mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the existence of a risk factor for Age-Related Macular Degeneration in a plasma sample obtained from an individual comprising: a) exposing said sample to at least one antibody, or a fragment thereof comprising at least the Complementarity Determining Region, specific for either: i) the histidine 402 variant of Complement Factor H wherein said antibody is secreted by the clone deposited under reference 07042601, or a fragment thereof comprising at least the Complementarity Determining Region; or ii) the tyrosine 402 variant of Complement Factors H wherein said antibody is secreted by the clone deposited under reference 08011002, or a fragment thereof comprising at least the Complementarity Determining Region; b) determining specific binding of said antibody to plasma Complement Factor H and where binding of antibody secreted by the clone deposited under reference 07042601 takes place concluding that the histidine 402 variant is present, or where binding of the antibody secreted by the clone deposited under reference 08011002 takes place concluding that the tyrosine 402 variant is present; and c) where the histidine 402 variant is present, concluding that the individual either has, or is at increased risk of developing AMD, or where the binding of the tyrosine specific antibody indicates a homozygous state for the tyrosine variant concluding that the individual is at reduced risk of developing AMD. a) exposing said sample to at least one antibody, or a fragment thereof comprising at least the Complementarity Determining Region, specific for either: i) the histidine 402 variant of Complement Factor H wherein said antibody is secreted by the clone deposited under reference 07042601, or a fragment thereof comprising at least the Complementarity Determining Region; or ii) the tyrosine 402 variant of Complement Factors H wherein said antibody is secreted by the clone deposited under reference 08011002, or a fragment thereof comprising at least the Complementarity Determining Region; i) the histidine 402 variant of Complement Factor H wherein said antibody is secreted by the clone deposited under reference 07042601, or a fragment thereof comprising at least the Complementarity Determining Region; or ii) the tyrosine 402 variant of Complement Factors H wherein said antibody is secreted by the clone deposited under reference 08011002, or a fragment thereof comprising at least the Complementarity Determining Region; b) determining specific binding of said antibody to plasma Complement Factor H and where binding of antibody secreted by the clone deposited under reference 07042601 takes place concluding that the histidine 402 variant is present, or where binding of the antibody secreted by the clone deposited under reference 08011002 takes place concluding that the tyrosine 402 variant is present; and c) where the histidine 402 variant is present, concluding that the individual either has, or is at increased risk of developing AMD, or where the binding of the tyrosine specific antibody indicates a homozygous state for the tyrosine variant concluding that the individual is at reduced risk of developing AMD.
A medical apparatus comprising: an acquirer configured to acquire a fluoroscopic image of an object from an imager which performs imaging by irradiating the object with an electromagnetic wave to generate the fluoroscopic image; an identifier configured to identify a target position of the object in the fluoroscopic image; and a controller (110, 150) configured to output an irradiation permission signal to a therapeutic device which irradiates the object with a therapeutic beam in a case where the target position identified by the identifier is settled within an irradiation permission range, wherein the controller (110, 150) is configured to cause the therapeutic device to end a state of being capable of performing irradiation of the electromagnetic wave, in a case where a first switch is operated, and the controller (110, 150) is configured to cause the therapeutic device to maintain the state of being capable of performing irradiation of the electromagnetic wave and to stop irradiation of the electromagnetic wave, in a case where a second switch is operated. an acquirer configured to acquire a fluoroscopic image of an object from an imager which performs imaging by irradiating the object with an electromagnetic wave to generate the fluoroscopic image; an identifier configured to identify a target position of the object in the fluoroscopic image; and a controller (110, 150) configured to output an irradiation permission signal to a therapeutic device which irradiates the object with a therapeutic beam in a case where the target position identified by the identifier is settled within an irradiation permission range, wherein the controller (110, 150) is configured to cause the therapeutic device to end a state of being capable of performing irradiation of the electromagnetic wave, in a case where a first switch is operated, and the controller (110, 150) is configured to cause the therapeutic device to maintain the state of being capable of performing irradiation of the electromagnetic wave and to stop irradiation of the electromagnetic wave, in a case where a second switch is operated.
