mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for preventing mal-operation for an automatic transmission, comprising: a stopper which restricts a pawl provided in a gear lever from moving to a lower gear when shifting the gear lever from P or R to D; and a body having a stopper support to support other side surface of the stopper which restricts the pawl from moving to a lower gear when shifting the gear lever from P or R to D; the apparatus being characterised by further comprising: a stopper neck which is elastic and connects the stopper to the body ; and a body spring protruding from bottom of the body to elastically support the body moving down as the pawl presses down an upper part of the stopper , when shifting the gear lever from D to a lower gear, wherein the stopper , the stopper neck , the body , the stopper support and the body spring are integrally formed. a stopper which restricts a pawl provided in a gear lever from moving to a lower gear when shifting the gear lever from P or R to D; and a body having a stopper support to support other side surface of the stopper which restricts the pawl from moving to a lower gear when shifting the gear lever from P or R to D; a stopper neck which is elastic and connects the stopper to the body ; and a body spring protruding from bottom of the body to elastically support the body moving down as the pawl presses down an upper part of the stopper , when shifting the gear lever from D to a lower gear, wherein the stopper , the stopper neck , the body , the stopper support and the body spring are integrally formed.
A computer-implemented method for generating data suitable for determining one or more parameters of an eye of a subject, the eye comprising an eyeball and an iris defining a pupil, the method comprising: - receiving image data of the eye at a first time (t 1 ) from a camera of known camera intrinsics and defining an image plane; - determining a first ellipse in the image data, the first ellipse at least substantially representing a border of the pupil at the first time (t 1 ); - using the camera intrinsics and the first ellipse to determine a 3D orientation vector of a first circle in 3D and a first center line on which a center of the first circle is located in 3D, so that a projection of the first circle, in a direction parallel to the first center line, onto the image plane is expected to reproduce the first ellipse; and - determining a first eye intersecting line in 3D expected to intersect a 3D center of the eyeball at the first time (t 1 ) as a line which is, in the direction of the orientation vector, parallel-shifted to the first center line by an expected distance (R) between the center of the eyeball and a center of the pupil. - receiving image data of the eye at a first time (t 1 ) from a camera of known camera intrinsics and defining an image plane; - determining a first ellipse in the image data, the first ellipse at least substantially representing a border of the pupil at the first time (t 1 ); - using the camera intrinsics and the first ellipse to determine a 3D orientation vector of a first circle in 3D and a first center line on which a center of the first circle is located in 3D, so that a projection of the first circle, in a direction parallel to the first center line, onto the image plane is expected to reproduce the first ellipse; and - determining a first eye intersecting line in 3D expected to intersect a 3D center of the eyeball at the first time (t 1 ) as a line which is, in the direction of the orientation vector, parallel-shifted to the first center line by an expected distance (R) between the center of the eyeball and a center of the pupil.
A radiation measurement apparatus comprising: a sensor that is configured to generate a detection signal in case of detecting a radiation; a first counter that is configured to count the number of the detection signal; an oscillator that is configured to generate a periodic signal with predetermined period; characterized in that the radiation measurement apparatus further comprises an AND circuit that is configured to output logical product obtained by operating AND operation between the detection signal and the periodic signal; a second counter that is configured to count the number of a signal output from the AND circuit ; and a display unit that is configured to display a count value of the first counter in a case where a count value of the second counter is less than a first predetermined value and a value which is different from the count value of the first counter in a case where the count value of the second counter is not less than the first predetermined value, wherein the first counter is configured to set a second predetermined value as the count value of the first counter , and wherein the display unit is configured to display the count value of the first counter after being set at the second predetermined value, in the case where the count value of the second counter is not less than the first predetermined value. a sensor that is configured to generate a detection signal in case of detecting a radiation; a first counter that is configured to count the number of the detection signal; an oscillator that is configured to generate a periodic signal with predetermined period; characterized in that the radiation measurement apparatus further comprises an AND circuit that is configured to output logical product obtained by operating AND operation between the detection signal and the periodic signal; a second counter that is configured to count the number of a signal output from the AND circuit ; and a display unit that is configured to display a count value of the first counter in a case where a count value of the second counter is less than a first predetermined value and a value which is different from the count value of the first counter in a case where the count value of the second counter is not less than the first predetermined value, wherein the first counter is configured to set a second predetermined value as the count value of the first counter , and wherein the display unit is configured to display the count value of the first counter after being set at the second predetermined value, in the case where the count value of the second counter is not less than the first predetermined value.
