mhurhangee/patent-ind-claim-en huggingface dataset:
A synchronous transmission arranged aboard a saddle type vehicle for transmitting the motion generated by an engine to a driving wheel of said saddle type vehicle, between a crankshaft and a hub shaft parallel therebetween and perpendicular to the median plane of the saddle type vehicle, wherein said synchronous transmission is selected from a group which could use a synchronous belt between two toothed pulleys or another synchronous system, that comprises a pinion - chain - toothed wheel system to transmit the motion from the crankshaft to the input of a mechanical gearbox, characterised in that said synchronous transmission comprises: a primary shaft of the mechanical gearbox, and a pair of secondary shafts equipped with one or more secondary gearwheels for transmitting the motion to a hub shaft , wherein a single desmodromic drum provides to actuate a pair of coupling forks which define selectively the position of respective sliding couplings between primary shaft and secondary shafts to select all speeds of the transmission, the desmodromic drum being in phase with a device for actuating the gearwheels, wherein the coupling forks are equipped with a respective cam follower end manoeuvred by means of said desmodromic drum having a cylindrical surface whereon a single desmodromic track is formed. a primary shaft of the mechanical gearbox, and a pair of secondary shafts equipped with one or more secondary gearwheels for transmitting the motion to a hub shaft , wherein a single desmodromic drum provides to actuate a pair of coupling forks which define selectively the position of respective sliding couplings between primary shaft and secondary shafts to select all speeds of the transmission, the desmodromic drum being in phase with a device for actuating the gearwheels, wherein the coupling forks are equipped with a respective cam follower end manoeuvred by means of said desmodromic drum having a cylindrical surface whereon a single desmodromic track is formed.
Method of determining whether a subject has a vascular risk that can be reduced by blood pressure lowering therapy with antihypertensive drugs comprising the steps: • determining the level of hGH and/or its isoforms selected from the group comprising hGH isoform 1, hGH isoform 2, hGH isoform 3 and hGH isoform 4 in a blood sample of said subject and • comparing the determined level of hGH and/or said isoforms thereof in said blood sample with a pre-determined threshold and • wherein in case the determined level of hGH and/or said isoforms thereof is above said pre-determined threshold then the subject is identified as having a vascular risk that can be reduced by blood pressure lowering therapy with antihypertensive drugs and • wherein in case the determined level of hGH and/or said isoforms thereof is below said pre-determined threshold then the subject is identified as not having a vascular risk that can be reduced by blood pressure lowering therapy with antihypertensive drugs. • determining the level of hGH and/or its isoforms selected from the group comprising hGH isoform 1, hGH isoform 2, hGH isoform 3 and hGH isoform 4 in a blood sample of said subject and • comparing the determined level of hGH and/or said isoforms thereof in said blood sample with a pre-determined threshold and • wherein in case the determined level of hGH and/or said isoforms thereof is above said pre-determined threshold then the subject is identified as having a vascular risk that can be reduced by blood pressure lowering therapy with antihypertensive drugs and • wherein in case the determined level of hGH and/or said isoforms thereof is below said pre-determined threshold then the subject is identified as not having a vascular risk that can be reduced by blood pressure lowering therapy with antihypertensive drugs.
A stereo image capture apparatus comprising: a first image capture device (23-0); a second image capture device (23-1); a first optical system (21-0) configured to divide image data to be captured by the first image capture device (23-0) into a telephoto region and a wide-angle region; a second optical system (21-1) configured to divide image data to be captured by the second image capture device (23-1) into a telephoto region and a wide-angle region; and a processor configured to perform image processing on the image data captured by the first image capture device and the image data captured by the second image capture device according to the telephoto region and the wide-angle region; characterised in that : the first optical system (21-0) and the second optical system (21-1) are each set with distortion characteristic satisfying formulas (X) and (Y) in the telephoto region, xD / 100 / s < 10 yD / 100 / s < 10 wherein x denotes an image height in the x axis, at a boundary between the telephoto region and the wide-angle region, in millimeter (mm), y denotes an image height in the y axis, at a boundary between the telephoto region and the wide-angle region, in millimeter (mm), D denotes the absolute value of distortion, in percent (%), and s denotes a sensor pitch, in millimeter (mm), of the first image capture device and the second image capture device . a first image capture device (23-0); a second image capture device (23-1); a first optical system (21-0) configured to divide image data to be captured by the first image capture device (23-0) into a telephoto region and a wide-angle region; a second optical system (21-1) configured to divide image data to be captured by the second image capture device (23-1) into a telephoto region and a wide-angle region; and a processor configured to perform image processing on the image data captured by the first image capture device and the image data captured by the second image capture device according to the telephoto region and the wide-angle region; characterised in that : the first optical system (21-0) and the second optical system (21-1) are each set with distortion characteristic satisfying formulas (X) and (Y) in the telephoto region, xD / 100 / s < 10 yD / 100 / s < 10 wherein x denotes an image height in the x axis, at a boundary between the telephoto region and the wide-angle region, in millimeter (mm), y denotes an image height in the y axis, at a boundary between the telephoto region and the wide-angle region, in millimeter (mm), D denotes the absolute value of distortion, in percent (%), and s denotes a sensor pitch, in millimeter (mm), of the first image capture device and the second image capture device . x denotes an image height in the x axis, at a boundary between the telephoto region and the wide-angle region, in millimeter (mm), y denotes an image height in the y axis, at a boundary between the telephoto region and the wide-angle region, in millimeter (mm), D denotes the absolute value of distortion, in percent (%), and s denotes a sensor pitch, in millimeter (mm), of the first image capture device and the second image capture device .
