mhurhangee/ep-ind-claims huggingface dataset:
An endoscope system comprising: • a plurality of magnetic field generating elements; • a plurality of magnetic field detecting elements; • a first generation unit configured to generate a first waveform for detecting a position of an insertion part of an endoscope to be inserted into a subject; • a second generation unit (62, 62A) configured to generate a second waveform, which is different from the first waveform in at least one of a frequency, a phase, an amplitude, or a waveform shape and is distinguishable from the first waveform; characterized in that the endoscope system further comprises: • a drive unit configured to drive the plurality of magnetic field generating elements with the second waveform and further configured to drive the plurality of magnetic field generating elements with the first waveform after driving the plurality of magnetic field generating elements with the second waveform; • a detection unit configured to detect, for each of the plurality of magnetic field detecting elements, a synchronization timing corresponding to the detection of the second waveform by each of the plurality of magnetic field detecting elements; • an acquisition unit (74, 74A) configured to acquire a signal corresponding to the first waveform detected by each of the plurality of magnetic field detecting elements on the basis of the synchronization timing detected for each of the plurality of magnetic field detecting elements; and • a derivation unit configured to derive a position of each of the plurality of magnetic field detecting elements on the basis of the signal acquired by the acquisition unit (74, 74A). • a plurality of magnetic field generating elements; • a plurality of magnetic field detecting elements; • a first generation unit configured to generate a first waveform for detecting a position of an insertion part of an endoscope to be inserted into a subject; • a second generation unit (62, 62A) configured to generate a second waveform, which is different from the first waveform in at least one of a frequency, a phase, an amplitude, or a waveform shape and is distinguishable from the first waveform; • a drive unit configured to drive the plurality of magnetic field generating elements with the second waveform and further configured to drive the plurality of magnetic field generating elements with the first waveform after driving the plurality of magnetic field generating elements with the second waveform; • a detection unit configured to detect, for each of the plurality of magnetic field detecting elements, a synchronization timing corresponding to the detection of the second waveform by each of the plurality of magnetic field detecting elements; • an acquisition unit (74, 74A) configured to acquire a signal corresponding to the first waveform detected by each of the plurality of magnetic field detecting elements on the basis of the synchronization timing detected for each of the plurality of magnetic field detecting elements; and • a derivation unit configured to derive a position of each of the plurality of magnetic field detecting elements on the basis of the signal acquired by the acquisition unit (74, 74A).
Magnetic resonance tomography device for mapping a medical instrument on a trajectory in real time, wherein the magnetic resonance tomography device has a controller, wherein the controller is designed to capture a first slice by means of 3D encoding, wherein the controller selects the position of the first slice as a function of the trajectory and the slice thickness as a function of a predetermined distortion of the magnetic resonance tomography device during mapping, so that the trajectory is captured in full by the first slice; the controller is designed to capture a second slice by means of 3D encoding, wherein the controller selects a position of the second slice as a function of the trajectory and the slice thickness as a function of a predetermined distortion of the magnetic resonance tomography device during mapping, so that the trajectory is captured in full by the second slice; wherein the controller is designed to select the position of the first slice and the second slice such that the first slice and the second slice confine an angle greater than 20 degrees, and the trajectory of the medical instrument and/or the medical instrument lies in an intersecting volume of the first slice and the second slice; the controller is designed to generate a sequence of two-dimensional images of the medical instrument in a predetermined plane, wherein the sequence contains images that were generated from the first slice and images that were generated from the second slice; and the controller is designed to output the sequence of two-dimensional images to a user. wherein the controller is designed to capture a first slice by means of 3D encoding, wherein the controller selects the position of the first slice as a function of the trajectory and the slice thickness as a function of a predetermined distortion of the magnetic resonance tomography device during mapping, so that the trajectory is captured in full by the first slice; the controller is designed to capture a second slice by means of 3D encoding, wherein the controller selects a position of the second slice as a function of the trajectory and the slice thickness as a function of a predetermined distortion of the magnetic resonance tomography device during mapping, so that the trajectory is captured in full by the second slice; wherein the controller is designed to select the position of the first slice and the second slice such that the first slice and the second slice confine an angle greater than 20 degrees, and the trajectory of the medical instrument and/or the medical instrument lies in an intersecting volume of the first slice and the second slice; the controller is designed to generate a sequence of two-dimensional images of the medical instrument in a predetermined plane, wherein the sequence contains images that were generated from the first slice and images that were generated from the second slice; and the controller is designed to output the sequence of two-dimensional images to a user.
