mhurhangee/ep-ind-claims huggingface dataset:
An injection-moulding machine, having a first platen (8.1), which is designed for carrying a first mould half (7.1) of an injection mould, a second platen (8.2), which is designed for carrying a second mould half (7.2) of the injection mould in such a way that in a closed state of the injection mould the first mould half (7.1) and the second mould half (7.2) delimit at least one cavity of the injection mould, and having an index shaft, which is mounted rotatably and axially adjustably on the injection-moulding machine outside the injection mould, is rotationally driven by means of a motor of the injection-moulding machine arranged outside the injection mould and has an end portion (13.1) which protrudes into the injection mould in the installed position of the injection mould in the injection-moulding machine, is designed for fastening on the index shaft an index plate to be arranged within the injection mould and has at least one channel which is designed to feed a fluid to the index plate or to remove a fluid from the index plate, wherein by means of the index shaft, driven by the motor, the index plate is automatically adjustable between a first plate position of the index plate and at least one second plate position of the index plate, and wherein the motor has a hollow motor shaft, through which the fluid is passed.
An output control apparatus connected to an audio output apparatus (23 1 -23 2), configured to control output of audio data, comprising: a receiving means for receiving encoded data obtained by encoding multi-channel audio data; a decoding means for decoding the encoded data; an output control means for controlling output of a predetermined number of channels of audio data among the multi-channel audio data obtained by the decoding; a transmitting means (68, 69) for transmitting the encoded data to the audio output apparatus connected through an integrated cable formed by integrating at least a video line, an audio line, and a control line; and a control means for controlling the audio output apparatus through the integrated cable, wherein the integrated cable is a High Definition Multimedia Interface cable, wherein the control means is configured to control the audio output apparatus via a Consumer Electronics Control line of the High Definition Multimedia Interface cable, and wherein the transmitting means is configured to transmit the encoded data via an Audio Return Channel line of the High Definition Multimedia Interface cable to the audio output apparatus. a receiving means for receiving encoded data obtained by encoding multi-channel audio data; a decoding means for decoding the encoded data; an output control means for controlling output of a predetermined number of channels of audio data among the multi-channel audio data obtained by the decoding; a transmitting means (68, 69) for transmitting the encoded data to the audio output apparatus connected through an integrated cable formed by integrating at least a video line, an audio line, and a control line; and a control means for controlling the audio output apparatus through the integrated cable, wherein the integrated cable is a High Definition Multimedia Interface cable, wherein the control means is configured to control the audio output apparatus via a Consumer Electronics Control line of the High Definition Multimedia Interface cable, and wherein the transmitting means is configured to transmit the encoded data via an Audio Return Channel line of the High Definition Multimedia Interface cable to the audio output apparatus.
An ophthalmic surgical system comprising: an ultrafast light source for producing a pulsed laser beam; a scanner configured to deflect the laser beam to an eye of a patient; and a controller operatively coupled to the scanner, the controller configured to: operate the scanner to scan the laser beam in a rotationally asymmetric treatment pattern to form a rotationally asymmetric capsulorhexis incision. an ultrafast light source for producing a pulsed laser beam; a scanner configured to deflect the laser beam to an eye of a patient; and a controller operatively coupled to the scanner, the controller configured to: operate the scanner to scan the laser beam in a rotationally asymmetric treatment pattern to form a rotationally asymmetric capsulorhexis incision.
An electronic device including a camera module (170, 1170), the camera module comprising: a camera lens module; a housing (1210, 1220) that covers the camera lens module and in which the housing includes an opening that exposes at least a portion of the camera lens module; a camera window that covers the opening of the housing; a first adhesive layer attached to the camera window; a deco adapted to support the rigidity of the camera module and to prevent an inflow of contaminants, the deco being disposed on the housing and covering the opening, and a second adhesive layer disposed between the housing and the deco, and attached to the deco, characterized in the housing comprising a cover surrounding the opening of the housing and comprising a cover edge surrounding the cover, the cover and the cover edge providing a stepped configuration, the cover edge being formed at a higher level, the camera window being fixed to the cover of the housing by the first adhesive layer disposed between the cover and the camera window, and the deco comprising a band and an inclined sidewall, the band being fixed to the cover edge by a second adhesive layer disposed between the cover edge of the housing and the deco. a camera lens module; a housing (1210, 1220) that covers the camera lens module and in which the housing includes an opening that exposes at least a portion of the camera lens module; a camera window that covers the opening of the housing; a first adhesive layer attached to the camera window; a deco adapted to support the rigidity of the camera module and to prevent an inflow of contaminants, the deco being disposed on the housing and covering the opening, and a second adhesive layer disposed between the housing and the deco, and attached to the deco, characterized in the housing comprising a cover surrounding the opening of the housing and comprising a cover edge surrounding the cover, the cover and the cover edge providing a stepped configuration, the cover edge being formed at a higher level, the camera window being fixed to the cover of the housing by the first adhesive layer disposed between the cover and the camera window, and the deco comprising a band and an inclined sidewall, the band being fixed to the cover edge by a second adhesive layer disposed between the cover edge of the housing and the deco.
