mhurhangee/ep-ind-claims huggingface dataset:
A method facilitating contextual note taking, the method comprising: receiving, at an end user device, an indication of a specific presentation session; receiving, at the end user device, specific presentation session content, the specific presentation session content comprising identifiable context images; receiving, from a presenter device, a navigation message via a communication interface of the end user device, the navigation message comprising a location identifier that provides a location in the specific presentation session content a presenter is displaying; responsive to receiving the navigation message, changing, at the end user device, a current assistant context image of the specific presentation session content to a current presenter context image based on the navigation message, the current assistant context image corresponding to a context image to which any text units being received are assigned and the current presenter context image corresponding to a context image a presenter is currently displaying; receiving, at the end user device, a speech-to-text message comprising a unit of text associated with the current presenter context image from the presenter device; displaying, at the end user device, the unit of text associated with the current presenter context image; and storing, at the end user device, the unit of text associated with the current presenter context image regardless of a context image that an end user is currently viewing. receiving, at an end user device, an indication of a specific presentation session; receiving, at the end user device, specific presentation session content, the specific presentation session content comprising identifiable context images; receiving, from a presenter device, a navigation message via a communication interface of the end user device, the navigation message comprising a location identifier that provides a location in the specific presentation session content a presenter is displaying; responsive to receiving the navigation message, changing, at the end user device, a current assistant context image of the specific presentation session content to a current presenter context image based on the navigation message, the current assistant context image corresponding to a context image to which any text units being received are assigned and the current presenter context image corresponding to a context image a presenter is currently displaying; receiving, at the end user device, a speech-to-text message comprising a unit of text associated with the current presenter context image from the presenter device; displaying, at the end user device, the unit of text associated with the current presenter context image; and storing, at the end user device, the unit of text associated with the current presenter context image regardless of a context image that an end user is currently viewing.
A method for wireless communication, comprising: identifying a synchronization channel containing location information for a common control resource set within a system bandwidth; locating the common control resource set within the system bandwidth based at least in part on the location information; identifying a cell ID, and a slot or subframe index for the located common control resource set; identifying a reference resource element, RE, location within the system bandwidth, said RE location associated with a center frequency of the synchronization channel; generating a scrambling sequence based at least in part on the cell ID, the slot or subframe index, and the reference RE location; descrambling one or more reference signal REs starting at the reference RE location based on the generated scrambling sequence; and demodulating the common control resource set based on the descrambled one or more reference signal REs. identifying a synchronization channel containing location information for a common control resource set within a system bandwidth; locating the common control resource set within the system bandwidth based at least in part on the location information; identifying a cell ID, and a slot or subframe index for the located common control resource set; identifying a reference resource element, RE, location within the system bandwidth, said RE location associated with a center frequency of the synchronization channel; generating a scrambling sequence based at least in part on the cell ID, the slot or subframe index, and the reference RE location; descrambling one or more reference signal REs starting at the reference RE location based on the generated scrambling sequence; and demodulating the common control resource set based on the descrambled one or more reference signal REs.
