mhurhangee/patent-ind-claim-en huggingface dataset:
A composite structure, comprising: a resin ; a fiber at least partially embedded within the resin; one or more resin-rich pockets associated with the fiber wherein the resin-rich pockets are located between fibers of a unidirectional ply; and a modifier located in the one or more resin-rich pockets , the modifier having at least one modifier characteristic that is different than a resin characteristic, wherein the modifier is a modifier coating comprising a thermoset monomer coating or a thermoset prepolymer coating; and wherein the modifier coating is applied to one or more fiber filaments on an outer edge of a fiber tow. a resin ; a fiber at least partially embedded within the resin; one or more resin-rich pockets associated with the fiber wherein the resin-rich pockets are located between fibers of a unidirectional ply; and a modifier located in the one or more resin-rich pockets , the modifier having at least one modifier characteristic that is different than a resin characteristic, wherein the modifier is a modifier coating comprising a thermoset monomer coating or a thermoset prepolymer coating; and wherein the modifier coating is applied to one or more fiber filaments on an outer edge of a fiber tow.
A memory , comprising a clock processing circuit comprising: a duty cycle module , configured to receive a data clock signal externally generated, and adjust a duty cycle of the data clock signal to output an internal clock signal; a clock generation module , configured to receive the internal clock signal, and output a read clock signal based on the internal clock signal; characterized in that the memory further comprises: a data strobe generation module , configured to generate and output a read data strobe signal during existence of the read clock signal; wherein the read data strobe signal has only one level state change edge; and a selection module , configured to receive a selection indication signal, the read clock signal and the read data strobe signal, to output the read clock signal as a target read data strobe signal in response to the selection indication signal being in a first state and to output the read data strobe signal as the target read data strobe signal in response to the selection indication signal being in a second state differing from the first state. a duty cycle module , configured to receive a data clock signal externally generated, and adjust a duty cycle of the data clock signal to output an internal clock signal; a clock generation module , configured to receive the internal clock signal, and output a read clock signal based on the internal clock signal; characterized in that the memory further comprises: a data strobe generation module , configured to generate and output a read data strobe signal during existence of the read clock signal; wherein the read data strobe signal has only one level state change edge; and a selection module , configured to receive a selection indication signal, the read clock signal and the read data strobe signal, to output the read clock signal as a target read data strobe signal in response to the selection indication signal being in a first state and to output the read data strobe signal as the target read data strobe signal in response to the selection indication signal being in a second state differing from the first state. a data strobe generation module , configured to generate and output a read data strobe signal during existence of the read clock signal; wherein the read data strobe signal has only one level state change edge; and a selection module , configured to receive a selection indication signal, the read clock signal and the read data strobe signal, to output the read clock signal as a target read data strobe signal in response to the selection indication signal being in a first state and to output the read data strobe signal as the target read data strobe signal in response to the selection indication signal being in a second state differing from the first state.
A method for increasing the medium to high speed stability and for controlling the transient yaw response of a road vehicle, as a result of steering input, said vehicle being equipped with a front axle , a rear axle , a controllable differential and a control unit arranged for locking and unlocking said differential , said method comprising: - selectively locking or unlocking said differential depending on the operation of said vehicle; characterized in that the method further comprises: - measuring at least the longitudinal vehicle speed (v); - comparing the measured vehicle speed (v) with a predetermined first reference speed (v H ); and - locking said differential if said measured vehicle speed (v) exceeds said first reference speed (v H ), regardless of the amount of steering input applied; and - keeping the differential locked regardless of the amount of steering input applied. - selectively locking or unlocking said differential depending on the operation of said vehicle; - measuring at least the longitudinal vehicle speed (v); - comparing the measured vehicle speed (v) with a predetermined first reference speed (v H ); and - locking said differential if said measured vehicle speed (v) exceeds said first reference speed (v H ), regardless of the amount of steering input applied; and - keeping the differential locked regardless of the amount of steering input applied.