A method for receiving an uplink frame in a wireless communication system, the method comprising: Receiving, by an access point, AP, an uplink orthogonal frequency division multiple access, OFDMA, frame, wherein the uplink OFDMA frame comprises a payload, the payload comprising one or more OFDMA symbols, each of the one or more OFDMA symbols comprising 256 tones per 20 MHz of channel bandwidth including data tones and dedicated pilot tones, the data tones and dedicated pilot tones being partitioned into a plurality of resource units, RUs, the resource units communicated by at least two different mobile stations, wherein each of the RUs(220, 230, 240) in each OFDMA symbol carries at least two dedicated pilot tones(222, 232, 242); and performing residual carrier frequency offset compensation by tracking a phase of pilot symbols in each RU of each payload OFDMA symbol based on the at least two dedicated pilot tones carried in each respective RU, wherein the residual carrier frequency offset compensation includes estimating a residual carrier frequency offset based on the at least two dedicated pilot tones carried in each respective RU. Receiving, by an access point, AP, an uplink orthogonal frequency division multiple access, OFDMA, frame, wherein the uplink OFDMA frame comprises a payload, the payload comprising one or more OFDMA symbols, each of the one or more OFDMA symbols comprising 256 tones per 20 MHz of channel bandwidth including data tones and dedicated pilot tones, the data tones and dedicated pilot tones being partitioned into a plurality of resource units, RUs, the resource units communicated by at least two different mobile stations, wherein each of the RUs(220, 230, 240) in each OFDMA symbol carries at least two dedicated pilot tones(222, 232, 242); and performing residual carrier frequency offset compensation by tracking a phase of pilot symbols in each RU of each payload OFDMA symbol based on the at least two dedicated pilot tones carried in each respective RU, wherein the residual carrier frequency offset compensation includes estimating a residual carrier frequency offset based on the at least two dedicated pilot tones carried in each respective RU.
An immersion vaccine for immunizing a fish against Flavobacteriaceae infections comprising at least one isolated antigen comprising the amino acid sequence of SEQ ID NO: 7.
A method for transmitting a sidelink synchronization signal, SLSS, by a user equipment, UE, in a wireless communication system, the method comprising: selecting, by the UE, a synchronization reference based on a relative priority in decreasing order of a priority order set; and transmitting, by the UE, the SLSS based on the synchronization reference, wherein the priority order set comprises: i. a global navigation satellite system, GNSS, ii. a candidate UE having a GNSS as a direct synchronization reference, iii. a candidate UE having a GNSS as an indirect synchronization reference, iv. a base station, v. a candidate UE having a base station as a direct synchronization reference, vi. a candidate UE having a base station as an indirect synchronization reference. selecting, by the UE, a synchronization reference based on a relative priority in decreasing order of a priority order set; and transmitting, by the UE, the SLSS based on the synchronization reference, wherein the priority order set comprises: i. a global navigation satellite system, GNSS, ii. a candidate UE having a GNSS as a direct synchronization reference, iii. a candidate UE having a GNSS as an indirect synchronization reference, iv. a base station, v. a candidate UE having a base station as a direct synchronization reference, vi. a candidate UE having a base station as an indirect synchronization reference. i. a global navigation satellite system, GNSS, ii. a candidate UE having a GNSS as a direct synchronization reference, iii. a candidate UE having a GNSS as an indirect synchronization reference, iv. a base station, v. a candidate UE having a base station as a direct synchronization reference, vi. a candidate UE having a base station as an indirect synchronization reference.
Organic electronic component comprising at least one organic electronic layer, wherein the organic electronic layer comprises a matrix which contains as dopant a bismuth complex, wherein the bismuth complex contains at least one ligand L attached to the bismuth atom, wherein the ligands L comprise independently from each other the following general structure: wherein substituent R 1 is selected from the group comprising branched or unbranched, fluorinated aliphatic hydrocarbons with 1 to 10 C atoms, and wherein substituent R 3 is selected from the group comprising branched or unbranched fluorinated or unfluorinated aliphatic hydrocarbons with 1 to 10 C atoms, aryl and heteroaryl, wherein a is equal to 0 or 1.