A component measuring device comprising: a mounting portion on which a tip having a test paper attached thereto is mounted, the test paper being impregnated with a liquid; a light source adapted to emit light having a specified wavelength; a condensing lens where the light emitted from the light source enters and which condenses the light on the test paper ; a light-path block including a diaphram portion arranged between the condensing lens and the light source , at the position of a photographic subject (object) of the condensing lens; and a light-receiving element adapted to receive the light reflected from the test paper characterized in that an illumination axis (L1) passing through the center of the diaphragm portion and the center of the condensing lens is tilted with respect to an optical axis (L3) of the light source . a mounting portion on which a tip having a test paper attached thereto is mounted, the test paper being impregnated with a liquid; a light source adapted to emit light having a specified wavelength; a condensing lens where the light emitted from the light source enters and which condenses the light on the test paper ; a light-path block including a diaphram portion arranged between the condensing lens and the light source , at the position of a photographic subject (object) of the condensing lens; and a light-receiving element adapted to receive the light reflected from the test paper characterized in that an illumination axis (L1) passing through the center of the diaphragm portion and the center of the condensing lens is tilted with respect to an optical axis (L3) of the light source .
A method of forming a phase change switching device , the method comprising: providing a substrate ; forming first and second RF terminals on the substrate; forming a strip of phase change material on the substrate that is connected between the first and second RF terminals; forming a heating element adjacent to the strip of phase change material such that the heating element is configured to control a conductive state of the strip of phase change material , wherein the first and second RF terminals and the heating element are formed by a lithography process that self-aligns the heating element with the first and second RF terminals; wherein the lithography process is characterized in that it comprises the following steps: forming a region of electrically insulating material on the substrate ; forming a first trench and a second trench in the region of electrically insulating material ; forming the first and second RF terminals in the first and second trenches, respectively; forming a third trench in the region of electrically insulating material ; and forming the heating element in the third trench . providing a substrate ; forming first and second RF terminals on the substrate; forming a strip of phase change material on the substrate that is connected between the first and second RF terminals; forming a heating element adjacent to the strip of phase change material such that the heating element is configured to control a conductive state of the strip of phase change material , wherein the first and second RF terminals and the heating element are formed by a lithography process that self-aligns the heating element with the first and second RF terminals; wherein the lithography process is characterized in that it comprises the following steps: forming a region of electrically insulating material on the substrate ; forming a first trench and a second trench in the region of electrically insulating material ; forming the first and second RF terminals in the first and second trenches, respectively; forming a third trench in the region of electrically insulating material ; and forming the heating element in the third trench . forming a region of electrically insulating material on the substrate ; forming a first trench and a second trench in the region of electrically insulating material ; forming the first and second RF terminals in the first and second trenches, respectively; forming a third trench in the region of electrically insulating material ; and forming the heating element in the third trench .
