mhurhangee/ep-ind-claims huggingface dataset:
A soluble hydrophobic-core carrier composition comprising: (i) a linear polymeric backbone which is polylysine; (ii) a plurality of hydrophilic polymeric protective side chains covalently linked and pendant to the polymeric backbone, wherein each protective side chain has a molecular weight between about 400 and about 20,000 Daltons and the protective side chains comprise polyethylene glycol, polypropylene glycol, a co-polymer of polyethylene glycol and polypropylene glycol, or alkoxy derivatives thereof; wherein the alkoxy derivatives are methoxypolyethylene glycol, methoxypolypropylene glycol, or a methoxylated co-polymer of polyethylene glycol and polypropylene glycol; and (iii) at least one hydrophobic moiety covalently linked and pendant to the polymeric backbone, wherein the hydrophobic moiety(ies) comprises a fatty acid selected from the range of 6-carbon fatty acids to 36-carbon fatty acids; wherein the weight ratio of the hydrophilic polymeric protective side chains to the hydrophobic moieties is above 25:1 and at least 90% of the residues of the polymeric backbone are derivatized with either hydrophilic protective chains or hydrophobic moieties. (i) a linear polymeric backbone which is polylysine; (ii) a plurality of hydrophilic polymeric protective side chains covalently linked and pendant to the polymeric backbone, wherein each protective side chain has a molecular weight between about 400 and about 20,000 Daltons and the protective side chains comprise polyethylene glycol, polypropylene glycol, a co-polymer of polyethylene glycol and polypropylene glycol, or alkoxy derivatives thereof; wherein the alkoxy derivatives are methoxypolyethylene glycol, methoxypolypropylene glycol, or a methoxylated co-polymer of polyethylene glycol and polypropylene glycol; and (iii) at least one hydrophobic moiety covalently linked and pendant to the polymeric backbone, wherein the hydrophobic moiety(ies) comprises a fatty acid selected from the range of 6-carbon fatty acids to 36-carbon fatty acids;
An optocoupler, which comprises: • a side-emitting electromagnetic radiation source for emitting electromagnetic radiation at its side wall; and • a plate-shaped electromagnetic radiation detector for detecting at least part of the emitted electromagnetic radiation; • a source carrier on which the electromagnetic radiation source is mounted, and a detector carrier on which the electromagnetic radiation detector is mounted; • wherein the electromagnetic radiation detector is configured for detecting electromagnetic radiation at its upper main surface; • characterised in that at least a part of at least one of the source carrier and the detector carrier is slanted so that the electromagnetic radiation source and the electromagnetic radiation detector are tilted with respect to each other. • a side-emitting electromagnetic radiation source for emitting electromagnetic radiation at its side wall; and • a plate-shaped electromagnetic radiation detector for detecting at least part of the emitted electromagnetic radiation; • a source carrier on which the electromagnetic radiation source is mounted, and a detector carrier on which the electromagnetic radiation detector is mounted; • wherein the electromagnetic radiation detector is configured for detecting electromagnetic radiation at its upper main surface; • characterised in that at least a part of at least one of the source carrier and the detector carrier is slanted so that the electromagnetic radiation source and the electromagnetic radiation detector are tilted with respect to each other.
A monolithic metal thermal insulating sleeve liner configured for use in a high pressure fluid flow device subjected to cyclic extreme thermal shock, said configured thermal insulating sleeve liner comprising: a monolithic hollow metal cylindrical sleeve having two opposing spaced-apart ends and an outer diameter sized to slide into a bore of a fluid flow device, said ends being configured to seal against fluid flow between an inner surface of the fluid flow device bore and the outer diameter of the sleeve between said ends, while accommodating a fluid flow path there-within along an inside bore of said sleeve, said sleeve including internal interstices providing increased thermal resistance to heat flowing from inside the sleeve to outside the sleeve; said monolithic hollow metal cylindrical sleeve comprising outer and inner shells (12 and 14) integrally formed with tessellated support structures arrayed there-between, characterized in that the metal is 3D printed nickel based alloy material. a monolithic hollow metal cylindrical sleeve having two opposing spaced-apart ends and an outer diameter sized to slide into a bore of a fluid flow device, said ends being configured to seal against fluid flow between an inner surface of the fluid flow device bore and the outer diameter of the sleeve between said ends, while accommodating a fluid flow path there-within along an inside bore of said sleeve, said sleeve including internal interstices providing increased thermal resistance to heat flowing from inside the sleeve to outside the sleeve; said monolithic hollow metal cylindrical sleeve comprising outer and inner shells (12 and 14) integrally formed with tessellated support structures arrayed there-between, characterized in that
