mhurhangee/ep-ind-claims huggingface dataset:
A method of making cerium dioxide nanoparticles comprising the steps of: a) providing an aqueous first reaction mixture comprising a source of cerous ions and a nanoparticle stabilizer or combination of nanoparticle stabilizers selected from the group consisting of α-hydroxysubstituted carboxylic acids and compounds of formula (Ia), R-O-(CH 2 CH 2 O) n CHR 1 CO 2 Y (Ia) wherein: R represents hydrogen or a substituted or unsubstituted alkyl group or a substituted or unsubstituted aromatic group; R 1 represents hydrogen or an alkyl group; Y represents H or a counterion; and n is 0 to 5; b) stirring said first reaction mixture while adding hydrogen peroxide, thereby producing a second reaction mixture; c) adding a source of hydroxide ions to said second reaction mixture while subjecting said second reaction mixture to mechanical shearing, thereby forming a third reaction mixture; and d) heating said third reaction mixture to a temperature between about 50°C and about 100°C, thereby producing cerium dioxide nanoparticles having a monomodal size distribution and a monodisperse size frequency distribution. a) providing an aqueous first reaction mixture comprising a source of cerous ions and a nanoparticle stabilizer or combination of nanoparticle stabilizers selected from the group consisting of α-hydroxysubstituted carboxylic acids and compounds of formula (Ia), R-O-(CH 2 CH 2 O) n CHR 1 CO 2 Y (Ia) wherein: R represents hydrogen or a substituted or unsubstituted alkyl group or a substituted or unsubstituted aromatic group; R 1 represents hydrogen or an alkyl group; Y represents H or a counterion; and n is 0 to 5; R represents hydrogen or a substituted or unsubstituted alkyl group or a substituted or unsubstituted aromatic group; R 1 represents hydrogen or an alkyl group; Y represents H or a counterion; and n is 0 to 5; b) stirring said first reaction mixture while adding hydrogen peroxide, thereby producing a second reaction mixture; c) adding a source of hydroxide ions to said second reaction mixture while subjecting said second reaction mixture to mechanical shearing, thereby forming a third reaction mixture; and d) heating said third reaction mixture to a temperature between about 50°C and about 100°C,
A method performed by a network node for switching between an active bandwidth part, BWP, and a target BWP, wherein each of the respective BWPs comprises one or more resource blocks for use by a wireless device, the method comprising: selecting one or more resource blocks comprised in the target BWP for a transmission or reception between the wireless device and the network node; determining a target BWP resource allocation type, wherein the target BWP resource allocation type indicates whether information bits of a resource allocation field comprise a bitmap corresponding to one or more resource block groups or an integer value corresponding to a starting position and a length of the allocation, the target BWP resource allocation type being determined based on a relationship between resources allocated for the target BWP and the resources allocated for the active BWP; and indicating to the wireless device the selected one or more resource blocks to be used in the target BWP in a resource allocation field of a downlink control channel information in the active BWP, the allocation field comprising information bits configured according to the target BWP resource allocation type. selecting one or more resource blocks comprised in the target BWP for a transmission or reception between the wireless device and the network node; determining a target BWP resource allocation type, wherein the target BWP resource allocation type indicates whether information bits of a resource allocation field comprise a bitmap corresponding to one or more resource block groups or an integer value corresponding to a starting position and a length of the allocation, the target BWP resource allocation type being determined based on a relationship between resources allocated for the target BWP and the resources allocated for the active BWP; and indicating to the wireless device the selected one or more resource blocks to be used in the target BWP in a resource allocation field of a downlink control channel information in the active BWP, the allocation field comprising information bits configured according to the target BWP resource allocation type.
