mhurhangee/patent-ind-claim-en huggingface dataset:
An image processor, comprising: an image associating unit configured to associate a first microscope image with a second microscope image, an accepting unit configured to accept designation of position information of a position of a point in at least part of the first microscope image using, as an input device , a pointing device; and an image generator configured to generate image data for displaying, on a display , the image data comprising the first microscope image, the second microscope image, the first microscope image and the second microscope image being images of the same specimen, a first magnified image in which a first region in the at least part of the first microscope image is magnified based on the designation, a second magnified image in which a region including the point of the second microscope image corresponding to the point designated in the first microscope image is magnified, wherein the image generator generates the image data for displaying, on the display, an image in which the first magnified image is overlapped on the first microscope image so that the center of the first magnified image matches with the position of the point in the first microscope image in which the designation has been accepted by the accepting unit and the second magnified image is overlapped on the second microscope image, the image generator being arranged to receive an instruction of overlapping, the image generator further being configured to, in response, overlap the first magnified image with the second magnified image a first microscope image with a second microscope image, an accepting unit configured to accept designation of position information of a position of a point in at least part of the first microscope image using, as an input device , a pointing device; and an image generator configured to generate image data for displaying, on a display , the image data comprising the first microscope image, the second microscope image, the first microscope image and the second microscope image being images of the same specimen, a first magnified image in which a first region in the at least part of the first microscope image is magnified based on the designation, a second magnified image in which a region including the point of the second microscope image corresponding to the point designated in the first microscope image is magnified, wherein the image generator generates the image data for displaying, on the display, an image in which the first magnified image is overlapped on the first microscope image so that the center of the first magnified image matches with the position of the point in the first microscope image in which the designation has been accepted by the accepting unit and the second magnified image is overlapped on the second microscope image, the image generator being arranged to receive an instruction of overlapping, the image generator further being configured to, in response, overlap the first magnified image with the second magnified image
A compound of Formula II or a salt thereof: wherein m is 1; Y is O; B is NHR 24 ; each of R 3 and R 10 independently for each occurrence is hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, aralkyl, heterocycloalkyl, heterocycloalkenyl, heteroaryl, heteroaralkyl,-O(C=O)R 11 , -O(C=O)OR 11 , -O(C=O)NR 12 R 13 , -OSO 3 R 11 , or -OPO 2 OR 11 ; R 4 and R 5 taken together with the carbon to which they are bonded form (C=O); R 6 and R 7 taken together form a bond; R 8 and R 9 taken together form a bond; R 11 is independently for each occurrence hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, aralkyl, heterocycloalkyl, heterocycloalkenyl, heteroaryl, or heteroaralkyl; each of R 12 and R 13 independently for each occurrence is hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, aralkyl, heterocycloalkyl, heterocycloalkenyl, heteroaryl, or heteroaralkyl; or R 12 or R 13 taken together form a 3-8 membered heterocyclic ring; R 24 is m is 1; Y is O; B is NHR 24 ; each of R 3 and R 10 independently for each occurrence is hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, aralkyl, heterocycloalkyl, heterocycloalkenyl, heteroaryl, heteroaralkyl,-O(C=O)R 11 , -O(C=O)OR 11 , -O(C=O)NR 12 R 13 , -OSO 3 R 11 , or -OPO 2 OR 11 ; R 4 and R 5 taken together with the carbon to which they are bonded form (C=O); R 6 and R 7 taken together form a bond; R 8 and R 9 taken together form a bond; R 11 is independently for each occurrence hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, aralkyl, heterocycloalkyl, heterocycloalkenyl, heteroaryl, or heteroaralkyl; each of R 12 and R 13 independently for each occurrence is hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, aralkyl, heterocycloalkyl, heterocycloalkenyl, heteroaryl, or heteroaralkyl; or R 12 or R 13 taken together form a 3-8 membered heterocyclic ring; R 24 is
An explosion-proof apparatus comprising: a frame having a hollow shape; a gas supply device configured to maintain inside of the frame at a pressure higher than a certain pressure by supplying gas to the inside; an electrical component disposed inside the frame ; a battery configured to supply power to the electrical component ; a protective device configured to stop power supply from the battery to the electrical component ; a battery housing enclosure being an increased-safety explosion-proof enclosure configured to house the battery therein; and a protective device housing enclosure being a flameproof explosion-proof enclosure configured to house the protective device , characterized in that the battery housing enclosure and the protective device housing enclosure are provided outside of the frame , the battery housing enclosure does not include therein a management device that manages parameters of the battery , the protective device housing enclosure and the battery housing enclosure are different from each other, and an explosion-proof connector (S), which is explosion proof, is configured to connect the battery and the protective device , and is provided outside the battery housing enclosure and the protective device housing enclosure . a frame having a hollow shape; a gas supply device configured to maintain inside of the frame at a pressure higher than a certain pressure by supplying gas to the inside; an electrical component disposed inside the frame ; a battery configured to supply power to the electrical component ; a protective device configured to stop power supply from the battery to the electrical component ; a battery housing enclosure being an increased-safety explosion-proof enclosure configured to house the battery therein; and a protective device housing enclosure being a flameproof explosion-proof enclosure configured to house the protective device , characterized in that the battery housing enclosure and the protective device housing enclosure are provided outside of the frame , the battery housing enclosure does not include therein a management device that manages parameters of the battery , the protective device housing enclosure and the battery housing enclosure are different from each other, and an explosion-proof connector (S), which is explosion proof, is configured to connect the battery and the protective device , and is provided outside the battery housing enclosure and the protective device housing enclosure .
