mhurhangee/patent-ind-claim-en huggingface dataset:
A communications device for communicating via a mobile communications network, the communications device comprising a transmitter configured to transmit signals to one or more infrastructure equipment of the mobile communications network, the one or more infrastructure equipment including a first of the one or more infrastructure equipment, via a respective wireless access interface provided by the one or more infrastructure equipment when in a connected mode, and a receiver configured to receive signals from the one or more infrastructure equipment via the wireless access interface, and a controller configured to control the receiver to acquire from the first infrastructure equipment mobility information, the mobility information providing an indication of communications parameters, relating to the respective wireless access interfaces provided by the one or more infrastructure equipment, for receiving signals at the receiver, and the controller is configured to store the mobility information as the latest mobility information in a data store , to detect that the communications device cannot receive updated mobility information broadcast by any of the one or more infrastructure equipment since the communication device is in a coverage extension mode, and when in an idle mode, to measure signals received from at least one of the one or more infrastructure equipment using the latest mobility information stored in the data store, and responsive to the detecting that the communications device cannot receive updated mobility information, to perform a cell reselection process based on the measured signals in order to reselect a different one of the one or more infrastructure equipment from the first infrastructure equipment, using the latest mobility information stored in the data store.
A method comprising: obtaining , at an elimination point device in a network, a master secret from a network controller; assessing , by the elimination point device and using the master secret, whether an incoming packet received by the elimination point device from a redundant path between the elimination point device and a replication point device in the network includes a valid message integrity check, MIC, wherein the incoming packet is a 1+1 packet redundancy; determining , by the elimination point device, whether the incoming packet was injected maliciously into the redundant path, based on the assessment of the incoming packet; and initiating , by the elimination point device, performance of a mitigation action in the network, when the elimination point device determines that the incoming packet was injected maliciously into the redundant path. obtaining , at an elimination point device in a network, a master secret from a network controller; assessing , by the elimination point device and using the master secret, whether an incoming packet received by the elimination point device from a redundant path between the elimination point device and a replication point device in the network includes a valid message integrity check, MIC, wherein the incoming packet is a 1+1 packet redundancy; determining , by the elimination point device, whether the incoming packet was injected maliciously into the redundant path, based on the assessment of the incoming packet; and initiating , by the elimination point device, performance of a mitigation action in the network, when the elimination point device determines that the incoming packet was injected maliciously into the redundant path.
A burner module for a gaseous mixture, comprising: a manifold , provided with a tubular body that delimits an internal cavity ; a plurality of nozzles , arranged so as to pass through the tubular body , each of which has an outlet opening ; an emission plane (P), on which the outlet openings of the nozzles lie; a pair of brackets , provided to enable the attachment of the manifold to a support structure, and which have an attachment portion for attaching to said support structure; a connection plane (S), on which the attachment portions lie and on which the attachment to said support structure is located; wherein the outlet openings of the nozzles have an equal diameter (D); wherein the nozzles are spaced apart from one another by a constant pitch (P); wherein the connection plane (S) and the emission plane (P) are parallel to each other and are spaced apart by a main height (H); characterised in that: a dimensional parameter (R) given by the product between said main height (H), said pitch (P) and the diameter (D) of the outlet openings of the nozzles , measured in millimetres, is comprised between 71 and 84, i.e.: R = H * P * D ; 71 < R < 84 . a manifold , provided with a tubular body that delimits an internal cavity ; a plurality of nozzles , arranged so as to pass through the tubular body , each of which has an outlet opening ; an emission plane (P), on which the outlet openings of the nozzles lie; a pair of brackets , provided to enable the attachment of the manifold to a support structure, and which have an attachment portion for attaching to said support structure; a connection plane (S), on which the attachment portions lie and on which the attachment to said support structure is located; wherein the outlet openings of the nozzles have an equal diameter (D); wherein the nozzles are spaced apart from one another by a constant pitch (P); wherein the connection plane (S) and the emission plane (P) are parallel to each other and are spaced apart by a main height (H); characterised in that: a dimensional parameter (R) given by the product between said main height (H), said pitch (P) and the diameter (D) of the outlet openings of the nozzles , measured in millimetres, is comprised between 71 and 84, i.e.: R = H * P * D ; 71 < R < 84 .
