mhurhangee/ep-ind-claims huggingface dataset:
A multiview display comprising multiview pixels, each multiview pixel comprising a set of view pixels, each view pixel corresponding to a respective different view direction of the multiview display, and a multiview backlight, wherein the multiview backlight comprises: a first array of active emitters spaced apart from one another, an active emitter of the first array of active emitters being configured to provide a first plurality of directional light beams having directions corresponding to the view directions of the multiview display; and a second array of active emitters interleaved between active emitters of the first array of active emitters, an active emitter of the second array of active emitters being configured to provide a second plurality of directional light beams (102") having directions corresponding to the view directions of the multiview display, wherein the active emitters of the first and second active emitter arrays (110, 120) have a size (s) between one half and two times the size of a view pixel of the multiview display. a first array of active emitters spaced apart from one another, an active emitter of the first array of active emitters being configured to provide a first plurality of directional light beams having directions corresponding to the view directions of the multiview display; and a second array of active emitters interleaved between active emitters of the first array of active emitters, an active emitter of the second array of active emitters being configured to provide a second plurality of directional light beams (102") having directions corresponding to the view directions of the multiview display, wherein the active emitters of the first and second active emitter arrays (110, 120) have a size (s) between one half and two times the size of a view pixel of the multiview display.
A system for applying a layer of sound-absorbing material to the inner surface of a cavity of a pneumatic tyre comprising an applicator device for applying the layer of sound-absorbing material to said inner surface which is implemented movable in order to move internally and externally to the cavity; wherein the layer of sound-absorbing material is fed to the applicator device which is provided with an adhesive layer that is applied to a surface intended to implement the connection with said inner surface and a removable lining applied to the adhesive layer; the applicator device comprises an applicator roller for implementing the application of the layer of sound-absorbing material to said inner surface after the removal of the lining and is arranged, in use, at a position directly facing and in proximity to said inner surface; and a roller for winding the lining after the separation from the layer of sound-absorbing material; the system is characterized in that the applicator device further comprises synchronization means implemented by means of a transmission member in order to make it possible to maintain substantially uniform the speed of the applicator roller and of the winding roller.
An implant delivery system comprising: an implant (100, 110, 120) including an implant body, a proximal anchor, and a distal anchor, said anchors (102, 103) attach to the implant body and extend away from the implant body; a carrier sheath (507, 1607, 1707, 1807, 2007) and a support sheath (502, 1401, 1602, 1702) each extending from a proximal end of said implant delivery system, wherein at least said carrier sheath (507, 1607, 1707, 1807, 2007) extends to a distal end of said implant delivery system, wherein said carrier sheath is positioned at least partially within said support sheath; at least one tie, (511, 512, 1612, 1614, 1812, 1814, 1817) engages a portion of said proximal anchor and said distal anchor, wherein the at least one tie, is inserted at least partially in anchor attachment lumens (509, 510) within said carrier sheath and enter in and out of slots (1001, 1610) along said carrier sheath to secure both said proximal anchor and said distal anchor. an implant (100, 110, 120) including an implant body, a proximal anchor, and a distal anchor, said anchors (102, 103) attach to the implant body and extend away from the implant body; a carrier sheath (507, 1607, 1707, 1807, 2007) and a support sheath (502, 1401, 1602, 1702) each extending from a proximal end of said implant delivery system, wherein at least said carrier sheath (507, 1607, 1707, 1807, 2007) extends to a distal end of said implant delivery system, wherein said carrier sheath is positioned at least partially within said support sheath; at least one tie, (511, 512, 1612, 1614, 1812, 1814, 1817) engages a portion of said proximal anchor and said distal anchor, wherein the at least one tie, is inserted at least partially in anchor attachment lumens (509, 510) within said carrier sheath and enter in and out of slots (1001, 1610) along said carrier sheath to secure both said proximal anchor and said distal anchor.