A computation device, comprising a storage unit , an operation unit , a controller unit , and a conversion unit , wherein: the controller unit is configured to: acquire a configuration command before the operation unit performs operations, wherein the configuration command comprises a decimal point position and a data type of data involved in the operations; and parse the configuration command to obtain the decimal point position and the data type of the data involved in the operations; if the controller unit has obtained input data, determining whether the data type of the input data is consistent with that of the data involved in the operations; if the data type of the input data is inconsistent with that of the data involved in the operations, the controller unit transmits the input data, the decimal point position, and the data type of the data involved in the operations to the conversion unit ; and the conversion unit is configured to perform data type conversion on the input data according to the decimal point position and the data type of the data involved in the operations, such that the data type of the input data is consistent with that of the data involved in the operations. the controller unit is configured to: acquire a configuration command before the operation unit performs operations, wherein the configuration command comprises a decimal point position and a data type of data involved in the operations; and parse the configuration command to obtain the decimal point position and the data type of the data involved in the operations; if the controller unit has obtained input data, determining whether the data type of the input data is consistent with that of the data involved in the operations; if the data type of the input data is inconsistent with that of the data involved in the operations, the controller unit transmits the input data, the decimal point position, and the data type of the data involved in the operations to the conversion unit ; and acquire a configuration command before the operation unit performs operations, wherein the configuration command comprises a decimal point position and a data type of data involved in the operations; and parse the configuration command to obtain the decimal point position and the data type of the data involved in the operations; if the controller unit has obtained input data, determining whether the data type of the input data is consistent with that of the data involved in the operations; if the data type of the input data is inconsistent with that of the data involved in the operations, the controller unit transmits the input data, the decimal point position, and the data type of the data involved in the operations to the conversion unit ; and the conversion unit is configured to perform data type conversion on the input data according to the decimal point position and the data type of the data involved in the operations, such that the data type of the input data is consistent with that of the data involved in the operations.
A fluid device comprising a first substrate and a second substrate , wherein, the first substrate includes a valve and a diaphragm which is exposed in a first surface of the first substrate, a fluid path is formed in a second surface of the second substrate, the valve is provided in the fluid path and comprises: a tubular structure having an outer tube and an inner tube ; and a diaphragm member having a thin film that covers one end of the inner tube and an anchor part which encircles a peripheral edge of the thin film and comes into contact with an inner wall of the outer tube and an outer wall of the inner tube; the first surface faces the second surface and the first substrate is bonded to the second substrate such that the fluid path passes just above the diaphragm member; characterized in that the thin film has a height h, the anchor part has a height H, the diaphragm member is formed by curing a polymer composition, a surface tension of the polymer composition is γ, a contact angle thereof with respect to the tubular structure is θ, and a density thereof is ρ, in which an area S1 of the region, in a cross section C1 which is perpendicular to an axial direction of the tubular structure, surrounded by the inner wall of the outer tube and the outer wall of the inner tube, a sum L1 of lengths of the inner wall of the outer tube and the outer wall of the inner tube in the cross section C1, an area S2 of the region, in the cross section C1, surrounded by the inner wall of the inner tube, a length L2 of the inner wall of the inner tube in the cross section C1, h, and H satisfy the following Expression : γ cos θ × L 1 / S 1 − ρ ⁢ g × H = γ cos θ × L 2 / S 2 − ρ ⁢ g × h [in the expression, g indicates acceleration of gravity] . a tubular structure having an outer tube and an inner tube ; and a diaphragm member having a thin film that covers one end of the inner tube and an anchor part which encircles a peripheral edge of the thin film and comes into contact with an inner wall of the outer tube and an outer wall of the inner tube;
