mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented by a coordinated multipoint, CoMP, controller for coordinating transmissions from a CoMP cluster to a wireless communication device , the method comprising the steps of: determining , from among multiple different coordination hypotheses comprising different possibilities for how to coordinate transmissions from the CoMP cluster to the wireless communication device , a coordination hypothesis to apply, wherein the determined coordination hypothesis comprises a combination of a signal hypothesis and an interference hypothesis, wherein the signal hypothesis specifies one or more transmission points from which user data is assumed to be transmitted to the wireless communication device , and wherein the interference hypothesis reflects interference suffered during the assumed user data transmission; applying the determined coordination hypothesis to transmissions from the CoMP cluster on channel state information, CSI, radio resources on which the wireless communication device is to perform CSI measurements; and deferring applying the determined coordination hypothesis to transmissions from the CoMP cluster on user data radio resources, until after the determined coordination hypothesis is applied to the transmissions on the CSI radio resources. determining , from among multiple different coordination hypotheses comprising different possibilities for how to coordinate transmissions from the CoMP cluster to the wireless communication device , a coordination hypothesis to apply, wherein the determined coordination hypothesis comprises a combination of a signal hypothesis and an interference hypothesis, wherein the signal hypothesis specifies one or more transmission points from which user data is assumed to be transmitted to the wireless communication device , and wherein the interference hypothesis reflects interference suffered during the assumed user data transmission; applying the determined coordination hypothesis to transmissions from the CoMP cluster on channel state information, CSI, radio resources on which the wireless communication device is to perform CSI measurements; and deferring applying the determined coordination hypothesis to transmissions from the CoMP cluster on user data radio resources, until after the determined coordination hypothesis is applied to the transmissions on the CSI radio resources.
A channel state information, CSI feedback method, comprising: receiving a CSI feedback configuration group indicated by a network device for a CSI feedback; determining a CSI feedback approach corresponding to the CSI feedback configuration group; and performing a CSI measurement and the CSI feedback based on the determined CSI feedback approach, wherein the CSI feedback approach comprises a first feedback approach and a second feedback approach; the first feedback approach comprises: feeding back CSI obtained through a measurement based on each CSI feedback configuration in the CSI feedback configuration group; and the second feedback approach comprises: selecting an optimum CSI feedback configuration from the CSI feedback configuration group, and feeding back CSI obtained through a measurement based on the optimum CSI feedback configuration in the CSI feedback configuration group and location information of the optimum CSI feedback configuration in the CSI feedback configuration group; characterized in that the step of selecting the optimum CSI feedback configuration from the CSI feedback configuration group comprises: performing a CSI measurement on each CSI feedback configuration in the CSI feedback configuration group, obtaining a transport block size, TBsize, corresponding to each CSI feedback configuration based on a result of the CSI measurement, and selecting a CSI feedback configuration corresponding to a largest TBsize in one or a plurality of obtained TBsizes as the optimum CSI feedback configuration in the CSI feedback configuration group. receiving a CSI feedback configuration group indicated by a network device for a CSI feedback; determining a CSI feedback approach corresponding to the CSI feedback configuration group; and performing a CSI measurement and the CSI feedback based on the determined CSI feedback approach, wherein the CSI feedback approach comprises a first feedback approach and a second feedback approach; the first feedback approach comprises: feeding back CSI obtained through a measurement based on each CSI feedback configuration in the CSI feedback configuration group; and the second feedback approach comprises: selecting an optimum CSI feedback configuration from the CSI feedback configuration group, and feeding back CSI obtained through a measurement based on the optimum CSI feedback configuration in the CSI feedback configuration group and location information of the optimum CSI feedback configuration in the CSI feedback configuration group; characterized in that the step of selecting the optimum CSI feedback configuration from the CSI feedback configuration group comprises: performing a CSI measurement on each CSI feedback configuration in the CSI feedback configuration group, obtaining a transport block size, TBsize, corresponding to each CSI feedback configuration based on a result of the CSI measurement, and selecting a CSI feedback configuration corresponding to a largest TBsize in one or a plurality of obtained TBsizes as the optimum CSI feedback configuration in the CSI feedback configuration group.
An event notification system comprising: a wireless device including a sensor for detecting an event; an Access Point (AP) device ; a controller configured to receive a plurality of heartbeats from the wireless device and through the AP device, and send a heartbeat response of a plurality of heartbeat responses to a respective heartbeat of the plurality of heartbeats; and a user application configured to send sensor enable and disable commands to the controller, characterised in that the sensor enable command is sent to the wireless device as part of the next heartbeat response of the plurality of heartbeat responses, and the sensor disable command is sent to the wireless device after the controller receives an event condition from the wireless device through the AP device. a wireless device including a sensor for detecting an event; an Access Point (AP) device ; a controller configured to receive a plurality of heartbeats from the wireless device and through the AP device, and send a heartbeat response of a plurality of heartbeat responses to a respective heartbeat of the plurality of heartbeats; and a user application configured to send sensor enable and disable commands to the controller, characterised in that the sensor enable command is sent to the wireless device as part of the next heartbeat response of the plurality of heartbeat responses, and the sensor disable command is sent to the wireless device after the controller receives an event condition from the wireless device through the AP device.
