mhurhangee/patent-ind-claim-en huggingface dataset:
A method of detecting compromised access points by a communications device , comprising: transmitting a first probe addressed to a server from the communications device via a first network connection with a first network employing a first radio access technology, RAT; transmitting a second probe addressed to the server from the communications device via a second network connection with a second network employing a second, different RAT, wherein the first probe and the second probe are transmitted via respective access points in the first network and the second network; receiving , by the communications device , a first probe reply from the server via the first network connection in response to transmitting the first probe, wherein the received first probe reply includes a first connection result; receiving , by the communications device , a second probe reply from the server via the second network connection in response to transmitting the second probe, wherein the second probe reply includes a second connection result; comparing the first connection result in the received first probe reply to the second connection result in the received second probe reply to generate a feature vector containing elements indicating those features for which there is a discrepancy between the first and second probe replies; and determining , by the communications device , whether an access point of either the first network or the second network is a rogue access point based on the feature vector. transmitting a first probe addressed to a server from the communications device via a first network connection with a first network employing a first radio access technology, RAT; transmitting a second probe addressed to the server from the communications device via a second network connection with a second network employing a second, different RAT, wherein the first probe and the second probe are transmitted via respective access points in the first network and the second network; receiving , by the communications device , a first probe reply from the server via the first network connection in response to transmitting the first probe, wherein the received first probe reply includes a first connection result; receiving , by the communications device , a second probe reply from the server via the second network connection in response to transmitting the second probe, wherein the second probe reply includes a second connection result; comparing the first connection result in the received first probe reply to the second connection result in the received second probe reply to generate a feature vector containing elements indicating those features for which there is a discrepancy between the first and second probe replies; and determining , by the communications device , whether an access point of either the first network or the second network is a rogue access point based on the feature vector.
A plastic base ND filter comprising: a base made of plastic; and a light absorbing film provided on at least one surface of the base and having a plurality of layers, wherein the light absorbing film includes one or more NiO x layers made of NiO x , x being not less than 0 and not greater than 1, and includes a sandwich structure portion which is provided on an opposite side of at least one of the NiO x layers from the base and in which a reverse stress layer is sandwiched between silica compound layers, characterized in that the light absorbing film includes a plurality of NiOx layers, and the NiO x layers each have a physical film thickness of 6 nanometers or less. a base made of plastic; and a light absorbing film provided on at least one surface of the base and having a plurality of layers, wherein the light absorbing film includes one or more NiO x layers made of NiO x , x being not less than 0 and not greater than 1, and includes a sandwich structure portion which is provided on an opposite side of at least one of the NiO x layers from the base and in which a reverse stress layer is sandwiched between silica compound layers, characterized in that includes one or more NiO x layers made of NiO x , x being not less than 0 and not greater than 1, and includes a sandwich structure portion which is provided on an opposite side of at least one of the NiO x layers from the base and in which a reverse stress layer is sandwiched between silica compound layers, characterized in that the light absorbing film includes a plurality of NiOx layers, and the NiO x layers each have a physical film thickness of 6 nanometers or less.
A method comprising: receiving a wireless power signal from a client device (102, 102.1 - 102.4) at two or more antennas of an array of antennas of a wireless power transmission system , WPTS; recording, by a controller of the WPTS, an arrival time of the wireless signal received from the client device at two or more antennas in the array of antennas; generating, by the controller, an arrival profile for the wireless signal based, at least in part, on the arrival time of the wireless signal received at the two or more antennas ; processing, by a signal generator of the WPTS, the wireless signal to generate a coherent transmission signal, wherein the processing comprises time reversing the wireless signal received at the two or more antennas; and transmitting, by the controller using the array of antennas, the coherent transmission signal (101.1 - 101.4) to the client device, wherein the transmitting comprises activating antenna elements of the antenna array in a reverse order as compared to an arrival order of the wireless signal. receiving a wireless power signal from a client device (102, 102.1 - 102.4) at two or more antennas of an array of antennas of a wireless power transmission system , WPTS; recording, by a controller of the WPTS, an arrival time of the wireless signal received from the client device at two or more antennas in the array of antennas; generating, by the controller, an arrival profile for the wireless signal based, at least in part, on the arrival time of the wireless signal received at the two or more antennas ; processing, by a signal generator of the WPTS, the wireless signal to generate a coherent transmission signal, wherein the processing comprises time reversing the wireless signal received at the two or more antennas; and transmitting, by the controller using the array of antennas, the coherent transmission signal (101.1 - 101.4) to the client device, wherein the transmitting comprises activating antenna elements of the antenna array in a reverse order as compared to an arrival order of the wireless signal.