Preparation system for preparing a sample for electron microscopy, comprising: - a container containing a liquid cryogen , - a liquid handling system comprising a dispensing head , wherein said liquid handling system is configured to aspirate and dispense a volume of a sample via the dispensing head , - a support structure that is configured to accommodate the sample, - a temperature-controlled stage that is configured to keep said support structure at a pre-defined temperature when the support structure is arranged on the temperature-controlled stage , - a first adapter configured to hold said support structure , and - a transfer mechanism that is configured to be connected to the first adapter holding the support structure and to move said support structure into the container containing the liquid cryogen so that the sample on the support structure contacts the cryogen , characterized in that the system comprises a translation stage assembly that is configured to move the temperature-controlled stage relative to the liquid handling system , such that the dispensing head and the support structure can be brought in close proximity to each other so as to transfer the sample from the liquid handling system to the support structure , wherein the transfer mechanism is configured to pivot the first adapter together with the support structure into a vertical position above the container and to move the first adapter and the support structure downwards after said pivoting so that the sample on the support structure contacts the cryogen in the container . - a container containing a liquid cryogen , - a liquid handling system comprising a dispensing head , wherein said liquid handling system is configured to aspirate and dispense a volume of a sample via the dispensing head , - a support structure that is configured to accommodate the sample, - a temperature-controlled stage that is configured to keep said support structure at a pre-defined temperature when the support structure is arranged on the temperature-controlled stage , - a first adapter configured to hold said support structure , and - a transfer mechanism that is configured to be connected to the first adapter holding the support structure and to move said support structure into the container containing the liquid cryogen so that the sample on the support structure contacts the cryogen ,
A laser-oscillator-laser-amplifier optical system , comprising a laser oscillator and a laser amplifier arranged on a common optical axis ; and a device comprising a plate with a reflecting surface oriented at an angle to the common optical axis of the laser-oscillator-laser-amplifier optical system , which is configured to angularly separate spontaneous emission emitted by the laser amplifier from a path of a laser beam generated by the laser oscillator , whereby the plate is located between the laser oscillator and the laser amplifier ; the laser oscillator , the plate and the laser amplifier are in a linear arrangement; an aperture located through the reflecting surface and configured to allow the laser beam generated by the laser oscillator to pass through; wherein an optical axis of the aperture coincides with the common optical axis of the laser-oscillator-laser-amplifier optical system ; and wherein the angle between the reflecting surface and the common optical axis is 30 degrees to 60 degrees. a laser oscillator and a laser amplifier arranged on a common optical axis ; and a device comprising a plate with a reflecting surface oriented at an angle to the common optical axis of the laser-oscillator-laser-amplifier optical system , which is configured to angularly separate spontaneous emission emitted by the laser amplifier from a path of a laser beam generated by the laser oscillator , whereby the plate is located between the laser oscillator and the laser amplifier ; the laser oscillator , the plate and the laser amplifier are in a linear arrangement; an aperture located through the reflecting surface and configured to allow the laser beam generated by the laser oscillator to pass through; wherein an optical axis of the aperture coincides with the common optical axis of the laser-oscillator-laser-amplifier optical system ; and wherein the angle between the reflecting surface and the common optical axis is 30 degrees to 60 degrees.
A carriage (2; 20) of a cable crane for transporting loads along a carrying rope of the cable crane , wherein the carriage (2; 20), which is pulled along the carrying rope by a rope device of the cable crane via a pull rope in a 2-rope operation and additionally via an auxiliary rope in a 3-rope operation , comprises a motor for unwinding the pull rope or a hoist rope from the carriage and a friction disk , which is provided for the unwinding movement of the pull rope , and/or a hoist rope drum , which is provided for the unwinding movement of the hoist rope and is driven directly or indirectly by the motor, characterized in that the carriage (2; 20) comprises an auxiliary rope drum (15; 24) for winding the auxiliary rope in a 3-rope operation and in that the auxiliary rope drum (15; 24) is operatively connected to the friction disk and/or the hoist rope drum and, being driven by the auxiliary rope , is provided in addition to or as an alternative to the motor for unwinding the pull rope and/or the hoist rope .
A blow molding apparatus comprising: an injection molding part configured to injection-mold a preform including a neck portion and a bottomed body portion continuous from the neck portion ; a temperature adjustment part including a temperature adjustment mold accommodating the preform and a temperature adjustment rod to be inserted into the preform , the temperature adjustment part configured to perform a temperature adjustment treatment to the preform by bringing the temperature adjustment rod into contact with an inner surface of the preform while accommodating the preform in the temperature adjustment mold in a non-contact manner; and a blow molding part configured to blow-mold the preform to form a resin container , characterized in that the temperature adjustment part is configured to stretch the body portion by moving the temperature adjustment rod toward a bottom surface portion side of the body portion by a predetermined distance, after inserting the temperature adjustment rod into the preform to bring the temperature adjustment rod into contact with an inner surface of the body portion other than a boundary portion between the body portion and the neck portion .
