mhurhangee/ep-ind-claims huggingface dataset:
A fronthaul control device comprising: a bandwidth identification unit configured to identify a frequency bandwidth (BW2, BW2') of a particular cell among a plurality of cells (C1, C2,..., Cn) received from and calculated by a self-organizing network according to an optical wavelength data rate required for the particular cell included in off-level information which is received from a digital unit pool and relates to information minimally required for calculating a frequency bandwidth in an off-state of the particular cell, wherein the bandwidth identification unit is further configured to identify that a frequency bandwidth of the particular cell in the off-state becomes narrower than a frequency bandwidth of the particular cell in a previous on-state; a center wavelength determination unit configured to determine a center wavelength for allocating the frequency bandwidth (BW2, BW2') of the particular cell; and an optical wavelength band allocation unit configured to allocate an optical wavelength band to the particular cell on the basis of the center wavelength and the frequency bandwidth (BW2, BW2') of the particular cell, wherein the center wavelength is determined such that the optical wavelength band allocated to the particular cell is adjacent to an optical wavelength band allocated to at least one of other cells other than the particular cell among the plurality of cells (C1, C2,..., Cn). a bandwidth identification unit configured to identify a frequency bandwidth (BW2, BW2') of a particular cell among a plurality of cells (C1, C2,..., Cn) received from and calculated by a self-organizing network according to an optical wavelength data rate required for the particular cell included in off-level information which is received from a digital unit pool and relates to information minimally required for calculating a frequency bandwidth in an off-state of the particular cell, wherein the bandwidth identification unit is further configured to identify that a frequency bandwidth of the particular cell in the off-state becomes narrower than a frequency bandwidth of the particular cell in a previous on-state; a center wavelength determination unit configured to determine a center wavelength for allocating the frequency bandwidth (BW2, BW2') of the particular cell; and an optical wavelength band allocation unit configured to allocate an optical wavelength band to the particular cell on the basis of the center wavelength and the frequency bandwidth (BW2, BW2') of the particular cell, wherein the center wavelength is determined such that the optical wavelength band allocated to the particular cell is adjacent to an optical wavelength band allocated to at least one of other cells other than the particular cell among the plurality of cells (C1, C2,..., Cn).
A vehicle rearward warning system comprising: a detection unit configured to detect a location of a target vehicle entering a collision detection range on a lateral side of a subject vehicle; an estimation unit configured to estimate a traveling direction of the target vehicle based on the detected location of the target vehicle; and a setting unit configured to set a collision warning range of the subject vehicle, the setting unit is further configured to adjust the collision warning range based on the estimated traveling direction of the target vehicle, the collision warning range extends between a first boundary and a second boundary that are spaced apart from each other in a lateral direction with respect to the subject vehicle, and the setting unit is configured to adjust the first or second boundary based on the estimated traveling direction of the target vehicle, characterized in that the collision warning range is changed from a warning generation range A into a warning maintenance range B when the target vehicle completely enters the collision detection range and maintains a lateral distance to the subject vehicle. a detection unit configured to detect a location of a target vehicle entering a collision detection range on a lateral side of a subject vehicle; an estimation unit configured to estimate a traveling direction of the target vehicle based on the detected location of the target vehicle; and a setting unit configured to set a collision warning range of the subject vehicle, the setting unit is further configured to adjust the collision warning range based on the estimated traveling direction of the target vehicle, the collision warning range extends between a first boundary and a second boundary that are spaced apart from each other in a lateral direction with respect to the subject vehicle, and the setting unit is configured to adjust the first or second boundary based on the estimated traveling direction of the target vehicle, characterized in that the collision warning range is changed from a warning generation range A into a warning maintenance range B when the target vehicle completely enters the collision detection range and maintains a lateral distance to the subject vehicle.
Regulator, in particular a suction regulator for compressors, with a rod-shaped valve member movable in a regulator housing which, in open position, forms a communicating connection with a pressure chamber and shuts off the same in the closed position, wherein the rod-shaped valve member has a valve disc at its end cooperating with a valve seat on the regulator housing and the rod-shaped valve member is spring-loaded in closed position by means of a soft spring matched to the weight of the valve member so that, when the compressor has stopped and there is no load on it, the valve disc remains in a slightly raised position, characterised in that a relief valve (8, 8') is integrated in the regulator.
