mhurhangee/ep-ind-claims huggingface dataset:
A core arrangement for a heat exchanger, the core arrangement comprising: a plurality of inlets arranged around an axis; a plurality of outlets arranged around the axis; and a plurality of bowed conduits arranged around the axis and extending axially, connecting the plurality of inlets to the plurality of outlets, wherein the plurality of bowed conduits are structurally independent and bow outward from the axis between the plurality of inlets and the plurality of outlets; and characterized in that the plurality of bowed conduits comprise a plurality of inlet sections, wherein each of the plurality of inlet sections comprises one of the inlets of the plurality of inlets at a first end and an outlet branching section at a second end, opposite the first end, that branches to form a plurality of inlet section outlets. a plurality of inlets arranged around an axis; a plurality of outlets arranged around the axis; and a plurality of bowed conduits arranged around the axis and extending axially, connecting the plurality of inlets to the plurality of outlets, wherein the plurality of bowed conduits are structurally independent and bow outward from the axis between the plurality of inlets and the plurality of outlets; and characterized in that the plurality of bowed conduits comprise a plurality of inlet sections, wherein each of the plurality of inlet sections comprises one of the inlets of the plurality of inlets at a first end and an outlet branching section at a second end, opposite the first end, that branches to form a plurality of inlet section outlets.
A wind measurement coherent lidar that emits laser light with a single frequency into an atmosphere and receives the laser light, and that carries out wind velocity detection from a received signal obtained through heterodyne detection, the wind measurement coherent lidar comprising: a noise spectral recorder that records a noise spectrum in a state without emitting the laser light; a noise spectral differential unit that subtracts an intensity of the noise spectrum from a spectrum of the received signal in a dB-scale domain and converts a result of the subtraction into a signal spectrum of a linear-scale domain; an offset corrector that obtains an offset value at a frequency position separated from a frequency peak position of the signal spectrum of the linear-scale domain by a prescribed value and performs offset correction on a noise level of the signal spectrum of the linear-scale domain by using the obtained offset value; a frequency shift analyzer that measures a frequency shift by performing signal processing of the signal spectrum after the offset correction; and a wind velocity converter that detects wind velocity from an amount of the frequency shift. a noise spectral recorder that records a noise spectrum in a state without emitting the laser light; a noise spectral differential unit that subtracts an intensity of the noise spectrum from a spectrum of the received signal in a dB-scale domain and converts a result of the subtraction into a signal spectrum of a linear-scale domain; an offset corrector that obtains an offset value at a frequency position separated from a frequency peak position of the signal spectrum of the linear-scale domain by a prescribed value and performs offset correction on a noise level of the signal spectrum of the linear-scale domain by using the obtained offset value; a frequency shift analyzer that measures a frequency shift by performing signal processing of the signal spectrum after the offset correction; and a wind velocity converter that detects wind velocity from an amount of the frequency shift.
A method of forming a light emitting device, the method comprising: providing a first wavelength converting layer and a second wavelength converting layer mounted on a film, each wavelength converting layer comprising a bottom surface attached to the film, an oppositely positioned top surface, and sidewalls connecting the top and bottom surfaces, the wavelength converting layers mounted to the film with a sidewall of the first wavelength converting layer and an adjacent sidewall of the second wavelength converting layer spaced apart from each other by a distance Y; wherein: providing the first wavelength converting layer and the second wavelength converting layer mounted on the film comprises: mounting the first wavelength converting layer and the second wavelength converting layer on the film with the spacing between the adjacent sidewalls a distance X less than Y; and after mounting the first wavelength converting layer and the second wavelength converting layer on the film, expanding the film to increase the spacing between the first wavelength converting layer and the second wavelength converting layer to the distance Y; applying an optical isolation material within at least part of the expanded space between the adjacent sidewalls of the first wavelength converting layer and the second wavelength converting layer; and after applying the optical isolation material contracting the film to reduce the spacing between the adjacent sidewalls to a distance Z less than Y. mounting the first wavelength converting layer and the second wavelength converting layer on the film with the spacing between the adjacent sidewalls a distance X less than Y; and after mounting the first wavelength converting layer and the second wavelength converting layer on the film, expanding the film to increase the spacing between the first wavelength converting layer and the second wavelength converting layer to the distance Y; applying an optical isolation material within at least part of the expanded space between the adjacent sidewalls of the first wavelength converting layer and the second wavelength converting layer; and after applying the optical isolation material contracting the film to reduce the spacing between the adjacent sidewalls to a distance Z less than Y.
