mhurhangee/ep-ind-claims huggingface dataset:
A mobile station (500, 600, 700, 800) characterized by comprising: a receiving unit configured to receive a first signal generated with first information and a second signal generated with second information of a first OFDM symbol, and to receive a third signal generated with third information in a second OFDM symbol other than the first OFDM symbol; wherein the first signal is received in first subcarriers included in a first subcarrier group and wherein the second signal is received in second subcarriers included in a second subcarrier group, and wherein the first and second subcarriers differ from each other; wherein the mobile station stores an association between a plurality of scrambling code candidates and combinations of the determined first and second information, a determining unit configured to: determine the first information from the first signal received in the first subcarriers; determine the second information from the second signal received in the second subcarriers; and determine a subset of the plurality of scrambling code candidates based on a combination of the determined first and second information using the stored association; and a selecting unit configured to perform a correlation using the third information for selecting a scrambling code from the subset of scrambling code candidates. a receiving unit configured to receive a first signal generated with first information and a second signal generated with second information of a first OFDM symbol, and to receive a third signal generated with third information in a second OFDM symbol other than the first OFDM symbol; wherein the first signal is received in first subcarriers included in a first subcarrier group and wherein the second signal is received in second subcarriers included in a second subcarrier group, and wherein the first and second subcarriers differ from each other; wherein the mobile station stores an association between a plurality of scrambling code candidates and combinations of the determined first and second information, a determining unit configured to: determine the first information from the first signal received in the first subcarriers; determine the second information from the second signal received in the second subcarriers; and determine a subset of the plurality of scrambling code candidates based on a combination of the determined first and second information using the stored association; and determine the first information from the first signal received in the first subcarriers; determine the second information from the second signal received in the second subcarriers; and determine a subset of the plurality of scrambling code candidates based on a combination of the determined first and second information using the stored association; and a selecting unit configured to perform a correlation using the third information for selecting a scrambling code from the subset of scrambling code candidates.
A sailing rig comprising a mast strut and a cross strut for stretching a sail, wherein the mast strut and the cross strut are designed to be inflatable, and comprising a mast foot fastened to the mast strut, characterized by an inclined sail top strut bent obliquely with respect to a connecting area of the mast strut and connected to and formed integrally with the mast strut, wherein starting from an approximately cylindrical portion of the cross strut, the mast strut is tapered toward the sail top and toward the mast foot, wherein the mast strut has a diameter in the area of the approximately cylindrical portion ranging approximately from 15 cm to 30 cm and the maximum diameter (d) of the cross strut lies within said range or is slightly smaller.
Hand brake valve for braking systems of pneumatically braked motor vehicles, comprising a rocking lever which is pivotably guided in a lever housing, which is connected to a control element (9, 10) for actuating the hand brake valve mechanism and which bears a shift handle, and which is able to be pivoted into different operating positions by being guided in a shift gate, wherein the rocking lever comprises a locking element which cooperates with the shift gate and which slides along a curved sliding path of the shift gate, wherein a locking groove with groove walls (17, 18) and a groove base is radially formed in the curved sliding path, the locking element being snapped into said locking groove in the locked position, and wherein the hand brake valve comprises an electrical switching element which is able to be actuated exclusively in the locked position of the locking element in the locking groove, characterized in that an actuating member of the electrical switching element is arranged at least partially in the locking groove and radially above the groove base and is able to be directly actuated by the locking element.
A system for de-plugging an agricultural implement, the system comprising: an implement frame; a ground-engaging tool pivotably coupled to the implement frame; an actuator coupled between the ground-engaging tool and the implement frame, the actuator configured to move the ground-engaging tool relative to the implement frame between a first position in which the ground-engaging tool penetrates the soil and a second position in which the ground-engaging tool is lifted out of the soil; a sensor configured to capture data indicative of plugging of the ground-engaging tool; and a controller communicatively coupled to the sensor, the controller configured to determine when the ground-engaging tool is plugged based on the data received from the sensor, the controller further configured to control an operation of the actuator such that the ground-engaging tool is moved from the first position to the second position when it is determined that the ground-engaging tool is plugged characterized in that, after the ground-engaging tool is moved to the second position, the controller is further configured to determine when the ground-engaging tool is de-plugged based on the data received from the sensor. an implement frame; a ground-engaging tool pivotably coupled to the implement frame; an actuator coupled between the ground-engaging tool and the implement frame, the actuator configured to move the ground-engaging tool relative to the implement frame between a first position in which the ground-engaging tool penetrates the soil and a second position in which the ground-engaging tool is lifted out of the soil; a sensor configured to capture data indicative of plugging of the ground-engaging tool; and a controller communicatively coupled to the sensor, the controller configured to determine when the ground-engaging tool is plugged based on the data received from the sensor, the controller further configured to control an operation of the actuator such that the ground-engaging tool is moved from the first position to the second position when it is determined that the ground-engaging tool is plugged characterized in that, after the ground-engaging tool is moved to the second position, the controller is further configured to determine when the ground-engaging tool is de-plugged based on the data received from the sensor.