A vane arc segment (60; 160) for a gas turbine engine comprising: an airfoil piece including a first platform, a second platform, and an airfoil section between the first platform and the second platform, at least the first platform being formed of a fiber-reinforced composite and defining a radial flange; and a cap fitted on the radial flange; and characterised in that: the cap includes first and second radial walls (80a, 80b), a tangential wall joining the first and second radial walls (80a, 80b) and an aft radial wall that is oblique to the first and second radial walls (80a, 80b) and the tangential wall; the cap is friction-fit on the radial flange; and in that the cap mechanically constrains the radial flange. an airfoil piece including a first platform, a second platform, and an airfoil section between the first platform and the second platform, at least the first platform being formed of a fiber-reinforced composite and defining a radial flange; and a cap fitted on the radial flange; and characterised in that: the cap includes first and second radial walls (80a, 80b), a tangential wall joining the first and second radial walls (80a, 80b) and an aft radial wall that is oblique to the first and second radial walls (80a, 80b) and the tangential wall; the cap is friction-fit on the radial flange; and in that the cap mechanically constrains the radial flange. the cap includes first and second radial walls (80a, 80b), a tangential wall joining the first and second radial walls (80a, 80b) and an aft radial wall that is oblique to the first and second radial walls (80a, 80b) and the tangential wall; the cap is friction-fit on the radial flange; and in that the cap mechanically constrains the radial flange.
A transfer device equipped with a conveying section, a pretreatment section and a transfer section, wherein the conveying section conveys a fabric to the transfer section; the pretreatment section supplies a pretreatment liquid to one side of the fabric; the transfer section is located downstream of the pretreatment section in a conveying direction of the conveying section; and an image on a transfer medium is transferred to the fabric by pressing and heating a surface of the fabric supplied with the pretreatment liquid by the pretreatment section and the transfer medium. wherein the conveying section conveys a fabric to the transfer section; the pretreatment section supplies a pretreatment liquid to one side of the fabric; the transfer section is located downstream of the pretreatment section in a conveying direction of the conveying section; and an image on a transfer medium is transferred to the fabric by pressing and heating a surface of the fabric supplied with the pretreatment liquid by the pretreatment section and the transfer medium.
Method of cutting electrode foils intended for use in a battery cell, at least by a particle stream; characterized in that the method is being carried out with at least one cutting device comprising at least one nozzle having an outlet, a particle feed line and a gas feed line and comprises at least the following steps: a) providing an electrode foil with a surface; b) placing the outlet above the electrode foil at a distance from the surface; c) introducing a first gas stream from the gas feed line into the cutting device; d) introducing at least particles from the particle feed line into the cutting device; e) mixing the first gas stream and at least the particles in the cutting device to form the particle stream; f) subjecting the electrode foil to the particle stream emerging from the outlet so that the electrode foil is separated. a) providing an electrode foil with a surface; b) placing the outlet above the electrode foil at a distance from the surface; c) introducing a first gas stream from the gas feed line into the cutting device; d) introducing at least particles from the particle feed line into the cutting device; e) mixing the first gas stream and at least the particles in the cutting device to form the particle stream; f) subjecting the electrode foil to the particle stream emerging from the outlet so that the electrode foil is separated.
A device for printing printed sheets by means of a printing forme-free printing device in a sheet-fed printing press comprising at least one printing unit, in which a sheet-guiding impression cylinder is provided, wherein one or a plurality of print heads are each arranged opposite the surface of the impression cylinder, which guides a sheet, the printing forme-free printing device is arranged in one of the printing units of the sheet-fed printing press on a guide device, which performs a set-down movement, wherein the printing forme-free printing device can be integrated into the sheet-fed printing press at a guide device, which performs a movement, which has at least one radial component, to the impression cylinder, and can be positioned on the impression cylinder opposite the sheet-guiding surface, characterized in that the printing forme-free printing device, in combination with a guide device, which is configured as parallelogram guide, can be integrated into the sheet-fed printing press for performing a swing-in and swing-out movement relative to the surface of the impression cylinder.