A dominant negative TNF-α inhibitor comprising a variant polypeptide sequence that is greater than 90% identical to the amino acid sequence of wild-type human TNF-α and comprises 1, 2, 3, 4, 5, 6, or 7 amino acid changes relative to wild-type TNF-α, and wherein said changes are selected from changes at positions 1, 21, 23, 30, 31, 32, 33, 34, 35, 57, 65, 66, 67, 69, 75, 84, 86, 87, 91, 97, 101, 111, 112, 115, 140, 143, 144, 145, 146, and 147 of the amino acid sequence as set forth in SEQ. ID. NO. 3, wherein the dominant negative NF-α inhibitor comprises substitutions selected from the group of substitutions consisting of V1M, Q21C, Q21R, E23C, N30D, R310, R31I, R31D, R31E, R32D, R32E, R32S, A33E, N34E, N34V, A35S, D45C, L57F, L57W, L57Y, K65D, K65E, K65I, K65M, K65N, K65Q, K65T, K65S, K65V, K65W, G66K, G66Q, Q67D, Q67K, Q67R, Q67S, Q67W, Q67Y, C69V, L75E, L75K, L75Q, A84V, S86Q, S86R, Y87H, Y87R, V91E, I97R, I97T, C101 A, A111 R, A111E, K112D, K112E, Y115D, Y115E, Y115F, Y115H, Y1151, Y115K, Y115L, Y115M, Y115N, Y115Q, Y115R, Y115S, Y115T, Y115W, D140K, D140R, D143E, D143K, D143L, D143R, D143N, D143Q, D143S, F144N, A145D, A145E, A145F, A145H, A145K, A145M, A145N, A145Q, A145R, A145S, A145T, A145Y, E146K, E146L, E146M, E146N, E146R, E146S, and S147R of the amino acid sequence as set forth in SEQ. ID. NO. 3, wherein the dominant negative NF-α inhibitor inhibits soluble NF-α but does not inhibit signaling by transmembrane NF-α and is for use in treating a patient with a neurological disorder associated with elevated TNF-α, wherein the dominant negative NF-α inhibitor is for peripheral administration in a therapeutically effective amount, and wherein said peripheral administration provides a therapeutically effective amount of the dominant negative TNF-α inhibitor that directly contacts the CNS by crossing the blood brain barrier, whereby said patient is treated, wherein the neurological disorder is selected from the group consisting of multiple sclerosis, Parkinson's disease, Huntington's disease, amyotrophic lateral sclerosis, amyloidosis, stroke, depression and dementia, and wherein said amyloidosis is selected from the group consisting of Alzheimer's disease, frontotemporal dementia, and Lewy Body dementia, wherein said variant comprises the amino acid substitutions V1M/R31C/C69V/Y87H/C101 A/A145R.
A lighting tool (1A, 1B) for a vehicle comprising: a first light source unit (2A, 2B) for a high beam having a plurality of first light emitting elements, a first heat conductive substrate on which the first light emitting elements are mounted, and a first reflector (6A, 6B) configured to reflect light emitted from the first light emitting elements toward a direction of advance of the vehicle; and a second light source unit (3A, 3B) for a low beam having at least one or a plurality of second light emitting elements and a second heat conductive substrate on which the second light emitting element is mounted, and a second reflector (10A, 10B) configured to reflect light emitted from the second light emitting element in the direction of advance of the vehicle, the second heat conductive substrate is larger than the first heat conductive substrate, and has a substrate mounting region, the first heat conductive substrate is mounted on the substrate mounting region, and wherein the first heat conductive substrate is thermally bonded to the second heat conductive substrate in a state in which the first heat conductive substrate and the second heat conductive substrate are overlapped with each other. a first light source unit (2A, 2B) for a high beam having a plurality of first light emitting elements, a first heat conductive substrate on which the first light emitting elements are mounted, and a first reflector (6A, 6B) configured to reflect light emitted from the first light emitting elements toward a direction of advance of the vehicle; and a second light source unit (3A, 3B) for a low beam having at least one or a plurality of second light emitting elements and a second heat conductive substrate on which the second light emitting element is mounted, and a second reflector (10A, 10B) configured to reflect light emitted from the second light emitting element in the direction of advance of the vehicle, the second heat conductive substrate is larger than the first heat conductive substrate, and has a substrate mounting region, the first heat conductive substrate is mounted on the substrate mounting region, and wherein the first heat conductive substrate is thermally bonded to the second heat conductive substrate in a state in which the first heat conductive substrate and the second heat conductive substrate are overlapped with each other.
An orienting device for use in a subterranean well, the orienting device comprising: first and second releasable retainers (42, 44) which are releasable so as to permit portions of the orienting device to displace relative to one another in response to application of respective first and second compressive forces applied to the orienting device; an engagement member free to displace circumferentially in the orienting device; and first and second components (34, 36), wherein a space between the first and second components decreases in response to application of the first compressive force to the orienting device, and wherein the engagement member is prevented from circumferential displacement in response to the decrease in the space between the first and second components. first and second releasable retainers (42, 44) which are releasable so as to permit portions of the orienting device to displace relative to one another in response to application of respective first and second compressive forces applied to the orienting device; an engagement member free to displace circumferentially in the orienting device; and first and second components (34, 36), wherein a space between the first and second components decreases in response to application of the first compressive force to the orienting device, and wherein the engagement member is prevented from circumferential displacement in response to the decrease in the space between the first and second components.
