mhurhangee/patent-ind-claim-en huggingface dataset:
A shoelace winding apparatus , wherein the shoelace winding apparatus includes: a reel that is driven by an operation handle to rotate and wind a shoelace ; a ratchet pawl that limits rotation of the reel ; and a base member including a substantially cylindrical body , which has one closed end and accommodates the reel , wherein the base member has an inner circumferential surface including an annular gear with a plurality of teeth that engages with the ratchet pawl , a base-member attachment cover including: a cover portion that is substantially cylindrical and has one closed end, wherein the cover portion is allowed to secure the base member such that the base member is directly attachable and detachable from outside of an upper section and held in the cover portion ; and a flange portion that protrudes from a circumference of the cover portion and conforms to a shape of the shoe, wherein, the cover portion or the base member includes a lock mechanism that locks the base member in a position secured to the cover portion , wherein a gap exists between an outer circumferential surface of the base member and an inner circumferential surface of the cover portion so that deformation of the cover portion does not deform the base member . a reel that is driven by an operation handle to rotate and wind a shoelace ; a ratchet pawl that limits rotation of the reel ; and a base member including a substantially cylindrical body , which has one closed end and accommodates the reel , wherein the base member has an inner circumferential surface including an annular gear with a plurality of teeth that engages with the ratchet pawl , a base-member attachment cover including: a cover portion that is substantially cylindrical and has one closed end, wherein the cover portion is allowed to secure the base member such that the base member is directly attachable and detachable from outside of an upper section and held in the cover portion ; and a flange portion that protrudes from a circumference of the cover portion and conforms to a shape of the shoe, a cover portion that is substantially cylindrical and has one closed end, wherein the cover portion is allowed to secure the base member such that the base member is directly attachable and detachable from outside of an upper section and held in the cover portion ; and a flange portion that protrudes from a circumference of the cover portion and conforms to a shape of the shoe, wherein, the cover portion or the base member includes a lock mechanism that locks the base member in a position secured to the cover portion , wherein a gap exists between an outer circumferential surface of the base member and an inner circumferential surface of the cover portion so that deformation of the cover portion does not deform the base member .
A cosmetic, non-therapeutic method for strengthening, thickening, and/or promoting growth of human keratin fibers comprising topically applying to skin in the area of keratin fiber follicles a composition comprising, in a physiologically acceptable vehicle, an active agent comprising a peptide consisting of from 3-6 amino acid residues, comprising the sequence YNT (SEQ ID NO: 1) or PVG (SEQ ID NO: 2).
A radiating element comprising: a support structure , a first dipole arranged on the support structure , and at least one electrically closed ring arranged on the support structure , wherein the ring surrounds the first dipole and is galvanically isolated from the first dipole , wherein a resonance frequency of the first dipole is higher than a center frequency of an operational bandwidth of the radiating element, characterized in that the support structure comprises a printed circuit board, PCB, and wherein the first dipole is formed on a side of the PCB, and the at least one ring is formed at the said side of the PCB, at an opposing side of the PCB, or in an intermediate layer of the PCB, or wherein the first dipole is formed in an intermediate layer of the PCB and the first ring is formed on a top or bottom surface of the PCB. a support structure , a first dipole arranged on the support structure , and at least one electrically closed ring arranged on the support structure , wherein the ring surrounds the first dipole and is galvanically isolated from the first dipole , wherein a resonance frequency of the first dipole is higher than a center frequency of an operational bandwidth of the radiating element, characterized in that the support structure comprises a printed circuit board, PCB, and wherein the first dipole is formed on a side of the PCB, and the at least one ring is formed at the said side of the PCB, at an opposing side of the PCB, or in an intermediate layer of the PCB, or wherein the first dipole is formed in an intermediate layer of the PCB and the first ring is formed on a top or bottom surface of the PCB.
