mhurhangee/ep-ind-claims huggingface dataset:
A computer program product comprising a non-transitory, machine-readable medium storing instructions which, when executed by at least one programmable processor, cause the at least one programmable processor to perform, in a system comprising a diagnostic-quality CT scanner for imaging a patient, a radiation therapy device positioned adjacent the diagnostic-quality CT scanner and a patient couch configured to position the patient for imaging and for radiation therapy by translating the patient between the diagnostic-quality CT scanner and the radiation therapy device, operations comprising: receiving a treatment plan for the delivery of radiation therapy; receiving diagnostic-quality CT images from the diagnostic-quality CT scanner; morphing the treatment plan onto the diagnostic-quality CT images by applying deformable image registration to the treatment plan; assessing a quality of dose distribution for the treatment plan; and reoptimizing the treatment plan when the quality of dose distribution is determined to be suboptimal. receiving a treatment plan for the delivery of radiation therapy; receiving diagnostic-quality CT images from the diagnostic-quality CT scanner; morphing the treatment plan onto the diagnostic-quality CT images by applying deformable image registration to the treatment plan; assessing a quality of dose distribution for the treatment plan; and reoptimizing the treatment plan when the quality of dose distribution is determined to be suboptimal.
A compound of a Formula I: wherein: X is -NH- or -N(CH 3)-; L is O; Z is -CH(O-R 1)-, -O- or -C(=O)-; R 1 is H, -C -C 1-21 alkyl; in free or salt form; optionally in an isolated or purified free or salt form. X is -NH- or -N(CH 3)-; L is O; Z is -CH(O-R 1)-, -O- or -C(=O)-; R 1 is H, -C -C 1-21 alkyl; in free or salt form;
A potential measurement device comprising: a plurality of read-out electrodes arranged in an array shape and configured to detect an action potential of a living cell generated at an action potential generation point due to a chemical change; a reference electrode configured to detect a reference potential; and an amplification unit (14A, 14B) configured to obtain a potential difference between a detection potential detected by each of the read-out electrodes and a detection potential detected by the reference electrode, wherein the amplification unit (14A, 14B) comprises a plurality of differential amplifiers, and each of the plurality of differential amplifiers is provided in direct vicinity of one corresponding read-out electrode of the plurality of read-out electrodes and at an equal distance from the reference electrode and the read-out electrode; wherein an electrode size of the reference electrode is larger than the electrode size of each of the read-out electrodes, wherein the reference electrode includes a plurality of opening portions within a plane of the reference electrode, and the read-out electrodes are arranged in such a manner that the read-out electrodes are respectively located within the opening portions of the reference electrode. a plurality of read-out electrodes arranged in an array shape and configured to detect an action potential of a living cell generated at an action potential generation point due to a chemical change; a reference electrode configured to detect a reference potential; and an amplification unit (14A, 14B) configured to obtain a potential difference between a detection potential detected by each of the read-out electrodes and a detection potential detected by the reference electrode, wherein the amplification unit (14A, 14B) comprises a plurality of differential amplifiers, and each of the plurality of differential amplifiers is provided in direct vicinity of one corresponding read-out electrode of the plurality of read-out electrodes and at an equal distance from the reference electrode and the read-out electrode; wherein the amplification unit (14A, 14B) comprises a plurality of differential amplifiers, and each of the plurality of differential amplifiers is provided in direct vicinity of one corresponding read-out electrode of the plurality of read-out electrodes and at an equal distance from the reference electrode and the read-out electrode; wherein an electrode size of the reference electrode is larger than the electrode size of each of the read-out electrodes, wherein the reference electrode includes a plurality of opening portions within a plane of the reference electrode, and the read-out electrodes are arranged in such a manner that the read-out electrodes are respectively located within the opening portions of the reference electrode.