A guidewire comprising: a core shaft; a coil body covering a distal end portion of the core shaft; and a coating agent covering an outer periphery of the coil body, wherein the coil body includes a distal coil body disposed on a distal side of the coil body, and a proximal coil body disposed on a proximal side of the distal coil body, a surface roughness of the proximal coil body is higher than a surface roughness of the distal coil body. a core shaft; a coil body covering a distal end portion of the core shaft; and a coating agent covering an outer periphery of the coil body, wherein the coil body includes a distal coil body disposed on a distal side of the coil body, and a proximal coil body disposed on a proximal side of the distal coil body, a surface roughness of the proximal coil body is higher than a surface roughness of the distal coil body.
A MIMO-OFDM transmission apparatus that transmits OFDM-modulated data symbols from a plurality of antennas (110A, 110B) in a data transmission period and transmits pilot symbols from specific carriers of each of the plurality of antennas (110A, 110B) in the data transmission period, the apparatus comprising: an OFDM signal forming section that forms OFDM signals transmitted from the antennas; and a pilot symbol mapping section that assigns orthogonal sequences to same carriers in OFDM signals transmitted from respective different antennas of the plurality of antennas at a same time, in a time domain, and forms pilot carriers, the apparatus is characterized by when the OFDM signals are transmitted from two antennas, the pilot symbol mapping section forms the pilot carriers such that: pilot signals of orthogonal sequences are used for same carriers between a first antenna and a second antenna; pilot signals of different sequences are used for different carriers at each of the first antenna and the second antenna; and pilot signals of a same sequence are used at the first antenna and the second antenna, or wherein, when the OFDM signals are transmitted from three antennas, the pilot symbol mapping section forms the pilot carriers such that: pilot signals of orthogonal sequences are used for same carriers among a first antenna, a second antenna and a third antenna; there is an antenna where pilot signals of different sequences are used for different carriers; and there are two or more antennas where pilot singnals of a same sequence are used. an OFDM signal forming section that forms OFDM signals transmitted from the antennas; and a pilot symbol mapping section that assigns orthogonal sequences to same carriers in OFDM signals transmitted from respective different antennas of the plurality of antennas at a same time, in a time domain, and forms pilot carriers, the apparatus is characterized by when the OFDM signals are transmitted from two antennas, the pilot symbol mapping section forms the pilot carriers such that: pilot signals of orthogonal sequences are used for same carriers between a first antenna and a second antenna; pilot signals of different sequences are used for different carriers at each of the first antenna and the second antenna; and pilot signals of a same sequence are used at the first antenna and the second antenna, or pilot signals of orthogonal sequences are used for same carriers among a first antenna, a second antenna and a third antenna; there is an antenna where pilot signals of different sequences are used for different carriers; and there are two or more antennas where pilot singnals of a same sequence are used.
Method for producing a supporting structure for a passenger transport system, whereby the supporting structure comprises a framework with a bottom part, a center part, and a top part made from joined load-bearing framework components whereby at least the following semi- or fully automated process steps are sequentially performed during the process: a first joining step at a first joining station comprising - a retaining of framework components at a retention device and - a welding together of the framework components to form side parts (303R, 303L) of the bottom part, side parts (305R, 305L) of the center part, and side parts (301R, 301L) of the top part of the framework by means of at least one welding robot; transfer of the side parts (303R, 303L) of the bottom part, side parts (305R, 305L) of the center part, and side parts (301R, 301L) of the top part produced in the first joining step to a second joining station; a second joining step at a second joining station comprising - a positioning welding together of two further framework components (61A, 61B, 61C) by producing tacked welding connections with the adjacently arranged side parts (301, 303, 305) of the bottom part, of the center part, or respectively of the top part. a first joining step at a first joining station comprising - a retaining of framework components at a retention device and - a welding together of the framework components to form side parts (303R, 303L) of the bottom part, side parts (305R, 305L) of the center part, and side parts (301R, 301L) of the top part of the framework by means of at least one welding robot; - a retaining of framework components at a retention device and - a welding together of the framework components to form side parts (303R, 303L) of the bottom part, side parts (305R, 305L) of the center part, and side parts (301R, 301L) of the top part of the framework by means of at least one welding robot; transfer of the side parts (303R, 303L) of the bottom part, side parts (305R, 305L) of the center part, and side parts (301R, 301L) of the top part produced in the first joining step to a second joining station; a second joining step at a second joining station comprising - a positioning welding together of two further framework components (61A, 61B, 61C) by producing tacked welding connections with the adjacently arranged side parts (301, 303, 305) of the bottom part, of the center part, or respectively of the top part. - a positioning welding together of two further framework components (61A, 61B, 61C) by producing tacked welding connections with the adjacently arranged side parts (301, 303, 305) of the bottom part, of the center part, or respectively of the top part.
