mhurhangee/ep-ind-claims huggingface dataset:
A communications device for use in a wireless communications network, the wireless communications network comprising an infrastructure equipment providing a wireless access interface within a system bandwidth, the system bandwidth comprising a plurality of bandwidth parts, the communications device comprising a transmitter configured to transmit signals using a plurality of activated bandwidth parts, a receiver configured to receive signals using the plurality of activated bandwidth parts, the received signals being signals transmitted using a plurality of activated beams, and a controller configured to control the transmitter and the receiver so that the communications device is operable: to determine that an activated beam associated with a first bandwidth part satisfies beam failure criteria; to select from the plurality of activated bandwidth parts a second bandwidth part; and to transmit using communications resources associated with the selected second bandwidth part a beam failure indication indicating that the activated beam associated with the first bandwidth part satisfies the beam failure criteria. a transmitter configured to transmit signals using a plurality of activated bandwidth parts, a receiver configured to receive signals using the plurality of activated bandwidth parts, the received signals being signals transmitted using a plurality of activated beams, and a controller configured to control the transmitter and the receiver so that the communications device is operable: to determine that an activated beam associated with a first bandwidth part satisfies beam failure criteria; to select from the plurality of activated bandwidth parts a second bandwidth part; and to transmit using communications resources associated with the selected second bandwidth part a beam failure indication indicating that the activated beam associated with the first bandwidth part satisfies the beam failure criteria. to determine that an activated beam associated with a first bandwidth part satisfies beam failure criteria; to select from the plurality of activated bandwidth parts a second bandwidth part; and to transmit using communications resources associated with the selected second bandwidth part a beam failure indication indicating that the activated beam associated with the first bandwidth part satisfies the beam failure criteria.
An agent for use in a method of prophylaxis or therapy of a cancer, the agent comprising as an effective ingredient(s) at least one polypeptide selected from the polypeptides (a) to (c) below, said polypeptide(s) having an immunity-inducing activity/activities, or as an effective ingredient(s) a recombinant vector(s) which comprise(s) a polynucleotide(s) encoding said polypeptide(s) and is/are capable of expressing said polypeptide(s) in vivo: (a) a polypeptide consisting of not less than 7 consecutive amino acids in any one of the amino acid sequences shown in SEQ ID NOs:2, 4, 6, 8, 10, 12 and 44; (b) a polypeptide having a sequence identity of not less than 90% with said polypeptide (a) and consisting of not less than 7 amino acids; and (c) a polypeptide comprising said polypeptide (a) or (b) as a partial sequence thereof. (a) a polypeptide consisting of not less than 7 consecutive amino acids in any one of the amino acid sequences shown in SEQ ID NOs:2, 4, 6, 8, 10, 12 and 44; (b) a polypeptide having a sequence identity of not less than 90% with said polypeptide (a) and consisting of not less than 7 amino acids; and (c) a polypeptide comprising said polypeptide (a) or (b) as a partial sequence thereof.
A composite member comprising: a substrate composed of a composite material containing a metal and a non-metal, one surface of the substrate having spherical warpage, measured using the method described in the description, of which radius of curvature R is not smaller than 5000 mm and not greater than 35000 mm, a sphericity error being not greater than 10.0 μm and not lower than 1.0 μm, the sphericity error being defined as an average distance between 20 measurement points at which a contour of a warped portion of the substrate is measured and 10 approximate arcs defined by the 20 measurement points, the 20 measurement points being approximated with the least square method to find the 10 approximate arcs, and the substrate having a thermal conductivity not lower than 150 W/m·K and a coefficient of linear expansion not greater than 10 ppm/K. a substrate composed of a composite material containing a metal and a non-metal, one surface of the substrate having spherical warpage, measured using the method described in the description, of which radius of curvature R is not smaller than 5000 mm and not greater than 35000 mm, a sphericity error being not greater than 10.0 μm and not lower than 1.0 μm, the sphericity error being defined as an average distance between 20 measurement points at which a contour of a warped portion of the substrate is measured and 10 approximate arcs defined by the 20 measurement points, the 20 measurement points being approximated with the least square method to find the 10 approximate arcs, and the substrate having a thermal conductivity not lower than 150 W/m·K and a coefficient of linear expansion not greater than 10 ppm/K.
Spray apparatus comprising at least one nozzle (14, 24), a source of spray chemical connected to the at least one nozzle, a high pressure fluid system and a pressure reducing means adjacent the at least one nozzle (14, 24) wherein the high pressure fluid system is connected to the at least one nozzle via the pressure reducing means whereby low pressure fluid is fed through the at least one nozzle (14,24) together with spray chemical to produce an atomised spray output characterised in that the high pressure fluid system is connected to the at least one nozzle via a switch which activates or deactivates the at least one nozzle in response to flow changes from the high pressure fluid system.