A method of interfacing, the method comprising: outputting a plurality of icons (202, 203, 204) to a display embodying a three-dimensional space; determining a radius of rotation of each icon (202, 203, 204), based on a distance between the icon (202, 203, 204) and a rotation axis in the three-dimensional space; receiving a touch input for performing dragging on the display; and controlling the icons (202, 203, 204) to rotate around the rotation axis based on the radius of rotation of each icon when the touch input is received; the method being characterized in that: controlling the icons (202, 203, 204) comprises determining a rotation amount of the icons (202, 203, 204) based on a length of the dragging, and determining a rotation speed of each icon (202, 203, 204) based on a frequency of selecting the icon (202, 203, 204); wherein the rotation speed of a more frequently selected icon (202, 203, 204) is increased when the icon (202, 203, 204) is located at a location far from the display surface; and wherein the rotation speed of a more frequently selected icon (202, 203, 204) is reduced when the icon (202, 203, 204) is located at a location near to the display surface. outputting a plurality of icons (202, 203, 204) to a display embodying a three-dimensional space; determining a radius of rotation of each icon (202, 203, 204), based on a distance between the icon (202, 203, 204) and a rotation axis in the three-dimensional space; receiving a touch input for performing dragging on the display; and controlling the icons (202, 203, 204) to rotate around the rotation axis based on the radius of rotation of each icon when the touch input is received; the method being characterized in that: controlling the icons (202, 203, 204) comprises determining a rotation amount of the icons (202, 203, 204) based on a length of the dragging, and determining a rotation speed of each icon (202, 203, 204) based on a frequency of selecting the icon (202, 203, 204); wherein the rotation speed of a more frequently selected icon (202, 203, 204) is increased when the icon (202, 203, 204) is located at a location far from the display surface; and wherein the rotation speed of a more frequently selected icon (202, 203, 204) is reduced when the icon (202, 203, 204) is located at a location near to the display surface. controlling the icons (202, 203, 204) comprises determining a rotation amount of the icons (202, 203, 204) based on a length of the dragging, and determining a rotation speed of each icon (202, 203, 204) based on a frequency of selecting the icon (202, 203, 204); wherein the rotation speed of a more frequently selected icon (202, 203, 204) is increased when the icon (202, 203, 204) is located at a location far from the display surface; and wherein the rotation speed of a more frequently selected icon (202, 203, 204) is reduced when the icon (202, 203, 204) is located at a location near to the display surface.
A method for manufacturing a polarized lens, comprising the steps of: (a) providing a front lens mold (210; 310; 410) having a concave surface with a curvature; (b) spin-coating a hard coat composition onto the concave surface of the front lens mold to form a hard coat layer (220; 320; 420) thereon; (c) forming a first adhesive layer (230; 530; 430) on the hard coat layer; (d) placing a polarized film (240; 340; 440) on the adhesive layer; (e) curing the adhesive layer with UV or visible light to bond the polarized film to the hard coat layer, thereby forming a polarized front lens mold; and (f) forming a polarized lens (250; 350) with the polarized front lens mold. (a) providing a front lens mold (210; 310; 410) having a concave surface with a curvature; (b) spin-coating a hard coat composition onto the concave surface of the front lens mold to form a hard coat layer (220; 320; 420) thereon; (c) forming a first adhesive layer (230; 530; 430) on the hard coat layer; (d) placing a polarized film (240; 340; 440) on the adhesive layer; (e) curing the adhesive layer with UV or visible light to bond the polarized film to the hard coat layer, thereby forming a polarized front lens mold; and (f) forming a polarized lens (250; 350) with the polarized front lens mold.
An electronic device, comprising: a housing having a base and having a lid that rotates relative to the base; a rigid flex printed circuit having a first rigid printed circuit board portion in the lid, a second rigid printed circuit board portion in the base, and a flexible printed circuit portion that extends between the first rigid printed circuit board portion and the second rigid printed circuit board portion; a display in the lid; and a display timing controller integrated circuit mounted on the second rigid printed circuit board portion in the base; characterized by: a single metal signal line layer that forms part of the first rigid printed circuit board portion, the second rigid printed circuit board portion, and the flexible printed circuit board portion, wherein the single metal signal line layer is in a neutral stress plane of the flexible printed circuit portion that extends between the first rigid printed circuit board portion and the second rigid printed circuit board portion. a housing having a base and having a lid that rotates relative to the base; a rigid flex printed circuit having a first rigid printed circuit board portion in the lid, a second rigid printed circuit board portion in the base, and a flexible printed circuit portion that extends between the first rigid printed circuit board portion and the second rigid printed circuit board portion; a display in the lid; and a display timing controller integrated circuit mounted on the second rigid printed circuit board portion in the base; characterized by: a single metal signal line layer that forms part of the first rigid printed circuit board portion, the second rigid printed circuit board portion, and the flexible printed circuit board portion, wherein the single metal signal line layer is in a neutral stress plane of the flexible printed circuit portion that extends between the first rigid printed circuit board portion and the second rigid printed circuit board portion.
