mhurhangee/ep-ind-claims huggingface dataset:
A method of generating AC voltage / current in a resonant network including at least one first capacitance, at least one first inductor and at least one reactive component (CM, LM) comprising: generating AC voltage / current in the resonant network by at least one first transistor (Qv1, Qv2), controlling the AC voltage / AC current amplitude in the resonant network, wherein the operating voltage or the operating current of the AC voltage / AC current generation of the resonant network is controlled, coupling the at least one reactive component (CM, LM) to the first capacitor and / or to the first inductor for a variable subinterval of a resonance network period, through at least one second transistor (Q1a, Q1b, Q01...Q0n), by means of an ON/OFF coupling signal, altering the subinterval coupling of the at least one reactive component (CM, LM) with the first capacitor and/or with the first inductance through the at least one second transistor (Q1a, Q1b, Q01...Q0n), which is characterized in that the subinterval coupling changes as a function of time in such a way that AC voltage / AC current in the resonant network or a radiated field thereof is distributed over a frequency range between a minimum frequency and a maximum frequency, or in that the subinterval coupling changes a resonant frequency of the resonant network as a function of time in such a way that AC voltage / AC current in the resonant network or a radiated field thereof is distributed over a frequency range between a minimum frequency and a maximum frequency. generating AC voltage / current in the resonant network by at least one first transistor (Qv1, Qv2), controlling the AC voltage / AC current amplitude in the resonant network, wherein the operating voltage or the operating current of the AC voltage / AC current generation of the resonant network is controlled, coupling the at least one reactive component (CM, LM) to the first capacitor and / or to the first inductor for a variable subinterval of a resonance network period, through at least one second transistor (Q1a, Q1b, Q01...Q0n), by means of an ON/OFF coupling signal, altering the subinterval coupling of the at least one reactive component (CM, LM) with the first capacitor and/or with the first inductance through the at least one second transistor (Q1a, Q1b, Q01...Q0n), which is characterized in that the subinterval coupling changes as a function of time in such a way that AC voltage / AC current in the resonant network or a radiated field thereof is distributed over a frequency range between a minimum frequency and a maximum frequency, or in that the subinterval coupling changes a resonant frequency of the resonant network as a function of time in such a way that AC voltage / AC current in the resonant network or a radiated field thereof is distributed over a frequency range between a minimum frequency and a maximum frequency.
Hydroelectric and/or wind power plant comprising a carrying device, which is mounted such that it can be rotated about an axis of rotation and has a plurality of oncoming-flow elements (6-9, 28-35), which are mounted such that they can be pivoted about a respective pivot axis (11-14, 36-43) and against which air or water can flow, in order to drive rotation of the carrying device, and also comprising a generator to provide electricity when the carrying device rotates, wherein the pivot axes (11-14, 36-43) run at an angle, in particular at an angle of more than 60° or perpendicularly, to the axis of rotation, wherein a respective pivoting region of the respective oncoming-flow element (6-9, 28-35), within which the respective oncoming-flow element (6-9, 28-35) can be pivoted about the pivot axis (11-14, 36-43), is delimited on one side by a stop region of the carrying device, wherein the stop regions are formed by rods, which extend parallel to the axis of rotation, wherein the carrying device comprises two disc-form carrying elements, which are located at an angle of at least 60°, preferably perpendicularly, to the axis of rotation, are spaced apart from one another in the direction of the axis of rotation and on which at least some of the oncoming-flow elements (6-9, 28-35) are mounted in a pivotable manner, characterized in that the carrying elements are connected rigidly to one another, wherein the rods are fastened in each case on both carrying elements at a fastening position which is spaced apart radially from the axis of rotation.
A nucleic acid molecule comprising a nucleotide sequence encoding a consensus fusion E6/E7 HPV antigen selected from the group consisting of: SEQ ID NO:1, fragments comprising at least 786 nucleotides of SEQ ID NO:1 and having at least 90% identity to SEQ ID NO:1 and wherein said fragments encode immunogens that enhance immune responses against HPV; and combinations thereof.