A pharmaceutically acceptable liquid composition of Asenapine for sublingual or buccal delivery comprising: Asenapine, or a pharmaceutically acceptable salt or hydrate thereof; ethanol; and water, characterized in that the composition is free of polyol and the composition is stable for an extended period of time at normal storage conditions. Asenapine, or a pharmaceutically acceptable salt or hydrate thereof; ethanol; and water, characterized in that the composition is free of polyol and the composition is stable for an extended period of time at normal storage conditions.
A method implemented by a node in a source Radio Access Network, RAN, to control handover of a mobile station, MS, from a source cell of the source RAN operating in packet switched, PS, domain to a target cell of a target RAN operating in PS domain, the target RAN supporting multi-operator core network, MOCN, the method comprising the steps of: transmitting system information by the node to the MS, the system information including a selected public land mobile network, PLMN, location area code, LAC, of the target cell, and routing area code, RAC, of the target cell, wherein the selected PLMN is the PLMN that will serve the MS in the target cell after the handover and the selected PLMN is a PLMN that is managed by one of a plurality of different operators of the MOCN supported in the target cell; and sending a PS handover command to the MS. transmitting system information by the node to the MS, the system information including a selected public land mobile network, PLMN, location area code, LAC, of the target cell, and routing area code, RAC, of the target cell, wherein the selected PLMN is the PLMN that will serve the MS in the target cell after the handover and the selected PLMN is a PLMN that is managed by one of a plurality of different operators of the MOCN supported in the target cell; and sending a PS handover command to the MS.
A geological storage method for a gas containing a species to be stored and at least one noble gas, wherein said gas is injected into a subsurface formation, characterized in that the evolution of said species to be stored in the subsurface is monitored by carrying out the following stages: i. selecting a diffusion model for said noble gas and a diffusion model for the species to be stored, each model describing the concentration evolution as a function of time, of depth and of a diffusion coefficient of said gas; ii. prior to said injection, taking at least a first sample of a fluid present in a subsurface zone likely to be reached by the species to be stored and measuring a concentration of said noble gas within said first sample; iii. after said injection, taking at least a second sample of a fluid present in said subsurface zone likely to be reached by the species to be stored and measuring a concentration of said noble gas within said second sample; iv. repeating stage iii at different times; v. when said concentration of said noble gas increases, modifying said effective diffusion coefficient of the noble gas diffusion model so that the model is coherent with said measurements and deducing a ratio between said diffusion coefficient and said modified diffusion coefficient; vi. applying this ratio to the diffusion model of the species to be stored and determining therefrom an amount of species to be stored dissolved at a time t. i. selecting a diffusion model for said noble gas and a diffusion model for the species to be stored, each model describing the concentration evolution as a function of time, of depth and of a diffusion coefficient of said gas; ii. prior to said injection, taking at least a first sample of a fluid present in a subsurface zone likely to be reached by the species to be stored and measuring a concentration of said noble gas within said first sample; iii. after said injection, taking at least a second sample of a fluid present in said subsurface zone likely to be reached by the species to be stored and measuring a concentration of said noble gas within said second sample; iv. repeating stage iii at different times; v. when said concentration of said noble gas increases, modifying said effective diffusion coefficient of the noble gas diffusion model so that the model is coherent with said measurements and deducing a ratio between said diffusion coefficient and said modified diffusion coefficient; vi. applying this ratio to the diffusion model of the species to be stored and determining therefrom an amount of species to be stored dissolved at a time t.