A rotor of a dynamoelectric machine with a shaft, a substantially cylindrical armature, an armature winding and a drum commutator, which comprises an insulating support member and conductor segments, which are attached thereto and anchored in the support member by means of armature portions, and to which the winding wires are attached in electrically conducting relationship, with the following features: - the winding wires consist of aluminum; - the conductor segments respectively have a running-surface region consisting of copper and a terminal region consisting of aluminum or a metal that can be welded to aluminum (aluminum-compatible metal); - the armature portions consist completely of copper and are respectively part of a uniform copper structure that also comprises the respective associated running-surface region; - the terminal region comprises respectively a massive terminal lug, which projects radially relative to the brush running surface; - the conductor segments are stamped out of a strand-like two-component profile, which was formed by durably joining a copper sub-profile and an aluminum sub-profile; - the winding wires are welded at the end to the terminal lug of the respectively associated conductor segment, without being in direct contact with the running-surface regions. - the winding wires consist of aluminum; - the conductor segments respectively have a running-surface region consisting of copper and a terminal region consisting of aluminum or a metal that can be welded to aluminum (aluminum-compatible metal); - the armature portions consist completely of copper and are respectively part of a uniform copper structure that also comprises the respective associated running-surface region; - the terminal region comprises respectively a massive terminal lug, which projects radially relative to the brush running surface; - the conductor segments are stamped out of a strand-like two-component profile, which was formed by durably joining a copper sub-profile and an aluminum sub-profile; - the winding wires are welded at the end to the terminal lug of the respectively associated conductor segment, without being in direct contact with the running-surface regions.
A negative active material, comprising: a composite core comprising a carbonaceous base, and a metal or metalloid nanostructure on the carbonaceous base, wherein the metal or metalloid nanostructure is in a form of a silicon-based nanowire comprising at least one material selected from the group consisting of Si, SiO x (0<x<2), Si-Z alloy, and combinations thereof, wherein Z is an alkali metal, an alkali earth metal, an element of Group 11, 12, 13, 14, 15, and 16 of the periodic table of elements, a transition metal, a rare-earth element, or a combination thereof, and is not Si; and a coating layer formed on at least a part of the composite core and comprising a metal oxide coating layer and an amorphous carbonaceous coating layer, wherein the metal oxide coating layer comprises or consists of an oxide of at least one metal selected from the group consisting of zinc (Zn), zirconium (Zr), nickel (Ni), cobalt (Co), manganese (Mn), boron, magnesium (Mg), calcium (Ca), strontium (Sr), barium (Ba), titanium (Ti), vanadium, iron (Fe), copper (Cu), chromium (Cr), molybdenum (Mo), niobium (Nb), tantalum (Ta), and aluminum (Al). a composite core comprising a carbonaceous base, and a metal or metalloid nanostructure on the carbonaceous base, wherein the metal or metalloid nanostructure is in a form of a silicon-based nanowire comprising at least one material selected from the group consisting of Si, SiO x (0<x<2), Si-Z alloy, and combinations thereof, wherein Z is an alkali metal, an alkali earth metal, an element of Group 11, 12, 13, 14, 15, and 16 of the periodic table of elements, a transition metal, a rare-earth element, or a combination thereof, and is not Si; and a coating layer formed on at least a part of the composite core and comprising a metal oxide coating layer and an amorphous carbonaceous coating layer, wherein the metal oxide coating layer comprises or consists of an oxide of at least one metal selected from the group consisting of zinc (Zn), zirconium (Zr), nickel (Ni), cobalt (Co), manganese (Mn), boron, magnesium (Mg), calcium (Ca), strontium (Sr), barium (Ba), titanium (Ti), vanadium, iron (Fe), copper (Cu), chromium (Cr), molybdenum (Mo), niobium (Nb), tantalum (Ta), and aluminum (Al).
A method of increasing soil water content, the method comprising applying a soil enhancement agent to the soil, wherein the soil enhancement agent comprises one or both of (i) lactobionic acid and (ii) at least one salt of lactobionic acid.