Process for capturing CO 2 and SO 2 consisting of the following stages: a) introduction of one aqueous current of calcium hydroxide and another of gaseous carbon dioxide into a bubble column scrubber-reactor to form calcium carbonate; b) introduction of the calcium carbonate from stage a) into a bubble column scrubber-reactor in which a current of a gaseous mixture of carbon dioxide and sulphur dioxide is introduced to form calcium sulphite and carbon dioxide; c) transformation of the calcium sulphite of stage b) into the sulphate of this metal by oxidation with air; and d) recirculation of the carbon dioxide not reacted and produced in stage b), into the reactor of stage a); characterised in that an additional stage e) is performed in which the sulphate from stage c) is made to react with a caustic soda solution to obtain calcium hydroxide and a solution of sodium sulphate. a) introduction of one aqueous current of calcium hydroxide and another of gaseous carbon dioxide into a bubble column scrubber-reactor to form calcium carbonate; b) introduction of the calcium carbonate from stage a) into a bubble column scrubber-reactor in which a current of a gaseous mixture of carbon dioxide and sulphur dioxide is introduced to form calcium sulphite and carbon dioxide; c) transformation of the calcium sulphite of stage b) into the sulphate of this metal by oxidation with air; and d) recirculation of the carbon dioxide not reacted and produced in stage b), into the reactor of stage a); characterised in that an additional stage e) is performed in which the sulphate from stage c) is made to react with a caustic soda solution to obtain calcium hydroxide and a solution of sodium sulphate.
Illuminated frame system for framing a display unit, such as a screen and the like, comprising a frame on which lighting means, preferably in the form of LEDs, for illuminating the frame are arranged, wherein the frame frames a frame interior, in which the display unit is to be arranged, and is made up of a plurality of frame parts (2a, 2b,..., 2n) and wherein shading means for shading the frame interior from light emitted by the lighting means are associated with the lighting means, wherein the mentioned frame parts (2a, 2b,..., 2n) are connected to one another, wherein a profile recess, which is open in the direction of a frame front side, for arranging the lighting means in a recessed manner is provided, wherein a profile flank which delimits the lighting means recessed in the profile recess screens the lighting means with respect to the frame interior, characterized in that the mentioned frame parts (2a, 2b,..., 2n) at their end sections (7, 8) comprise complementary connecting means being engageable in a form-fit manner.
An operation platform (1; 100), comprising: a platform base; a movement mechanism connectable to said platform base and, when so connected, configured for displacement of the platform base; at least two operation tool zones (30; 130) on said platform base, each having a cavity receiving therein a compartment (54; 154) receiving an operation tool (50; 150) therein; and at least one boom assembly having a first end fixable to said platform base, and a second free end (14; 114), the boom assembly being controllable for displacing said second free end (14; 114) towards at least one of said at least two operation tool zones (30; 130), coupling the second free end (14; 114) to the operation tool (50; 150) accommodated within said at least one of said at least two operation tool zones (30; 130), and maneuvering said second free end (14; 114) with said operation tool (50; 150) coupled thereto; characterized in that in said at least one of said at least two operation tool zones (30; 130), said operation tool (50; 150) located in said compartment (54; 154) is accessible with said at least one boom assembly through an open upper end in said compartment (54; 154) and hidden when said operation platform (1; 100) is viewed from a lateral side thereof. a platform base; a movement mechanism connectable to said platform base and, when so connected, configured for displacement of the platform base; at least two operation tool zones (30; 130) on said platform base, each having a cavity receiving therein a compartment (54; 154) receiving an operation tool (50; 150) therein; and at least one boom assembly having a first end fixable to said platform base, and a second free end (14; 114), the boom assembly being controllable for displacing said second free end (14; 114) towards at least one of said at least two operation tool zones (30; 130), coupling the second free end (14; 114) to the operation tool (50; 150) accommodated within said at least one of said at least two operation tool zones (30; 130), and maneuvering said second free end (14; 114) with said operation tool (50; 150) coupled thereto; characterized in that in said at least one of said at least two operation tool zones (30; 130), said operation tool (50; 150) located in said compartment (54; 154) is accessible with said at least one boom assembly through an open upper end in said compartment (54; 154) and hidden when said operation platform (1; 100) is viewed from a lateral side thereof.