Radome for a radar sensor in a motor vehicle, the at least one wall of which is provided on a first surface with at least one three-dimensional first structure, a second surface which is opposite the first surface comprising at least one second structure (7, 34) which is adapted to the at least one first structure (6, 35) such that the optical path for electromagnetic waves is substantially the same at points of the wall (14, 36) having a structure and at points of the wall having no structure, characterised in that the at least one first structure (6, 35) is a longitudinal bulge and the at least one second structure (7, 34) is a longitudinal recess.
A method for instant splicing of an optical fiber (4") to an optical waveguide or bulk material, comprising forming a nanometric electrically conductive layer at the one surface or both surfaces to be spliced between said optical fiber (4") and said optical waveguide or bulk material to be spliced, and applying laser radiation (34, 38) to said one surface or both surfaces to be spliced through said optical fiber (4") internally or through said bulk material externally to produce an arc discharge due to the laser light electric field.
A coating liquid for forming a metal oxide thin film, comprising: an inorganic indium compound; an inorganic calcium compound or an inorganic strontium compound, or both thereof; a glycol ether; and at least one diol, wherein the at least one diol is one or more selected from diethylene glycol, 1,2-propanediol and 1,3-butanediol. an inorganic indium compound; an inorganic calcium compound or an inorganic strontium compound, or both thereof; a glycol ether; and at least one diol, wherein the at least one diol is one or more selected from diethylene glycol, 1,2-propanediol and 1,3-butanediol.
An assembly for tightly covering an elongate member of predetermined dimensions with an elastic protection sleeve, comprising: - said sleeve; - two tubular cores (212, 212') for holding expanded said sleeve, which are disposed end to end, covered tightly by said sleeve, and configured to receive internally said elongate member, each said tubular core (212, 212') extending between a first end (217, 217') and a second end (218, 218'), said first ends (217, 217') facing each other; - for each tubular core (212, 212'), a slide film (213, 213') placed between said sleeve and said each core (212, 212'), to enable each core to slide relative to said sleeve; and - a device for holding the two cores configured for the two cores be able to move apart from each other from the initial state in which they are end to end then be stopped; said assembly being characterized in that said device for holding the two cores (212, 212') is configured for the two cores be able to move apart from each other, from the initial state in which they are end to end, until they are apart at most by a predetermined distance, said device for holding the two cores (212, 212') being configured so that the movement of the cores (212, 212') can be stopped by the device for holding when the two cores are spaced apart by said predetermined distance, at which the inside diameter of the sleeve between the first ends (217, 217') is at least similar to the inside diameter of the cores (212, 212'), whereby said assembly with the two cores (212, 212') thus apart can still be repositioned; said device for holding being configured for one can make cease its stopping action of the movement of the cores (212, 212') when the two cores are spaced apart by said predetermined distance. - said sleeve; - two tubular cores (212, 212') for holding expanded said sleeve, which are disposed end to end, covered tightly by said sleeve, and configured to receive internally said elongate member, each said tubular core (212, 212') extending between a first end (217, 217') and a second end (218, 218'), said first ends (217, 217') facing each other; - for each tubular core (212, 212'), a slide film (213, 213') placed between said sleeve and said each core (212, 212'), to enable each core to slide relative to said sleeve; and - a device for holding the two cores configured for the two cores be able to move apart from each other from the initial state in which they are end to end then be stopped;
Multilayer film containing at least one substrate film, at least one thin layer which is vapour-deposited, under vacuum, on a first side of the substrate film with a thickness of from 0.01 to 50 nm and contains at least one catalyst intended for oxygen reduction, and at least one polymer layer arranged over the thin layer on the first side of the substrate film, the polymer layer being a polymer film and being arranged over an adhesive layer, the adhesive layer and the polymer film being arranged over the thin layer and the adhesive layer covering only some of the surface of the thin layer in the form of a pattern in order to increase the rate at which oxygen is reduced, characterised in that the polymer film consists of a non-woven fabric.