An isolated peptide selected from a) a protein comprising an Orf13 sequence according to SEQ ID No. 1, and b) a homolog of Orf13 selected from the sequences according to SEQ ID No. 2 to 9, for use as a medicament. a) a protein comprising an Orf13 sequence according to SEQ ID No. 1, and b) a homolog of Orf13 selected from the sequences according to SEQ ID No. 2 to 9,
A negative electrode for a lithium ion secondary battery, comprising a negative electrode active material containing a first carbon and a second carbon, an electrical conduction aid and a binder, wherein the first carbon is spherical graphite having a ratio between length of minor axis and length of major axis of larger than 0.2, wherein the minor axis is a direction in which the length is shortest and the major axis is a direction in which the length is longest, and having a structure in which flake-like graphite is folded into a spherical form, and in which schistosity is observed, the second carbon is massive non-graphitizable carbon and/or massive artificial graphite, both having a ratio between length of minor axis and length of major axis of larger than 0.2, wherein the minor axis is a direction in which the length is shortest and the major axis is a direction in which the length is longest, and in which schistosity is not observed, and a sulfur concentration in the first carbon (Sx) and a sulfur concentration in the second carbon (Sy) are each independently 0 ppm or more and 300 mass ppm or less, and wherein the electrical conduction aid is plate-like graphite, GM(sf) is 0.1 to 1.1, wherein GM(sf) is a ratio between carboxyl group and phenol-type hydroxyl group that are surface functional groups of the first carbon, and GV(sf) is 0.1 to 1.1, wherein GV(sf) is a ratio between carboxyl group and phenol-type hydroxyl group that are surface functional groups of the second carbon.
A method of controlling an angle of attack of a rotor blade during a braking process of a rotor of a wind energy installation, the rotor comprising the rotor blade, wherein, during the braking process, a time-dependent target rotational speed is specified as a reference variable of a rotational speed controller of the wind energy installation, wherein a rotational speed of the rotor of the wind energy installation is controlled by the rotational speed controller, which, in order to control the rotational speed, changes the angle of attack of the rotor blade, characterised in that, during the braking process, the purpose of which is a reduction in the rotational speed of the rotor, the target rotational speed increases at least during some parts of the braking process.
A method for manufacturing an all-solid state secondary battery including a plurality of provisional battery bodies (7, 7), the method comprising: forming each of the provisional battery bodies (7, 7) by pressing a positive-electrode mixture layer, a solid electrolyte layer, and a negative-electrode mixture layer that are stacked between a pair of electrode current collectors (1, 5); and pressure-molding the stacked provisional battery bodies (7, 7) with the electrode current collectors (1, 5) facing each other, wherein the positive-electrode mixture layer, the solid electrolyte layer, and the negative-electrode mixture layer are powder layers, and the electrode current collectors (1, 5) facing each other have rough surfaces, the rough surfaces of the electrode current collectors (1, 5) are engaged into each other in the pressure molding so as to join the electrode current collectors (1, 5) to each other, wherein the rough surface includes a plurality of parts (d, e, f) each having a depth (h) in a range of 2 to 20 μm, the method further comprising continuously applying to the provisional battery bodies, for a predetermined time after the step of pressure-molding, a pressure not higher than the pressure of pressure molding. forming each of the provisional battery bodies (7, 7) by pressing a positive-electrode mixture layer, a solid electrolyte layer, and a negative-electrode mixture layer that are stacked between a pair of electrode current collectors (1, 5); and pressure-molding the stacked provisional battery bodies (7, 7) with the electrode current collectors (1, 5) facing each other, wherein the positive-electrode mixture layer, the solid electrolyte layer, and the negative-electrode mixture layer are powder layers, and the electrode current collectors (1, 5) facing each other have rough surfaces, the rough surfaces of the electrode current collectors (1, 5) are engaged into each other in the pressure molding so as to join the electrode current collectors (1, 5) to each other, wherein the rough surface includes a plurality of parts (d, e, f) each having a depth (h) in a range of 2 to 20 μm, the method further comprising continuously applying to the provisional battery bodies, for a predetermined time after the step of pressure-molding, a pressure not higher than the pressure of pressure molding.