An exhaust emission control apparatus for an internal combustion engine, comprising: an exhaust gas purification catalyst that is arranged in an exhaust gas passage of the internal combustion engine and that purifies an exhaust gas; an air/fuel ratio sensor that is arranged on an upstream side of the exhaust gas purification catalyst and that detects an air/fuel ratio of an exhaust gas that is discharged from the internal combustion engine; air/fuel ratio feedback control means that performs feedback control of the air/fuel ratio of the internal combustion engine based on an output of the air/fuel ratio sensor; and sensor output correcting means that corrects a shift in the output of the air/fuel ratio sensor that is caused by a component included in the exhaust gas; wherein the sensor output correcting means is configured so as to correct a shift in the output of the air/fuel ratio sensor using a lean shift amount of the output of the air/fuel ratio sensor in accordance with a quantity and/or a proportion of an aldehyde included in the exhaust gas. an exhaust gas purification catalyst that is arranged in an exhaust gas passage of the internal combustion engine and that purifies an exhaust gas; an air/fuel ratio sensor that is arranged on an upstream side of the exhaust gas purification catalyst and that detects an air/fuel ratio of an exhaust gas that is discharged from the internal combustion engine; air/fuel ratio feedback control means that performs feedback control of the air/fuel ratio of the internal combustion engine based on an output of the air/fuel ratio sensor; and sensor output correcting means that corrects a shift in the output of the air/fuel ratio sensor that is caused by a component included in the exhaust gas; wherein the sensor output correcting means is configured so as to correct a shift in the output of the air/fuel ratio sensor using a lean shift amount of the output of the air/fuel ratio sensor in accordance with a quantity and/or a proportion of an aldehyde included in the exhaust gas.
A semiconductor device, comprising: a first subassembly comprising a first bonding layer of (Al)(Ga)InP(As)(Sb) and a first substrate, wherein the first substrate is constructed of a group III-V material and a second subassembly, comprising: a second substrate constructed of germanium; and a second bonding layer of (Al)(Ga)InP(As)(Sb) is directly bonded to the first bonding layer, wherein the first bonding layer and the second bonding layer are lattice-mismatched to one another, and wherein: the second bonding layer is lattice-mismatched to the second substrate. a first subassembly comprising a first bonding layer of (Al)(Ga)InP(As)(Sb) and a first substrate, wherein the first substrate is constructed of a group III-V material and a second subassembly, comprising: a second substrate constructed of germanium; and a second bonding layer of (Al)(Ga)InP(As)(Sb) is directly bonded to the first bonding layer, wherein the first bonding layer and the second bonding layer are lattice-mismatched to one another, and wherein: the second bonding layer is lattice-mismatched to the second substrate. a second substrate constructed of germanium; and a second bonding layer of (Al)(Ga)InP(As)(Sb) is directly bonded to the first bonding layer, wherein the first bonding layer and the second bonding layer are lattice-mismatched to one another, and wherein: the second bonding layer is lattice-mismatched to the second substrate.
A control method for a thermal power plant comprising: a boiler for burning fossil fuel to generate steam, a steam turbine including a high-pressure turbine, an intermediate-pressure turbine, and a low-pressure turbine which are driven by the steam generated in the boiler, a carbon dioxide separation and capture apparatus including an absorber for absorbing and capturing CO 2 contained in boiler exhaust gas discharged from the boiler into an absorbing liquid, a desorber for circulating the absorbing liquid between the desorber and the absorber and separating CO 2 from the absorbing liquid that has absorbed CO 2, and a reboiler for feeding a heating source for separating CO 2 from the absorbing liquid to the desorber, and a steam pipe system for feeding steam taken out from the high-pressure turbine and the intermediate-pressure turbine to the reboiler, wherein: a steam feed source for feeding steam to the reboiler is controlled to switch from the intermediate-pressure turbine to the high-pressure turbine when the pressure of the steam fed from the intermediate-pressure turbine to the reboiler is equal to or lower than the steam pressure required by the reboiler. a boiler for burning fossil fuel to generate steam, a steam turbine including a high-pressure turbine, an intermediate-pressure turbine, and a low-pressure turbine which are driven by the steam generated in the boiler, a carbon dioxide separation and capture apparatus including an absorber for absorbing and capturing CO 2 contained in boiler exhaust gas discharged from the boiler into an absorbing liquid, a desorber for circulating the absorbing liquid between the desorber and the absorber and separating CO 2 from the absorbing liquid that has absorbed CO 2, and a reboiler for feeding a heating source for separating CO 2 from the absorbing liquid to the desorber, and a steam pipe system for feeding steam taken out from the high-pressure turbine and the intermediate-pressure turbine to the reboiler, wherein: a steam feed source for feeding steam to the reboiler is controlled to switch from the intermediate-pressure turbine to the high-pressure turbine when the pressure of the steam fed from the intermediate-pressure turbine to the reboiler is equal to or lower than the steam pressure required by the reboiler. a steam feed source for feeding steam to the reboiler is controlled to switch from the intermediate-pressure turbine to the high-pressure turbine when the pressure of the steam fed from the intermediate-pressure turbine to the reboiler is equal to or lower than the steam pressure required by the reboiler.