An image pickup device comprising: a photographing optical system having a central optical system disposed at a central region and a circular optical system disposed at an outer portion of the central optical system which are arranged along the same optical axis; a directional sensor having plural pixels including two-dimensionally arranged photoelectric conversion elements, the directional sensor including plural pixels for selectively receiving light beams of light fluxes which are incident via the central optical system and the circular optical system by applying pupil division; and an image readout device that acquires from the directional sensor each of an image signal representing a first image received via the central optical system and an image signal representing a second image received via the circular optical system, wherein the directional sensor has directional characteristics depending on pupil shapes of the central optical system and the circular optical system at an image surface position, characterized in that the directional sensor has a microlens serving as pupil division means, the microlens dividing a pupil image and each divided pupil image entering a pixel, and the number of the pixels allocated to one microlens decreases from the center toward the periphery. a photographing optical system having a central optical system disposed at a central region and a circular optical system disposed at an outer portion of the central optical system which are arranged along the same optical axis; a directional sensor having plural pixels including two-dimensionally arranged photoelectric conversion elements, the directional sensor including plural pixels for selectively receiving light beams of light fluxes which are incident via the central optical system and the circular optical system by applying pupil division; and an image readout device that acquires from the directional sensor each of an image signal representing a first image received via the central optical system and an image signal representing a second image received via the circular optical system, wherein the directional sensor has directional characteristics depending on pupil shapes of the central optical system and the circular optical system at an image surface position, characterized in that the directional sensor has a microlens serving as pupil division means, the microlens dividing a pupil image and each divided pupil image entering a pixel, and the number of the pixels allocated to one microlens decreases from the center toward the periphery.
Device for detecting the mechanical forces at the welding pin tip in the procedure of friction stir welding, the device having the following features: a) a strip-shaped sensor on a longitudinal side of a tool bell which by way of a pin shaft by means of a tool receptacle conus and a welding shoe holds a welding pin, wherein the sensor is configured for determining force, pressure, or path, and is attached to that side of the tool bell that is counter to the flow direction of the welding process; b) a tailored conus feature in the comparatively wide region of the tool receptacle conus, which serves for receiving a sensor for determining the axial force, the torque, and the bending moment at the welding pin; c) a further tailored conus feature in the forward region of the tool receptacle conus, having at least three sensors, which are distributed on the circumference so as to be spaced apart by 120 degrees, and a piezoelectric force-measuring sensor in the longitudinal axis of the pin shaft; d) a sensor signal amplifier having a rotary antenna for receiving, for amplifying, and for transmitting all detected measured values, wherein these measured values are transmitted by a static antenna to a machine controller; and e) an inductive power supply system for supplying the measuring system from a moving secondary coil and from a stationary primary coil. a) a strip-shaped sensor on a longitudinal side of a tool bell which by way of a pin shaft by means of a tool receptacle conus and a welding shoe holds a welding pin, wherein the sensor is configured for determining force, pressure, or path, and is attached to that side of the tool bell that is counter to the flow direction of the welding process; b) a tailored conus feature in the comparatively wide region of the tool receptacle conus, which serves for receiving a sensor for determining the axial force, the torque, and the bending moment at the welding pin; c) a further tailored conus feature in the forward region of the tool receptacle conus, having at least three sensors, which are distributed on the circumference so as to be spaced apart by 120 degrees, and a piezoelectric force-measuring sensor in the longitudinal axis of the pin shaft; d) a sensor signal amplifier having a rotary antenna for receiving, for amplifying, and for transmitting all detected measured values, wherein these measured values are transmitted by a static antenna to a machine controller; and e) an inductive power supply system for supplying the measuring system from a moving secondary coil and from a stationary primary coil.
A catalyst comprising an Ir layer having an outer layer with a layer comprising Pt directly thereon, wherein the Ir layer has an average thickness in a range from 0.04 to 30 nanometers, wherein the layer comprising Pt has an average thickness in a range from 0.04 to 50 nanometers, wherein the Pt and Ir are present in an atomic ratio in a range from 0.01:1 to 10:1, and wherein the catalyst further comprises nanoscopic metal crystallites extending from the surface of the catalyst.
