an end portion of the first reinforcing belt , characterized in that , a distance De5' from the tire equatorial plane (CL) to the inner end portion of the auxiliary belt in the tire width direction has a relationship 0.05 ≤ De5'/De5 ≤ 0.30 with respect to the distance De5. a carcass layer ; a belt layer disposed on an outer side of the carcass layer in a radial direction; and a tread rubber disposed on an outer side of the belt layer in the radial direction, the carcass layer having a cord angle of 80 ° or more and 100 ° or less, the belt layer being formed by layering a first reinforcing belt , a second reinforcing belt that is narrower than the first reinforcing belt , and an auxiliary belt that is spaced apart from a tire equatorial plane (CL) and disposed between the carcass layer and the first reinforcing belt , the first reinforcing belt and the second reinforcing belt having cord angles of 11 ° or more and 30 ° or less, and the auxiliary belt having a cord angle of 55 ° or more and 70 ° or less, wherein a distance De5 from the tire equatorial plane (CL) to an outer end portion of the auxiliary belt in a tire width direction has a relationship 0.75 ≤ De5/De1 ≤ 0.99 with respect to a distance De1 from the tire equatorial plane (CL) to an end portion of the first reinforcing belt , characterized in that , a distance De5' from the tire equatorial plane (CL) to the inner end portion of the auxiliary belt in the tire width direction has a relationship 0.05 ≤ De5'/De5 ≤ 0.30 with respect to the distance De5.
A method for wireless communications, comprising: determining a slot configuration for a wireless device to use for communication , wherein the slot configuration comprises at least one of a channel assignment for one or more slots, a reference signal configuration, and the slot configuration further comprises a phase tracking reference signal, PT-RS, density within a set of time-frequency resources; determining, based on the slot configuration, a PT-RS puncturing configuration associated with the wireless device ; and selecting a PT-RS configuration for the wireless device based, at least in part, on the slot configuration and the PT-RS puncturing configuration , characterized in that , selecting the PT-RS configuration comprises allocating a first symbol with at least one PT-RS if the wireless device was unable to obtain a phase tracking reference in one or more second symbols prior to the first symbol; and a number of the second symbols is based on the PT-RS density. determining a slot configuration for a wireless device to use for communication , wherein the slot configuration comprises at least one of a channel assignment for one or more slots, a reference signal configuration, and the slot configuration further comprises a phase tracking reference signal, PT-RS, density within a set of time-frequency resources; determining, based on the slot configuration, a PT-RS puncturing configuration associated with the wireless device ; and selecting a PT-RS configuration for the wireless device based, at least in part, on the slot configuration and the PT-RS puncturing configuration , characterized in that , selecting the PT-RS configuration comprises allocating a first symbol with at least one PT-RS if the wireless device was unable to obtain a phase tracking reference in one or more second symbols prior to the first symbol; and a number of the second symbols is based on the PT-RS density.