A process for producing superabsorbent particles by polymerizing a monomer solution comprising a) at least one ethylenically unsaturated monomer which bears acid groups and has been neutralized to an extent of 50 to 85 mol%, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers, comprising the steps of i) continuously polymerizing the monomer solution on the continuous belt of a belt reactor, ii) comminuting the polymer gel obtained in step i), iii) rinsing the polymer gel obtained on the underside of the belt reactor into a separation unit with water, iv) separating the polymer gel from the water in the separation unit and v) recycling the polymer gel separated off in step iv) into step ii), where the polymer gel has a swelling capacity in water of at least 100 g/g, the dwell time between step iii) and step iv) is less than 20 minutes, and the separation unit in step iv) has openings with a clear width of at least 1 mm. a) at least one ethylenically unsaturated monomer which bears acid groups and has been neutralized to an extent of 50 to 85 mol%, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers, comprising the steps of i) continuously polymerizing the monomer solution on the continuous belt of a belt reactor, ii) comminuting the polymer gel obtained in step i), iii) rinsing the polymer gel obtained on the underside of the belt reactor into a separation unit with water, iv) separating the polymer gel from the water in the separation unit and v) recycling the polymer gel separated off in step iv) into step ii), i) continuously polymerizing the monomer solution on the continuous belt of a belt reactor, ii) comminuting the polymer gel obtained in step i), iii) rinsing the polymer gel obtained on the underside of the belt reactor into a separation unit with water, iv) separating the polymer gel from the water in the separation unit and v) recycling the polymer gel separated off in step iv) into step ii),
A method for producing a recombinant Dermatophagoides pteronyssinus 2 (rDer p 2) protein which comprises three disulfide bonds respectively between amino acids C8 and C119, between amino acids C21 and C27, and between amino acids C73 and C78, by reference to the amino acid positions as shown in sequence SEQ ID NO:1, and characterised in that it consists of 40-60% beta-sheet as analysed by crystallography or circular dichroism which method comprises the steps consisting of: a) cultivating a Pichia pastoris yeast strain previously transformed with a rDer p 2 encoding sequence; and b) isolating the rDer p 2 protein from said Pichia pastoris yeast strain cultivated in step a), wherein isolating the rDer p 2 protein in step b) comprises ion exchange chromatography; and wherein said method does not comprise precipitation of the rDer p 2 protein. a) cultivating a Pichia pastoris yeast strain previously transformed with a rDer p 2 encoding sequence; and b) isolating the rDer p 2 protein from said Pichia pastoris yeast strain cultivated in step a),
A compound of the formula or a pharmaceutically acceptable salt, solvate or stereoisomer thereof, for use in a method of treating or managing Kaposi's sarcoma-associated herpesvirus (KSHV) induced lymphoma, wherein the method comprises: (i) identifying a patient having KSHV-induced lymphoma sensitive to treatment with the compound; wherein said identifying comprises measuring a level of major histocompatibility complex class I (MHC-1) in a biological sample obtained from the patient, wherein a decreased level of MHC-1 relative to a control sample indicates a likelihood that the patient is sensitive to treatment with the compound; and (ii) administering to the patient a therapeutically effective amount of the compound in a 28 day cycle comprising 21 consecutive days of administration followed by seven consecutive days of rest. (i) identifying a patient having KSHV-induced lymphoma sensitive to treatment with the compound; wherein said identifying comprises measuring a level of major histocompatibility complex class I (MHC-1) in a biological sample obtained from the patient, wherein a decreased level of MHC-1 relative to a control sample indicates a likelihood that the patient is sensitive to treatment with the compound; and (ii) administering to the patient a therapeutically effective amount of the compound in a 28 day cycle comprising 21 consecutive days of administration followed by seven consecutive days of rest.
A passivation layer comprising a layer of a photocrosslinked coating composition disposed on at least a portion of a substrate, wherein the coating composition comprises: i) a photocrosslinkable fluoropolymer having repeat units comprising: (a) a fluoroolefin; (b) an alkyl vinyl ether wherein the alkyl group is a C1 to C6 straight or a C3 to C6 branched or cyclic saturated hydrocarbon radical; and (c) a vinyl epoxide; ii) a photoacid generator; iii) an optional photosensitizer; and iv) a carrier medium; wherein the photocrosslinkable fluoropolymer has a number average molecular weight in the range of from 20,000 to 300,000, and, wherein the layer of photocrosslinked coating composition has a dielectric constant in the range of from 1 to 5 when measured at 100 kHz, and wherein the layer of the photocrosslinked coating composition having a thickness in the range of from 0.01 micrometers to 300 micrometers has photocrosslinked features having a minimum width that is the larger of a) about 10 percent the thickness of the coating composition or b) 0.5 micrometers. i) a photocrosslinkable fluoropolymer having repeat units comprising: (a) a fluoroolefin; (b) an alkyl vinyl ether wherein the alkyl group is a C1 to C6 straight or a C3 to C6 branched or cyclic saturated hydrocarbon radical; and (c) a vinyl epoxide; (a) a fluoroolefin; (b) an alkyl vinyl ether wherein the alkyl group is a C1 to C6 straight or a C3 to C6 branched or cyclic saturated hydrocarbon radical; and (c) a vinyl epoxide; ii) a photoacid generator; iii) an optional photosensitizer; and iv) a carrier medium;
An apparatus in a terminal comprising: means for checking validity of a timing advance; means for determining that the timing advance is valid; and means for, based on the determination that the timing advance is valid, sending an uplink connection request to a wireless network node within a preconfigured uplink resource wherein the preconfigured uplink resource is configured with the same timing and periodicity as random access channel resources used for sending a random access preamble, and wherein the preconfigured uplink resource is configured with a frequency that is different to a frequency of random access channel resources used for sending the random access preamble. means for checking validity of a timing advance; means for determining that the timing advance is valid; and means for, based on the determination that the timing advance is valid, sending an uplink connection request to a wireless network node within a preconfigured uplink resource wherein the preconfigured uplink resource is configured with the same timing and periodicity as random access channel resources used for sending a random access preamble, and wherein the preconfigured uplink resource is configured with a frequency that is different to a frequency of random access channel resources used for sending the random access preamble.