A light source module for use in an analytical instrument for analyzing at least one sample , the light source module comprising at least one light-emitting diode (LED, 118), the light source module further comprising at least one memory device , the memory device having stored therein at least one driving parameter set , for driving the light-emitting diode in such a way that desired emission properties of light provided by the light source module are generated, characterized in that the light source module further comprises at least one light guiding rod adapted to guide and shape light emitted by the light-emitting diode , wherein the light guiding rod comprises at least one front end , wherein the front end comprises at least one entrance facet , wherein the geometry of the entrance facet fits to the geometry of a surface area of the light-emitting surface of the light-emitting diode .
A prosthesis for replacing a joint between a first bone and a second bone in a human hand or foot, the prosthesis comprising: (a) a first rigid block comprising a bone anchor portion for fixation within the first bone and a first head portion to remain projecting from the first bone; (b) a second rigid block comprising a second head portion ; and (c) a flexible bridging structure comprising a helical spring deployed to bridge between said first head portion and said second head portion , said helical spring oriented such that a central axis of said helical spring is substantially aligned with a central axis of said bone anchor portion ; characterized in that the prosthesis further comprises: (d) a first rigid projection extending from said first head portion along the inside of said helical spring and a second rigid projection extending from said second head portion along the inside of said helical spring , said first and second rigid projections being deployed within an internal volume of said helical spring so as to limit an extent of shear deformation applied to said helical spring. (a) a first rigid block comprising a bone anchor portion for fixation within the first bone and a first head portion to remain projecting from the first bone; (b) a second rigid block comprising a second head portion ; and (c) a flexible bridging structure comprising a helical spring deployed to bridge between said first head portion and said second head portion , said helical spring oriented such that a central axis of said helical spring is substantially aligned with a central axis of said bone anchor portion ; (d) a first rigid projection extending from said first head portion along the inside of said helical spring and a second rigid projection extending from said second head portion along the inside of said helical spring , said first and second rigid projections being deployed within an internal volume of said helical spring so as to limit an extent of shear deformation applied to said helical spring.
A method of forming an insulative apparatus, comprising: connecting a barrier material to a mold by placing the barrier material inside the mold; injecting a polyurethane foam composition into the mold, wherein the polyurethane foam composition includes a polyol, an isocyanate, and supercritical carbon dioxide; curing the polyurethane foam composition to form a polyurethane foam; applying a vacuum to the mold, after forming the polyurethane foam, to provide a pressure from 100 Pa to 50 kPa; and sealing the barrier material to maintain the pressure from 100 Pa to 50 kPa. connecting a barrier material to a mold by placing the barrier material inside the mold; injecting a polyurethane foam composition into the mold, wherein the polyurethane foam composition includes a polyol, an isocyanate, and supercritical carbon dioxide; curing the polyurethane foam composition to form a polyurethane foam; applying a vacuum to the mold, after forming the polyurethane foam, to provide a pressure from 100 Pa to 50 kPa; and sealing the barrier material to maintain the pressure from 100 Pa to 50 kPa.
A method of producing a silyl-functionalized polyolefin comprising reacting a first olefin having the formula: R" CH=CH-(Z) m -(CH 2 ) n SiR a R' (3-a) where Z is an electron withdrawing moiety, m is 0 or 1, n is an integer from 0-30, R is independently selected from the group consisting of alkoxy group and amine group, a has a value in the range 1 to 3 inclusive; R' represents an hydrocarbyl group, R" represents H, or a group having an electron withdrawing effect with respect to the - CH=CH- bond or a moiety containing an aromatic ring or a C=C bond conjugated with the -CH=CH-, with an α-olefin having the general formula C x H 2x , where x is an integer between 2-30, in the presence of a catalytic amount of a group IV catalyst, for a time sufficient to produce a silyl-functionalized polyolefin, wherein the first olefin is incorporated in the silyl-functionalized polyolefin in from 0.1 to 25 mole %; wherein the group IV catalyst comprises a group IV metallocene complex, wherein the group IV metallocene complex has the formula: [(C 5 Me 5 ) 2 ZrMe][MeB(C 6 F 5 ) 3 ]; [(1,2-C 5 Me 2 H 3 ) 2 ZrMe][MeB(C 6 F 5 ) 3 ]; or [(C 5 H 5 ) 2 ZrMe][MeB(C 6 F 5 ) 3 ]; or wherein the group IV catalyst comprises a group IV constrained geometry catalyst (CGC), wherein the group IV CGC has the formula: Me 2 Si(C 5 Me 4 )(NtBu)MC 12 ; or Me 2 Si(C 5 Me 4 )(NtBu)MCH 3 ][CH 3 B(C 6 F 5 ) 3 ], where M is selected from the group consisting of titanium and zirconium. wherein the group IV catalyst comprises a group IV metallocene complex, wherein the group IV metallocene complex has the formula: [(C 5 Me 5 ) 2 ZrMe][MeB(C 6 F 5 ) 3 ]; [(1,2-C 5 Me 2 H 3 ) 2 ZrMe][MeB(C 6 F 5 ) 3 ]; or [(C 5 H 5 ) 2 ZrMe][MeB(C 6 F 5 ) 3 ]; or wherein the group IV catalyst comprises a group IV constrained geometry catalyst (CGC), wherein the group IV CGC has the formula: Me 2 Si(C 5 Me 4 )(NtBu)MC 12 ; or Me 2 Si(C 5 Me 4 )(NtBu)MCH 3 ][CH 3 B(C 6 F 5 ) 3 ], where M is selected from the group consisting of titanium and zirconium.