An intraocular lens comprising: a single polymer matrix having crosslinkable pendant groups, wherein the polymer matrix increases in volume when crosslinked; and wherein substantially no free monomers are present therein, and wherein the pendant group is 3,9-divinyl-2,4,8,10-tetraoxy-spiro[5.5]undecane. a single polymer matrix having crosslinkable pendant groups, wherein the polymer matrix increases in volume when crosslinked; and wherein substantially no free monomers are present therein, and wherein the pendant group is 3,9-divinyl-2,4,8,10-tetraoxy-spiro[5.5]undecane.
A device comprising a liquid container (104, 200); a lid for closing the liquid container (104, 200), the lid being coupled to the liquid container (104, 200), the lid comprising an integrated pump cap (106, 202, 300), the integrated pump cap (106, 202, 300) comprising: a pump coupled to an intake port to the liquid container (104, 200); an output port configured to dispense liquid from the liquid container (104, 200); and a motor coupler comprising teeth to engage corresponding teeth in a compatible motor base, the motor coupler being rotatable to drive the pump so that contents of the liquid container (104, 200) can be dispensed through the output port; the device being characterized in that the liquid container (104, 200) comprises an outer container and an inner liner, wherein the inner liner collapses as liquid is withdrawn from the inner liner of the liquid container (104, 200). a pump coupled to an intake port to the liquid container (104, 200); an output port configured to dispense liquid from the liquid container (104, 200); and a motor coupler comprising teeth to engage corresponding teeth in a compatible motor base, the motor coupler being rotatable to drive the pump so that contents of the liquid container (104, 200) can be dispensed through the output port;
An X-ray inspection system having a device for closing and opening an X-ray beam path, the device having at least one part of a shutter body which is permanently situated in the beam path and rotatable about a longitudinal axis situated transversely with respect to the beam path, and which contains a material that is opaque to the X-ray radiation and blocks the beam path when the shutter body is in a closed rotary position, and which defines a passage that is transparent to the radiation when in an open rotary position; and having an electromagnetic drive, as drive means, that is coupled to the shutter body for rotation of same about the longitudinal axis between the rotary positions (A, B), characterized in that the electromagnetic drive is configured for moving the shutter body between the rotary positions (A, B), wherein the electromagnetic drive is a bistable magnetic drive, and each of the two rotary positions (A, B) respectively corresponds to one of two stable positions of the magnetic drive that maintains the magnetic drive without current.
A liquid crystal display comprising: first and second transparent substrates (4, 5); a liquid crystal layer squeezed between said first and second transparent substrates (4, 5), having a retardation of 300 nm or larger and 1500 nm or smaller, and vertically aligned; a first polarizer disposed on said first transparent substrate on a side opposite to said liquid crystal layer; a second polarizer disposed on said second transparent substrate on a side opposite to said liquid crystal layer and crossed-Nichol disposed relative to said first polarizer; and first and second viewing angle compensators (3c, 3d) sequentially disposed from a side of said second polarizer between said second transparent substrate and said second polarizer, each having an in-plane direction retardation larger than 0 nm and 30 nm or smaller, a thickness direction retardation of 90 nm or larger and 350 nm or smaller, and negative biaxial optical anisotropy, said first viewing angle compensator having an in-plane slow axis having an angle α1 relative to a transmission axis of said second polarizer, and said second viewing angle compensator having an angle α2 along a rotation direction opposite to a rotation direction of said angle α1, relative to the transmission axis of said second polarizer, wherein 0° < α1, α1 (°) ≤ 25 - 700/Re + 9375/Re 2, and |α1-α2| ≤ 5° are satisfied where Re is an in-plane retardation of said first viewing angle compensator in the unit of nm. first and second transparent substrates (4, 5); a liquid crystal layer squeezed between said first and second transparent substrates (4, 5), having a retardation of 300 nm or larger and 1500 nm or smaller, and vertically aligned; a first polarizer disposed on said first transparent substrate on a side opposite to said liquid crystal layer; a second polarizer disposed on said second transparent substrate on a side opposite to said liquid crystal layer and crossed-Nichol disposed relative to said first polarizer; and first and second viewing angle compensators (3c, 3d) sequentially disposed from a side of said second polarizer between said second transparent substrate and said second polarizer, each having an in-plane direction retardation larger than 0 nm and 30 nm or smaller, a thickness direction retardation of 90 nm or larger and 350 nm or smaller, and negative biaxial optical anisotropy, said first viewing angle compensator having an in-plane slow axis having an angle α1 relative to a transmission axis of said second polarizer, and said second viewing angle compensator having an angle α2 along a rotation direction opposite to a rotation direction of said angle α1, relative to the transmission axis of said second polarizer, wherein 0° < α1, α1 (°) ≤ 25 - 700/Re + 9375/Re 2, and |α1-α2| ≤ 5° are satisfied where Re is an in-plane retardation of said first viewing angle compensator in the unit of nm.