A Scheduling Request transmission method for decoupled downlink-uplink in heterogeneous network, where the heterogeneous network comprises at least two cells in charge of downlink and uplink transmission separately and connected with any backhaul, the method comprising: determining a positive Data Scheduling Request, D-SR, is to be transmitted in a current D-SR's subframe together with Hybrid Automatic Repeat Request-Acknowledgement/Non-Acknowledgement, HARQ-ACK/NACK, on Physical Uplink Control Channel, PUCCH, using PUCCH format 1a/1b/3, characterized in that the method further comprises: in response to the determining , transmitting , to a base station of the cell in charge of downlink transmission, HARQ-ACK/NACK in the current D-SR's subframe on PUCCH together with a negative D-SR using PUCCH format 1/1a/1b or format 3 while transmitting, to a base station of the cell in charge of uplink transmission, a scheduling request, SR, in a next SR's sub-frame subsequent to the current D-SR's subframe, wherein transmitting the SR in the next SR's sub-frame comprises: postponing transmission of the positive D-SR, based on a particular period of delay time from the transmission in the current D-SR's subframe, to a next D-SR's subframe subsequent to the current D-SR's subframe on the PUCCH. in response to the determining , transmitting , to a base station of the cell in charge of downlink transmission, HARQ-ACK/NACK in the current D-SR's subframe on PUCCH together with a negative D-SR using PUCCH format 1/1a/1b or format 3 while transmitting, to a base station of the cell in charge of uplink transmission, a scheduling request, SR, in a next SR's sub-frame subsequent to the current D-SR's subframe, wherein transmitting the SR in the next SR's sub-frame comprises: postponing transmission of the positive D-SR, based on a particular period of delay time from the transmission in the current D-SR's subframe, to a next D-SR's subframe subsequent to the current D-SR's subframe on the PUCCH.
A method, performed automatically by an alert system , of alerting a set of target subscribers via mobile devices carried by the target subscribers, the method comprising: identifying the mobile devices of the set of target subscribers as targets for receiving an alert within a message-dissemination time; estimating a message-sending time to send an alert to the mobile devices via at least one point-to-point messaging channel; comparing the message-sending time to the message-dissemination time; in response to the message-sending time being greater than the message-dissemination time, begin broadcasting the alert on a broadcasting messaging channel, and in response to the message-sending time being less than the message-dissemination time, begin or continue sending the alert on the at least one point-to-point messaging channel. identifying the mobile devices of the set of target subscribers as targets for receiving an alert within a message-dissemination time; estimating a message-sending time to send an alert to the mobile devices via at least one point-to-point messaging channel; comparing the message-sending time to the message-dissemination time; in response to the message-sending time being greater than the message-dissemination time, begin broadcasting the alert on a broadcasting messaging channel, and in response to the message-sending time being less than the message-dissemination time, begin or continue sending the alert on the at least one point-to-point messaging channel.