A particle packing apparatus for packing particles into a vessel , comprising: an apparatus frame held at a fixed position with respect to the vessel ; a distributor which is rotational symmetrical to a central axis extended vertically and is configured to distribute the particles; a bearing fixed to the apparatus frame and holding the distributor rotatably; a particle supplying unit fixed to the apparatus frame , being rotational symmetrical to the central axis, having a bottom opening being smaller than an inner diameter of the bearing and supplying the particles to the distributor through the bottom opening; and a motor rotating the distributor ; characterised by the distributor including: a uniaxial rotation elliptical dish having slits formed in for emitting the particles; and a dish rotation shaft connecting the dish to a rotation shaft of the bearing wherein the dish rotation shaft has a configuration in which particles supplied from the particle supplying unit to the dish do not come into contact with the dish rotation shaft. an apparatus frame held at a fixed position with respect to the vessel ; a distributor which is rotational symmetrical to a central axis extended vertically and is configured to distribute the particles; a bearing fixed to the apparatus frame and holding the distributor rotatably; a particle supplying unit fixed to the apparatus frame , being rotational symmetrical to the central axis, having a bottom opening being smaller than an inner diameter of the bearing and supplying the particles to the distributor through the bottom opening; and a motor rotating the distributor ; characterised by the distributor including: a uniaxial rotation elliptical dish having slits formed in for emitting the particles; and a dish rotation shaft connecting the dish to a rotation shaft of the bearing wherein the dish rotation shaft has a configuration in which particles supplied from the particle supplying unit to the dish do not come into contact with the dish rotation shaft. a uniaxial rotation elliptical dish having slits formed in for emitting the particles; and a dish rotation shaft connecting the dish to a rotation shaft of the bearing wherein the dish rotation shaft has a configuration in which particles supplied from the particle supplying unit to the dish do not come into contact with the dish rotation shaft.
A device for stimulating a nerve or a part of a nervous system of a living being, said device comprising: a stimulation generating unit configured to generate stimulation signals for stimulating the nerve or the part of the nervous system; a first pair of electrodes configured to be arranged in a first location in relation to the nerve or the part of the nervous system; a second pair of electrodes configured to be arranged in a second location in relation to the nerve or the part of the nervous system; a third pair of electrodes configured to be arranged in a third location in relation to the nerve or the part of the nervous system; wherein the stimulation generating unit is configured to generate a first waveform comprising a first frequency to the first pair of electrodes ; a second waveform comprising a second frequency to the second pair of electrodes , and a third waveform comprising a third frequency to the third pair of electrodes ; wherein the first frequency and the second frequency define a beat frequency corresponding to a difference between the first frequency and the second frequency and wherein the third frequency is related to the beat frequency by an integer number, wherein the stimulation generating unit is configured to output the first waveform, the second waveform, and the third waveform for causing interferential stimulation in the nerve or the part of the nervous system. a stimulation generating unit configured to generate stimulation signals for stimulating the nerve or the part of the nervous system; a first pair of electrodes configured to be arranged in a first location in relation to the nerve or the part of the nervous system; a second pair of electrodes configured to be arranged in a second location in relation to the nerve or the part of the nervous system; a third pair of electrodes configured to be arranged in a third location in relation to the nerve or the part of the nervous system; wherein the stimulation generating unit is configured to generate a first waveform comprising a first frequency to the first pair of electrodes ; a second waveform comprising a second frequency to the second pair of electrodes , and a third waveform comprising a third frequency to the third pair of electrodes ; wherein the first frequency and the second frequency define a beat frequency corresponding to a difference between the first frequency and the second frequency and wherein the third frequency is related to the beat frequency by an integer number, wherein the stimulation generating unit is configured to output the first waveform, the second waveform, and the third waveform for causing interferential stimulation in the nerve or the part of the nervous system.