A continuous authentication system (100, 500, 1100, 1200, 1300), comprising: a host including an encryption unit; a storage device including a decryption unit; a first physical connection between the host and the storage device, wherein the first physical connection is configured to transfer one or more input/output requests, I/Os; and a second physical connection between the host and the storage device, wherein: the encryption unit is configured to encrypt an authentication signal; the host is configured to transmit the encrypted authentication signal through the second physical connection; the storage device is configured to receive the encrypted authentication signal through the second physical connection; and the decryption unit is configured to decrypt the encrypted authentication signal, wherein the authentication signal includes a periodically incrementing integer value, wherein the storage device is configured to stop processing the one or more I/Os in response to the periodically incrementing integer value having a non-chronological increment. a host including an encryption unit; a storage device including a decryption unit; a first physical connection between the host and the storage device, wherein the first physical connection is configured to transfer one or more input/output requests, I/Os; and a second physical connection between the host and the storage device, wherein: the encryption unit is configured to encrypt an authentication signal; the host is configured to transmit the encrypted authentication signal through the second physical connection; the storage device is configured to receive the encrypted authentication signal through the second physical connection; and the decryption unit is configured to decrypt the encrypted authentication signal, wherein the authentication signal includes a periodically incrementing integer value, wherein the storage device is configured to stop processing the one or more I/Os in response to the periodically incrementing integer value having a non-chronological increment. the encryption unit is configured to encrypt an authentication signal; the host is configured to transmit the encrypted authentication signal through the second physical connection; the storage device is configured to receive the encrypted authentication signal through the second physical connection; and the decryption unit is configured to decrypt the encrypted authentication signal, wherein the authentication signal includes a periodically incrementing integer value, wherein the storage device is configured to stop processing the one or more I/Os in response to the periodically incrementing integer value having a non-chronological increment.
A device for displaying driving states of a hybrid vehicle with a display face and an associated pointer means as well as a control apparatus for actuating the pointer means, wherein said device has at least one braking range and acceleration range, and the information content of the display face is defined in an invariable fashion, wherein information content is understood to be the type and the scope of the represented information, characterized in that both the braking range and the acceleration range are subdivided once more; so that limiting ranges are formed, wherein a limiting range of the braking range is passed over by the pointer means if a service brake is used in addition to the braking function of an electric motor; or a limiting range of the acceleration range is passed over by the pointer means if an internal combustion engine is used in addition to the electric motor.
A water-absorbent sheet structure characterized in that it comprises a structure in which an absorbent layer comprising an adhesive and a mixture of a water-absorbent resin and a water-absorbent resin is sandwiched with fibrous webs from an upper side and a lower side of the absorbent layer, the water-absorbent resin and the water-absorbent resin are contained in a total amount of from 100 to 1,000 g/m 2, and the water-absorbent resin and the water-absorbent resin have the following properties: the water-absorbent resin having a water-retention capacity of saline solution (Ra) from 15 to 55 g/g; the water-absorbent resin having a water-retention capacity of saline solution (Rb) from 10 to 50 g/g; and Ra and Rb mentioned above satisfies the relationship of the following formula: Ra - Rb ≥ 5 (g/g); wherein the water-retention capacity of saline solution is measured according to the procedure described in the description; and wherein the water-absorbent resin and the water-absorbent resin are in a mass ratio, i.e. the water-absorbent resin: the water-absorbent resin, of from 90:10 to 80:20. the water-absorbent resin having a water-retention capacity of saline solution (Ra) from 15 to 55 g/g; the water-absorbent resin having a water-retention capacity of saline solution (Rb) from 10 to 50 g/g; and Ra and Rb mentioned above satisfies the relationship of the following formula: Ra - Rb ≥ 5 (g/g);
A transmission control protocol receiver having computer circuitry to reduce delay in data streaming, the computer circuitry configured to: receive a plurality of transmission control protocol segments, at a TCP receiver buffer, from a network element; detect a missing TCP segment based on an out-of-order TCP segment being received in the plurality of TCP segments; determine that the missing TCP segment to be received prior to the out-of-order TCP segment, at the TCP receiver, can be dropped based on context information associated with the data streaming, wherein the context information includes network layer context information and application layer context information; send a fake acknowledgement message to the network element, based on the context information, acknowledging that the missing TCP segment was received at the TCP receiver, wherein the fake ACK message includes a request for the TCP segments that logically follow the out-of-order TCP segment to be communicated to the TCP receiver; and provide the out-of-order TCP segment without the missing TCP segment, from the TCP receiver buffer, to a display device. receive a plurality of transmission control protocol segments, at a TCP receiver buffer, from a network element; detect a missing TCP segment based on an out-of-order TCP segment being received in the plurality of TCP segments; determine that the missing TCP segment to be received prior to the out-of-order TCP segment, at the TCP receiver, can be dropped based on context information associated with the data streaming, wherein the context information includes network layer context information and application layer context information; send a fake acknowledgement message to the network element, based on the context information, acknowledging that the missing TCP segment was received at the TCP receiver, wherein the fake ACK message includes a request for the TCP segments that logically follow the out-of-order TCP segment to be communicated to the TCP receiver; and provide the out-of-order TCP segment without the missing TCP segment, from the TCP receiver buffer, to a display device.