A sensing apparatus comprising: a frame element and a displaceable element mounted relative to the frame element, wherein the displaceable element comprises a sensing surface and a surrounding non-sensing surface , and wherein the displaceable element is configured to move along a displacement direction towards the bottom side of the frame element under application of a displacement load to the displaceable element by an object; a plurality of displacement sensor elements each configured to provide a displacement sensor output signal indicative of a displacement between the frame element and the displaceable element, wherein the plurality of displacement sensor elements are arranged at different spatial locations relative to the displaceable element and configured to provide a displacement sensor output signal indicative of a displacement between the frame element and the displaceable element at the respective spatial location; and processing circuitry configured to obtain the displacement sensor output signals from the plurality of displacement sensor elements and determine whether displacement of the displaceable element is a valid displacement by comparing at least the ratio between the displacement sensor output signals from a pair of the plurality of displacement sensor elements to one or more expected ratios for the pair of displacement sensor elements obtained in advance, wherein a valid displacement corresponds to a displacement load applied within the sensing surface of the displaceable element. a frame element and a displaceable element mounted relative to the frame element, wherein the displaceable element comprises a sensing surface and a surrounding non-sensing surface , and wherein the displaceable element is configured to move along a displacement direction towards the bottom side of the frame element under application of a displacement load to the displaceable element by an object; a plurality of displacement sensor elements each configured to provide a displacement sensor output signal indicative of a displacement between the frame element and the displaceable element, wherein the plurality of displacement sensor elements are arranged at different spatial locations relative to the displaceable element and configured to provide a displacement sensor output signal indicative of a displacement between the frame element and the displaceable element at the respective spatial location; and processing circuitry configured to obtain the displacement sensor output signals from the plurality of displacement sensor elements and determine whether displacement of the displaceable element is a valid displacement by comparing at least the ratio between the displacement sensor output signals from a pair of the plurality of displacement sensor elements to one or more expected ratios for the pair of displacement sensor elements obtained in advance, wherein a valid displacement corresponds to a displacement load applied within the sensing surface of the displaceable element.
A test strip for surface-enhanced Raman spectroscopy, comprising a substrate (B), to which a nitrocellulose membrane (C) is attached, wherein at one end of the nitrocellulose membrane (C) a sample part (A) is attached for application of the sample to be analysed, and at the opposite end of the nitrocellulose membrane (C) an absorption part (E) is attached for absorbing the sample passed through the test strip, the test strip further comprising a part (D) containing silver and/or gold nanoparticles, wherein the sample part (A) and the absorption part (E) are located at opposite ends of the test strip, and are adapted to freely transfer liquid from its application onto the sample part (A) through the nitrocellulose membrane (C), part (D) containing silver and/or gold nanoparticles, and the nitrocellulose membrane (C) until absorption of the sample in the absorption part (E), characterized in that the nitrocellulose membrane (C), the sample part (A) and the part (D) containing silver and/or gold nanoparticles have pore size in the range of from 0.20 to 0.45 μm, preferably 0.30 μm, and the absorption part (E) has a pore size in the range of from 0.45 to 0.50 μm; and in that the silver and/or gold nanoparticles are covalently bound to the nitrocellulose membrane (C) via nitrogen-containing functional groups present in the nitrocellulose membrane, and the part (D) is inserted in the middle of the test strip. characterized in that the nitrocellulose membrane (C), the sample part (A) and the part (D) containing silver and/or gold nanoparticles have pore size in the range of from 0.20 to 0.45 μm, preferably 0.30 μm, and the absorption part (E) has a pore size in the range of from 0.45 to 0.50 μm; and in that the silver and/or gold nanoparticles are covalently bound to the nitrocellulose membrane (C) via nitrogen-containing functional groups present in the nitrocellulose membrane, and the part (D) is inserted in the middle of the test strip.