Method for monitoring of the operational integrity of a connector unit, in real time, for determining an operational state of a subsea connector unit , wherein the method comprises at least the steps of: - providing one or more operational values of at least one operational parameter describing a specific operational condition at at least one selected location of the subsea connector unit ; wherein the operational parameter comprises quality of a fluid used in the subsea connector unit; and at least one of temperature (T) of the fluid, pressure (p) of the fluid, or position of the measurement, and optionally, further comprises one of humidity (h) of the fluid, or an electrical value of current or voltage (A, V) of the connector; - comparing the one or more provided operational values and at least one derivative derived from the one or more provided operational value with at least one predefined reference (24, 24'; 26, 26') and thus determining an operational state of the subsea connector unit on the basis of the comparison; wherein the one or more values are provided or monitored in real time and a trend over time is provided to give a quantitative indication of the integrity of the connector unit ; wherein the quality of the fluid parameter comprises one of viscosity, loss tangent tan δ, dielectric strength, flow rate, density or Reynolds number; and, wherein the fluid comprises a compensating medium, able to react to pressure or thermal expansion and contraction, in particular a silicone gel, grease, oil, or gas. - providing one or more operational values of at least one operational parameter describing a specific operational condition at at least one selected location of the subsea connector unit ; wherein the operational parameter comprises quality of a fluid used in the subsea connector unit; and at least one of temperature (T) of the fluid, pressure (p) of the fluid, or position of the measurement, and optionally, further comprises one of humidity (h) of the fluid, or an electrical value of current or voltage (A, V) of the connector; - comparing the one or more provided operational values and at least one derivative derived from the one or more provided operational value with at least one predefined reference (24, 24'; 26, 26') and thus determining an operational state of the subsea connector unit on the basis of the comparison; wherein the one or more values are provided or monitored in real time and a trend over time is provided to give a quantitative indication of the integrity of the connector unit ; wherein the quality of the fluid parameter comprises one of viscosity, loss tangent tan δ, dielectric strength, flow rate, density or Reynolds number; and, wherein the fluid comprises a compensating medium, able to react to pressure or thermal expansion and contraction, in particular a silicone gel, grease, oil, or gas.
An integrated-circuit pixel comprising: a plurality of photodetection elements; a plurality of readout circuits each having: a floating diffusion node (FD); a first transfer gate (TG) coupled between the floating diffusion node and one of the photodetection elements; and an amplifier transistor having a gate terminal coupled to the floating diffusion node; a shared reset node ; a reset transistor coupled between the shared reset node and a reset-voltage supply; and a plurality of binning transistors each coupled between the shared reset node and the floating diffusion node of a respective one of the readout circuits. a plurality of photodetection elements; a plurality of readout circuits each having: a floating diffusion node (FD); a first transfer gate (TG) coupled between the floating diffusion node and one of the photodetection elements; and an amplifier transistor having a gate terminal coupled to the floating diffusion node; a shared reset node ; a reset transistor coupled between the shared reset node and a reset-voltage supply; and a plurality of binning transistors each coupled between the shared reset node and the floating diffusion node of a respective one of the readout circuits. a floating diffusion node (FD); a first transfer gate (TG) coupled between the floating diffusion node and one of the photodetection elements; and an amplifier transistor having a gate terminal coupled to the floating diffusion node; a shared reset node ; a reset transistor coupled between the shared reset node and a reset-voltage supply; and a plurality of binning transistors each coupled between the shared reset node and the floating diffusion node of a respective one of the readout circuits.
Vehicle assembly for a vehicle , said vehicle assembly comprising: - one or more light sources ; - a radar sensor configured to emit radar waves (R1) over a range (Δ1) of wavelengths (A); and - an arrangement of layers disposed facing said radar sensor , comprising a first subset (S1) of layers configured to perform an optical function, with each layer having a refractive index (n10) and a thickness (e10), and a second subset (S2) of layers configured to provide protection for said first set (S1) of layers , with each layer having a refractive index (n20) and a thickness (e20); - characterized in that the total thickness (e2) of the second subset (S2) of layers is dimensioned so that the total thickness (e0) of the arrangement of layers is equal to m times a wavelength (λ) of said range (Δ1) divided by twice the equivalent refractive index (n eq0 ) of the first subset (S1) of layers and of the second subset (S2) of layers , times the cosine of a refracted angle (r) corresponding to the angle of incidence (θ) of the radar waves (R1), where m is an integer. - one or more light sources ; - a radar sensor configured to emit radar waves (R1) over a range (Δ1) of wavelengths (A); and - an arrangement of layers disposed facing said radar sensor , comprising a first subset (S1) of layers configured to perform an optical function, with each layer having a refractive index (n10) and a thickness (e10), and a second subset (S2) of layers configured to provide protection for said first set (S1) of layers , with each layer having a refractive index (n20) and a thickness (e20); - characterized in that the total thickness (e2) of the second subset (S2) of layers is dimensioned so that the total thickness (e0) of the arrangement of layers is equal to m times a wavelength (λ) of said range (Δ1) divided by twice the equivalent refractive index (n eq0 ) of the first subset (S1) of layers and of the second subset (S2) of layers , times the cosine of a refracted angle (r) corresponding to the angle of incidence (θ) of the radar waves (R1), where m is an integer.