An aerosol inhaling device, comprising: a liquid supply (10a, 30) configured for storing tobacco liquid; an atomizing device (22a, 10) configured for heating the tobacco liquid to form aerosol; and a main body comprising the atomizing device and a power supply electrically connected with the atomizing device (22a, 10), the power supply being configured for supplying the atomizing device with power; the atomizing device comprising a heating element and a liquid conducting element in contact with the heating element; the aerosol inhaling device further comprising a through hole extending from the main body to the liquid supply, the liquid conducting element extending through the through hole to the liquid supply; characterized in that the main body and the liquid supply are arranged side-by-side along a longitudinal axis of the aerosol inhaling device in such a manner that the atomizing device (22a, 10) is separated from the liquid supply. a liquid supply (10a, 30) configured for storing tobacco liquid; an atomizing device (22a, 10) configured for heating the tobacco liquid to form aerosol; and a main body comprising the atomizing device and a power supply electrically connected with the atomizing device (22a, 10), the power supply being configured for supplying the atomizing device with power; the atomizing device comprising a heating element and a liquid conducting element in contact with the heating element; the aerosol inhaling device further comprising a through hole extending from the main body to the liquid supply, the liquid conducting element extending through the through hole to the liquid supply; characterized in that the main body and the liquid supply are arranged side-by-side along a longitudinal axis of the aerosol inhaling device in such a manner that the atomizing device (22a, 10) is separated from the liquid supply.
A scanning fiber device comprising: an actuator tube; a cantilevered free end portion of an optical fiber, the cantilevered free end portion of the optical fiber having an attached end that is coupled with the actuator tube and a free end to be moved by the actuator tube; at least a portion of a length of the cantilevered free end portion of the optical fiber disposed within the actuator tube; and characterized by a housing, wherein a distal portion of the actuator tube, closest to the free end of the cantilevered free end portion, is physically coupled with the housing. an actuator tube; a cantilevered free end portion of an optical fiber, the cantilevered free end portion of the optical fiber having an attached end that is coupled with the actuator tube and a free end to be moved by the actuator tube;
Headlight for automobile comprising a reflector wherein are arranged a light source producing a light beam and means for deforming the light beam, said deformation means comprising: - a rotating disconnecting strip which can be moved between at least one first position wherein it does not intercept the light beam and a second position wherein it intercepts at least one portion of the light beam; and - an electrical actuator of the disconnecting strip comprising an electric motor and a detector of the angular position of the strip using a sensor, characterised by the fact that the motor and the sensor are mounted on one single electronic circuit support. - a rotating disconnecting strip which can be moved between at least one first position wherein it does not intercept the light beam and a second position wherein it intercepts at least one portion of the light beam; and - an electrical actuator of the disconnecting strip comprising an electric motor and a detector of the angular position of the strip using a sensor,