An electrode array comprising: a housing ; a plurality of first contact electrodes exposed to an outside of the housing ; a plurality of second contact electrodes exposed to the outside of the housing ; a first wire group (TG1, 1701a) disposed inside the housing and electrically connected to the first contact electrodes ; and a second wire group (TG2, 1701b) disposed inside the housing and electrically connected to the second contact electrodes , wherein the plurality of first contact electrodes and the first wire group (TG1, 1701a) are disposed on different planes within the housing, and wherein the second wire group (TG2, 1701b) is disposed on a different plane from the first wire group (TG1, 1701a). a housing ; a plurality of first contact electrodes exposed to an outside of the housing ; a plurality of second contact electrodes exposed to the outside of the housing ; a first wire group (TG1, 1701a) disposed inside the housing and electrically connected to the first contact electrodes ; and a second wire group (TG2, 1701b) disposed inside the housing and electrically connected to the second contact electrodes , wherein the plurality of first contact electrodes and the first wire group (TG1, 1701a) are disposed on different planes within the housing, and wherein the second wire group (TG2, 1701b) is disposed on a different plane from the first wire group (TG1, 1701a).
A virtual gyroscope for an electronic device, comprising: a magnetometer unit comprising logic to: receive first magnetic response data from a first magnetic sensor and second magnetic response data from a second magnetic sensor displaced from the first magnetic sensor; generate a first response surface from the first magnetic response data and a second response surface from the second magnetic response data; generate a composite response surface representation from the first magnetic response data and the second magnetic response data; compare the first response surface and the second response surface to the composite response surface; select, based on the comparison, one of the first magnetic response data or the second magnetic response data as an output of the magnetometer unit; output the selected magnetic response data; an accelerometer unit comprising logic, at least partially including hardware logic, to: generate orientation data for the electronic device; and a combiner unit comprising logic to: combine the output of the magnetometer unit with the orientation data from the accelerometer unit. a magnetometer unit comprising logic to: receive first magnetic response data from a first magnetic sensor and second magnetic response data from a second magnetic sensor displaced from the first magnetic sensor; generate a first response surface from the first magnetic response data and a second response surface from the second magnetic response data; generate a composite response surface representation from the first magnetic response data and the second magnetic response data; compare the first response surface and the second response surface to the composite response surface; select, based on the comparison, one of the first magnetic response data or the second magnetic response data as an output of the magnetometer unit; output the selected magnetic response data; receive first magnetic response data from a first magnetic sensor and second magnetic response data from a second magnetic sensor displaced from the first magnetic sensor; generate a first response surface from the first magnetic response data and a second response surface from the second magnetic response data; generate a composite response surface representation from the first magnetic response data and the second magnetic response data; compare the first response surface and the second response surface to the composite response surface; select, based on the comparison, one of the first magnetic response data or the second magnetic response data as an output of the magnetometer unit; output the selected magnetic response data; an accelerometer unit comprising logic, at least partially including hardware logic, to: generate orientation data for the electronic device; and a combiner unit comprising logic to: combine the output of the magnetometer unit with the orientation data from the accelerometer unit.
Installation (2; 20) for cooling products , such as it comprises: - means (40; 22, 25) for passing a mist or a gas against a lower face of a wall (42; 23) having an upper face of generally planar shape intended to receive the products, the wall delimiting an enclosure which has at least two internal ducts defining predetermined paths for the passage of the mist or gas in the enclosure, the installation being arranged to evacuate water from the upper face, and - at least one mist diffuser (16; 91, 92) arranged to diffuse the mist which has passed against the lower face or a mist which comprises the gas which has passed against the lower face. - means (40; 22, 25) for passing a mist or a gas against a lower face of a wall (42; 23) having an upper face of generally planar shape intended to receive the products, the wall delimiting an enclosure which has at least two internal ducts defining predetermined paths for the passage of the mist or gas in the enclosure, the installation being arranged to evacuate water from the upper face, and - at least one mist diffuser (16; 91, 92) arranged to diffuse the mist which has passed against the lower face or a mist which comprises the gas which has passed against the lower face.