A composition comprising an aqueous composition of a) acidic polymers present in a total amount of 1% to 5%, wherein the acidic polymers comprise a combination of: (i) a copolymer of maleic anhydride and methyl vinyl ether, and (ii) co-polymerized products of a mixture of acrylic acid, methacrylic acid, and 2-hydroxyethyl methacrylate phosphates of Formula 1: wherein n is 0, 1 or 2; b) a nonionic polymer comprising a combination of (i) polyethylene glycol having an average molecular weight of 5kDa to 35kDa, and (ii) poloxamer 407, in a total amount of 3 to 10%; c) an effective amount of cationic active agent, wherein said cationic active agent is cetyl pyridinium chloride in an amount of 0.05 to 0.1%; d) a polyamine compound comprising lysine in free form present in an amount of 1 weight % to 5 weight % or a salt form of lysine present in an amount of 1 weight % to 5 weight %; and e) water present in an amount of 70-95%; wherein the composition is a mouthwash and comprises two distinct aqueous phases having different composition and density, wherein the composition further comprises a humectant, flavoring, sweetener, preservative and dye; wherein all ingredients are orally acceptable, safe and palatable at relevant concentrations for use in a mouthwash; and wherein all amounts are by weight of the total composition. a) acidic polymers present in a total amount of 1% to 5%, wherein the acidic polymers comprise a combination of: (i) a copolymer of maleic anhydride and methyl vinyl ether, and (ii) co-polymerized products of a mixture of acrylic acid, methacrylic acid, and 2-hydroxyethyl methacrylate phosphates of Formula 1: wherein n is 0, 1 or 2; b) a nonionic polymer comprising a combination of (i) polyethylene glycol having an average molecular weight of 5kDa to 35kDa, and (ii) poloxamer 407, in a total amount of 3 to 10%; c) an effective amount of cationic active agent, wherein said cationic active agent is cetyl pyridinium chloride in an amount of 0.05 to 0.1%; d) a polyamine compound comprising lysine in free form present in an amount of 1 weight % to 5 weight % or a salt form of lysine present in an amount of 1 weight % to 5 weight %; and e) water present in an amount of 70-95%; wherein the composition is a mouthwash and comprises two distinct aqueous phases having different composition and density, wherein the composition further comprises a humectant, flavoring, sweetener, preservative and dye; wherein all ingredients are orally acceptable, safe and palatable at relevant concentrations for use in a mouthwash; and wherein all amounts are by weight of the total composition. wherein the composition is a mouthwash and comprises two distinct aqueous phases having different composition and density, wherein the composition further comprises a humectant, flavoring, sweetener, preservative and dye; wherein all ingredients are orally acceptable, safe and palatable at relevant concentrations for use in a mouthwash; and wherein all amounts are by weight of the total composition.