A nucleic acid molecule, selected from the group consisting of: (a) a nucleic acid molecule having the nucleotide sequence depicted in SEQ ID NO: 1, (b) a nucleic acid molecule which encodes a peptide having the amino acid sequence depicted in SEQ ID NO:2, (c) a nucleic acid molecule, the complementary strand of which hybridizes to a nucleic acid molecule of (a) or (b) and which encodes a peptide that binds to the ciliary neurotrophic factor receptor (CNTFR), wherein the peptide binds to the interleukin-6 receptor (IL-6R) with a lower affinity than the ciliary-neutrophic factor, (d) nucleic acid molecule, the nucleotide sequence of which differs from the nucleotide sequence of a nucleic acid molecule of (c) due to the degeneration of the genetic code, wherein the codon in position 82-84 of the nucleic acid molecule of (a) encodes a non-positively charged amino acid and the peptide has a non-positively charged amino residue in position 28 shown in SEQ ID NO: 2. (a) a nucleic acid molecule having the nucleotide sequence depicted in SEQ ID NO: 1, (b) a nucleic acid molecule which encodes a peptide having the amino acid sequence depicted in SEQ ID NO:2, (c) a nucleic acid molecule, the complementary strand of which hybridizes to a nucleic acid molecule of (a) or (b) and which encodes a peptide that binds to the ciliary neurotrophic factor receptor (CNTFR), wherein the peptide binds to the interleukin-6 receptor (IL-6R) with a lower affinity than the ciliary-neutrophic factor, (d) nucleic acid molecule, the nucleotide sequence of which differs from the nucleotide sequence of a nucleic acid molecule of (c) due to the degeneration of the genetic code,
An endoscope comprising a first component and a second component, with a light source installed in said first component, and with the second component having a proximal end detachably coupled to the first component, and a distal end with image capturing element such as a camera chip or a fibre optics component arranged in said distal end, and with an optical waveguide comprising at least one light-conducting fibre extending through the second component for directing light of the light source from the proximal end to the distal end and emitting said light at the distal end; and preferably comprising a power supply line for electrically powering the camera chip; and wherein said light source comprises at least one laser for emitting primary light, and a converter which at least partially converts the light of the laser into light of a different wavelength and emits the light, wherein the converter is coupled to the proximal end of the second component which is coupled to the first component in such a way that the light converted and emitted by the converter is injected into the optical waveguide; characterized in that the at least one light-conducting fibre is a glass fibre and has a diameter ranging from 100 μm to 1000 μm. wherein said light source comprises at least one laser for emitting primary light, and a converter which at least partially converts the light of the laser into light of a different wavelength and emits the light, wherein the converter is coupled to the proximal end of the second component which is coupled to the first component in such a way that the light converted and emitted by the converter is injected into the optical waveguide; characterized in that the at least one light-conducting fibre is a glass fibre and has a diameter ranging from 100 μm to 1000 μm.
An injection molding apparatus having a separation type mold, including a cavity mold formed with a cavity surface for defining a cavity in which a molten injection material is injected, a core mold formed with a core surface for defining the cavity upon engagement with the cavity mold and installed to be movable forward and backward to open or close the cavity by guidance of a guide pin, an injection unit for injecting a material into the cavity during an injection process, and an injection controller for controlling a hydraulic cylinder to move the core mold forward or backward and the injection unit to inject the material into the cavity, wherein the core mold is divided into a thinner intermediate core mold plate having the core surface and a thicker core mold support plate, and the core mold includes a guide pin extending from the core mold support plate to be inserted into a first guide hole formed in the cavity mold upon movement of the core mold toward the cavity mold and fitted through the intermediate core mold plate to allow the intermediate core mold plate to move only forward and backward, and a first elastic member installed between the intermediate core mold plate and the core mold support plate to allow the intermediate core mold plate and the core mold support plate to be separated from each other by means of elastic force when the core mold moves backward to open the cavity; and wherein the injection molding apparatus further comprises a first heating means installed to a parting surface of the intermediate core mold plate to heat the intermediate core mold plate, a first cooling means for cooling the core mold support plate, and a mold temperature controller for controlling the first heating and cooling means (33, 43) to control a temperature of the intermediate core mold plate during the injection process, and wherein the first heating means includes an electric heater inserted into a groove formed in the parting surface of the intermediate core mold plate, and the first cooling means includes a coolant pipe installed in the core mold support plate to allow a coolant to flow through the coolant pipe, and wherein the injection molding apparatus further comprises a copper member filled in a space between the electric heater and the groove to facilitate heat transfer.