A sealing assembly of a battery, comprising: a ceramic ring having a receiving hole; a metal ring fitted over the ceramic ring for sealing an open end of the battery; and a core column disposed in the receiving hole and comprising a metal-ceramic composite. a ceramic ring having a receiving hole; a metal ring fitted over the ceramic ring for sealing an open end of the battery; and a core column disposed in the receiving hole and comprising a metal-ceramic composite.
Method for detecting an abnormal event in an insulator of an electrical conductor of a medium-voltage or high-voltage electrical device, the method being implemented by an electronic control unit and comprising the following steps: - acquiring a set (S n) of successive samples (E 1,..., E n) of a vibration signal associated with the electrical conductor, (step 50) - determining a modelled value (M n+1) of a following sample (E n+1) based on the acquired set (S n) of samples and on a prediction model, (step 51) the prediction model being obtained through machine learning of the vibration signal based on a set (V p) of samples acquired in reference conditions (CRef) in which the electrical conductor is free from any abnormal event, - acquiring the following sample (E n+1) of the vibration signal, (step 52) - calculating a difference (D n+1) between the value of the acquired sample (E n+1) and the modelled value (M n+1), (step 53) - if the calculated difference (D n+1) is greater than a predetermined threshold (Th), detecting an abnormal event in the electrical conductor. (step 54) the method being implemented by an electronic control unit and comprising the following steps: - acquiring a set (S n) of successive samples (E 1,..., E n) of a vibration signal associated with the electrical conductor, (step 50) - determining a modelled value (M n+1) of a following sample (E n+1) based on the acquired set (S n) of samples and on a prediction model, (step 51) - acquiring a set (S n) of successive samples (E 1,..., E n) of a vibration signal associated with the electrical conductor, (step 50) - determining a modelled value (M n+1) of a following sample (E n+1) based on the acquired set (S n) of samples and on a prediction model, (step 51) the prediction model being obtained through machine learning of the vibration signal based on a set (V p) of samples acquired in reference conditions (CRef) in which the electrical conductor is free from any abnormal event, - acquiring the following sample (E n+1) of the vibration signal, (step 52) - calculating a difference (D n+1) between the value of the acquired sample (E n+1) and the modelled value (M n+1), (step 53) - if the calculated difference (D n+1) is greater than a predetermined threshold (Th), detecting an abnormal event in the electrical conductor. (step 54) - acquiring the following sample (E n+1) of the vibration signal, (step 52) - calculating a difference (D n+1) between the value of the acquired sample (E n+1) and the modelled value (M n+1), (step 53) - if the calculated difference (D n+1) is greater than a predetermined threshold (Th), detecting an abnormal event in the electrical conductor. (step 54)
A method of operating an radio frequency system, the method comprising: generating a first radio frequency signal having a first frequency using a first transmitter in a first radio frequency signal path; filtering the generated first radio frequency signal using an radio frequency filter of a first selectable filter bank to form a first filtered transmitted signal; producing a first coupled signal and a first transmitted signal from the first filtered transmitted signal using a directional coupler; transmitting the first transmitted signal; transmitting a second radio frequency signal having a second frequency using a second transmitter in a second radio frequency signal path, wherein the second radio frequency signal path is coupled to the first radio frequency signal path, and the second frequency is different from the first frequency; bandpass filtering, using a first tunable bandpass filter, the first coupled signal to form a first tunable bandpass filtered signal; and measuring a parameter of the first tunable bandpass filtered signal. generating a first radio frequency signal having a first frequency using a first transmitter in a first radio frequency signal path; filtering the generated first radio frequency signal using an radio frequency filter of a first selectable filter bank to form a first filtered transmitted signal; producing a first coupled signal and a first transmitted signal from the first filtered transmitted signal using a directional coupler; transmitting the first transmitted signal; transmitting a second radio frequency signal having a second frequency using a second transmitter in a second radio frequency signal path, wherein the second radio frequency signal path is coupled to the first radio frequency signal path, and the second frequency is different from the first frequency; bandpass filtering, using a first tunable bandpass filter, the first coupled signal to form a first tunable bandpass filtered signal; and measuring a parameter of the first tunable bandpass filtered signal.