A radio communication system performing dual connectivity with a user device, comprising: a first radio base station conforming, as a master, to a first radio communication method of a 4G network; and a second radio base station conforming, as a secondary, to a second radio communication method of a 5G network, wherein the first radio base station includes a first control function unit that performs control based on a first radio resource control protocol in the first radio communication method, the second radio base station includes a second control function unit that performs control based on a second radio resource control protocol in the second radio communication method, wherein the first control function unit is configured to transmit to and to receive from the user device a message conforming to the first radio resource control protocol, the first radio base station is configured to perform coordination for the dual connectivity with the second radio base station via an inter-node interface connecting the first radio base station and the second radio base station, and the message includes an information element conforming to the second radio resource control protocol, wherein the subject of the coordination includes a capability and an uplink power of the user device. a first radio base station conforming, as a master, to a first radio communication method of a 4G network; and a second radio base station conforming, as a secondary, to a second radio communication method of a 5G network, wherein the first radio base station includes a first control function unit that performs control based on a first radio resource control protocol in the first radio communication method, the second radio base station includes a second control function unit that performs control based on a second radio resource control protocol in the second radio communication method, wherein the first control function unit is configured to transmit to and to receive from the user device a message conforming to the first radio resource control protocol, the first radio base station is configured to perform coordination for the dual connectivity with the second radio base station via an inter-node interface connecting the first radio base station and the second radio base station, and the message includes an information element conforming to the second radio resource control protocol,
A method of characterizing a plurality of particles, comprising: flowing the plurality of particles through a field of view of a holographic video microscopy system; generating a hologram based upon holographic video microscopy of a first particle of the plurality of particles, which is within the field of view at a first time; determining, by application of Lorenz-Mie theory, the refractive index and the radius of the first particle at the first time, said determining comprising determining a probability density for refractive index and radius for the first particle; generating a hologram based upon holographic video microscopy of a second particle of the plurality of particles, which is within the field of view at a second time; and determining, by application of Lorenz-Mie theory, the refractive index and the radius of the second particle at the second time, said determining comprising determining a probability density for refractive index and radius for the second particle; and further comprising, monitoring post-synthesis stability of the plurality of particles wherein the first time and second time are after synthesis of the plurality of particles. flowing the plurality of particles through a field of view of a holographic video microscopy system; generating a hologram based upon holographic video microscopy of a first particle of the plurality of particles, which is within the field of view at a first time; determining, by application of Lorenz-Mie theory, the refractive index and the radius of the first particle at the first time, said determining comprising determining a probability density for refractive index and radius for the first particle; generating a hologram based upon holographic video microscopy of a second particle of the plurality of particles, which is within the field of view at a second time; and determining, by application of Lorenz-Mie theory, the refractive index and the radius of the second particle at the second time, said determining comprising determining a probability density for refractive index and radius for the second particle; and further comprising, monitoring post-synthesis stability of the plurality of particles wherein the first time and second time are after synthesis of the plurality of particles.