A display device comprising: a pixel array comprising a plurality of pixels; one or more infrared emitters adapted to emit IR; and a plurality of IR detectors adapted to detect IR light; a deformable layer having a first surface on the pixels and parallel to the pixel array, and a second surface substantially parallel to the first surface, wherein the IR light is emitted into the deformable layer; characterized by a plurality of tracers at the deformable layer to redirect the IR light emitted by the one or more IR emitters toward the IR detectors and, in response to a shear force, having a magnitude and a direction, being applied at a point of contact at the second surface, to be displaced in the direction of the shear force, such that an irradiance of IR light at an IR detector of the plurality of IR detectors is changed; wherein the display device is adapted to determine a density of the tracers around the point of contact to determine a magnitude of the shear force and the direction of the shear force. a pixel array comprising a plurality of pixels; one or more infrared emitters adapted to emit IR; and a plurality of IR detectors adapted to detect IR light; a deformable layer having a first surface on the pixels and parallel to the pixel array, and a second surface substantially parallel to the first surface, wherein the IR light is emitted into the deformable layer; characterized by a plurality of tracers at the deformable layer to redirect the IR light emitted by the one or more IR emitters toward the IR detectors and, in response to a shear force, having a magnitude and a direction, being applied at a point of contact at the second surface, to be displaced in the direction of the shear force, such that an irradiance of IR light at an IR detector of the plurality of IR detectors is changed; wherein the display device is adapted to determine a density of the tracers around the point of contact to determine a magnitude of the shear force and the direction of the shear force.
A shape estimation apparatus, comprising: estimation means (131, 132) for estimating, based on captured images obtained by capturing an object from different directions using a plurality of image capturing apparatuses, a first element group representing a three-dimensional shape of the object; determination means (133, 134, 135, 136) for determining, for each of elements included in the first element group, based on color in the captured images corresponding to the element, whether to delete the element from the first element group; and generation means for generating a second element group by deleting, from the first element group, the element determined to be deleted, characterized in that with respect to a first element among elements forming a surface of the shape represented by the first element group, in a case where a distance between the first element and a second element different from the first element and corresponding to a position at which a straight line connecting the first element and the image capturing apparatus that has captured the first element intersects the surface does not exceed a predetermined threshold, the determination means is configured to determine to exclude the first element from a deletion target from the first element group regardless of the color, and the first element is visible from the image capturing apparatus. estimation means (131, 132) for estimating, based on captured images obtained by capturing an object from different directions using a plurality of image capturing apparatuses, a first element group representing a three-dimensional shape of the object; determination means (133, 134, 135, 136) for determining, for each of elements included in the first element group, based on color in the captured images corresponding to the element, whether to delete the element from the first element group; and generation means for generating a second element group by deleting, from the first element group, the element determined to be deleted, characterized in that with respect to a first element among elements forming a surface of the shape represented by the first element group, in a case where a distance between the first element and a second element different from the first element and corresponding to a position at which a straight line connecting the first element and the image capturing apparatus that has captured the first element intersects the surface does not exceed a predetermined threshold, the determination means is configured to determine to exclude the first element from a deletion target from the first element group regardless of the color, and the first element is visible from the image capturing apparatus.
Apparatus (200; 400; 500) for compensating phase fluctuations, comprising: a digital phase locked loop (210; 410) comprising a digital phase detector having a phase error output (214; 414) for a phase error (216; 416) between a reference clock signal (218; 418) and an output clock signal (212; 412) generated by the digital phase locked loop; filter circuitry (230; 430) comprising a digital non-causal filter coupled to the phase error output (214; 414) and configured to filter the phase error (216; 416) to separate the phase error from noise, the digital non-causal filter comprising filter coefficients based on phase error samples and/or phase error statistics; a phase rotator (220; 420; 520) coupled to the digital non-causal filter (230; 430) and configured to rotate a phase of a modulated data signal using the filtered phase error (216'; 416'); and a signal combiner (453; 463; 552) configured to combine the modulated data signal with the output clock signal (212; 412) after rotating the phase of the modulated data signal if the modulated data signal is a transmit signal, or combine the modulated data signal with the output clock signal (212; 412) before rotating the phase of the modulated data signal if the modulated data signal is a receive signal. a digital phase locked loop (210; 410) comprising a digital phase detector having a phase error output (214; 414) for a phase error (216; 416) between a reference clock signal (218; 418) and an output clock signal (212; 412) generated by the digital phase locked loop; filter circuitry (230; 430) comprising a digital non-causal filter coupled to the phase error output (214; 414) and configured to filter the phase error (216; 416) to separate the phase error from noise, the digital non-causal filter comprising filter coefficients based on phase error samples and/or phase error statistics; a phase rotator (220; 420; 520) coupled to the digital non-causal filter (230; 430) and configured to rotate a phase of a modulated data signal using the filtered phase error (216'; 416'); and a signal combiner (453; 463; 552) configured to combine the modulated data signal with the output clock signal (212; 412) after rotating the phase of the modulated data signal if the modulated data signal is a transmit signal, or combine the modulated data signal with the output clock signal (212; 412) before rotating the phase of the modulated data signal if the modulated data signal is a receive signal.