A microwave heating apparatus comprising: a heating chamber containing an object to be heated; an oscillator part (2a, 2b); a power divider part (3a, 3b) to divide an output of the oscillator part (2a, 2b) into a plurality of outputs; a plurality of phase variable parts (4a-4d) each of which is connected to an output of the power divider part (3a, 3b) to vary an output phase of the power divider part (3a, 3b); a plurality of power amplifier parts (5a-5d) to amplify the outputs of the phase variable parts (4a-4d); a plurality of first feeding parts (8a-8d) to supply the outputs of the power amplifier parts (5a-5d) to the heating chamber; a circulation type of non-reciprocal circuit (7a-7d) to supply the reflected power from the first feeding part (8a-8d) to the second feeding part (9a-9d); a plurality of power detector parts (6a-6d) to detect the reflected power supplied from the second feeding parts (9a-9d) to the power amplifier parts (5a-5d); and a control part to control the oscillator part (2a, 2b), the power amplifier parts (5a-5d) and the phase variable parts (4a-4d) on the bases of information on the reflected power detected by the power detector parts (6a-6d), wherein the control part controls a frequency of the oscillator part (2a, 2b) and phases of the phase variable parts (4a-4d) so that the reflected power is minimum, characterized in that a plurality of second feeding parts (9a-9d) to radiate again the reflected power of the microwave received by the first feeding parts (8a-8d) to the heating chamber; a pair of the first feeding part (8a-8d) and the second feeding part (9a-9d), which is arranged on each wall of the heating chamber, has openings for radiating the microwaves to the heating chamber, and an opening of the first feeding part (8a-8d) is configured to radiate the microwaves in different dominant excitation directions from the microwave radiated from an opening of the second feeding part (9a-9d). a heating chamber containing an object to be heated; an oscillator part (2a, 2b); a power divider part (3a, 3b) to divide an output of the oscillator part (2a, 2b) into a plurality of outputs; a plurality of phase variable parts (4a-4d) each of which is connected to an output of the power divider part (3a, 3b) to vary an output phase of the power divider part (3a, 3b); a plurality of power amplifier parts (5a-5d) to amplify the outputs of the phase variable parts (4a-4d); a plurality of first feeding parts (8a-8d) to supply the outputs of the power amplifier parts (5a-5d) to the heating chamber; a circulation type of non-reciprocal circuit (7a-7d) to supply the reflected power from the first feeding part (8a-8d) to the second feeding part (9a-9d); a plurality of power detector parts (6a-6d) to detect the reflected power supplied from the second feeding parts (9a-9d) to the power amplifier parts (5a-5d); and a control part to control the oscillator part (2a, 2b), the power amplifier parts (5a-5d) and the phase variable parts (4a-4d) on the bases of information on the reflected power detected by the power detector parts (6a-6d),
A method of communication of a transmit parameter value for wireless transmissions to user equipment in a wireless cellular communications system comprising a first and a second cell, each cell served by a base station, the method comprising the steps of: exchanging information signaling on the transmit parameter value or change thereof over a base-station - base-station interface in a first signal communication between the first and second cells until a candidate setting is determined which is approved by the second cell, and setting the transmit parameter value or change thereof in the first cell based on the setting approved by the second cell, wherein the wireless cellular communications system employing hard handover; and wherein the transmit parameter value is a reference signal transmission power level. exchanging information signaling on the transmit parameter value or change thereof over a base-station - base-station interface in a first signal communication between the first and second cells until a candidate setting is determined which is approved by the second cell, and setting the transmit parameter value or change thereof in the first cell based on the setting approved by the second cell,
A printing mechanism of an offset printing machine, comprising a plate roller, a blanket roller, and an impression roller, wherein, the plate roller is sleeved on a plate shaft; the blanket roller is sleeved on a blanket shaft; the impression roller is rotatably provided on a machine frame; the plate roller is correspondingly matched with the blanket roller the plate roller and the blanket roller maintain contact and roll against each other; the plate shaft is rotatably provided on a machine frame; the blanket shaft is provided to rotate around an axis thereof; a position of the axis of the blanket shaft is adjustable on a blanket shaft running trajectory; and when blanket rollers of different outer diameters (a, b, c) are selected and used, the position of the axis of the blanket shaft on the blanket shaft running trajectory is adjusted, so that each of the blanket rollers of the different outer diameters (a, b, c) maintains contact and rolls against the impression roller, wherein the blanket shaft running trajectory is a circular arc trajectory; blanket rollers with different outer diameters within a preset printing length; axes positions of the blanket shaft are correspondingly provided on the circular arc trajectory; and each of the blanket rollers at the axes positions maintains contact and rolls against the impression roller, wherein the blanket shaft is provided to rotate on swinging arms (5, 24); each of the swinging arms (5, 24) is swingably provided in the machine frame; and the circular arc trajectory of the blanket shaft running trajectory is formed by swinging the swinging arms (5, 24), and the position of the axis of the blanket shaft is adjustable on the circular arc trajectory, characterized in that each of the swinging arms (5, 24) is provided on the machine frame to pivot at a swinging arm shaft and a position of the swinging arms (5, 24) on the machine frame is adjustable in a radial direction.