An automatic transmission apparatus to be mounted to a straddle-type vehicle, the automatic transmission apparatus comprising: a multi-speed transmission mechanism that includes a plurality of transmission gears arranged to engage with each other via a dog clutch and changes a combination of the engaging transmission gears in association with rotation of a shift drum; an actuator arranged to rotate the shift drum; and a control device arranged and programmed to control the actuator, characterized in that the control device including: a determining unit arranged to detect a state of the straddle-type vehicle and to determine whether the straddle-type vehicle is in a first state in which an engaging force between the transmission gears having engaged with each other before gear shifting is estimated to be equal to or greater than a predetermined value or in a second state in which the engaging force is estimated to be less than the predetermined value; a first gear shifting control unit arranged and programmed to control the actuator so that, if the determining unit determines that the straddle-type vehicle is in the first state, a rotational speed of the shift drum becomes a first rotational speed when the transmission gears come into engagement with each other; and a second gear shifting control unit arranged and programmed to control the actuator so that, if the determining unit determines that the straddle-type vehicle is in the second state, the rotational speed of the shift drum becomes a second rotational speed that is lower than the first rotational speed when the transmission gears come into engagement with each other. a multi-speed transmission mechanism that includes a plurality of transmission gears arranged to engage with each other via a dog clutch and changes a combination of the engaging transmission gears in association with rotation of a shift drum; an actuator arranged to rotate the shift drum; and a control device arranged and programmed to control the actuator, a determining unit arranged to detect a state of the straddle-type vehicle and to determine whether the straddle-type vehicle is in a first state in which an engaging force between the transmission gears having engaged with each other before gear shifting is estimated to be equal to or greater than a predetermined value or in a second state in which the engaging force is estimated to be less than the predetermined value; a first gear shifting control unit arranged and programmed to control the actuator so that, if the determining unit determines that the straddle-type vehicle is in the first state, a rotational speed of the shift drum becomes a first rotational speed when the transmission gears come into engagement with each other; and a second gear shifting control unit arranged and programmed to control the actuator so that, if the determining unit determines that the straddle-type vehicle is in the second state, the rotational speed of the shift drum becomes a second rotational speed that is lower than the first rotational speed when the transmission gears come into engagement with each other.
A communication apparatus, comprising: a processor (1503, 1603) and a memory (1504, 1604) storing instructions, the instructions, when executed by the processor (1503, 1603), cause the communication apparatus to broadcast a request to send, RTS, frame, wherein the RTS includes a first bandwidth parameter, and the first bandwidth parameter indicates an available bandwidth of an access point; receive a clear to send, CTS, frame from a first station in response to the RTS frame, wherein the CTS includes a second bandwidth parameter, and the second bandwidth parameter is corresponding to bandwidth required by the first station; confirm, based on the receipt of the CTS frame, that an RTS/CTS frame transmission is successful; and send a first trigger frame to the first station, wherein the first trigger frame is used to schedule the first station to send uplink data; when the first bandwidth parameter is greater than the second bandwidth parameter send a second trigger frame to a second station on a channel set corresponding to remaining bandwidth, wherein the second trigger frame is used to schedule the second station to send uplink data. broadcast a request to send, RTS, frame, wherein the RTS includes a first bandwidth parameter, and the first bandwidth parameter indicates an available bandwidth of an access point; receive a clear to send, CTS, frame from a first station in response to the RTS frame, wherein the CTS includes a second bandwidth parameter, and the second bandwidth parameter is corresponding to bandwidth required by the first station; confirm, based on the receipt of the CTS frame, that an RTS/CTS frame transmission is successful; and send a first trigger frame to the first station, wherein the first trigger frame is used to schedule the first station to send uplink data; when the first bandwidth parameter is greater than the second bandwidth parameter send a second trigger frame to a second station on a channel set corresponding to remaining bandwidth, wherein the second trigger frame is used to schedule the second station to send uplink data.