Method for providing a head mounted optical system adapted to a wearer, the method comprising: - an optical system providing step (S1), during which an optical system is provided, - a wearer data providing step (S2), during which wearer data comprising at least the wearer's prescription is provided, - an encapsulating step (S8), during which the optical system is at least partly encapsulated in a transparent capsule, - a mounting step (S10), during which the encapsulated optical system or the optical system is mounted in a spectacle frame, - a customizing step (S9), during which, respectively, at least one face of the optical system or one face of the transparent capsule is customized according to the wearer data, wherein the optical system is at least partly encapsulated in a transparent capsule by stacking in close contact the optical system with at least one substrate of the transparent capsule and made integral with an adhesive, characterized in that the customizing step (S9) is implemented after the mounting step (S10), and during the customizing step (S9) an optical patch is added to the face to be customized of the capsule or of the optical system. - an optical system providing step (S1), during which an optical system is provided, - a wearer data providing step (S2), during which wearer data comprising at least the wearer's prescription is provided, - an encapsulating step (S8), during which the optical system is at least partly encapsulated in a transparent capsule, - a mounting step (S10), during which the encapsulated optical system or the optical system is mounted in a spectacle frame, - a customizing step (S9), during which, respectively, at least one face of the optical system or one face of the transparent capsule is customized according to the wearer data,
A method for generating a three-dimensional digital model of a dental arch of a patient, by means of an acquisition device comprising: - a support ; - a dental retractor fixed to the support and defining a retractor aperture ; - an updated image acquisition unit fixed to the support in a position in which it observes the retractor aperture along an optical axis (Dis); - a projector suitable for projecting a light beam toward the retractor aperture, so as to draw, when the retractor is worn by the patient, at least one light mark on the arch of the patient, and - a processing module , said method comprising the following steps: A) projection, by means of the projector , of at least one light beam onto the arch, so as to draw at least one light mark on the arch; B) simultaneously with the step A), displacement of the arch across the light beam and acquisition, during said displacement, of a series of said updated images of said arch each showing a representation of the projected light mark, or "updated projection", "simultaneously with the step A)" meaning that the series of updated images is acquired while the beam is projected, whereas said projection can however begin before and be prolonged after the acquisition of the updated images; C) identification, by the processing module , of said updated projection on each updated image, then production, by the processing module , of a three-dimensional digital model, called "updated model", exhibiting a best fit with all the updated projections, the updated model being sought by means of an optimization method and/or a deep learning device. - a support ; - a dental retractor fixed to the support and defining a retractor aperture ; - an updated image acquisition unit fixed to the support in a position in which it observes the retractor aperture along an optical axis (Dis); - a projector suitable for projecting a light beam toward the retractor aperture, so as to draw, when the retractor is worn by the patient, at least one light mark on the arch of the patient, and - a processing module , A) projection, by means of the projector , of at least one light beam onto the arch, so as to draw at least one light mark on the arch; B) simultaneously with the step A), displacement of the arch across the light beam and acquisition, during said displacement, of a series of said updated images of said arch each showing a representation of the projected light mark, or "updated projection", "simultaneously with the step A)" meaning that the series of updated images is acquired while the beam is projected, whereas said projection can however begin before and be prolonged after the acquisition of the updated images; C) identification, by the processing module , of said updated projection on each updated image, then production, by the processing module , of a three-dimensional digital model, called "updated model", exhibiting a best fit with all the updated projections, the updated model being sought by means of an optimization method and/or a deep learning device.
Device for increasing the training effect of a horse, the device consisting of an essentially mat-like sheet that adapts to being placed on, and secured to the horse's back, characterized by a cut , which is configured to permit the overlapping of the parts of the mat remaining on different sides of the cut , at a location in the mat, which, when the mat is being used, takes up a position essentially in the region of the highest point on the horse's rear scapulae.
Cylindrical symmetric volumetric machine, which machine comprises a housing with an inlet opening and an outlet opening , with two co-operating rotors in the housing , namely an outer rotor which is mounted rotatably in the housing and an inner rotor which is mounted rotatably in the outer rotor , whereby liquid is injected in the machine , characterised in that on a level of the inner rotor and outer rotor at the outlet opening a liquid separation takes place, whereby the separated liquid ends up in the machine again, and in that the outer rotor has an axial extension on the level of the outlet opening which extends around this outlet opening almost up against the housing such that a space is located between the axial extension and the housing .
Insulating liquid for an electrical device comprising - at least one dicarboxylic acid according to the formula HOOC-(CH 2 ) n - COOH, with 2 ≤ n ≤ 10, esterified with an alcohol having between 6 and 12 carbon hydrogen groups and at least one functional OH-group, - an antioxidant and - a passivator. - at least one dicarboxylic acid according to the formula HOOC-(CH 2 ) n - COOH, with 2 ≤ n ≤ 10, esterified with an alcohol having between 6 and 12 carbon hydrogen groups and at least one functional OH-group, - an antioxidant and - a passivator.