A method for positron emission tomography imaging that accounts for attenuation by magnetic resonance hardware, the method comprising: imaging a patient with an optical camera, the imaging capturing an image of the patient and the MR hardware; generating an attenuation coefficient map for the MR hardware relative to the patient from the image; and performing the PET imaging using attenuation correction based, at least in part, on the attenuation coefficient map for the MR hardware, characterized by, the generating comprises outputting the attenuation coefficient map as fit to the patient by a machine-learned model receiving the image as input. imaging a patient with an optical camera, the imaging capturing an image of the patient and the MR hardware; generating an attenuation coefficient map for the MR hardware relative to the patient from the image; and performing the PET imaging using attenuation correction based, at least in part, on the attenuation coefficient map for the MR hardware, characterized by, the generating comprises outputting the attenuation coefficient map as fit to the patient by a machine-learned model receiving the image as input.
A method for crimping an electrical terminal to an electrical wire having electrical conductors, the method comprising the following steps: positioning the electrical wire and the electrical terminal between opposing crimp tooling members (108 and 110) of a crimp tool; and pressing a crimp barrel of the electrical terminal against the electrical conductors of the electrical wire using the crimp tooling members (108 and 110) such that the electrical conductors are mechanically and electrically connected to the crimp barrel, characterized in that the crimp barrel is pressed against the electrical conductors such that at least some contact portions of metallic surfaces of at least some of the electrical conductors melt and form hot weld bonds with one or more contact portions of the metallic surface of one or more adjacent electrical conductors, wherein pressing the crimp barrel against the electrical conductors comprises moving the crimp tooling members (108 and 110) toward each other at a speed of at least 30 meters per second being sufficiently high to cause the at least some contact portions of the metallic surfaces to melt. positioning the electrical wire and the electrical terminal between opposing crimp tooling members (108 and 110) of a crimp tool; and pressing a crimp barrel of the electrical terminal against the electrical conductors of the electrical wire using the crimp tooling members (108 and 110) such that the electrical conductors are mechanically and electrically connected to the crimp barrel, characterized in that the crimp barrel is pressed against the electrical conductors such that at least some contact portions of metallic surfaces of at least some of the electrical conductors melt and form hot weld bonds with one or more contact portions of the metallic surface of one or more adjacent electrical conductors, wherein pressing the crimp barrel against the electrical conductors comprises moving the crimp tooling members (108 and 110) toward each other at a speed of at least 30 meters per second being sufficiently high to cause the at least some contact portions of the metallic surfaces to melt.
A liquid crystal display device comprising: an upper substrate; a lower substrate opposing the upper substrate and comprising a data line and a gate line insulated from the data line; a liquid crystal layer between the lower substrate and the upper substrate; a current sensing unit which detects a data current (I_data) based on a data signal applied to the data line so as to detect a change in a liquid crystal capacitance of the liquid crystal layer; an amplifier which amplifies the detected data current (I data) so as to generate and output a rectified signal (I_rec) characterized by a reference voltage (Vref) conversion unit which sets a reference voltage (Vref) proportional to a voltage difference between data signals successively applied to the data line in real time in an operating state in which the display panel displays image information; a pulse generator which generates a sensing pulse by comparing the rectified signal (I_rec) with; the reference voltage (Vref) to detect the portion of the rectified signal (I_rec) exceeding the reference voltage (Vref); and a duty width detector which detects the pulse width of the sensing pulse generated by the pulse generator, wherein, for a given temperature of the liquid crystal layer, the reference voltage conversion unit is adapted to set the reference voltage (Vref) such that the pulse width of the sensing pulse generated by the pulse generator is kept constant regardless of the data signal value. an upper substrate; a lower substrate opposing the upper substrate and comprising a data line and a gate line insulated from the data line; a liquid crystal layer between the lower substrate and the upper substrate; a current sensing unit which detects a data current (I_data) based on a data signal applied to the data line so as to detect a change in a liquid crystal capacitance of the liquid crystal layer; an amplifier which amplifies the detected data current (I data) so as to generate and output a rectified signal (I_rec) characterized by a reference voltage (Vref) conversion unit which sets a reference voltage (Vref) proportional to a voltage difference between data signals successively applied to the data line in real time in an operating state in which the display panel displays image information; a pulse generator which generates a sensing pulse by comparing the rectified signal (I_rec) with; the reference voltage (Vref) to detect the portion of the rectified signal (I_rec) exceeding the reference voltage (Vref); and a duty width detector which detects the pulse width of the sensing pulse generated by the pulse generator, wherein, for a given temperature of the liquid crystal layer, the reference voltage conversion unit is adapted to set the reference voltage (Vref) such that the pulse width of the sensing pulse generated by the pulse generator is kept constant regardless of the data signal value.