A heat-exchanger comprising: a heat-exchanger core having a first heat-exchange passage for a first working fluid intended to be involved in a heat-exchange process, and a second heat-exchange passage for a second working fluid intended to be involved in the heat-exchange process; and a header (3, 4, 5, 6) comprising a duct for conveying working fluid to or from at least one of the first and second heat-exchange passages, wherein the header (3, 4, 5, 6) being welded to the heat-exchanger core along a header-to-core joint, wherein the heat-exchanger core has a groove (60, 60a, 60b) extending at least partly along the header-to-core joint, wherein a cross-section of the groove (60, 60a, 60b) has a rounded shape characterised in that a depth of the groove (60, 60a, 60b) is larger than half the width of the groove (60, 60a, 60b), and wherein a cross-section of the groove has a substantially elliptical shape. a heat-exchanger core having a first heat-exchange passage for a first working fluid intended to be involved in a heat-exchange process, and a second heat-exchange passage for a second working fluid intended to be involved in the heat-exchange process; and a header (3, 4, 5, 6) comprising a duct for conveying working fluid to or from at least one of the first and second heat-exchange passages, wherein the header (3, 4, 5, 6) being welded to the heat-exchanger core along a header-to-core joint, wherein the heat-exchanger core has a groove (60, 60a, 60b) extending at least partly along the header-to-core joint, wherein a cross-section of the groove (60, 60a, 60b) has a rounded shape characterised in that a depth of the groove (60, 60a, 60b) is larger than half the width of the groove (60, 60a, 60b), and wherein a cross-section of the groove has a substantially elliptical shape.
An emissive nanocrystal particle comprising: a core comprising a first semiconductor nanocrystal comprising a Group III-V compound; and a shell comprising a second semiconductor nanocrystal surrounding the core, wherein the emissive nanocrystal particle comprises a Group IA element, and the Group IA element has no substantial influence on a maximum light emitting wavelength (λ max) of the emissive nanocrystal particle, wherein the Group IA element is present in the core. a core comprising a first semiconductor nanocrystal comprising a Group III-V compound; and a shell comprising a second semiconductor nanocrystal surrounding the core, wherein the emissive nanocrystal particle comprises a Group IA element, and the Group IA element has no substantial influence on a maximum light emitting wavelength (λ max) of the emissive nanocrystal particle, wherein the Group IA element is present in the core.
Apparatus for delivering a therapeutic agent to the central nervous system, comprising at least one intracranial catheter and a percutaneous access device (50;140;150;160), the percutaneous access device comprising a body (10;52;152) having at least one extracorporeal surface (22;68) and at least one subcutaneous surface, the body (10;52;152) defining more than one port (12;116) for connection to an implanted intracranial catheter, each port (12;116) being accessible from the extracorporeal surface (22;68) of the device, but being provided with a seal (14;112;142;146) between the lumen of each port and the extracorporeal surface (22;68).
A guided thermal treatment system, comprising: - a thermal treatment system configured for applying thermal treatment pulses to a patient, wherein the thermal treatment pulses are spaced in time by a cool-down period, - a guidance system, configured to provide guidance to the thermal treatment, wherein the guidance system comprises a thermal module configured for calculation of the cool-down period, characterized in that the thermal module is configured to calculate the cool-down period by - calculation of a duration of a mandatory part of the cool-down period based on a thermal model using non-conservative patient model parameter values, wherein the model takes into account timing and energy of sonications as well as a positioning of an ultrasound beam path, wherein the mandatory cool-down period indicates a period during which use of a thermal treatment system is prevented; - calculation of a duration of a recommended part of the cool-down period, wherein the recommended part of the cool-down period indicates a period during which thermal pulse would result in an elevated risk of overheating in a sensitive patient, but not in a non-sensitive patient; - a thermal treatment system configured for applying thermal treatment pulses to a patient, wherein the thermal treatment pulses are spaced in time by a cool-down period, - a guidance system, configured to provide guidance to the thermal treatment, wherein the guidance system comprises a thermal module configured for calculation of the cool-down period, characterized in that the thermal module is configured to calculate the cool-down period by - calculation of a duration of a mandatory part of the cool-down period based on a thermal model using non-conservative patient model parameter values, wherein the model takes into account timing and energy of sonications as well as a positioning of an ultrasound beam path, wherein the mandatory cool-down period indicates a period during which use of a thermal treatment system is prevented; - calculation of a duration of a recommended part of the cool-down period, wherein the recommended part of the cool-down period indicates a period during which thermal pulse would result in an elevated risk of overheating in a sensitive patient, but not in a non-sensitive patient;
A wind turbine comprising a wind turbine blade with Active Circulation Control, comprising an opening disposed in an outer surface (12, 14) proximate a trailing edge of the wind turbine blade; and a plurality of active flow control devices disposed in the wind turbine blade and in fluid communication with the opening; wherein the active flow control devices produce unsteady wall-jets of pulsed fluid that flows over the trailing edge of the wind turbine blade, wherein the unsteady wall-jets of pulsed fluid comprise velocities and frequencies to thereby modify a velocity profile to increase overall lift of the wind turbine blade; and a control system operable to provide active flow control instructions to the active flow control devices in dependence on wind speed, changing structural loads of the wind turbine, or combinations thereof, to modify the velocity of the wall-jets of pulsed fluid and selectively activate said plurality of active flow control devices.