A method of making beer by mashing barley containing β-glucosidases enzymes and soy germ containing isoflavones glucosides (Glycon) which are biologically inactive, wherein - the mash step is performed at a temperature in the range of 45° - 78 °C or for a time of 30-240 minutes, in order to obtain the hydrolysis between the isoflavones glucosides (Glycon) contained in the soy germ and β-giucosidases enzymes contained in the barley, so as the isoflavones glucosides (Glycon) is transformed in isoflavones aglycon which are biologically active, - in the mash of beer is added an amount of soy germ in the range of 0.1%-10% weight-volume (w/v), in order to have a concentration of aglycons isoflavone of >2.5mg/L in the final product. - the mash step is performed at a temperature in the range of 45° - 78 °C or for a time of 30-240 minutes, in order to obtain the hydrolysis between the isoflavones glucosides (Glycon) contained in the soy germ and β-giucosidases enzymes contained in the barley, so as the isoflavones glucosides (Glycon) is transformed in isoflavones aglycon which are biologically active, - in the mash of beer is added an amount of soy germ in the range of 0.1%-10% weight-volume (w/v), in order to have a concentration of aglycons isoflavone of >2.5mg/L in the final product.
A process for producing a porous carbon material from a plant-derived material as a raw material, the content of silicon in said plant-derived material being at least 5 wt%, which comprises carbonizing said plant-derived material at 800°C to 1,400°C and then applying a treatment with an acid or alkali, said treatment with an acid or alkali being adapted to obtain a porous carbon material having a value of specific surface area of at least 10 m 2 /g as measured by the nitrogen BET method, a silicon content of at most 1 wt% and a pore volume of at least 0.1 cm 3 /g as measured by the BJH method and MP method.
A power generating element (1B; 1C) comprising: a substrate being flexible; and a plurality of units each including: an insulating member (3a; 3b; 3c; 3d; 3e) disposed along the substrate, with one end of the insulating member (3a; 3b; 3c; 3d; 3e) secured to the substrate; a first electrode disposed on one surface of the insulating member (3a; 3b; 3c; 3d; 3e); a second electrode disposed on the other surface of the insulating member (3a; 3b; 3c; 3d; 3e); and an intermediate layer being insulating, disposed on the first electrode, wherein, when the substrate undergoes a deformation, the intermediate layer of an adjacent unit is separated from or pressed against the second electrode. a substrate being flexible; and a plurality of units each including: an insulating member (3a; 3b; 3c; 3d; 3e) disposed along the substrate, with one end of the insulating member (3a; 3b; 3c; 3d; 3e) secured to the substrate; a first electrode disposed on one surface of the insulating member (3a; 3b; 3c; 3d; 3e); a second electrode disposed on the other surface of the insulating member (3a; 3b; 3c; 3d; 3e); and an intermediate layer being insulating, disposed on the first electrode, an insulating member (3a; 3b; 3c; 3d; 3e) disposed along the substrate, with one end of the insulating member (3a; 3b; 3c; 3d; 3e) secured to the substrate; a first electrode disposed on one surface of the insulating member (3a; 3b; 3c; 3d; 3e); a second electrode disposed on the other surface of the insulating member (3a; 3b; 3c; 3d; 3e); and an intermediate layer being insulating, disposed on the first electrode, wherein, when the substrate undergoes a deformation, the intermediate layer of an adjacent unit is separated from or pressed against the second electrode.
A compact radio frequency, RF, antenna device having a lightpipe, the device comprising: a base of printed circuit board material including a light emitting diode; a primary feed held above the base comprising a single emitting/receiving metal plate with a flat emitting surface including a hole passing through the flat emitting surface; a cap; a lightpipe extending from the light emitting diode through the hole within the flat emitting surface, the lightpipe comprising a stem portion coupled to an emission portion of the light emitting diode and extending through the hole to the cap and an illumination region on or around the cap; and a radio circuitry on the printed circuit board and coupled to the primary feed, wherein the radio circuitry is configured to transmit RF signals to and from the primary feed. a base of printed circuit board material including a light emitting diode; a primary feed held above the base comprising a single emitting/receiving metal plate with a flat emitting surface including a hole passing through the flat emitting surface; a cap; a lightpipe extending from the light emitting diode through the hole within the flat emitting surface, the lightpipe comprising a stem portion coupled to an emission portion of the light emitting diode and extending through the hole to the cap and an illumination region on or around the cap; and a radio circuitry on the printed circuit board and coupled to the primary feed, wherein the radio circuitry is configured to transmit RF signals to and from the primary feed.