A method of pressure correction for level gauges , comprising: measuring a current measured gas pressure above a liquid in a semi-closed tank including at least one liquid component therein having an automatic tank level gauge installed on a roof of said tank at a variable gauge reference height; choosing a selected pressure correction factor from a range of pressure correction factors or from a pressure correction factor equation based on said current gas pressure, and applying said selected pressure correction factor for automatically correcting a level reading provided by said tank level gauge to generate a corrected level reading which compensates for the effects of said current gas pressure on said roof and said variable gauge reference height. measuring a current measured gas pressure above a liquid in a semi-closed tank including at least one liquid component therein having an automatic tank level gauge installed on a roof of said tank at a variable gauge reference height; choosing a selected pressure correction factor from a range of pressure correction factors or from a pressure correction factor equation based on said current gas pressure, and applying said selected pressure correction factor for automatically correcting a level reading provided by said tank level gauge to generate a corrected level reading which compensates for the effects of said current gas pressure on said roof and said variable gauge reference height.
A method for obtaining a 3D model of an object, comprising: projecting a pattern onto the object from at least first and second positions (OM); observing the pattern from the first and second positions by capturing an image P of the pattern incident on the object; capturing an illumination image I of the object from each of the first and second positions; forming a 3D model of the object for each of the first and second positions by analyzing observed distortions to the pattern P caused by a 3D surface of the object; using the 3D model in conjunction with each illumination image I to find a pixel (p,q) in the illumination image I of the object from the first position that corresponds to a pixel in the illumination image I of the object from the second position, wherein the corresponding pixels are a matched pixel; and using photo grammetry to determine 3D coordinates for each matched pixel.
An imaging system, comprising: a light source ; a first focusing lens positioned to focus a beam from the light source to a beam waist at a predetermined location along an optical path of the beam in the imaging system; a first beam splitter positioned relative to the first focusing lens to receive the beam from the first focusing lens and to create first and second beams ; a second focusing lens positioned to receive the first and second beams output by the first beam splitter, to focus the received first and second beams to a spot sized dimensioned to fall within a sample to be imaged, and further positioned to receive first and second beams reflected from the sample; an image sensor positioned to receive the light beams reflected from the sample; and a second beam splitter configured to direct the first and second beams received from the first beam splitter towards the second focusing lens ; characterized in that the imaging system comprises a roof prism positioned in the optical path between the second focusing lens and the image sensor , the roof prism dimensioned to cause the first and second beams reflected from the sample to converge on to the image sensor , wherein the second beam splitter is configured to direct the first and second beams reflected from the sample towards the roof prism ; and in that the first focusing lens is positioned to provide a waist such that the reflected focus tracking beams can be focused on to the image sensor with a reduced spot size. a light source ; a first focusing lens positioned to focus a beam from the light source to a beam waist at a predetermined location along an optical path of the beam in the imaging system; a first beam splitter positioned relative to the first focusing lens to receive the beam from the first focusing lens and to create first and second beams ; a second focusing lens positioned to receive the first and second beams output by the first beam splitter, to focus the received first and second beams to a spot sized dimensioned to fall within a sample to be imaged, and further positioned to receive first and second beams reflected from the sample; an image sensor positioned to receive the light beams reflected from the sample; and a second beam splitter configured to direct the first and second beams received from the first beam splitter towards the second focusing lens ; characterized in that the imaging system comprises a roof prism positioned in the optical path between the second focusing lens and the image sensor , the roof prism dimensioned to cause the first and second beams reflected from the sample to converge on to the image sensor , wherein the second beam splitter is configured to direct the first and second beams reflected from the sample towards the roof prism ; and in that the first focusing lens is positioned to provide a waist such that the reflected focus tracking beams can be focused on to the image sensor with a reduced spot size.