A method for preparing an ERI framework type molecular sieve, comprising: (a) preparing a reaction mixture containing: at least one source of silicon oxide; at least one source of aluminum oxide; one or more sources of one or more elements selected from Groups 1 and 2 of the Periodic Table; hydroxide ions; a N,N'-dimethyl-1,4-diazabicyclo[2.2.2]octane dication; optionally, 18-crown-6; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve; wherein the molecular sieve is prepared from a reaction mixture comprising, in terms of mole ratios, the following: SiO 2 /Al 2 O 3 20 to 40 M/SiO 2 0.1 to 0.6 (Q + A)/SiO 2 0.1 to 0.5 OH/SiO 2 0.2 to 0.7 H 2 O/SiO 2 10 to 25 wherein: M is selected from the group consisting of elements from Groups 1 and 2 of the Periodic Table; Q is a N,N'-dimethyl-1,4-diazabicyclo[2.2.2]octane dication, and Q > 0; and A is 18-crown-6, and A ≥ 0. (a) preparing a reaction mixture containing: at least one source of silicon oxide; at least one source of aluminum oxide; one or more sources of one or more elements selected from Groups 1 and 2 of the Periodic Table; hydroxide ions; a N,N'-dimethyl-1,4-diazabicyclo[2.2.2]octane dication; optionally, 18-crown-6; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve; M is selected from the group consisting of elements from Groups 1 and 2 of the Periodic Table; Q is a N,N'-dimethyl-1,4-diazabicyclo[2.2.2]octane dication, and Q > 0; and A is 18-crown-6, and A ≥ 0.
Method for operating a medical apparatus control system comprising at least one mobile control unit, for at least one medical apparatus, with at least one radio receiving module for detecting and forwarding radio signals, a control device connected to the mobile control unit, and at least one separate mobile radio transmitting module enabled to communicate with the radio receiving module, wherein the at least one radio transmitting module is configured to send an identification feature to the radio receiving module, and the control device is configured to detect a signal, having the identification feature, detected by the radio receiving module and forwarded to the control device, to compare the identification feature with the stored identification features, and to release an operating function of the mobile control unit after a positive result of comparison, wherein the at least one radio transmitting module sends a signal having its identification feature, the radio receiving module receives the signal and forwards it to the control device, the control device compares the identification feature with stored identification features, and the control device releases the operating function of the mobile control unit if the result of comparison is positive, characterized in that a respective password is stored for the identification feature of each radio transmitting module, and the mobile control unit outputs a prompt corresponding to the identification feature, and releases the operating function of the mobile control unit if the appropriate password is additionally input, and upon a first login at the medical apparatus control system, a long-password being more extensive than the password is input, the medical apparatus control system reverses the release after a predefined period in which the mobile control unit is not operated, and a login with the input of the password subsequently occurs.
Hearing device having a housing suitable for being at least partially inserted into an ear canal, comprising: a barrier configured to be releasably connectable to the housing and the barrier being configured to prevent foreign matter inside the ear canal from passing, the barrier being a dome, the barrier comprising a body having a surface, and a first part of the surface having formed thereon a structure, which is a microstructure or a nanostructure, and the first part is at least partially constituted by a guiding structure of the dome, wherein a part of the surface outside the first part having a first hydrophobicity and the first part having a second, higher, hydrophobicity, and the first part is thus configured to hinder the foreign matter from adhering thereto, and the structure and the body are monolithic. a barrier configured to be releasably connectable to the housing and the barrier being configured to prevent foreign matter inside the ear canal from passing, the barrier being a dome, the barrier comprising a body having a surface, and a first part of the surface having formed thereon a structure, which is a microstructure or a nanostructure, and the first part is at least partially constituted by a guiding structure of the dome, wherein a part of the surface outside the first part having a first hydrophobicity and the first part having a second, higher, hydrophobicity, and the first part is thus configured to hinder the foreign matter from adhering thereto, and the structure and the body are monolithic.
A method for startup of a catalytic oxidation unit for an aircraft using catalytic oxidation comprising: flowing air from an air source into the catalytic oxidation unit; recycling air from an outlet of the catalytic oxidation unit to an inlet of the catalytic oxidation unit through a recycle duct; and flowing a fuel from a fuel source into the catalytic oxidation unit, wherein flowing the fuel initiates a catalytic reaction; characterized in that air is recycled to establish an air flow through the catalytic oxidation unit and wherein flowing fuel into the catalytic oxidation unit occurs after the air flow has been established; wherein a ratio of the air to the fuel entering the catalytic oxidation unit is at a relative stoichiometric ratio of oxygen to fuel between 1 and 7; or wherein a ratio of the air to the fuel entering the catalytic oxidation unit is at a relative stoichiometric ratio of oxygen to fuel between 7 and 21. flowing air from an air source into the catalytic oxidation unit; recycling air from an outlet of the catalytic oxidation unit to an inlet of the catalytic oxidation unit through a recycle duct; and flowing a fuel from a fuel source into the catalytic oxidation unit, wherein flowing the fuel initiates a catalytic reaction; characterized in that air is recycled to establish an air flow through the catalytic oxidation unit and wherein flowing fuel into the catalytic oxidation unit occurs after the air flow has been established;