Method for managing electronic devices, of integrated circuit type (10 i), comprising: - a step of authentication (E13') between an access device (300, 310, 320) and an electronic device (10 i) so as to be able to access said electronic device, the authentication being carried out with the aid of a personal authentication key (MSKD i) specific to said electronic device and generated by diversification of a root key, - a step of recording (E4'), prior to said access, said root key and a unique identification datum (ID i) of the electronic device, in a nonvolatile memory of the electronic device produced on a silicon wafer comprising other electronic devices; said method furthermore comprising: - a step of generating (E61'), within the electronic device before the latter is cut from the silicon wafer and in response to a very first analogue power-up signal for powering up the electronic device subsequent to the step of recording, said personal authentication key (MSKD i) by diversification of the root key recorded on the basis of the unique identification datum recorded. - a step of authentication (E13') between an access device (300, 310, 320) and an electronic device (10 i) so as to be able to access said electronic device, the authentication being carried out with the aid of a personal authentication key (MSKD i) specific to said electronic device and generated by diversification of a root key, - a step of recording (E4'), prior to said access, said root key and a unique identification datum (ID i) of the electronic device, in a nonvolatile memory of the electronic device produced on a silicon wafer comprising other electronic devices; - a step of generating (E61'), within the electronic device before the latter is cut from the silicon wafer and in response to a very first analogue power-up signal for powering up the electronic device subsequent to the step of recording, said personal authentication key (MSKD i) by diversification of the root key recorded on the basis of the unique identification datum recorded.
A medical agent for use in a method of treatment of nonalcoholic fatty liver disease (NAFLD) or hepatocellular carcinoma, wherein the medical agent comprises a polynucleotide and is capable of silencing or knocking out the PKLR gene and wherein the polynucleotide is capable of selective interaction with a sequence selected from SEQ ID NO: 1, 2, 3 and 4 or with a RNA sequence that can be transcribed from SEQ ID NO: 1, 2, 3 or 4.
A method for the diagnosis of an adrenoleukodystrophy in a subject comprising determining in a sample from said subject a value selected from the group consisting of - the levels of sphingosine-1-phosphate, - the expression levels of sphingosine kinase 2, - the expression levels sphingosine-1-phosphate receptor, wherein increased levels of sphingosine-1-phosphate, increased levels of sphingosine kinase 2, increased levels of sphingosine-1-phosphate receptor, with respect to a reference value are indicative that the subject suffers from an adreno leukodystrophy. - the levels of sphingosine-1-phosphate, - the expression levels of sphingosine kinase 2, - the expression levels sphingosine-1-phosphate receptor,
Viscous lubricants comprising chondroitin sulfate in combination with hyaluronic acid derivatives selected from the following classes consisting of: a) HA amides with amines of the aliphatic, araliphatic, cycloaliphatic, aromatic, cyclic and heterocyclic series, with a percentage of amidation in the range from 0.1 to 10%; b) hyaluronic acid inner or autocross-linked esters with a percentage of esterification not greater than 10%; c) Hyaluronic acid derivatives consisting of a mixture of (i) inner or autocross-linked ester and (ii) the HA derivative obtained by cross-linking with 1,4-butanedioldiglycidylether (BDDE) in a weight ratio of (i):(ii) from 10:90 to 90:10, for use in the intra-articular or locoregional treatment of disorders and/or diseases selected from the group consisting of: osteoarthrosis, subchondral damage, osteroporosis and particularly transient regional osteoporosis, osteochondral damage from trauma/microtrauma, synovitis and tenosynovitis, tendinitis and/or tendinosis. a) HA amides with amines of the aliphatic, araliphatic, cycloaliphatic, aromatic, cyclic and heterocyclic series, with a percentage of amidation in the range from 0.1 to 10%; b) hyaluronic acid inner or autocross-linked esters with a percentage of esterification not greater than 10%; c) Hyaluronic acid derivatives consisting of a mixture of (i) inner or autocross-linked ester and (ii) the HA derivative obtained by cross-linking with 1,4-butanedioldiglycidylether (BDDE) in a weight ratio of (i):(ii) from 10:90 to 90:10,