A feed device for feeding recipe material (RM) for an extrusion process in an extrusion device , having a feed interface for suctioning feed material (EM) and a subsequent interface for suctioning subsequent material (FM), additionally having a feed container for receiving suctioned feed material (EM) and suctioned subsequent material (FM), wherein the feed container is connected to an outlet of a switching device via a suction line and the switching device is connected to the feed interface with a feed inlet via a feed line and is connected to the subsequent interface with a subsequent input via a subsequent line , wherein the switching device furthermore has an adjustment section , which can be adjusted between a feed position (EP), in which the feed inlet is connected to the outlet , and a subsequent position (FP), in which the subsequent inlet is connected to the outlet , wherein the adjustment section can additionally be adjusted into an empty suction position (LP), in which the outlet is connected to an empty suction inlet open to the environment and/or wherein the feed interface and/or the subsequent interface have a closeable empty suction opening .
A nucleic acid molecule comprising a nucleotide sequence encoding a modified human epidermal growth factor receptor (EGFR), wherein: (a) said modified EGFR comprises an EGFR Domain III, a modified EGFR Domain IV, and an EGFR transmembrane domain, wherein said modified EGFR Domain IV is a truncated EGFR Domain IV; (b) said modified EGFR does not comprise an EGFR Domain I, an EGFR Domain II, an EGFR juxtamembrane domain, or an EGFR tyrosine kinase domain; and (c) said modified EGFR binds to an anti-EGFR antibody. (a) said modified EGFR comprises an EGFR Domain III, a modified EGFR Domain IV, and an EGFR transmembrane domain, wherein said modified EGFR Domain IV is a truncated EGFR Domain IV; (b) said modified EGFR does not comprise an EGFR Domain I, an EGFR Domain II, an EGFR juxtamembrane domain, or an EGFR tyrosine kinase domain; and (c) said modified EGFR binds to an anti-EGFR antibody.
An isolated bacteriophage selected from the group consisting of SHFML-26 deposited under ATCC Deposit Accession No. PTA-121236, SHFML-11 deposited under ATCC Deposit Accession No. PTA-121234, SHSML-52-1 deposited under ATCC Deposit Accession No. PTA-121241, SHBML-50-1 deposited under ATCC Deposit Acquisition No. PTA-121239, SHBML-50-2 deposited under ATCC Deposit Accession PTA-121240, SHSML-45 deposited under ATCC Deposit Accession No. PTA-121238, or a combination thereof, said bacteriophages having lytic activity against Shigella species strains.
A vector encoding: (a) a first guide RNA (gRNA) molecule, (b) a second gRNA molecule, and (c) at least one Cas9 molecule that recognizes a Protospacer Adjacent Motif (PAM) of either NNGRRT (SEQ ID NO: 24) or NNGRRV (SEQ ID NO: 25), wherein the at least one Cas9 molecule is an S. aureus Cas9 molecule; and wherein the first gRNA molecule comprises a targeting domain consisting of a nucleotide sequence as set forth in SEQ ID NO: 1, and the second gRNA molecule comprises a targeting domain consisting of a nucleotide sequence as set forth in SEQ ID NO: 2. (a) a first guide RNA (gRNA) molecule, (b) a second gRNA molecule, and (c) at least one Cas9 molecule that recognizes a Protospacer Adjacent Motif (PAM) of either NNGRRT (SEQ ID NO: 24) or NNGRRV (SEQ ID NO: 25), wherein the at least one Cas9 molecule is an S. aureus Cas9 molecule; and wherein the first gRNA molecule comprises a targeting domain consisting of a nucleotide sequence as set forth in SEQ ID NO: 1, and the second gRNA molecule comprises a targeting domain consisting of a nucleotide sequence as set forth in SEQ ID NO: 2.