A process for the production of saturated fiber structures, comprising the following steps: (a) introduction of a fiber structure onto a conveyor belt, (b) application of a melt comprising monomer and optionally comprising activator, and optionally comprising catalyst, (c) passage of the fiber structure with the melt through at least one roll pair in which pressure is exerted on the fiber structure, (d) cooling of the saturated fiber structure, so that the monomer solidifies, which comprises applying the melt comprising monomer and optionally comprising activator, and optionally comprising catalyst in at least one line to the fiber structure. (a) introduction of a fiber structure onto a conveyor belt, (b) application of a melt comprising monomer and optionally comprising activator, and optionally comprising catalyst, (c) passage of the fiber structure with the melt through at least one roll pair in which pressure is exerted on the fiber structure, (d) cooling of the saturated fiber structure, so that the monomer solidifies,
An electronic device comprising: a first antenna configured to transmit a first transmission signal having a first phase; a second antenna configured to transmit a second transmission signal having a second phase; a transceiver electrically connected to the first antenna and the second antenna; and a processor, wherein the transceiver is configured to: a) identify a first feedback transmission signal including a part of the first transmission signal and a second feedback transmission signal including a part of the second transmission signal, and b) calculate a correlation for the first feedback transmission signal and the second feedback transmission signal, and wherein the processor is configured to: c) predict radiation power radiated from the electronic device based on the correlation, d) if the predicted radiation power does not correspond to a predetermined value, control the transceiver to adjust at least one of the first phase or the second phase, and return to a). a first antenna configured to transmit a first transmission signal having a first phase; a second antenna configured to transmit a second transmission signal having a second phase; a transceiver electrically connected to the first antenna and the second antenna; and a processor, wherein the transceiver is configured to: a) identify a first feedback transmission signal including a part of the first transmission signal and a second feedback transmission signal including a part of the second transmission signal, and b) calculate a correlation for the first feedback transmission signal and the second feedback transmission signal, and a) identify a first feedback transmission signal including a part of the first transmission signal and a second feedback transmission signal including a part of the second transmission signal, and b) calculate a correlation for the first feedback transmission signal and the second feedback transmission signal, and wherein the processor is configured to: c) predict radiation power radiated from the electronic device based on the correlation, d) if the predicted radiation power does not correspond to a predetermined value, control the transceiver to adjust at least one of the first phase or the second phase, and return to a). c) predict radiation power radiated from the electronic device based on the correlation, d) if the predicted radiation power does not correspond to a predetermined value, control the transceiver to adjust at least one of the first phase or the second phase, and return to a).
Milling tool, in particular in the form of a shaft milling device, with a cylindrical shaft part having a central axis, to which a cylindrical cutting part is connected with at least three helically extending circumferential cutting edges separated from each other by chip flutes, which continue via cutting-edge corner regions into substantially radially extending front cutting edges (28, 30, 40), which, following radially outer front cutting edges, in each case slope away from the milling cutter front with a cutting-edge portion formed by ground-in front pockets towards the center axis, characterized in that the cutting-edge portion slopes continuously down to the center axis and is formed in the region of the milling cutter core by a point thinning incorporated in the front pocket, by which a central cutting edge extending into the region near the center axis is produced.
A product conveying system for conveying objects, such as luggage or packages, comprising a number of subsequently arranged conveying elements defining a conveying direction, said product conveying system being characterized in that it further comprises a product support system having at least one brush element for supporting said objects, said conveying elements having a moveable conveying surface for contacting said objects and wherein said at least one brush element is arranged between two of said subsequently arranged conveying elements and comprises a base element and a number of elongated deflector elements and is connected to said conveying elements, such that said deflector elements form an oblique angle in relation to said conveying direction.
An elevator controlling apparatus comprising: a speed pattern generating portion that generates a speed pattern for performing control that accelerates and decelerates a car to stop at a destination floor; and a deceleration rate command portion that determines during decelerating movement of the car whether or not a deceleration rate value of the speed pattern can be increased based on information from a torque detector that detects torque of a driving apparatus that moves the car, the elevator controlling apparatus being characterized in that the speed pattern generating portion is able to reduce the deceleration rate value of the speed pattern from a first deceleration value initially then switch over to a second deceleration value that is greater than the first deceleration value if the deceleration rate command portion determines that increasing the deceleration rate of the speed pattern is possible. a speed pattern generating portion that generates a speed pattern for performing control that accelerates and decelerates a car to stop at a destination floor; and a deceleration rate command portion that determines during decelerating movement of the car whether or not a deceleration rate value of the speed pattern can be increased based on information from a torque detector that detects torque of a driving apparatus that moves the car, the elevator controlling apparatus being characterized in that the speed pattern generating portion is able to reduce the deceleration rate value of the speed pattern from a first deceleration value initially then switch over to a second deceleration value that is greater than the first deceleration value if the deceleration rate command portion determines that increasing the deceleration rate of the speed pattern is possible.