An anomaly-detection computer system to identify when an user of a network is a malicious actor, the anomaly-detection computer system comprising: one or more computer readable storage devices configured to store one or more software modules including computer executable instructions; and one or more hardware computer processors in communication with the one or more computer readable storage devices and configured to execute the one or more software modules in order to cause the computer system to: log, to the one or more computer readable storage devices, activity on the network by a plurality of users; calculate similarity scores based at least in part on the logged activity on the network; sort the plurality of users into a plurality of cohorts based at least in part on the similarity scores; store data about the plurality of cohorts into a memory; detect a first port used in a new network activity of a first user of the plurality of users sorted into a first cohort of the plurality of cohorts; and determine that the new network activity by the first user is anomalous, the determination based at least in part on a comparison performed by the one or more processors of the first port to other ports used by the first cohort. one or more computer readable storage devices configured to store one or more software modules including computer executable instructions; and one or more hardware computer processors in communication with the one or more computer readable storage devices and configured to execute the one or more software modules in order to cause the computer system to: log, to the one or more computer readable storage devices, activity on the network by a plurality of users; calculate similarity scores based at least in part on the logged activity on the network; sort the plurality of users into a plurality of cohorts based at least in part on the similarity scores; store data about the plurality of cohorts into a memory; detect a first port used in a new network activity of a first user of the plurality of users sorted into a first cohort of the plurality of cohorts; and determine that the new network activity by the first user is anomalous, the determination based at least in part on a comparison performed by the one or more processors of the first port to other ports used by the first cohort. log, to the one or more computer readable storage devices, activity on the network by a plurality of users; calculate similarity scores based at least in part on the logged activity on the network; sort the plurality of users into a plurality of cohorts based at least in part on the similarity scores; store data about the plurality of cohorts into a memory; detect a first port used in a new network activity of a first user of the plurality of users sorted into a first cohort of the plurality of cohorts; and determine that the new network activity by the first user is anomalous, the determination based at least in part on a comparison performed by the one or more processors of the first port to other ports used by the first cohort.
An optical fiber ribbon comprising: 16 or more and 48 or less optical fibers arranged in parallel; and a connecting resin that connects adjacent optical fibers of the optical fibers , wherein an outer diameter of each of the optical fibers is 160 μm or more and 220 μm or less, characterized in that in a case where the number of optical fibers is set to N, and a bending strain of the optical fibers is set to S, S = 0.167 × N/2 (%) or less; wherein, in the optical fibers , in a case where a bending diameter φ is 20 mm with 1 turn, a bending loss at a wavelength of 1550 nm is 0.75 dB or less, and when the bending diameter φ is 30 mm with 10 turns, the bending loss at the wavelength of 1550 nm is 0.25 dB or less; wherein, in the optical fibers at both ends of the optical fiber ribbon in a parallel direction, in a case where the bending diameter φ is 15 mm with 1 turn, the bending loss at the wavelength of 1550 nm is 0.5 dB or less, and when the bending diameter φ is 20 mm with 1 turn, the bending loss at the wavelength of 1550 nm is 0.1 dB or less; wherein the bending loss of the optical fibers at both ends of the optical fiber ribbon in the parallel direction is lower than the bending loss of the optical fibers other than the optical fibers at both ends of the optical fiber ribbon in the parallel direction. 16 or more and 48 or less optical fibers arranged in parallel; and a connecting resin that connects adjacent optical fibers of the optical fibers , wherein an outer diameter of each of the optical fibers is 160 μm or more and 220 μm or less, characterized in that in a case where the number of optical fibers is set to N, and a bending strain of the optical fibers is set to S, S = 0.167 × N/2 (%) or less; wherein, in the optical fibers , in a case where a bending diameter φ is 20 mm with 1 turn, a bending loss at a wavelength of 1550 nm is 0.75 dB or less, and when the bending diameter φ is 30 mm with 10 turns, the bending loss at the wavelength of 1550 nm is 0.25 dB or less; wherein, in the optical fibers at both ends of the optical fiber ribbon in a parallel direction, in a case where the bending diameter φ is 15 mm with 1 turn, the bending loss at the wavelength of 1550 nm is 0.5 dB or less, and when the bending diameter φ is 20 mm with 1 turn, the bending loss at the wavelength of 1550 nm is 0.1 dB or less; wherein the bending loss of the optical fibers at both ends of the optical fiber ribbon in the parallel direction is lower than the bending loss of the optical fibers other than the optical fibers at both ends of the optical fiber ribbon in the parallel direction.
Microwave connector assembly , comprising a cylindrical waveguide ferrule having a receiving end for receiving a polarization-maintaining microwave dielectric waveguide and a connecting end located distal to the receiving end and a ferrule socket for at least partially receiving the waveguide ferrule in a ferrule receptacle , the waveguide ferrule comprising at least one locking member for a locking connection with the ferrule socket wherein the ferrule socket comprises at least one coding member that engages a complementary coding member of the waveguide ferrule only when the waveguide ferrule is positioned relative to the ferrule socket in a single predetermined angular position or in one out of two predetermined angular positions which are rotated by 180° with respect to each other, characterized in that the waveguide ferrule comprises a further coding member , which, in a projection along the cylindrical waveguide ferrule , is at least partially located within the complementary coding member embodied as a coding recess .