A method for producing a laminar blank having a microsuction element, the method comprising: conveying a laminar blank along a first path, the laminar blank having an inner surface and an outer surface; conveying a microsuction tape along a second path, which is different to the first path; contacting a first portion of the microsuction tape with the outer surface of a first portion of the laminar blank, to secure the first portion of the microsuction tape to the first portion of the laminar blank; and cutting the microsuction tape to separate the first portion of the microsuction tape from the remainder of the microsuction tape, to thereby provide a laminar blank having a microsuction element, wherein the laminar blank is configured to be folded to form at least a portion of a container for consumer goods, the container comprising: a housing having an opening for accessing the consumer goods; and a lid connected to the housing and movable relative to the housing between a closed position in which the lid covers the opening and an open position in which the opening is uncovered. conveying a laminar blank along a first path, the laminar blank having an inner surface and an outer surface; conveying a microsuction tape along a second path, which is different to the first path; contacting a first portion of the microsuction tape with the outer surface of a first portion of the laminar blank, to secure the first portion of the microsuction tape to the first portion of the laminar blank; and cutting the microsuction tape to separate the first portion of the microsuction tape from the remainder of the microsuction tape, to thereby provide a laminar blank having a microsuction element, wherein the laminar blank is configured to be folded to form at least a portion of a container for consumer goods, the container comprising: a housing having an opening for accessing the consumer goods; and a lid connected to the housing and movable relative to the housing between a closed position in which the lid covers the opening and an open position in which the opening is uncovered. a housing having an opening for accessing the consumer goods; and a lid connected to the housing and movable relative to the housing between a closed position in which the lid covers the opening and an open position in which the opening is uncovered.
A red-light emitting diode, comprising: an n-doped portion; a p-doped portion comprising a p-doped aluminum gallium nitride layer; and a light emitting region located between the n-doped portion and a p-doped portion, the light emitting region comprising: a planar light-emitting quantum well which includes a planar light-emitting indium gallium nitride layer emitting light at a peak wavelength between 600 and 750 nm under electrical bias thereacross; a planar, not intentionally doped III-nitride layer comprising a not intentionally doped aluminum gallium nitride layer which has a composition Al y Ga (1-y) N, where y is in a range from 0.3 to 1.0, wherein the III-nitride layer is located on the light-emitting indium gallium nitride layer; and a planar, not intentionally doped GaN barrier layer located on the not intentionally doped III-nitride layer. an n-doped portion; a p-doped portion comprising a p-doped aluminum gallium nitride layer; and a light emitting region located between the n-doped portion and a p-doped portion, the light emitting region comprising: a planar light-emitting quantum well which includes a planar light-emitting indium gallium nitride layer emitting light at a peak wavelength between 600 and 750 nm under electrical bias thereacross; a planar, not intentionally doped III-nitride layer comprising a not intentionally doped aluminum gallium nitride layer which has a composition Al y Ga (1-y) N, where y is in a range from 0.3 to 1.0, wherein the III-nitride layer is located on the light-emitting indium gallium nitride layer; and a planar, not intentionally doped GaN barrier layer located on the not intentionally doped III-nitride layer. a planar light-emitting quantum well which includes a planar light-emitting indium gallium nitride layer emitting light at a peak wavelength between 600 and 750 nm under electrical bias thereacross; a planar, not intentionally doped III-nitride layer comprising a not intentionally doped aluminum gallium nitride layer which has a composition Al y Ga (1-y) N, where y is in a range from 0.3 to 1.0, wherein the III-nitride layer is located on the light-emitting indium gallium nitride layer; and a planar, not intentionally doped GaN barrier layer located on the not intentionally doped III-nitride layer.