A toilet cleaning block containing perfume, at least one non-ionic surfactant, at least one alkylbenzene sulfonate and at least one olefin sulfonate, characterized in that the block can be formed into a rotationally symmetrical body in a rolling machine or a press, and in that a fatty alcohol alkoxylate is contained, the toilet cleaning block consisting of differently composed masses and one of the masses being wholly or partially enclosed by the other mass(es), the toilet cleaning block containing 10 to 30 wt.% olefin sulfonate and containing 20 to 65 wt.% alkylbenzene sulfonate.
A device for testing a sleep apnea implant during an implantation procedure, the device comprising: an implant activator configured to selectively transfer power to the sleep apnea implant during the implantation procedure to cause modulation of at least one hypoglossal nerve prior to final fixation of the sleep apnea implant to tissue, wherein the implant activator includes a power source and the power transferred to the sleep apnea implant is supplied by the power source, wherein the power source is configured to wirelessly transfer power from the power source to the sleep apnea implant, wherein the implant activator is selectively moveable toward and away from the sleep apnea implant, characterized in that the implant activator includes a processor configured to regulate the power transfer to the sleep apnea implant. an implant activator configured to selectively transfer power to the sleep apnea implant during the implantation procedure to cause modulation of at least one hypoglossal nerve prior to final fixation of the sleep apnea implant to tissue, wherein the implant activator includes a power source and the power transferred to the sleep apnea implant is supplied by the power source, wherein the power source is configured to wirelessly transfer power from the power source to the sleep apnea implant, wherein the implant activator is selectively moveable toward and away from the sleep apnea implant, characterized in that the implant activator includes a processor configured to regulate the power transfer to the sleep apnea implant.
A method of operating a molding apparatus having a plurality of molding cavities, comprising measuring a pressure profile for a first molding cavity and a second molding cavity; comparing the pressure profiles; adjusting an operational parameter of the molding apparatus to obtain the same pressure profile within all of the molding cavities, wherein measuring a pressure profile comprises measuring the molten material pressure using a core assembly of the mold cavity, characterized in that the measuring comprises measuring the in-mold pressure using the entire active surface of the core assembly.
A method for producing a smart card body receiving a semiconductor chip, wherein in a carrier material at least one lead frame of the smart card body is formed, said smart card body being connected to the carrier material via at least one material strip, and in which an electrically insulating casing with a cavity for receiving the semiconductor chip, is formed by surrounding the lead frame with the casing, characterized in that, before or during the forming of the casing the one material strip or the material strips connecting the lead frame with the carrier material are separated, so that the one material strip or the material strips are separated into a first strip part connected with the carrier material and a second strip part connected with the lead frame, respectively, thereby forming an interspace, and that when forming the casing the first strip part as well as the second strip part, respectively, of the one or the material strips are comprised by the casing.
A topical formulation comprising at least one anticholinergic compound for use in treating patients suffering from severe hyperhidrosis, wherein administration of the formulation to the patient comprises: a) an initial phase with a topical administration of a predetermined amount of the formulation 5 to 7 times per week for a total time period of less than six months; followed by b) a maintenance phase with a topical administration of the same amount of the formulation 1 to less than 5 times per week, wherein the anticholinergic compound is a glycopyrronium salt that is contained in an amount of 0.05 to 5 wt.%, based on the weight of the total formulation. a) an initial phase with a topical administration of a predetermined amount of the formulation 5 to 7 times per week for a total time period of less than six months; followed by b) a maintenance phase with a topical administration of the same amount of the formulation 1 to less than 5 times per week,
A wirelessly locatable tag configured to transmit a wireless signal to an electronic device used for a localization of the wirelessly locatable tag by the electronic device, comprising: a first housing member defining: a first exterior surface of the wirelessly locatable tag; and an interior surface opposite the first exterior surface; a second housing member defining a second exterior surface of the wirelessly locatable tag; a first antenna configured to transmit the wireless signal using a first wireless protocol; a second antenna configured to communicate using a second wireless protocol different than the first wireless protocol; and an audio system comprising: a magnet assembly configured to produce a magnetic field; and a coil positioned within the magnetic field and coupled to the interior surface of the first housing member, the coil configured to interact with the magnetic field to impart a force on the first housing member, thereby moving a portion of the first housing member to produce an audible output having a first frequency; wherein the audio system is configured to produce a tactile output having a second frequency different from the first frequency. a first housing member defining: a first exterior surface of the wirelessly locatable tag; and an interior surface opposite the first exterior surface; a first exterior surface of the wirelessly locatable tag; and an interior surface opposite the first exterior surface; a second housing member defining a second exterior surface of the wirelessly locatable tag; a first antenna configured to transmit the wireless signal using a first wireless protocol; a second antenna configured to communicate using a second wireless protocol different than the first wireless protocol; and an audio system comprising: a magnet assembly configured to produce a magnetic field; and a coil positioned within the magnetic field and coupled to the interior surface of the first housing member, the coil configured to interact with the magnetic field to impart a force on the first housing member, thereby moving a portion of the first housing member to produce an audible output having a first frequency; wherein a magnet assembly configured to produce a magnetic field; and a coil positioned within the magnetic field and coupled to the interior surface of the first housing member, the coil configured to interact with the magnetic field to impart a force on the first housing member, thereby moving a portion of the first housing member to produce an audible output having a first frequency; wherein the audio system is configured to produce a tactile output having a second frequency different from the first frequency.