A fluid delivery system adapted to isolate an ampoule and/or process line during purge, the system comprising: a refillable ampoule ; an inlet control valve arranged to connect a source of pressurized gas to a refillable ampoule; an outlet control valve arranged for delivering fluid from the refillable ampoule via a fluid outlet line , wherein the outlet control valve is adapted to connect the refillable ampoule to a semiconductor manufacturing tool; wherein the fluid delivery system is characterized in that it comprises a process control valve coupled to a process line and arranged to connect the process line to the refillable ampoule ; a process isolation valve coupled to the process line ; a purge supply valve coupled to the process line between the process isolation valve and the process control valve , wherein the purge supply valve , process isolation valve and process control valve are in line with one another in the process line ; and wherein the purge supply valve is a three-way valve. a refillable ampoule ; an inlet control valve arranged to connect a source of pressurized gas to a refillable ampoule; an outlet control valve arranged for delivering fluid from the refillable ampoule via a fluid outlet line , wherein the outlet control valve is adapted to connect the refillable ampoule to a semiconductor manufacturing tool; wherein the fluid delivery system is characterized in that it comprises a process control valve coupled to a process line and arranged to connect the process line to the refillable ampoule ; a process isolation valve coupled to the process line ; a purge supply valve coupled to the process line between the process isolation valve and the process control valve , wherein the purge supply valve , process isolation valve and process control valve are in line with one another in the process line ; and wherein the purge supply valve is a three-way valve.
A method for producing a fucosylated oligosaccharide in a bacterium comprising providing a bacterium comprising a heterologous lactose-utilizing α fucosyltransferase enzyme, wherein the amino acid sequence of said enzyme comprises an amino acid sequence having at least 75% identity to the FutP sequence set forth in SEQ ID NO: 11.
A bifunctional chelating agent or a pharmaceutically acceptable salt thereof having a formula (I): wherein: - M- is Q 1 and Q 2 are independently H or R; Q 5 is H, Ror R 1" ; Q 6 is H or R 1" ; Q 7 is H or R; R is -(CHR 2 ) p COR 3 or -(CHR 2 ) p PO 2 R 4 R 5 , provided that at least one of Q 1 , Q 2 , Q 5 and Q 7 is R and at least one of Q 1 and Q 2 is Q 3 is H, -(CHR 2 ) w COR 3 or -(CHR 2 ) w PO 2 R 4 R 5 ; R 1 , R 1' and R 1" are independently each R 2 is independently hydrogen, C 1 -C 4 alkyl or (C 1 -C 2 alkyl)phenyl; each R 3 , R 4 and R 5 is OH, -O-(C 1 -C 2 alkyl) phenyl, or -O-C 1-4 alkyl; R 6 is H, OH, an alkyl-LG or alkoxy-LG, wherein LG is a boronate ester; Z 1 and Z 2 are independently CH or N; p is 1 or 2; w is 0 or 1; and R 8 is NO 2 , NH 2 , isothiocyanato, semicarbazido, thiosemicarbazido, maleimido, bromoacetamido or carboxyl. - M- is Q 1 and Q 2 are independently H or R; Q 5 is H, Ror R 1" ; Q 6 is H or R 1" ; Q 7 is H or R; R is -(CHR 2 ) p COR 3 or -(CHR 2 ) p PO 2 R 4 R 5 , provided that at least one of Q 1 , Q 2 , Q 5 and Q 7 is R and at least one of Q 1 and Q 2 is Q 3 is H, -(CHR 2 ) w COR 3 or -(CHR 2 ) w PO 2 R 4 R 5 ; R 1 , R 1' and R 1" are independently each R 2 is independently hydrogen, C 1 -C 4 alkyl or (C 1 -C 2 alkyl)phenyl; each R 3 , R 4 and R 5 is OH, -O-(C 1 -C 2 alkyl) phenyl, or -O-C 1-4 alkyl; R 6 is H, OH, an alkyl-LG or alkoxy-LG, wherein LG is a boronate ester; Z 1 and Z 2 are independently CH or N; p is 1 or 2; w is 0 or 1; and R 8 is NO 2 , NH 2 , isothiocyanato, semicarbazido, thiosemicarbazido, maleimido, bromoacetamido or carboxyl.