A cold rolled martensitic steel sheet comprising of the following elements, expressed in percentage by weight: 0.1 % ≦ C ≦ 0.2 %; 1.5 % ≦ Mn ≦ 2.5 %; 0.1 % ≦ Si ≦ 0.25 %; 0.1 % ≦ Cr ≦ 1 %; 0.01 % ≦ Al ≦ 0.1 %; 0.001 % ≦ Ti ≦ 0.1 %; 0 % ≦ S ≦ 0.09 %; 0 % ≦ P ≦ 0.09 %; 0 % ≦ N ≦ 0.09 %; and can contain one or more of the following optional elements 0 % ≦ Ni ≦ 1 %; 0 % ≦ Cu ≦ 1 %; 0 % ≦ Mo ≦ 0.4 %; 0 % ≦ Nb ≦ 0.1 %; 0 % ≦ V ≦ 0.1 %; 0 % ≦ B ≦ 0.05 %; 0 % ≦ Sn ≦ 0.1 %; 0 % ≦ Pb ≦ 0.1 %; 0 % ≦ Sb ≦ 0.1 %; 0.001 % ≦ Ca ≦ 0.01 %; the remainder composition being composed of iron and unavoidable impurities caused by processing, the microstructure of said steel comprising, by area percentage, at least 95% of martensite consisting of tempered martensite and of optionally fresh martensite in an amount of between 0% and 4% in the steel, a cumulated amount of ferrite and bainite between 1 % and 5%, and an optional amount of residual austenite between 0% and 2%. the remainder composition being composed of iron and unavoidable impurities caused by processing, the microstructure of said steel comprising, by area percentage, at least 95% of martensite consisting of tempered martensite and of optionally fresh martensite in an amount of between 0% and 4% in the steel, a cumulated amount of ferrite and bainite between 1 % and 5%, and an optional amount of residual austenite between 0% and 2%.
Method for operating an ultrasonic measuring device for at least one property of a fluid flowing through it, in particular a flow rate, wherein the ultrasonic measuring device comprises: - a housing having a measurement channel that is arranged inside the housing and through which the fluid is intended to flow, - at least one ultrasonic transducer designed to send and receive ultrasonic signals to and from the measurement channel, and - at least one control device for evaluating measurement signals from the at least one ultrasonic transducer in order to determine at least one measured variable describing the property of the fluid in the measurement channel, wherein in order to transmit at least one piece of transmission information to a receiving device, which comprises a microphone for voice input, the at least one and/or at least one further ultrasonic transducer is actuated to transmit communication signals that describe the transmission information and are receivable by means of the microphone, the receiving device used being a mobile device. - a housing having a measurement channel that is arranged inside the housing and through which the fluid is intended to flow, - at least one ultrasonic transducer designed to send and receive ultrasonic signals to and from the measurement channel, and - at least one control device for evaluating measurement signals from the at least one ultrasonic transducer in order to determine at least one measured variable describing the property of the fluid in the measurement channel, wherein in order to transmit at least one piece of transmission information to a receiving device, which comprises a microphone for voice input, the at least one and/or at least one further ultrasonic transducer is actuated to transmit communication signals that describe the transmission information and are receivable by means of the microphone, the receiving device used being a mobile device.