A module for placement inside a sheath having a curved inner wall and for vibrating the sheath wherein the module is characterized by a body having: a) a mass; b) a vibrator attached to the mass; and c) a base supporting the mass and vibrator and adapted to contact an inner wall of the sheath, wherein the base has a curved shape adapted to conform to a portion of the curved inner wall of the sheath, and wherein the base is separate but attached to the mass. a) a mass; b) a vibrator attached to the mass; and c) a base supporting the mass and vibrator and adapted to contact an inner wall of the sheath,
A compound of formula I: wherein either R 6 is selected from the group consisting of -NR 3 R 4, -R 3, -OR 3 and halo; and R 5 is -(CR=CR-) n (CR=CR 2 -) m R 1, or R 6 is -(CR=CR-) n (CR=CR 2 -) m R 1; and R 5 is selected from the group consisting of -NR 3 R 4, -R 3, -OR 3 and halo, and further wherein m is 1, n is 0, R 1 and R 2 are independently selected from the group consisting of -CN, -COOR, and CONHR; each R is independently selected from -H and C 1-6 linear or branched alkyl; and R 3 and R 4 are independently selected from the group consisting of H, substituted or unsubstituted linear or branched C 1 -C 10 alkyl, substituted or unsubstituted phenyl, substituted or unsubstituted C 6 -C 10 aryl, substituted or unsubstituted C 5 -C 10 heteroaryl, substituted or unsubstituted C 5 -C 10 cycloalkyl, and substituted or unsubstituted C 5 -C 10 heterocycloalkyl; or R 3 and R 4 attached to their N together form a ring that is substituted or unsubstituted C 5 -C 10 heterocycloalkyl. R 6 is selected from the group consisting of -NR 3 R 4, -R 3, -OR 3 and halo; and R 5 is -(CR=CR-) n (CR=CR 2 -) m R 1, or R 6 is -(CR=CR-) n (CR=CR 2 -) m R 1; and R 5 is selected from the group consisting of -NR 3 R 4, -R 3, -OR 3 and halo, and further wherein m is 1, n is 0, R 1 and R 2 are independently selected from the group consisting of -CN, -COOR, and CONHR; each R is independently selected from -H and C 1-6 linear or branched alkyl; and R 3 and R 4 are independently selected from the group consisting of H, substituted or unsubstituted linear or branched C 1 -C 10 alkyl, substituted or unsubstituted phenyl, substituted or unsubstituted C 6 -C 10 aryl, substituted or unsubstituted C 5 -C 10 heteroaryl, substituted or unsubstituted C 5 -C 10 cycloalkyl, and substituted or unsubstituted C 5 -C 10 heterocycloalkyl; or R 3 and R 4 attached to their N together form a ring that is substituted or unsubstituted C 5 -C 10 heterocycloalkyl.