Data communication method executed by a sensor node of a telecommunications network comprising a plurality of sensor nodes and a concentrator node, said sensor node being able to transmit data to the concentrator node on a broadcasting communication medium that it shares with the plurality of sensor nodes, characterized in that the method comprises the following steps, intended to be implemented when the sensor node has data to be transmitted to the concentrator node: - selection of a time interval j in a contention window comprising several time intervals and preceding a transmission period comprising a plurality of transmission intervals; - broadcasting of a request signal in the time interval j selected; - reception of a response signal comprising a coded information item representative of an ordered combination of the intervals of the contention window that are marked as intervals during which at least one signal has been received by the concentrator node s; - determination of a transmission rank (Rg), at least as a function of a number of intervals marked by the concentrator node from among the time intervals preceding the time interval j on the basis of the coded information item received; - decision to send the data in the transmission period, when the transmission rank determined is less than or equal to the number of intervals of said period. - selection of a time interval j in a contention window comprising several time intervals and preceding a transmission period comprising a plurality of transmission intervals; - broadcasting of a request signal in the time interval j selected; - reception of a response signal comprising a coded information item representative of an ordered combination of the intervals of the contention window that are marked as intervals during which at least one signal has been received by the concentrator node s; - determination of a transmission rank (Rg), at least as a function of a number of intervals marked by the concentrator node from among the time intervals preceding the time interval j on the basis of the coded information item received; - decision to send the data in the transmission period, when the transmission rank determined is less than or equal to the number of intervals of said period.
A process consisting of the steps: (a) saponifying an oil comprising a blend of long chain saturated and unsaturated fatty acids to form a first admixture comprising free fatty acids wherein said oil is saponified by admixing the oil with a C 1-3 alcohol or a combination of a C 1-3 alcohol and water at an elevated temperature in the presence of an alkali catalyst; (b) separating the free fatty acids from the first admixture; (c) complexing the free fatty acids with urea dissolved in a C 1-3 alcohol or a combination of a C 1-3 alcohol and water to form a second admixture comprising urea-complexed free fatty acids; (d) cooling the second admixture to room temperature to precipitate urea-complexed saturated free fatty acids therein; and (e) separating the urea-complexed free fatty acids into a first fraction and a second fraction wherein the first fraction is enriched with saturated free fatty acids and depleted of unsaturated free fatty acids and the second fraction is enriched with unsaturated free fatty acids and depleted of saturated free fatty acids, wherein the process further comprises transesterification of the second fraction to form long chain unsaturated fatty acid alkyl esters suitable for use as a cold-tolerant biodiesel fuel. (a) saponifying an oil comprising a blend of long chain saturated and unsaturated fatty acids to form a first admixture comprising free fatty acids wherein said oil is saponified by admixing the oil with a C 1-3 alcohol or a combination of a C 1-3 alcohol and water at an elevated temperature in the presence of an alkali catalyst; (b) separating the free fatty acids from the first admixture; (c) complexing the free fatty acids with urea dissolved in a C 1-3 alcohol or a combination of a C 1-3 alcohol and water to form a second admixture comprising urea-complexed free fatty acids; (d) cooling the second admixture to room temperature to precipitate urea-complexed saturated free fatty acids therein; and (e) separating the urea-complexed free fatty acids into a first fraction and a second fraction wherein the first fraction is enriched with saturated free fatty acids and depleted of unsaturated free fatty acids and the second fraction is enriched with unsaturated free fatty acids and depleted of saturated free fatty acids,