An isolated non-toxic delivery construct comprising: a modified Cholix toxin that comprises 1) amino acid residues Val 1 -Ala 386 and 2) is truncated at residue Ala 386 or deleted at residue Glu 581; and a therapeutic cargo coupled to the modified Cholix toxin, the isolated delivery construct capable of delivering the therapeutic cargo.
A system for guiding the flow of energy through a subject to stimulate the contraction of muscle tissue, comprising: a muscle stimulation pad adapted to be positioned on the skin of the subject, comprising a first pair of electrodes and a second pair of electrodes adapted to be positioned on the subject and adapted to deliver stimulation energy to the subject to stimulate the contraction of muscle tissue, wherein the system is adapted such that a first field of stimulation energy flows between the first pair of electrodes and a second field of stimulation energy flows between the second pair of electrodes; and a first impedance modification element (502, 505) positioned between the first pair of electrodes and laterally to the first field of stimulation energy on a first side of the first pair of electrodes that is opposite the second pair of electrodes, and a second impedance modification element positioned between the second pair of electrodes and laterally to the second field of stimulation energy on a second side of the second pair of electrodes that is opposite the first pair of electrodes, wherein the first and second impedance modification elements are adapted to increase the impedance of tissue within the subject to reduce lateral spreading of the first and second fields of stimulation energy delivered between the first pair of electrodes and the second pair of electrodes; and a stimulation control unit in communication with the first pair and the second pair of electrodes and configured to generate stimulating energy and to deliver the stimulating energy between the first and second pairs of electrodes.
1 - An electrode wire for machining by electrical discharge machining, said electrode wire comprising: - a metallic core, made of one or more layers of metal or of metallic alloy, - on the metallic core, a coating having an alloy different from that of the metallic core and containing more than 50% by weight of zinc, characterized in that the coating comprises delta-phase copper-zinc alloy. - a metallic core, made of one or more layers of metal or of metallic alloy, - on the metallic core, a coating having an alloy different from that of the metallic core and containing more than 50% by weight of zinc,
A rinse-off composition for cleansing hair, the composition comprising: a. at least one anionic film-forming polymer in a total amount ranging from 0.1% to 0.4 % by weight based on the total weight of the composition; b. at least one ampholytic polymer having at least one acrylic acid moiety and a cationic charge density ranging from greater than 1 meq/g up to 3.5 meq/g; and c. at least one surfactant base comprising at least one surfactant chosen from anionic surfactants, wherein the total amount of anionic surfactants ranges from 0.1% to 30% by weight of active material, based on the total weight of the composition; wherein the at least one anionic film-forming polymer and the at least one ampholytic polymer form an association resulting from at least one of electrostatic interactions, hydrogen bonding, Van Der Waals dipole-dipole interactions, steric interactions, hydrophilic interactions, and hydrophobic interactions; and wherein the pH of the composition ranges from 5 to 7, wherein the at least one anionic film-forming polymer comprises Polyacrylate-32, wherein the at least one ampholytic polymer comprises Polyquaternium-53. a. at least one anionic film-forming polymer in a total amount ranging from 0.1% to 0.4 % by weight based on the total weight of the composition; b. at least one ampholytic polymer having at least one acrylic acid moiety and a cationic charge density ranging from greater than 1 meq/g up to 3.5 meq/g; and c. at least one surfactant base comprising at least one surfactant chosen from anionic surfactants, wherein the total amount of anionic surfactants ranges from 0.1% to 30% by weight of active material, based on the total weight of the composition;
A method for producing activated carbon for an electric double layer capacitor electrode characterized in that the method comprises: an activation step of obtaining an activated carbon by mixing a raw carbon material for activated carbon with an alkali metal hydroxide, and heating the mixture in an inert gas atmosphere; a deactivation and removal step of deactivating and removing alkali metal contained in the activated carbon; a heat treatment step of heating the activated carbon passed through the deactivation and removal step, in an inert gas atmosphere, to a temperature higher than 400°C but either not higher than the heating temperature in the activation step or lower than 750°C; and a water washing step of washing the activated carbon passed through the heat treatment step with water wherein the heating temperature in the activation step is set at a temperature of higher than 600°C and lower than 800°C. an activation step of obtaining an activated carbon by mixing a raw carbon material for activated carbon with an alkali metal hydroxide, and heating the mixture in an inert gas atmosphere; a deactivation and removal step of deactivating and removing alkali metal contained in the activated carbon; a heat treatment step of heating the activated carbon passed through the deactivation and removal step, in an inert gas atmosphere, to a temperature higher than 400°C but either not higher than the heating temperature in the activation step or lower than 750°C; and a water washing step of washing the activated carbon passed through the heat treatment step with water wherein the heating temperature in the activation step is set at a temperature of higher than 600°C and lower than 800°C.