A rail-mounted lift unit comprising: a lift motor , a switch arranged to move between a closed position, wherein the switch electrically couples the lift motor to an energy source, and an open position, wherein the switch electrically decouples the lift motor from the energy source; an emergency stop device coupled to the switch and arranged to move the switch from the closed position to the open position; a reset actuator coupled to the switch and arranged to move the switch from the open position to the closed position; one or more user interface devices ; and a control unit comprising a processor coupled to a non-transitory memory storing computer readable and executable instructions, the control unit being communicatively coupled to the reset actuator and the one or more user interface devices , wherein the control unit executes logic to: receive a reset input from the one or more user interface devices ; and move the switch from the open position to the closed position and reset the emergency stop device with the reset actuator when the reset input is received by the one or more user interface devices . a lift motor , a switch arranged to move between a closed position, wherein the switch electrically couples the lift motor to an energy source, and an open position, wherein the switch electrically decouples the lift motor from the energy source; an emergency stop device coupled to the switch and arranged to move the switch from the closed position to the open position; a reset actuator coupled to the switch and arranged to move the switch from the open position to the closed position; one or more user interface devices ; and a control unit comprising a processor coupled to a non-transitory memory storing computer readable and executable instructions, the control unit being communicatively coupled to the reset actuator and the one or more user interface devices , wherein the control unit executes logic to: receive a reset input from the one or more user interface devices ; and move the switch from the open position to the closed position and reset the emergency stop device with the reset actuator when the reset input is received by the one or more user interface devices . receive a reset input from the one or more user interface devices ; and move the switch from the open position to the closed position and reset the emergency stop device with the reset actuator when the reset input is received by the one or more user interface devices .
A distributor head of a distribution agricultural device comprising an outer hoop provided with at least four outlets of the same size evenly arranged along the circumference of the outer hoop , a movably positioned ring provided with a number of evenly arranged openings of the same size, number of which corresponds to half of the number of outlets , a main inlet and a driving mechanism , wherein the ring is connected to the driving mechanism through a ring attachment , wherein it further comprises an inner hoop provided with at least one guiding groove , wherein the ring is provided with at least one guiding pin movably positioned in the guiding groove , and wherein the ring has three operating positions , where in the first position the ring is located in the same plane as the outer hoop and the ring covers every other outlet , in the second position the ring is not located in the same plane as the outer hoop and therefore does not cover any outlet , and in the third position , different from the first position , the ring is located in the same plane as the outer hoop and covers every other outlet , wherein in the third position the ring covers different outlets than in the first position , and wherein the change of the position of the ring takes place by shifting the guiding member along the guiding groove .
A head for an oral care implement , the head having an elongated mounting surface with an outer circumference , a longitudinal axis extending between a proximal end attached to, or being repeatedly attachable to and detachable from a handle , and a distal end opposite the proximal end , the head comprising: two outer rows of tufts extending from the mounting surface along the longitudinal axis in proximity to the outer circumference , and an arc-shaped toe arranged at the distal end and being composed of filaments or a plurality of tufts of filaments arranged in an arc-shaped manner, characterized in that the tufts of the outer rows having a longitudinal extension and a cross-sectional area extending substantially perpendicular to the longitudinal extension , the cross-sectional area having an elongated shape with a longer axis and a shorter axis , wherein the tufts of the outer rows are arranged in a manner that the longer axis defines an angle α of from about 20° to about 65°, preferably from about 30° to about 50°, more preferably about 45° with respect to the longitudinal axis of the head , so that the tufts of the outer rows and the arc-shaped toe define an outer arc-shaped envelope . the tufts of the outer rows having a longitudinal extension and a cross-sectional area extending substantially perpendicular to the longitudinal extension , the cross-sectional area having an elongated shape with a longer axis and a shorter axis , wherein the tufts of the outer rows are arranged in a manner that the longer axis defines an angle α of from about 20° to about 65°, preferably from about 30° to about 50°, more preferably about 45° with respect to the longitudinal axis of the head , so that the tufts of the outer rows and the arc-shaped toe define an outer arc-shaped envelope .
A method of dynamically changing a mode of advertising for an electromechanical lock , the method comprising: transmitting advertisements via Bluetooth low energy, BTLE, from the electromechanical lock according to a nominal mode; and changing the nominal mode in response to a pre-set schedule, wherein changing the nominal mode in response to the pre-set schedule includes changing the nominal mode to a slower mode or a faster mode while a state of a variable of the electromechanical lock persists; wherein the state of the variable is a deadbolt status of the electromechanical lock; and characterized by overriding the pre-set schedule for a period of time in response to an event. transmitting advertisements via Bluetooth low energy, BTLE, from the electromechanical lock according to a nominal mode; and changing the nominal mode in response to a pre-set schedule, wherein changing the nominal mode in response to the pre-set schedule includes changing the nominal mode to a slower mode or a faster mode while a state of a variable of the electromechanical lock persists; wherein the state of the variable is a deadbolt status of the electromechanical lock; and characterized by overriding the pre-set schedule for a period of time in response to an event.