A method of enhancing growth and killing of pathogens in plants, wherein the process includes the application of a carrier medium on plants and / or seeds and / or tubers and / or seedlings, the carrier medium being obtainable by means of an electric influence process, comprising the following steps: placing the water to be treated in an electrically-powered cell, alignment of the charges and free electrons in the electric field, separation of the charges by motion and the resulting Electrostatic induction, and collection and remittance of de-electronised, positively or negatively charged fraction, characterized in that negatively charged carrier medium or a mixture of positively and negatively charged carrier medium is applied, or a sequence of firstly positively charged carrier medium, then negatively and vice versa. placing the water to be treated in an electrically-powered cell, alignment of the charges and free electrons in the electric field, separation of the charges by motion and the resulting Electrostatic induction, and collection and remittance of de-electronised, positively or negatively charged fraction, characterized in that negatively charged carrier medium or a mixture of positively and negatively charged carrier medium is applied, or a sequence of firstly positively charged carrier medium, then negatively and vice versa.
A method of producing a ceramic-metal bonded body (20, 60) by bonding a ceramic plate (22, 62) to a metal supporting base (28, 64) with a bonding sheet (32, 66) containing an acrylic resin or a silicone resin as a main component, the method comprising: a pre-bake step of heating the bonding sheet (32, 66) in air, in an inert gas, or in a vacuum in advance to reduce the amount of volatile components in the bonding sheet (32, 66); and a bonding step of bonding the plate (22, 62) to the supporting base (28, 64) with the bonding sheet (32, 66) therebetween by placing the plate (22, 62), the supporting base (28, 64) and the bonding sheet (32, 66) in an airtight bag, reducing pressure in the airtight bag and performing heating at a temperature lower than that of the pre-bake step while applying a pressure in an autoclave; wherein the heating conditions in the pre-bake step are 15 to 30 hours at 2000 Pa or less, and at 120°C to 130°C in the case that the bonding sheet (32, 66) contains an acrylic resin as a main component, or at 140°C to 170°C in the case that the bonding sheet (32, 66) contains a silicone resin as a main component. a pre-bake step of heating the bonding sheet (32, 66) in air, in an inert gas, or in a vacuum in advance to reduce the amount of volatile components in the bonding sheet (32, 66); and a bonding step of bonding the plate (22, 62) to the supporting base (28, 64) with the bonding sheet (32, 66) therebetween by placing the plate (22, 62), the supporting base (28, 64) and the bonding sheet (32, 66) in an airtight bag, reducing pressure in the airtight bag and performing heating at a temperature lower than that of the pre-bake step while applying a pressure in an autoclave; wherein the heating conditions in the pre-bake step are 15 to 30 hours at 2000 Pa or less, and at 120°C to 130°C in the case that the bonding sheet (32, 66) contains an acrylic resin as a main component, or at 140°C to 170°C in the case that the bonding sheet (32, 66) contains a silicone resin as a main component. at 120°C to 130°C in the case that the bonding sheet (32, 66) contains an acrylic resin as a main component, or at 140°C to 170°C in the case that the bonding sheet (32, 66) contains a silicone resin as a main component.