A three-dimensional surface roughness evaluating device comprising: a two-dimensional laser displacement meter ; a movement mechanism which moves the two-dimensional laser displacement meter in an X-axis direction; and a movement distance measuring device which measures a movement distance of the two-dimensional laser displacement meter in the X-axis direction a calculating device which generates three-dimensional surface roughness data of a measurement target on the basis of displacement data acquired by the two-dimensional laser displacement meter and movement distance data acquired by the movement distance measuring device , wherein the two-dimensional laser displacement meter is disposed so that the width direction of the two-dimensional laser displacement meter coincides with a Y-axis direction, to be able to measure displacement data of coordinates in the Y-axis direction at fixed intervals, the measuring width of the two-dimensional laser displacement meter is at least two or more times mean width of the roughness profile elements RSm of elements of a measurement target , and the calculating device is configured to generate reference surface data of each coordinate by averaging in the Y-axis direction the displacement data acquired at fixed intervals in the X-axis direction by the two-dimensional laser displacement meter , and generate three-dimensional surface roughness data of the measurement target by subtracting the reference surface data of each coordinate from the displacement data of each X-Y plane coordinate. a two-dimensional laser displacement meter ; a movement mechanism which moves the two-dimensional laser displacement meter in an X-axis direction; and a movement distance measuring device which measures a movement distance of the two-dimensional laser displacement meter in the X-axis direction a calculating device which generates three-dimensional surface roughness data of a measurement target on the basis of displacement data acquired by the two-dimensional laser displacement meter and movement distance data acquired by the movement distance measuring device , wherein the two-dimensional laser displacement meter is disposed so that the width direction of the two-dimensional laser displacement meter coincides with a Y-axis direction, to be able to measure displacement data of coordinates in the Y-axis direction at fixed intervals, the measuring width of the two-dimensional laser displacement meter is at least two or more times mean width of the roughness profile elements RSm of elements of a measurement target , and the calculating device is configured to generate reference surface data of each coordinate by averaging in the Y-axis direction the displacement data acquired at fixed intervals in the X-axis direction by the two-dimensional laser displacement meter , and generate three-dimensional surface roughness data of the measurement target by subtracting the reference surface data of each coordinate from the displacement data of each X-Y plane coordinate.
A stretchable cable comprising: a sheet-shaped base material exhibiting elasticity; and a wiring formed on one surface of the base material and exhibiting elasticity, wherein the wiring is made of a conductive composition containing elastomer and a conductive filler filling the elastomer wherein the conductive filler in the conductive composition is in the range between 30 to 95% by weight, characterized in that the conductive filler is a coil-shaped conductive filler selected from either a small metal coil comprising a natural helical structure on which metal is plated or a small metal spring, wherein the small metal coil is obtainable by applying metal plating to alga spirulina and the small spring is obtainable by processing a wire rod having a conductor diameter (a wire diameter) of equal to or smaller than 30 μm into a coil shape. a sheet-shaped base material exhibiting elasticity; and a wiring formed on one surface of the base material and exhibiting elasticity, wherein the wiring is made of a conductive composition containing elastomer and a conductive filler filling the elastomer wherein the conductive filler in the conductive composition is in the range between 30 to 95% by weight, characterized in that the conductive filler is a coil-shaped conductive filler selected from either a small metal coil comprising a natural helical structure on which metal is plated or a small metal spring, wherein the small metal coil is obtainable by applying metal plating to alga spirulina and the small spring is obtainable by processing a wire rod having a conductor diameter (a wire diameter) of equal to or smaller than 30 μm into a coil shape.
Transferring carriage of vehicles for automatic mechanical parking systems comprising: - at least a frame ; - means of handling of said carriage ; and - at least a device of centering, raising and keeping of the wheel of a vehicle; - said device comprises at least a couple of clamp elements and at least a movable support ; each couple of clamp elements being supported by said movable support ; said movable support being translatable transversally for positioning said clamp elements of a same couple in proximity of a wheel of an axle of a vehicle; - said transferring carriage being characterized in that the device of centering, raising and keeping of the wheel of a vehicle is designed for performing, the centering, the raising and the keeping of the two wheels of an axle of a vehicle by means of a single transversal movement towards outside of the carriage of the movable supports and of the couples of clamp elements integral therewith. - at least a frame ; - means of handling of said carriage ; and - at least a device of centering, raising and keeping of the wheel of a vehicle; - said device comprises at least a couple of clamp elements and at least a movable support ; each couple of clamp elements being supported by said movable support ; said movable support being translatable transversally for positioning said clamp elements of a same couple in proximity of a wheel of an axle of a vehicle; - said transferring carriage being characterized in that the device of centering, raising and keeping of the wheel of a vehicle is designed for performing, the centering, the raising and the keeping of the two wheels of an axle of a vehicle by means of a single transversal movement towards outside of the carriage of the movable supports and of the couples of clamp elements integral therewith.