A computer-implemented medical data processing method for determining a positional pattern of an irradiation unit for irradiating a patient with treatment radiation, the irradiation unit being part of a gantry of an irradiation treatment device having an imaging device for generating a medical image of the patient, the method comprising executing, on at least one processor of at least one computer, steps of: a) acquiring, at the at least one processor, irradiation unit position data describing irradiation unit positions of the gantry for which the imaging device has a free viewing direction onto the position of the patient which is a free line of sight from the imaging device to the position of the patient, wherein the free line of sight is not impeded by the gantry; b) determining, by the at least one processor and based on the irradiation unit position data, position orders data describing all possible orders of the irradiation unit positions for which the imaging device has a free viewing direction onto the position of the patient; c) determining, by the at least one processor and based on the irradiation unit position data and the position orders data and per order described by the position orders data, intersection angle data describing a statistical quantity of the intersection angles between free viewing directions of the imaging device for irradiation unit positions which are immediately subsequent in the order described by the position orders data; d) determining, by the at least one processor and based on the intersection angle data and the position orders data, optimal order data describing an order of the irradiation unit positions for which the statistical quantity is maximal. a) acquiring, at the at least one processor, irradiation unit position data describing irradiation unit positions of the gantry for which the imaging device has a free viewing direction onto the position of the patient which is a free line of sight from the imaging device to the position of the patient, wherein the free line of sight is not impeded by the gantry; b) determining, by the at least one processor and based on the irradiation unit position data, position orders data describing all possible orders of the irradiation unit positions for which the imaging device has a free viewing direction onto the position of the patient; c) determining, by the at least one processor and based on the irradiation unit position data and the position orders data and per order described by the position orders data, intersection angle data describing a statistical quantity of the intersection angles between free viewing directions of the imaging device for irradiation unit positions which are immediately subsequent in the order described by the position orders data; d) determining, by the at least one processor and based on the intersection angle data and the position orders data, optimal order data describing an order of the irradiation unit positions for which the statistical quantity is maximal.
A susceptibility sensor for detecting relative movement between an object to be sensed, and the sensor, comprising: a Robinson marginal oscillator having a plurality of electrical properties; a tank circuit connected to the Robinson marginal oscillator and arranged to generate a sensor electromagnetic field when energized by the oscillator; means for detecting electromagnetic energy losses resulting from changes in the electrical or magnetic susceptibility presented to the sensor electromagnetic field as the object to be sensed moves relative to the sensor; and a sensor output, coupled to the means for detecting the electromagnetic energy losses, and arranged to generate a sensor output signal dependent upon the electromagnetic energy losses which are detected. a Robinson marginal oscillator having a plurality of electrical properties; a tank circuit connected to the Robinson marginal oscillator and arranged to generate a sensor electromagnetic field when energized by the oscillator; means for detecting electromagnetic energy losses resulting from changes in the electrical or magnetic susceptibility presented to the sensor electromagnetic field as the object to be sensed moves relative to the sensor; and a sensor output, coupled to the means for detecting the electromagnetic energy losses, and arranged to generate a sensor output signal dependent upon the electromagnetic energy losses which are detected.
An apparatus for quantitatively detecting isotopologue of carbon dioxide using dual-photon absorption, comprising: a laser source, a laser frequency stabilizer, a sample chamber, a signal detector, and a signal analyzer, wherein: the sample chamber comprises an optical resonator and a piezoelectric ceramic; the laser source is configured to output a laser beam; the laser frequency stabilizer is configured to lock the laser beam to a mode frequency of the optical resonator; the piezoelectric ceramic is configured to adjust a length of the optical resonator to alter the mode frequency of the optical resonator to match energy levels of a target molecular isotopologue; the signal detector is configured to detect a transmission intensity of the light beam passing the optical resonator to obtain a dual-photon absorption signal; and the signal analyzer is configured to analyze and process the dual-photon absorption signal to obtain a concentration of the target molecular isotopologue; wherein the energy levels of the target molecular isotopologue comprise energy levels of dual-photon absorption, and an energy level representing single-photon absorption is between the energy levels of dual-photon absorption; characterized in that energy of a photon having the mode frequency matching the energy levels of the target molecular isotopologue is equal to a half of an energy difference between the energy levels of the target molecular isotopologue. the sample chamber comprises an optical resonator and a piezoelectric ceramic; the laser source is configured to output a laser beam; the laser frequency stabilizer is configured to lock the laser beam to a mode frequency of the optical resonator; the piezoelectric ceramic is configured to adjust a length of the optical resonator to alter the mode frequency of the optical resonator to match energy levels of a target molecular isotopologue; the signal detector is configured to detect a transmission intensity of the light beam passing the optical resonator to obtain a dual-photon absorption signal; and the signal analyzer is configured to analyze and process the dual-photon absorption signal to obtain a concentration of the target molecular isotopologue; wherein the energy levels of the target molecular isotopologue comprise energy levels of dual-photon absorption, and an energy level representing single-photon absorption is between the energy levels of dual-photon absorption; characterized in that energy of a photon having the mode frequency matching the energy levels of the target molecular isotopologue is equal to a half of an energy difference between the energy levels of the target molecular isotopologue.