A method for producing an optical component resin, comprising: a step of mixing a polythiol component, a polyisocyanate component, and an additive to obtain a polymerizable composition; and a step of polymerizing the polymerizable composition, wherein the additive before mixing has a total moisture content of 1.0 ppm by mass or more and 10 ppm by mass or less with respect to the amount of the polyisocyanate component, and a moisture content of the polythiol component is 1 ppm by mass or more and 600 ppm by mass or less; wherein the moisture content is determined as specified in the description. a step of mixing a polythiol component, a polyisocyanate component, and an additive to obtain a polymerizable composition; and a step of polymerizing the polymerizable composition, wherein the additive before mixing has a total moisture content of 1.0 ppm by mass or more and 10 ppm by mass or less with respect to the amount of the polyisocyanate component, and a moisture content of the polythiol component is 1 ppm by mass or more and 600 ppm by mass or less; wherein the moisture content is determined as specified in the description.
A method for determining an estimate of fat within a volume of a subject comprising the steps of: a) determining a parameter α from the signal intensities of three echo signals emitted from a region of the volume of a subject imaged by a magnetic resonance image scanner in response to an applied RF pulse, wherein the three echo signals are taken at three different echo times comprising a first opposing-phase echo time, a second opposing-phase echo time and an in-phase echo time, the signal intensities being acquired using a flip angle of 10°-90°; and b) determining a fat volume fraction, f, from the parameter α; wherein f and α are related according to equation : α = kf 1 + kf − f where k is a constant greater than 1, and less than or equal to 10 and is selected to optimize the rate of change of α with respect to f, and being dependent on the flip angle, repetition time, longitudinal relaxation times for fat and non-fat tissue respectively, and the ratio of the densities of protons in fat and non-fat tissue, and where α is determined by means of equation : α = IP − OP 1 exp TE 1 − TE 2 T 2 ∗ 2 IP where T2* is determined according to equation : T 2 ∗ = TE 3 − TE 1 ln OP 1 OP 2 and where TE1 is the first opposing-phase echo time, TE2 the in-phase echo time, TE3 the second opposing-phase echo time, OP1 and OP2 are the signal intensities measured at the first and second opposing-phase echo times, TE1 and TE3, and IP is the signal intensity measured at the in-phase echo time. a) determining a parameter α from the signal intensities of three echo signals emitted from a region of the volume of a subject imaged by a magnetic resonance image scanner in response to an applied RF pulse, wherein the three echo signals are taken at three different echo times comprising a first opposing-phase echo time, a second opposing-phase echo time and an in-phase echo time, the signal intensities being acquired using a flip angle of 10°-90°; and b) determining a fat volume fraction, f, from the parameter α; wherein f and α are related according to equation : α = kf 1 + kf − f where k is a constant greater than 1, and less than or equal to 10 and is selected to optimize the rate of change of α with respect to f, and being dependent on the flip angle, repetition time, longitudinal relaxation times for fat and non-fat tissue respectively, and the ratio of the densities of protons in fat and non-fat tissue, and where α is determined by means of equation : α = IP − OP 1 exp TE 1 − TE 2 T 2 ∗ 2 IP where T2* is determined according to equation : T 2 ∗ = TE 3 − TE 1 ln OP 1 OP 2 and where TE1 is the first opposing-phase echo time, TE2 the in-phase echo time, TE3 the second opposing-phase echo time, OP1 and OP2 are the signal intensities measured at the first and second opposing-phase echo times, TE1 and TE3, and IP is the signal intensity measured at the in-phase echo time.