A method executable by a server to allow a user of a client device to obtain requested content via a network, the method comprising: receiving, at the server, for each of a plurality of participating placeshifting systems, a list of local content stored and available for placeshifting by each of the plurality of participating placeshifting systems via the network, wherein each of the plurality of placeshifting systems is a user operated placeshifting device that receives the local content from broadcast programming that is locally available to that user-operated placeshifting device and converts the received local broadcast content into a streaming format that is transmittable over the network; maintaining , by the server, a database of the local content stored by each of the plurality of placeshifting systems; receiving a request for the requested content from the user of the client device at the server via the network, wherein the requested content corresponds to broadcasting content that is locally available in some locations but not in others; identifying , from the database, one of the user-operated placeshifting devices having access to the locally available broadcast content that corresponds to the requested content; and facilitating a connection between the client device and the identified user-operated placeshifting device to thereby allow the client device to obtain the requested content in the streaming format directly from the identified user-operated placeshifting device via the network. receiving, at the server, for each of a plurality of participating placeshifting systems, a list of local content stored and available for placeshifting by each of the plurality of participating placeshifting systems via the network, wherein each of the plurality of placeshifting systems is a user operated placeshifting device that receives the local content from broadcast programming that is locally available to that user-operated placeshifting device and converts the received local broadcast content into a streaming format that is transmittable over the network; maintaining , by the server, a database of the local content stored by each of the plurality of placeshifting systems; receiving a request for the requested content from the user of the client device at the server via the network, wherein the requested content corresponds to broadcasting content that is locally available in some locations but not in others; identifying , from the database, one of the user-operated placeshifting devices having access to the locally available broadcast content that corresponds to the requested content; and facilitating a connection between the client device and the identified user-operated placeshifting device to thereby allow the client device to obtain the requested content in the streaming format directly from the identified user-operated placeshifting device via the network.
A combination for use in the treatment or prevention of hepatitis C virus (HCV) infection in a subject comprising Compound A or pharmaceutically acceptable salt thereof: and a second HCV inhibitor in an amount effective to treat or prevent HCV in the subject, wherein the second HCV inhibitor comprises ledipasvir, or a pharmaceutically acceptable salt thereof; daclatasvir, or a pharmaceutically acceptable salt thereof; or glecaprevir, or a pharmaceutically acceptable salt thereof.
A method comprising: determining, by a wireless access network node , that a user equipment, UE , has experienced a channel busy condition that prevented the UE from transmitting on an uplink to the wireless access network node ; and in response to the determining, refraining, by the wireless access network node , from scheduling an uplink resource for the UE , wherein the refraining from the scheduling of the uplink resource is for a time duration based on a backoff procedure at the wireless access network node . determining, by a wireless access network node , that a user equipment, UE , has experienced a channel busy condition that prevented the UE from transmitting on an uplink to the wireless access network node ; and in response to the determining, refraining, by the wireless access network node , from scheduling an uplink resource for the UE , wherein the refraining from the scheduling of the uplink resource is for a time duration based on a backoff procedure at the wireless access network node .
Method for converting xylose into xylulose comprising the steps of: a) providing a composition comprising water, xylose and lignin, b) enzymatically converting the xylose to xylulose in the presence of a xylose isomerase, c) optionally purifying the xylulose from the composition, wherein the xylose isomerase comprises an amino acid sequence that is at least 90% identical with the sequence according to SEQ ID NO: 1 or SEQ ID NO: 2. a) providing a composition comprising water, xylose and lignin, b) enzymatically converting the xylose to xylulose in the presence of a xylose isomerase, c) optionally purifying the xylulose from the composition,
A heavy duty pneumatic tire having an aspect ratio of not greater than 75%, comprising: a tread configured to, at a tread surface thereof, come into contact with a road surface; a pair of sidewalls each extending inward in a radial direction from an end of the tread ; a pair of beads located radially inward of the sidewalls ; a carcass extending from one bead to the other bead , at an inner side of the tread and the pair of sidewalls ; a belt located between the tread and the carcass ; and a pair of cushion layers each located between an end of the belt and the carcass , wherein each bead includes a core and an apex located radially outward of the core , in the radial direction, a zone from an inner end of each cushion layer to an outer end of the apex corresponding thereto is a flexible zone, and a ratio of a length in the radial direction of the flexible zone to a cross-sectional height of the carcass is not less than 0.25 and not greater than 0.4, wherein the carcass includes at least one carcass ply , the carcass ply includes: a body portion which extends between one core and the other core ; and a pair of turned-up portions which are connected with the body portion and are turned up around the cores from an inner side toward an outer side in an axial direction, and the body portion in the flexible zone has a shape represented by an arc, wherein a ratio of a radius of the arc representing the shape of the body portion in the flexible zone to the cross-sectional height of the carcass is not less than 0.3 and not greater than 0.4. a tread configured to, at a tread surface thereof, come into contact with a road surface; a pair of sidewalls each extending inward in a radial direction from an end of the tread ; a pair of beads located radially inward of the sidewalls ; a carcass extending from one bead to the other bead , at an inner side of the tread and the pair of sidewalls ; a belt located between the tread and the carcass ; and a pair of cushion layers each located between an end of the belt and the carcass , wherein each bead includes a core and an apex located radially outward of the core , in the radial direction, a zone from an inner end of each cushion layer to an outer end of the apex corresponding thereto is a flexible zone, and a ratio of a length in the radial direction of the flexible zone to a cross-sectional height of the carcass is not less than 0.25 and not greater than 0.4, wherein the carcass includes at least one carcass ply , the carcass ply includes: a body portion which extends between one core and the other core ; and a pair of turned-up portions which are connected with the body portion and are turned up around the cores from an inner side toward an outer side in an axial direction, and the body portion in the flexible zone has a shape represented by an arc, wherein a ratio of a radius of the arc representing the shape of the body portion in the flexible zone to the cross-sectional height of the carcass is not less than 0.3 and not greater than 0.4.