A communication method, comprising: sending , by a first network device , a first parameter to a second network device , wherein the first parameter is related to scheduling for which a media access control, MAC, layer is responsible and is used to indicate a proportion of measurement gap sharing between different measurement types, wherein the first network device has a radio link control layer function, a media access control layer function, and a physical layer function, and the second network device has a packet data convergence protocol layer function, a service data adaptation protocol layer function, and a radio resource control layer function, wherein the measurement type comprises any one of the following: intra-frequency measurement, inter-frequency measurement, inter-RAT measurement, and reference signal time difference measurement, performed by a terminal device . sending , by a first network device , a first parameter to a second network device , wherein the first parameter is related to scheduling for which a media access control, MAC, layer is responsible and is used to indicate a proportion of measurement gap sharing between different measurement types, wherein the first network device has a radio link control layer function, a media access control layer function, and a physical layer function, and the second network device has a packet data convergence protocol layer function, a service data adaptation protocol layer function, and a radio resource control layer function, wherein the measurement type comprises any one of the following: intra-frequency measurement, inter-frequency measurement, inter-RAT measurement, and reference signal time difference measurement, performed by a terminal device .
An exchange comprising: one or more network devices located in a colocation facility , wherein the one or more network devices are configured to: provide a first virtual network for switching mixed traffic from one or more customer networks colocated within a colocation facility to one or more Distributed Denial of Service, DDoS, scrubbing centers , wherein the mixed traffic includes dirty traffic that represents DDoS traffic and clean traffic that represents non-DDoS traffic; and provide a second virtual network for switching the clean traffic from the one or more DDoS scrubbing centers to the one or more customer networks , wherein the second virtual network is isolated from the first virtual network; receive the mixed traffic from the one or more customer networks and switch, using the first virtual network, the mixed traffic to a selected DDoS scrubbing center of the one or more DDoS scrubbing centers , and receive the clean traffic from the selected DDoS scrubbing center and switch, using the second virtual network, the clean traffic to the one or more customer networks . provide a first virtual network for switching mixed traffic from one or more customer networks colocated within a colocation facility to one or more Distributed Denial of Service, DDoS, scrubbing centers , wherein the mixed traffic includes dirty traffic that represents DDoS traffic and clean traffic that represents non-DDoS traffic; and provide a second virtual network for switching the clean traffic from the one or more DDoS scrubbing centers to the one or more customer networks , wherein the second virtual network is isolated from the first virtual network; receive the mixed traffic from the one or more customer networks and switch, using the first virtual network, the mixed traffic to a selected DDoS scrubbing center of the one or more DDoS scrubbing centers , and receive the clean traffic from the selected DDoS scrubbing center and switch, using the second virtual network, the clean traffic to the one or more customer networks .
A method of wireless communication, at a user equipment, UE, operating using a number of communication layers in the contention-based spectrum, the method comprising: receiving signaling indicative of a channel state information, CSI, reference signal, RS, presence; receiving the CSI RS in the contention-based spectrum according to the received signaling; when the number of communication layers in the contention-based spectrum exceeds a threshold number of communication layers, computing a channel quality indicator, CQI, based at least in part on the CSI RS; and transmitting a report comprising the CQI, wherein the report comprises an indication that the CQI is based at least in part on the CSI RS. receiving signaling indicative of a channel state information, CSI, reference signal, RS, presence; receiving the CSI RS in the contention-based spectrum according to the received signaling; when the number of communication layers in the contention-based spectrum exceeds a threshold number of communication layers, computing a channel quality indicator, CQI, based at least in part on the CSI RS; and transmitting a report comprising the CQI, wherein the report comprises an indication that the CQI is based at least in part on the CSI RS.
A method for applying writings, graphics and/or other markings to a laser-ablatable label affixed to a vial or ampoule or to laser-ablatable labels each affixed to a vial or ampoule of a set of vials or ampoules ("the vials or ampoules"), wherein the vials or ampoules are held at about -70 °C to about -196 °C, comprising loading the vials or ampoules into a temperature-controlled marking enclosure, which is substantially filled with dry nitrogen gas to reduce or eliminate the presence of moisture inside the enclosure; and applying laser light to the laser-ablatable labels, thereby applying writings, graphics and/or other markings to the vials or ampoules.