A recombinant microorganism for producing citicoline, in which recombinant microorganism: - enzymes involved in reuse of citicoline are knocked-out, wherein both of UDP-sugar hydrolase and cytidine-5'-diphosphate-diacylglycerol pyrophosphatase are knocked-out; - choline kinase for catalyzing choline chloride to generate phosphocholine is overexpressed with respect to a wild-type microorganism, wherein the choline kinase comprises CKI1 or EKI1 derived from Saccharomyces cerevisiae; and - cytidylyltransferase for catalyzing phosphocholine to generate citicoline is overexpressed with respect to the wild-type microorganism, wherein the cytidylyltransferase comprises PCT1, CDS1, and/or ECT1 derived from Saccharomyces cerevisiae; or CdsA, IspD, MocA, KdsB, and/or Cca derived from Escherichia coli; or LicC derived from Streptococcus; or CD36_40620 derived from Candida dubliniensis. - enzymes involved in reuse of citicoline are knocked-out, wherein both of UDP-sugar hydrolase and cytidine-5'-diphosphate-diacylglycerol pyrophosphatase are knocked-out; - choline kinase for catalyzing choline chloride to generate phosphocholine is overexpressed with respect to a wild-type microorganism, wherein the choline kinase comprises CKI1 or EKI1 derived from Saccharomyces cerevisiae; and - cytidylyltransferase for catalyzing phosphocholine to generate citicoline is overexpressed with respect to the wild-type microorganism, wherein the cytidylyltransferase comprises PCT1, CDS1, and/or ECT1 derived from Saccharomyces cerevisiae; or CdsA, IspD, MocA, KdsB, and/or Cca derived from Escherichia coli; or LicC derived from Streptococcus; or CD36_40620 derived from Candida dubliniensis.
A method for inter-operator coexistence on unlicensed bands, comprising: receiving, at a first base station associated with a first operator, one or more over-the-air, OTA, signaling messages from a second base station associated with a second operator, wherein the first base station and the second base station each provide cellular service in one or more unlicensed bands in overlapping coverage areas; and adjusting, at the first base station, one or more parameters used to provide the cellular service in the one or more unlicensed bands according to the one or more OTA signaling messages received from the second base station to reduce interference on resources that the first operator and the second operator share to provide the cellular service in the one or more unlicensed bands; wherein the one or more OTA signaling messages comprise one or more overhead control messages that are configured to carry coexistence information associated with the cellular service provided in the one or more unlicensed bands; and wherein the coexistence information comprises one or more of Time-Division Multiplexing, TDM, patterns, radio access technologies, transmission power, cell loading information, or traffic quality of coverage, QoS. receiving, at a first base station associated with a first operator, one or more over-the-air, OTA, signaling messages from a second base station associated with a second operator, wherein the first base station and the second base station each provide cellular service in one or more unlicensed bands in overlapping coverage areas; and adjusting, at the first base station, one or more parameters used to provide the cellular service in the one or more unlicensed bands according to the one or more OTA signaling messages received from the second base station to reduce interference on resources that the first operator and the second operator share to provide the cellular service in the one or more unlicensed bands; wherein the one or more OTA signaling messages comprise one or more overhead control messages that are configured to carry coexistence information associated with the cellular service provided in the one or more unlicensed bands; and wherein the coexistence information comprises one or more of Time-Division Multiplexing, TDM, patterns, radio access technologies, transmission power, cell loading information, or traffic quality of coverage, QoS.