A method of coordinating multi-cells comprising a server, the method comprising: transmitting, by a reference user equipment, first reference signals to a plurality of evolved NodeBs (eNBs) via uplink channels of the plurality of eNBs; transmitting, by the eNBs, a plurality of uplink channel information estimated according to the first reference signals to the server; performing uplink channel estimations for the eNBs according to the plurality of uplink channel information, and estimating carrier frequency offsets among the plurality of eNBs based on the uplink channel estimations for the eNBs at different time; transmitting second reference signals from the plurality of eNBs to the reference UE; transmitting, by the reference UE, a plurality of downlink channel information estimated according to the second reference signals to the server; and performing, by the server, a time-varying channel calibration to the plurality of eNBs, wherein the time-varying channel calibration is calculated from a ratio of the plurality of uplink channel compensated by the carrier frequency offsets and the plurality of downlink channel information compensated by the carrier frequency offsets. transmitting, by a reference user equipment, first reference signals to a plurality of evolved NodeBs (eNBs) via uplink channels of the plurality of eNBs; transmitting, by the eNBs, a plurality of uplink channel information estimated according to the first reference signals to the server; performing uplink channel estimations for the eNBs according to the plurality of uplink channel information, and estimating carrier frequency offsets among the plurality of eNBs based on the uplink channel estimations for the eNBs at different time; transmitting second reference signals from the plurality of eNBs to the reference UE; transmitting, by the reference UE, a plurality of downlink channel information estimated according to the second reference signals to the server; and performing, by the server, a time-varying channel calibration to the plurality of eNBs, wherein the time-varying channel calibration is calculated from a ratio of the plurality of uplink channel compensated by the carrier frequency offsets and the plurality of downlink channel information compensated by the carrier frequency offsets.
A search method to be performed by a computer, the search method comprising: acquiring first-dimensional feature vectors (x_v) in a feature space stored in a database; and searching for parameters (x_0,d) by which the feature vectors (x_v) are to be mapped onto a surface of a sphere present in a space greater in dimension by one or more than the feature space, the parameters including an intersection (x_0) at which the feature space and a straight line passing through the sphere intersect and a distance (d) being a distance from a predetermined point of the sphere to the feature space; whereby the plurality of feature vectors (x_v) are mapped by the parameters (x_0,d) found by the searching onto a hemisphere of the sphere through projection. acquiring first-dimensional feature vectors (x_v) in a feature space stored in a database; and searching for parameters (x_0,d) by which the feature vectors (x_v) are to be mapped onto a surface of a sphere present in a space greater in dimension by one or more than the feature space, the parameters including an intersection (x_0) at which the feature space and a straight line passing through the sphere intersect and a distance (d) being a distance from a predetermined point of the sphere to the feature space; whereby the plurality of feature vectors (x_v) are mapped by the parameters (x_0,d) found by the searching onto a hemisphere of the sphere through projection.
A method for screening an encoded chemical library, which library comprises a number n of clonal populations of different chemical structures each releasably linked to an encoding tag by a cleavable linker via a bead, and each clonal population being confined to n discrete library microcompartments, the method comprising the steps of: (a) providing said library of tagged chemical structures; (b) placing each of the library microcompartments into discrete screening microdroplets, which microdroplets comprise a gelling system; (c) releasing each chemical structure from its tag to produce a plurality of free, tagless chemical structures (TCSs); (d) phenotypically screening the TCSs by contacting them with an assay system comprising a live target cell under conditions whereby a spatial association between each TCS and its tag is maintained, to produce a plurality of different screened TCSs each spatially associated with its tag; and (e) identifying a screened TCS by decoding a tag that is spatially associated therewith, wherein the gelling system of the microdroplets is gelled prior to the identifying step (e) such that the library microcompartment becomes fixed within the gelled microdroplet.
High voltage direct current (HVDC) power cable or extra high voltage direct current (EHVDC) power cable comprising a conductor surrounded by at least one layer comprising a polypropylene, wherein the polypropylene comprises nanosized catalyst fragments which originate from a solid catalyst system, wherein the nanosized catalyst fragments have a mean particle size d50 of below 1 μm, measured with a coulter counter LS200 at room temperature with n-heptane as medium.