A method for producing a decoded digital audio recording, comprising: receiving a bitstream in which a) an encoded digital audio recording having a plurality of original audio channels or audio objects has been combined with b) a sequence of EQ values including an indication of a specified EQ group, of one or more channels or objects of the plurality of original audio channels or audio objects, as metadata associated with the encoded digital audio recording; decoding the plurality of original audio channels or audio objects, from the encoded digital audio recording; grouping one or more of the decoded, original audio channels or audio objects to form an EQ group of channels or objects as specified in the metadata, and filtering all of the channels or objects of the EQ group independently of any downmix that may be applied to the decoded channels or objects of the EQ group, using a filter cascade that is duplicated for each decoded channel or object in the EQ group and is defined in accordance with the EQ values in the metadata. receiving a bitstream in which a) an encoded digital audio recording having a plurality of original audio channels or audio objects has been combined with b) a sequence of EQ values including an indication of a specified EQ group, of one or more channels or objects of the plurality of original audio channels or audio objects, as metadata associated with the encoded digital audio recording; decoding the plurality of original audio channels or audio objects, from the encoded digital audio recording; grouping one or more of the decoded, original audio channels or audio objects to form an EQ group of channels or objects as specified in the metadata, and filtering all of the channels or objects of the EQ group independently of any downmix that may be applied to the decoded channels or objects of the EQ group, using a filter cascade that is duplicated for each decoded channel or object in the EQ group and is defined in accordance with the EQ values in the metadata.
A connection release method, comprising: receiving, by a first access network device, a context information request message from a second access network device, in response to the context information request message, generating, by the first access network device, a context information response message, wherein the context information response message comprises connection release information for a terminal device in an inactive mode and verification information, the verification information is used to verify whether the connection release information is valid, and the connection release information is used to instruct the terminal device to release a connection; and sending (102, S205) by the first access network device, the context information response message to the second access network device; in response to the context information response message, generating, by the second access network device, a second message, wherein the second message comprises the connection release information and the verification information; and sending (104, S206) by the second access network device, the second message to the terminal device; wherein the verification information is generated based on a key of the terminal device and context information of the terminal device; or the verification information is an operation result of identification of the terminal device and key information of the terminal device. receiving, by a first access network device, a context information request message from a second access network device, in response to the context information request message, generating, by the first access network device, a context information response message, wherein the context information response message comprises connection release information for a terminal device in an inactive mode and verification information, the verification information is used to verify whether the connection release information is valid, and the connection release information is used to instruct the terminal device to release a connection; and sending (102, S205) by the first access network device, the context information response message to the second access network device; in response to the context information response message, generating, by the second access network device, a second message, wherein the second message comprises the connection release information and the verification information; and sending (104, S206) by the second access network device, the second message to the terminal device; wherein the verification information is generated based on a key of the terminal device and context information of the terminal device; or the verification information is an operation result of identification of the terminal device and key information of the terminal device.
A high-performance, self-compacting cementitious mixture comprising: (a) cement, 300 to 1000 kg/m 3 of the cementitious mixture; (b) aggregate, 700 to 2000 kg/m 3 of the cementitious mixture; (c) water, 40 to 400 kg/m 3 of the cementitious mixture; (d) polymer fibres, 0.5 to 2 kg/m 3 of the cementitious mixture; (e) superabsorbent polymer selected from the group consisting of cross-linked polyelectrolytes, 0.1-1.0% by mass of cement; (f) optionally mineral admixtures; and (g) optionally additives; wherein the ratio of (d): (e) is in the range of 0.02 to 20; and wherein the water-to-cement ratio by mass is lower than 0.4. (a) cement, 300 to 1000 kg/m 3 of the cementitious mixture; (b) aggregate, 700 to 2000 kg/m 3 of the cementitious mixture; (c) water, 40 to 400 kg/m 3 of the cementitious mixture; (d) polymer fibres, 0.5 to 2 kg/m 3 of the cementitious mixture; (e) superabsorbent polymer selected from the group consisting of cross-linked polyelectrolytes, 0.1-1.0% by mass of cement; (f) optionally mineral admixtures; and (g) optionally additives;