A plug-in unit configured to be coupled to a busway, the plug-in unit comprising: a housing configured to be secured to the busway; an electrical coupling assembly coupled to the housing and configured to move between an uncoupled position in which the plug-in unit is uncoupled to the busway and a coupled position in which the plug-in unit is electrically coupled to the busway, wherein the electrical coupling assembly includes movable electrical jaws configured to engage the busway to provide an electrical connection between the busway and the plug-in unit; an actuator assembly coupled to the housing and the electrical coupling assembly, the actuator assembly being configured to move the jaws of the electrical coupling assembly between the uncoupled and coupled positions, characterized in that the electrical coupling assembly further comprises: a guide mounted on the housing, the guide including two side walls, each side wall of the two side walls having a plurality of slots; and a jaws housing that is movably coupled to the guide via a plurality of posts that extend through the plurality of slots and are mounted on the jaws housing, the jaws being mounted on the jaws housing and configured to move when the jaws housing is moved. a housing configured to be secured to the busway; an electrical coupling assembly coupled to the housing and configured to move between an uncoupled position in which the plug-in unit is uncoupled to the busway and a coupled position in which the plug-in unit is electrically coupled to the busway, wherein the electrical coupling assembly includes movable electrical jaws configured to engage the busway to provide an electrical connection between the busway and the plug-in unit; an actuator assembly coupled to the housing and the electrical coupling assembly, the actuator assembly being configured to move the jaws of the electrical coupling assembly between the uncoupled and coupled positions, characterized in that the electrical coupling assembly further comprises: a guide mounted on the housing, the guide including two side walls, each side wall of the two side walls having a plurality of slots; and a jaws housing that is movably coupled to the guide via a plurality of posts that extend through the plurality of slots and are mounted on the jaws housing, the jaws being mounted on the jaws housing and configured to move when the jaws housing is moved. a guide mounted on the housing, the guide including two side walls, each side wall of the two side walls having a plurality of slots; and a jaws housing that is movably coupled to the guide via a plurality of posts that extend through the plurality of slots and are mounted on the jaws housing, the jaws being mounted on the jaws housing and configured to move when the jaws housing is moved.
A DPD inhibitor for use in a combined treatment with an anticancer agent selected from 5-FU or a 5-FU prodrug for minimizing neurotoxicity associated with treating a cancer patient with a combination comprising the DPD inhibitor and the anticancer agent selected from 5-FU and a 5-FU prodrug, the combined treatment comprising first administering a DPD inhibitor at a dose sufficient to substantially eliminate DPD activity in both nervous and non-nervous tissues, wherein the DPD inhibitor is eniluracil and is administered at a dose of 16-40 mg/m 2, and thereafter administering the 5-FU or 5-FU prodrug, wherein the 5-FU or 5-FU prodrug is administered at a dose such that the 5-FU or 5-FU generated from the 5-FU prodrug is present in the patient in at least 5-fold excess of the DPD inhibitor and at a time when at least 3-5 elimination half-lives for the DPD inhibitor have passed since the DPD inhibitor was administered, wherein the 5-FU prodrug is selected from the group consisting of 5-fluorouridine, 5-fluorocytidine, 5-fluoro-2-deoxyuridine, 5-fluoro-2-deoxycytidine, 5'-deoxy-4',5-fluorouridine, and 5-fluoroarabinosyluracil, 5'-Deoxy-5-fluorouridine, 1-(2-tetrahydrofuranyl)-5-fluorouracil, 1-C 1-8 alkylcarbamoyl-5-fluorouracil derivative, 1-(2-tetrahydrofuryl)-5-fluorouracil, and 5'-deoxy-5-fluoro-N-[(pentyloxy)carbonyl]-cytidine (capecitabine).
A method for the production of a tissue substitute comprising culturing cells in the presence of one or more macro molecular crowders, wherein the macro molecular crowders are large poly-dispersed macromolecules, and wherein one of the macromolecular crowders is carrageenan.