A fluid connection device , in particular for a motor vehicle, comprising: - a female nozzle having an internal fluid flow passage (P), and configured to receive a male nozzle , - elastic snap-in means carried by said female nozzle and configured to cooperate with said male nozzle when the latter is engaged in said female nozzle, - means for detecting the elastic snap-in of said male nozzle into said female nozzle, and - an electrical plug for electrically connecting the device to an electrical power source, said detection means comprising a flexible and electrically conductive dome which is housed in said female nozzle and which is elastically deformable from a free position without stress in which it has a generally curved shape, to a position stressed by pressing said male nozzle onto a vertex of the dome which then has a generally flattened shape and provides an electrical connection between two terminals connected to said electrical plug. - a female nozzle having an internal fluid flow passage (P), and configured to receive a male nozzle , - elastic snap-in means carried by said female nozzle and configured to cooperate with said male nozzle when the latter is engaged in said female nozzle, - means for detecting the elastic snap-in of said male nozzle into said female nozzle, and - an electrical plug for electrically connecting the device to an electrical power source,
An olefin polymerisation method comprising polymerising at least one olefin in gas phase in a fluidised bed in the presence of an olefin polymerisation catalyst in a polymerisation reactor having a vertical body; a generally conical downwards tapering bottom zone; a generally cylindrical middle zone, above and connected to said bottom zone; and a generally conical upwards tapering top zone above and connected to said middle zone wherein (i) fluidisation gas is introduced to the bottom zone of the reactor from where it passes upwards through the reactor; (ii) the fluidisation gas is withdrawn from the top zone of the reactor; (iii) a fluidised bed is formed within the reactor where the growing polymer particles are suspended in the upwards rising gas stream; and wherein the polymerisation reactor has an operating temperature set point and which reactor comprises at least one temperature measurement sensor, wherein a temperature difference (DT) between the temperature measurement sensor (Tm), and the operating temperature set point (Ts) of the reactor is equal to or less than 10 °C.
Device for preparing plastic containers for putting into use, wherein the containers are formed in container blocks side by side along separating lines with respect to one another, along which the individual containers can be separated from one another for use and along which cutting blades can at least partially be movably guided, the respective cutting blade being arranged on a carriage and guided such that it can be displaced to and from between a usage position and a non-usage position, and wherein the respective cutter blade , lowered in its non-usage position, is at a distance from the containers to be separated from one another, characterised in that , in the usage position, the respective cutter blade is displaced, raised by a swivel apparatus , along the respective assignable separating line .
An X-ray detector comprising: a photoelectric conversion substrate which is provided with a light receiving section having a matrix of photoelectric conversion elements on its surface side and substrate-side electrode pads electrically connected to the photoelectric conversion elements and arranged on an outer side of the light receiving section on said surface side of the photoelectric conversion substrate ; a base having a surface side where the photoelectric conversion substrate and base-side electrode pads are arranged, wherein the base-side electrode pads are electrically connected to the substrate-side electrode pads of the photoelectric conversion substrate by a wire ; a protective layer which integrally and continuously coats at least the light receiving section and the substrate-side electrode pads of the photoelectric conversion substrate , the base-side electrode pads and the wire arranged on the surface side of the base ; and a scintillation layer formed on a surface side of the protective layer . a photoelectric conversion substrate which is provided with a light receiving section having a matrix of photoelectric conversion elements on its surface side and substrate-side electrode pads electrically connected to the photoelectric conversion elements and arranged on an outer side of the light receiving section on said surface side of the photoelectric conversion substrate ; a base having a surface side where the photoelectric conversion substrate and base-side electrode pads are arranged, wherein the base-side electrode pads are electrically connected to the substrate-side electrode pads of the photoelectric conversion substrate by a wire ; a protective layer which integrally and continuously coats at least the light receiving section and the substrate-side electrode pads of the photoelectric conversion substrate , the base-side electrode pads and the wire arranged on the surface side of the base ; and a scintillation layer formed on a surface side of the protective layer .