An antibody or an antigen-binding portion thereof binding specifically to OX40, comprising: a heavy chain variable region and a light chain variable region respectively comprising an amino acid sequence selected from the group consisting of: (i) SEQ ID NO. 6 and amino acid 1-108 of SEQ ID NO. 5, (ii) SEQ ID NO. 8 and 1-108 of SEQ ID NO. 7, (iii) amino acid 128-246 of SEQ ID NO. 10 and 1-112 of SEQ ID NO. 10, and (iv) amino acid 124-241 of SEQ ID NO. 13 and 1-108 of SEQ ID NO. 13 (i) SEQ ID NO. 6 and amino acid 1-108 of SEQ ID NO. 5, (ii) SEQ ID NO. 8 and 1-108 of SEQ ID NO. 7, (iii) amino acid 128-246 of SEQ ID NO. 10 and 1-112 of SEQ ID NO. 10, and (iv) amino acid 124-241 of SEQ ID NO. 13 and 1-108 of SEQ ID NO. 13
An electronic controller apparatus, adapted to connect in series with an AC supply and an external load, the apparatus comprising: a controller circuit for controlling the external load; a power supply circuit to power the controller circuit, comprising an AC input (14, 16) for receiving energy, wherein said AC input (14, 16) is adapted to connect in series with the AC supply and the external load; and a switch connected across the input (14, 16) and in parallel with the power supply circuit, adapted alternately to be conductive to bypass the power supply circuit from the AC input (14, 16) or to allow the power supply circuit to obtain power from the AC input, characterized in that for a first type of AC supply of a sufficient operating current, the switch is adapted to continue a current of said first type of AC supply by alternately: being fully conductive; and operating in a linear state to allow the power supply circuit to obtain power from the AC input, thereby to allow the sufficient current to flow continuously from said first type of AC supply and through the external load. a controller circuit for controlling the external load; a power supply circuit to power the controller circuit, comprising an AC input (14, 16) for receiving energy, wherein said AC input (14, 16) is adapted to connect in series with the AC supply and the external load; and a switch connected across the input (14, 16) and in parallel with the power supply circuit, adapted alternately to be conductive to bypass the power supply circuit from the AC input (14, 16) or to allow the power supply circuit to obtain power from the AC input, characterized in that for a first type of AC supply of a sufficient operating current, the switch is adapted to continue a current of said first type of AC supply by alternately: being fully conductive; and operating in a linear state to allow the power supply circuit to obtain power from the AC input, being fully conductive; and operating in a linear state to allow the power supply circuit to obtain power from the AC input, thereby to allow the sufficient current to flow continuously from said first type of AC supply and through the external load.
A method for reporting readiness of a communication device to act as an aggregator in a telecommunications network having at least one controller entity, wherein acting as an aggregator in the telecommunications network comprises providing base station functionality for nearby communication devices, the method comprising: determining a change in location of the communication device based on two or more locations determined at temporally spaced apart intervals (S710, S712), the interval being a first interval; if there has been no change in location over the first interval, further comparing locations at a second interval, wherein the second interval is set in accordance with the type of the communication device; and if there has been no change in location over the second interval, determining that the communication device is in an aggregator-ready status and reporting the location of said aggregator-ready device. determining a change in location of the communication device based on two or more locations determined at temporally spaced apart intervals (S710, S712), the interval being a first interval; if there has been no change in location over the first interval, further comparing locations at a second interval, wherein the second interval is set in accordance with the type of the communication device; and if there has been no change in location over the second interval, determining that the communication device is in an aggregator-ready status and reporting the location of said aggregator-ready device.
A halogen borate phosphor, represented by the following general formula: Ca 2-x BO 3 Cl 1-y F y:xEu 2+, zM 0; wherein M 0 represents metal nano-particles selected from the group consisting of Ag, Au, Pt, Pd and Cu; 0.001≤x≤0.1, 0≤y≤0.2, 0≤z≤0.01.