A device comprising: a substrate ; and an array of electromagnetic scattering elements on the substrate , wherein the electromagnetic scattering elements lack 4-fold rotational symmetry, thereby enabling a polarization dependent scattering response of the array, and have a higher refractive index than the substrate ; and wherein each electromagnetic scattering element has a respective rotational orientation characterised in that the respective rotational orientations of the electromagnetic scattering elements are arranged such that some of the electromagnetic scattering elements have rotational orientations different from the rotational orientations of others of the electromagnetic scattering elements , the respective rotational orientations of the electromagnetic scattering elements selected such that the array exhibits a desired polarization dependent scattering response. a substrate ; and an array of electromagnetic scattering elements on the substrate , wherein the electromagnetic scattering elements lack 4-fold rotational symmetry, thereby enabling a polarization dependent scattering response of the array, and have a higher refractive index than the substrate ; and wherein each electromagnetic scattering element has a respective rotational orientation characterised in that the respective rotational orientations of the electromagnetic scattering elements are arranged such that some of the electromagnetic scattering elements have rotational orientations different from the rotational orientations of others of the electromagnetic scattering elements , the respective rotational orientations of the electromagnetic scattering elements selected such that the array exhibits a desired polarization dependent scattering response.
An electrode composite comprising: a negative electrode active material-containing layer comprising negative electrode active material secondary particles having an average secondary particle size of from 1 μm to 30 μm, the average secondary particle size being determined according to the method described in the section of the specification titled "Observation of Negative Electrode Active Material-Containing Layer", and the negative electrode active material secondary particles comprising titanium-containing oxide particles; and an insulating particle layer provided on the negative electrode active material-containing layer and comprising inorganic compound particles, wherein the insulating particle layer comprises a first surface (4-1) and a second surface (4-2) opposed to the first surface (4-1), the first surface (4-1) is in contact with the negative electrode active material-containing layer , and the second surface (4-2) has a surface roughness of 0.1 μm or less, the surface roughness being determined according to the method described in the section of the specification titled "Method of Measuring Surface Roughness of Insulating Particle Layer". a negative electrode active material-containing layer comprising negative electrode active material secondary particles having an average secondary particle size of from 1 μm to 30 μm, the average secondary particle size being determined according to the method described in the section of the specification titled "Observation of Negative Electrode Active Material-Containing Layer", and the negative electrode active material secondary particles comprising titanium-containing oxide particles; and an insulating particle layer provided on the negative electrode active material-containing layer and comprising inorganic compound particles, wherein the insulating particle layer comprises a first surface (4-1) and a second surface (4-2) opposed to the first surface (4-1), the first surface (4-1) is in contact with the negative electrode active material-containing layer , and the second surface (4-2) has a surface roughness of 0.1 μm or less, the surface roughness being determined according to the method described in the section of the specification titled "Method of Measuring Surface Roughness of Insulating Particle Layer".
Photovoltaic solar energy system comprising: - a base structure ; - a rotating unit ; - a rotation connection between the rotating unit and the base structure , the rotation connection defining a pivot axis of the rotating unit, the rotating unit comprising: - a set of bifacial photovoltaic solar cells , jointly defining two opposite surfaces intended to absorb energy from solar radiation; - a support frame of said cells, the frame comprising at least one arm for offsetting cells with respect to the base structure , a low end of the offsetting arm being connected to the rotation connection ; - two mirrors each defining a reflector surface configured to reflect the light in the direction of the set of cells , preferably in the direction of an indirect absorption surface of this set, the two mirrors being arranged respectively on either side of the offsetting arm , characterised in that at least one of the two mirrors is mobile by having a first end pivotably mounted on a means sliding along the offsetting arm , the sliding means able to be displaced between a high position bringing the mobile mirror into a configuration of maximum extent, and a low position bringing the mobile mirror into a configuration of minimum extent wherein a second end of the mobile mirror, opposite the first end, is located closer to the offsetting arm than in the configuration of maximum extent. - a base structure ; - a rotating unit ; - a rotation connection between the rotating unit and the base structure , the rotation connection defining a pivot axis of the rotating unit, - a set of bifacial photovoltaic solar cells , jointly defining two opposite surfaces intended to absorb energy from solar radiation; - a support frame of said cells, the frame comprising at least one arm for offsetting cells with respect to the base structure , a low end of the offsetting arm being connected to the rotation connection ; - two mirrors each defining a reflector surface configured to reflect the light in the direction of the set of cells , preferably in the direction of an indirect absorption surface of this set, the two mirrors being arranged respectively on either side of the offsetting arm ,