A method for driving a Time-of-Flight system for use with an illumination system being adapted to illuminate a scene with a modulated signal , the ToF system having an imaging sensor comprising at least one pixel , said pixel comprising taps driven by modulated driving signals having substantially the same frequency as the modulated signal for detecting the modulated signal reflected from the scene, the method comprising, for each pixel, the steps of: - determining at least a first and a second pair of taps; and - driving each pair of taps to detect the reflected modulated signal during a predetermined number N of cycles of the modulated signal , characterised in that the at least first and second pair of taps are driven sequentially wherein the driving signals for a pair of taps 'y', y going from 0 to (Y-1), Y being the number of the at least first and second pair of taps, and the modulated signal have a phase shift of y * 180°/ Y for each next pair 'y'. - determining at least a first and a second pair of taps; and - driving each pair of taps to detect the reflected modulated signal during a predetermined number N of cycles of the modulated signal ,
A method of determining the bandwidth of a link carrying a plurality of data streams between a plurality of sources and a plurality of destinations in a network , wherein each of the plurality of data streams are TCP data streams, and all traffic carried by the link is TCP traffic, said method comprising: i) sending data packets from a first data stream over the link from one source to one destination at a first transmission rate, and measuring an associated first packet loss rate; ii) sending further data packets from the first data stream over the link from the one source to the one destination at a second transmission rate, and measuring an associated second packet loss rate; and iii) determining the bandwidth of the link in dependence on the first and second packet loss rates and the first and second transmission rates, wherein the bandwidth of the link, B e , is given by: B e = Tr 1 PLR 1 − Tr 2 PLR 2 PLR 1 − PLR 2 where T r is the first transmission rate, Tr is the second transmission rate, PLR is the first packet loss rate, PLR is the second packet loss rate. i) sending data packets from a first data stream over the link from one source to one destination at a first transmission rate, and measuring an associated first packet loss rate; ii) sending further data packets from the first data stream over the link from the one source to the one destination at a second transmission rate, and measuring an associated second packet loss rate; and iii) determining the bandwidth of the link in dependence on the first and second packet loss rates and the first and second transmission rates, wherein the bandwidth of the link, B e , is given by: B e = Tr 1 PLR 1 − Tr 2 PLR 2 PLR 1 − PLR 2 where T r is the first transmission rate, Tr is the second transmission rate, PLR is the first packet loss rate, PLR is the second packet loss rate.
An orally administrable composition consisting essentially of sulforaphane or a derivative thereof and a milk thistle extract or powder.
A method operational in a communication network, comprising: providing wireless network connectivity to an authentication peer via a first network access node; providing a PMIP, Proxy Mobile IP, key to both ends of a PMIP tunnel between the first network access node and a PMIP network node used to provide communications to the authentication peer; providing the PMIP key to a first authenticator associated the first network access node; receiving a request at the PMIP network node from a requesting entity to reroute communications for the authentication peer; and verifying whether the requesting entity knows the PMIP key; and wherein rerouting communications includes establishing a new network proxy mobile IP tunnel between the first PMIP network node and a new serving network entity; and wherein the PMIP network node is a network gateway node. providing wireless network connectivity to an authentication peer via a first network access node; providing a PMIP, Proxy Mobile IP, key to both ends of a PMIP tunnel between the first network access node and a PMIP network node used to provide communications to the authentication peer; providing the PMIP key to a first authenticator associated the first network access node; receiving a request at the PMIP network node from a requesting entity to reroute communications for the authentication peer; and verifying whether the requesting entity knows the PMIP key; and wherein rerouting communications includes establishing a new network proxy mobile IP tunnel between the first PMIP network node and a new serving network entity; and wherein the PMIP network node is a network gateway node.
A compound comprising a phosphorescent metal complex comprising a monoanionic, bidentate ligand vgs1, wherein the metal is selected from the group consisting of the non-radioactive metals with atomic numbers greater than 40, and wherein the bidentate ligand may be linked with other ligands to comprise a tridentate, tetradentate, pentadentate or hexadentate ligand; wherein: E 1a-q are selected from the group consisting of C and N and collectively comprise an 18 pi-electron system; provided that E 1a and E 1p are different; and R 1a-i are each, independently, H, hydrocarbyl, heteroatom substituted hydrocarbyl, cyano, fluoro, OR 2a , SR 2a , NR 2a R 2b , BR 2a R 2b , or SiR 2a R 2b R 2c , where R 2a-c are each, independently, hydrocarbyl or heteroatom substituted hydrocarbyl, where R 1b and R 1c are linked to form a saturated or unsaturated, aromatic or non-aromatic ring; and where any two of R 2a-c may be linked to form a saturated or unsaturated, aromatic or non-aromatic ring; provided that R 1a-i is other than H when attached to N. E 1a-q are selected from the group consisting of C and N and collectively comprise an 18 pi-electron system; provided that E 1a and E 1p are different; and R 1a-i are each, independently, H, hydrocarbyl, heteroatom substituted hydrocarbyl, cyano, fluoro, OR 2a , SR 2a , NR 2a R 2b , BR 2a R 2b , or SiR 2a R 2b R 2c , where R 2a-c are each, independently, hydrocarbyl or heteroatom substituted hydrocarbyl, where R 1b and R 1c are linked to form a saturated or unsaturated, aromatic or non-aromatic ring; and where any two of R 2a-c may be linked to form a saturated or unsaturated, aromatic or non-aromatic ring; provided that R 1a-i is other than H when attached to N.