An ultrasonic diagnostic imaging system for identifying a fetal heartbeat, the system comprising: an ultrasound probe including an array transducer; an image processor adapted to process echo data from the probe for display; an image display coupled to the image processor and adapted to display an ultrasound image including a fetal heart; and a graphics generator responsive to a user control that identifies a region of interest in the ultrasound image;, wherein the imaging system is adapted to initiate generation of a plurality of spatially different M-mode lines associated with the region of interest and to acquire echo data corresponding to the spatially different M-mode lines and analyze the echo data to identify the fetal heartbeat associated with at least one of the spatially different M-mode lines, characterized in that the system is further adapted to rank the acquired echo data based on fetal heart rates measured for each of the corresponding M-mode lines. an ultrasound probe including an array transducer; an image processor adapted to process echo data from the probe for display; an image display coupled to the image processor and adapted to display an ultrasound image including a fetal heart; and a graphics generator responsive to a user control that identifies a region of interest in the ultrasound image;, wherein the imaging system is adapted to initiate generation of a plurality of spatially different M-mode lines associated with the region of interest and to acquire echo data corresponding to the spatially different M-mode lines and analyze the echo data to identify the fetal heartbeat associated with at least one of the spatially different M-mode lines, characterized in that the system is further adapted to rank the acquired echo data based on fetal heart rates measured for each of the corresponding M-mode lines.
A modular auxiliary switch comprising: a housing including a first housing part and a separate second housing part secured to the first housing part; a printed circuit board housed in one of the first housing part and the second housing part, the printed circuit board having a first side facing the first housing part and a second opposite side facing the second housing part; an actuator mechanism housed in the first housing part and coupled to the printed circuit board; and a first electrical contactor separate from and selectively mounted to the printed circuit board so that a first electrical contact surface of the first electrical contactor overlaps and is in direct contact with one of the first side and the second side to define a first electrical contact pad on the printed circuit board. a housing including a first housing part and a separate second housing part secured to the first housing part; a printed circuit board housed in one of the first housing part and the second housing part, the printed circuit board having a first side facing the first housing part and a second opposite side facing the second housing part; an actuator mechanism housed in the first housing part and coupled to the printed circuit board; and a first electrical contactor separate from and selectively mounted to the printed circuit board so that a first electrical contact surface of the first electrical contactor overlaps and is in direct contact with one of the first side and the second side to define a first electrical contact pad on the printed circuit board.
A method of manufacturing a structure comprising a plurality of elongate nanostructures, adapted to be transferred to a noncrystalline layer, said method comprising the steps of: - providing a substrate, - providing a plurality of elongate nanostructures on said substrate, said nanostructures extending from the substrate such that the angle defined by the axis of elongation of each nanostructure and the surface normal of the substrate is smaller than 55 degrees, - depositing at least one layer of material after the provision of the plurality of elongate nanostructures, such that at least the exposed regions of the substrate are covered by said material, wherein said depositing step comprises depositing at least two layers, comprising an isotropically deposited oxide layer directly on the substrate and a further deposited layer, - removing the substrate and after that removing said oxide layer, such that the further deposited layer becomes the lowermost layer, - exposing at least the lower extremities of the respective elongate nanostructures of the plurality of elongate nanostructures. - providing a substrate, - providing a plurality of elongate nanostructures on said substrate, said nanostructures extending from the substrate such that the angle defined by the axis of elongation of each nanostructure and the surface normal of the substrate is smaller than 55 degrees, - depositing at least one layer of material after the provision of the plurality of elongate nanostructures, such that at least the exposed regions of the substrate are covered by said material, wherein said depositing step comprises depositing at least two layers, comprising an isotropically deposited oxide layer directly on the substrate and a further deposited layer, - removing the substrate and after that removing said oxide layer, such that the further deposited layer becomes the lowermost layer, - exposing at least the lower extremities of the respective elongate nanostructures of the plurality of elongate nanostructures.
A composition for producing extrusion-molded hollow bodies comprising a) from 85 to 99.5 percent of an inorganic material that sets as a result of baking or sintering, and b) from 0.5 to 15 percent of a methyl cellulose having a DS(methyl) of from 1.10 to 1.61, based on the total weight of the inorganic material a) and the methyl cellulose b). a) from 85 to 99.5 percent of an inorganic material that sets as a result of baking or sintering, and b) from 0.5 to 15 percent of a methyl cellulose having a DS(methyl) of from 1.10 to 1.61, based on the total weight of the inorganic material a) and the methyl cellulose b).