Roof arrangement for a vehicle roof with a roof opening, having - a movable roof element for optionally closing or at least partially opening the roof opening, wherein the roof element is held by a frame, - a first strand-like sealing profile - a second strand-like sealing profile which is formed separately from the first sealing profile, wherein - the first sealing profile is configured for sealing in relation to the movable roof element and is fastenable to the vehicle roof, and - the second sealing profile is fastened to the frame and is configured for sealing in relation to the frame, characterized in that the second sealing profile has a drip lip which lies against the frame. - a movable roof element for optionally closing or at least partially opening the roof opening, wherein the roof element is held by a frame, - a first strand-like sealing profile - a second strand-like sealing profile which is formed separately from the first sealing profile, wherein - the first sealing profile is configured for sealing in relation to the movable roof element and is fastenable to the vehicle roof, and - the second sealing profile is fastened to the frame and is configured for sealing in relation to the frame, characterized in that the second sealing profile has a drip lip which lies against the frame.
A vehicle provided with an engine and an exhaust apparatus to give an aftertreatment to exhaust gas emitted from the engine and to release thereafter the treated exhaust gas into atmosphere, the exhaust apparatus comprising: an aftertreatment device connected to the engine and configured to give the aftertreatment to the exhaust gas emitted from the engine; an exhaust pipe having an upstream end connected to the aftertreatment device and a downstream end enclosing an exhaust port at a position higher than the upstream end; a NOx sensor that includes a sensing portion configured to generate a detection signal relating to a NOx concentration in the exhaust gas, through contact with the exhaust gas, the NOx sensor being retained in the exhaust pipe so as to locate the sensing portion inside the exhaust pipe; and a water barrier wall disposed inside the exhaust pipe, characterized in that the exhaust pipe includes an exhaust pipe body and a flange portion formed in the upstream end of the exhaust pipe and having a greater thickness than a thickness of the exhaust pipe body, the flange portion includes a sensor retention portion that retains the NOx sensor, and the water barrier wall has a shape to form a shield between the NOx sensor and the exhaust port while leaving a gas inlet that allows the exhaust gas to flow to the NOx sensor from the upstream end of the exhaust pipe through the gas inlet. an aftertreatment device connected to the engine and configured to give the aftertreatment to the exhaust gas emitted from the engine; an exhaust pipe having an upstream end connected to the aftertreatment device and a downstream end enclosing an exhaust port at a position higher than the upstream end; a NOx sensor that includes a sensing portion configured to generate a detection signal relating to a NOx concentration in the exhaust gas, through contact with the exhaust gas, the NOx sensor being retained in the exhaust pipe so as to locate the sensing portion inside the exhaust pipe; and a water barrier wall disposed inside the exhaust pipe, characterized in that the exhaust pipe includes an exhaust pipe body and a flange portion formed in the upstream end of the exhaust pipe and having a greater thickness than a thickness of the exhaust pipe body, the flange portion includes a sensor retention portion that retains the NOx sensor, and the water barrier wall has a shape to form a shield between the NOx sensor and the exhaust port while leaving a gas inlet that allows the exhaust gas to flow to the NOx sensor from the upstream end of the exhaust pipe through the gas inlet.
A molecular sieve having a mole ratio of from 5 to 50 of at least one oxide of at least one tetravalent element to one or more oxides selected from the group consisting of trivalent elements, pentavalent elements, and mixtures thereof, and having, in its as-synthesized form, an X-ray diffraction pattern including the lines listed in the following Table: 2-Theta d-Spacing, nm Relative Intensity Peak Broadening P/N 7.54 ± 0.20 1.172 M B L 9.71 ± 0.20 0.910 W VB L 12.94 ± 0.20 0.684 W Sh H 14.97 ± 0.20 0.591 M Sh L 15.92 ± 0.20 0.556 S Sh H 17.78 ± 0.20 0.499 M Sh H 18.40 ± 0.20 0.482 W Sh L 19.86 ± 0.20 0.447 M B L 21.26 ± 0.20 0.418 S VB L 22.51 ± 0.20 0.395 W B L 24.40 ± 0.20 0.365 W Sh L 26.10 ± 0.20 0.341 VS Sh H 27.35 ± 0.20 0.326 W B L 28.17 ± 0.20 0.317 W B L.