A pharmaceutical composition wherein the composition comprises: (a) 55 - 65% guaifenesin; (b) 1 - 5% dextromethorphan or a pharmaceutically acceptable salt thereof; (c) 5 - 15% naproxen or a pharmaceutically acceptable salt thereof; (d) 1 - 8% hypromellose; (e) 5 - 10% microcrystalline cellulose; (f) 0.1 - 2% sodium lauryl sulfate; (g) 1 - 10% sodium bicarbonate; (h) 0.1 - 4.0% croscarmellose sodium; (i) 0.1 - 10% polyethylene glycol 4000; (j) 1 - 2% hydroxyethyl cellulose; and (k) 0.5 - 1% magnesium stearate. (a) 55 - 65% guaifenesin; (b) 1 - 5% dextromethorphan or a pharmaceutically acceptable salt thereof; (c) 5 - 15% naproxen or a pharmaceutically acceptable salt thereof; (d) 1 - 8% hypromellose; (e) 5 - 10% microcrystalline cellulose; (f) 0.1 - 2% sodium lauryl sulfate; (g) 1 - 10% sodium bicarbonate; (h) 0.1 - 4.0% croscarmellose sodium; (i) 0.1 - 10% polyethylene glycol 4000; (j) 1 - 2% hydroxyethyl cellulose; and (k) 0.5 - 1% magnesium stearate.
Use of a marker for determining sensitivity to an anti-cancer agent including oxaliplatin or a salt thereof and fluorouracil or a salt thereof, wherein treatment of the human or animal body by surgery or therapy and diagnostic methods practiced on the human or animal body are excluded, and said marker is or comprises cysteine-glutathione.
A carrier aggregation, CA, capable user equipment, UE, configured to process radio link control, RLC, flows, said UE comprising: at least one UE radio frequency, RF, transceiver configured to: receive packets from more than one cell via sending node RF transceivers, wherein the sending node RF transceivers include a macro cell RF transceiver and a small cell RF transceiver; and a processor configured to: process service data units, SDU, of the packets in a radio link control, RLC, entity of a protocol stack, PS, wherein each SDU is associated with an RLC flow identifier, RFI, wherein the operation of processing the SDUs further comprises grouping data from the packets to a virtual RLC flow based on the RFI, wherein the RFI comprises an RLC group identifier, RGI, indicating a sending node RF transceiver (716, 756), and a radio bearer identifier, RBID, and wherein a macro cell RGI is a different RGI from a small cell RGI; and reorder SDUs from RLC flows belonging to the same RFI at a packet data convergence protocol, PDCP, entity or an RLC service access point, SAP, to the PDCP based on a virtual RLC flow indicated by the RBID, wherein the PDCP entity receives a separate data flow for each data radio bearer, DRB. receive packets from more than one cell via sending node RF transceivers, wherein the sending node RF transceivers include a macro cell RF transceiver and a small cell RF transceiver; and a processor configured to: process service data units, SDU, of the packets in a radio link control, RLC, entity of a protocol stack, PS, wherein each SDU is associated with an RLC flow identifier, RFI, wherein the operation of processing the SDUs further comprises grouping data from the packets to a virtual RLC flow based on the RFI, wherein the RFI comprises an RLC group identifier, RGI, indicating a sending node RF transceiver (716, 756), and a radio bearer identifier, RBID, and wherein a macro cell RGI is a different RGI from a small cell RGI; and reorder SDUs from RLC flows belonging to the same RFI at a packet data convergence protocol, PDCP, entity or an RLC service access point, SAP, to the PDCP based on a virtual RLC flow indicated by the RBID, wherein the PDCP entity receives a separate data flow for each data radio bearer, DRB. process service data units, SDU, of the packets in a radio link control, RLC, entity of a protocol stack, PS, wherein each SDU is associated with an RLC flow identifier, RFI, wherein the operation of processing the SDUs further comprises grouping data from the packets to a virtual RLC flow based on the RFI, wherein the RFI comprises an RLC group identifier, RGI, indicating a sending node RF transceiver (716, 756), and a radio bearer identifier, RBID, and wherein a macro cell RGI is a different RGI from a small cell RGI; and reorder SDUs from RLC flows belonging to the same RFI at a packet data convergence protocol, PDCP, entity or an RLC service access point, SAP, to the PDCP based on a virtual RLC flow indicated by the RBID, wherein the PDCP entity receives a separate data flow for each data radio bearer, DRB.