A system for controlling an internal combustion engine, the system comprising an ion current sensor and a control unit in communication with the ion current sensor for receiving an ion current signal, the control unit being configured to predict at least one particulate emission level or at least one engine load measurement or at least one fuel consumption measurement on a cylinder-by-cylinder and cycle-by-cycle basis using the ion current signal, thereby to provide a feedback signal indicating a contribution of each cylinder wherein the feedback signal is used in controlling the engine, characterized in that the control unit is configured to control engine operating parameters based on a sum of functions of the start of injection (SOI) and ion current signal parameters deduced from the ion current signal, the ion current signal parameters including ion current slope (m), ion current amplitude (I), ion current peak to peak distance (P), ion current delay (ICD), area under a curve of the ion current signal (Ar), end of current signal timing (EOI), and difference between two consecutive amplitudes (D), wherein each function is weighted prior to summing.
A method for the production of an interconnector element for an electrochemical converter, comprising: - providing a fluid-tight support structure of the interconnector element , wherein at least one layer of the fluid-tight support structure is configured as a planar metal sheet; - providing at least one fluid-permeable rigid contact layer of the interconnector element ; - fixing the at least one contact layer to the support structure , characterised in that the support structure and/or the at least one contact layer , at least at times during the production of the interconnector element , includes a manipulation region , which is removed after the connection of the support structure with the at least one contact layer , wherein the manipulation region is a region or a section of the support structure and/or the at least one contact layer , by means of which region or section there is permitted or at least facilitated during the production of the interconnector element a positioning of the support structure relative to the at least one contact layer and/or the manipulation of the support structure and/or the at least one contact layer . - providing a fluid-tight support structure of the interconnector element , wherein at least one layer of the fluid-tight support structure is configured as a planar metal sheet; - providing at least one fluid-permeable rigid contact layer of the interconnector element ; - fixing the at least one contact layer to the support structure ,
The compound (6-{ -1-[8-fluoro-6-(1-methyl-1H-pyrazol-4-yl) triazolo[4,3-a]pyridin-3-yl]ethyl}-3-(2-methoxyethoxy)-1,6-naphthyridin-5 -one) for use in a method of treating cancer in a patient diagnosed with cancer, (i) wherein said cancer is selected from a group consisting of gastric, hepatocellular carcinoma (HCC), and biliary tract cancer, (ii) wherein said patient exhibits focal amplification of the MET gene in a sample of tumor cells obtained from the patient, (iii) wherein the sample of tumor cells does not comprise a mutation at the KRAS gene that is G13D, G13C, G12V, G12S, G12R, G12D, G12C, or G12A; (iv) wherein the presence of focal amplification of the MET gene is defined by fluorescent in situ hybridization (FISH) as a ratio of MET gene copy number to chromosome 7 copy number, and (v) wherein the ratio is 2 or higher. (i) wherein said cancer is selected from a group consisting of gastric, hepatocellular carcinoma (HCC), and biliary tract cancer, (ii) wherein said patient exhibits focal amplification of the MET gene in a sample of tumor cells obtained from the patient, (iii) wherein the sample of tumor cells does not comprise a mutation at the KRAS gene that is G13D, G13C, G12V, G12S, G12R, G12D, G12C, or G12A; (iv) wherein the presence of focal amplification of the MET gene is defined by fluorescent in situ hybridization (FISH) as a ratio of MET gene copy number to chromosome 7 copy number, and (v) wherein the ratio is 2 or higher.