A method for predicting a possibility of Alzheimer's Disease using an analysis of oligomer of an abnormal aggregated protein, wherein the aggregated protein is amyloid β, the method comprising: making a dilution of a body fluid sample; using a biosensor to measure and detect amyloid β in the diluted body fluid sample; analyzing a signal change of the biosensor according to a change in the dilution of the body fluid sample to determine a slope according to the dilution from the measurements; and determining the proportion of the oligomer from the slope according to the dilution to make a diagnosis. making a dilution of a body fluid sample; using a biosensor to measure and detect amyloid β in the diluted body fluid sample; analyzing a signal change of the biosensor according to a change in the dilution of the body fluid sample to determine a slope according to the dilution from the measurements; and determining the proportion of the oligomer from the slope according to the dilution to make a diagnosis.
An LCOS display comprising an LC medium with positive dielectric anisotropy, characterised in that the LC medium contains one or more compounds of formula I, one or more compounds selected from formulae II and III, and one or more chiral dopants wherein the individual radicals, independently of each other and on each occurrence identically or differently, have the following meanings "alkyl" C 1-6 -alkyl, R a1 H, CH 3 or C 2 H 5, i, k 0, 1, 2 or 3, R° an unsubstituted or halogenated alkyl or alkoxy radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may each be replaced, independently of one another, by -C≡C-, -CF 2 O-, -CH=CH-, -O-,-CO-O- or -O-CO- in such a way that O atoms are not linked directly to one another, or denotes or X 0 F, Cl, CN, SF 5, SCN, NCS, a halogenated alkyl radical, a halogenated alkenyl radical, a halogenated alkoxy radical or a halogenated alkenyloxy radical having up to 6 C atoms, and Y 0 H or CH 3, Y 1-6 H or F. "alkyl" C 1-6 -alkyl, R a1 H, CH 3 or C 2 H 5, i, k 0, 1, 2 or 3, R° an unsubstituted or halogenated alkyl or alkoxy radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may each be replaced, independently of one another, by -C≡C-, -CF 2 O-, -CH=CH-, -O-,-CO-O- or -O-CO- in such a way that O atoms are not linked directly to one another, or denotes or X 0 F, Cl, CN, SF 5, SCN, NCS, a halogenated alkyl radical, a halogenated alkenyl radical, a halogenated alkoxy radical or a halogenated alkenyloxy radical having up to 6 C atoms, and Y 0 H or CH 3, Y 1-6 H or F.
A negative electrode active material for a non-aqueous electrolyte secondary battery, comprising: a composite particle including a silicate and silicon; and a surface layer coating the composite particle, wherein the surface layer includes a fluorine resin, wherein the fluorine resin includes at least one of the group consisting of perfluoroalkoxy alkane, perfluoroethylene propene copolymer, ethylene tetrafluoroethylene copolymer (ETFE), polychlorotrifluoroethylene (PCTFE), and ethylene chlorotrifluoroethylene copolymer (ECTFE). a composite particle including a silicate and silicon; and a surface layer coating the composite particle, wherein the surface layer includes a fluorine resin, wherein the fluorine resin includes at least one of the group consisting of perfluoroalkoxy alkane, perfluoroethylene propene copolymer, ethylene tetrafluoroethylene copolymer (ETFE), polychlorotrifluoroethylene (PCTFE), and ethylene chlorotrifluoroethylene copolymer (ECTFE).