mhurhangee/patent-ind-claim-en huggingface dataset:
An oral hygiene device comprising: (a) a unitary integrally moulded elongate shaft forming an elongate handle having a proximal end , and a distal end of circular cross-section; and (b) a head comprising a body portion encircling the distal end of the shaft, and flexible filaments of non-absorbent material and of uniform diameter extending transversely from said body portion, the body portion and the flexible filaments being formed as an integral one-piece moulding that is fused to the distal end of the shaft, wherein the integral flexible filaments are in a plurality of rows , each said row extending longitudinally of the shaft and comprising at least five of the filaments, wherein the rows of filaments are distributed around the head such that there is no more than 60° angular separation between adjacent rows (9c, 9d, 9e, 9f; 9i, 9j, 9k,9l) and a selected plurality of said rows (9a, 9b, 9c; 9g, 9h, 9i) are parallel to one another, wherein said distal end and head are of frustoconical shape, wherein the head being of frustoconical shape is tapering inwardly towards a face at the free end that is smooth, devoid of flexible filaments, and either flat or convex. (a) a unitary integrally moulded elongate shaft forming an elongate handle having a proximal end , and a distal end of circular cross-section; and (b) a head comprising a body portion encircling the distal end of the shaft, and flexible filaments of non-absorbent material and of uniform diameter extending transversely from said body portion, the body portion and the flexible filaments being formed as an integral one-piece moulding that is fused to the distal end of the shaft, wherein the integral flexible filaments are in a plurality of rows , each said row extending longitudinally of the shaft and comprising at least five of the filaments, wherein the rows of filaments are distributed around the head such that there is no more than 60° angular separation between adjacent rows (9c, 9d, 9e, 9f; 9i, 9j, 9k,9l) and a selected plurality of said rows (9a, 9b, 9c; 9g, 9h, 9i) are parallel to one another, wherein said distal end and head are of frustoconical shape, wherein the head being of frustoconical shape is tapering inwardly towards a face at the free end that is smooth, devoid of flexible filaments, and either flat or convex.
A mobile machine comprising: a chassis ; a plurality of ground-engaging elements for supporting the chassis on a ground surface and propelling the chassis relative to the ground surface, each of the plurality of ground-engaging elements being at a fixed angle relative to the chassis ; a plurality of actuators for driving movement of the ground-engaging elements , each of the actuators being configured to drive movement of at least one of the ground-engaging elements independently of the other ground-engaging elements; and a controller for controlling each of the actuators to cause the mobile machine to follow a reference path , the controller configured to implement a cascading control loop for controlling movement of the mobile machine , wherein an inner loop is configured to drive the actuators so that the mobile machine follows a set heading (headset) determined by an outer loop, characterised in that the outer loop is configured to determinethe set heading (headset) for reducing a distance between the mobile machine and the reference path , the set heading (headset) being determined using a heading reference value ( head ref ) and a hyperbolic tangent function of the product of a distance (d) of the mobile machine from the reference path and an error slope parameter ( err slope ), and the controller is further configured to automatically adjust the error slope ( err slope ) value so that the rate of change of the set heading (headset) does not exceed the mobile machine's maximum yaw rate. a chassis ; a plurality of ground-engaging elements for supporting the chassis on a ground surface and propelling the chassis relative to the ground surface, each of the plurality of ground-engaging elements being at a fixed angle relative to the chassis ; a plurality of actuators for driving movement of the ground-engaging elements , each of the actuators being configured to drive movement of at least one of the ground-engaging elements independently of the other ground-engaging elements; and a controller for controlling each of the actuators to cause the mobile machine to follow a reference path , the controller configured to implement a cascading control loop for controlling movement of the mobile machine , wherein an inner loop is configured to drive the actuators so that the mobile machine follows a set heading (headset) determined by an outer loop, characterised in that the outer loop is configured to determinethe set heading (headset) for reducing a distance between the mobile machine and the reference path , the set heading (headset) being determined using a heading reference value ( head ref ) and a hyperbolic tangent function of the product of a distance (d) of the mobile machine from the reference path and an error slope parameter ( err slope ), and the controller is further configured to automatically adjust the error slope ( err slope ) value so that the rate of change of the set heading (headset) does not exceed the mobile machine's maximum yaw rate.
A camera assembly , characterized in , comprising at least two lens assemblies having an image sensor , one lens assembly being configured to detect a current ambient brightness that is used to control exposure time of each light sensor component corresponding to each pixel in another lens assembly configured to obtain an image, wherein each image sensor comprises: a pixel array , comprising a plurality of row pixels and a plurality of column pixels, wherein each pixel is associated with a single switch; and a control circuit , configured to: control each pixel in the pixel array to work separately by controlling the single switch to be switched on or off; control the image sensor to work in an imaging mode or in a light sensing mode; receive a light sensing instruction to control an intersection region of a part of row pixels and a part of column pixels in the pixel array to detect an illumination intensity, so as to enable the image sensor to work in the light sensing mode; and receive an imaging instruction to control the pixel array to acquire an image, so as to enable the image sensor to work in the imaging mode; wherein the intersection region is an annular intersection region surrounding a center of the pixel array . a pixel array , comprising a plurality of row pixels and a plurality of column pixels, wherein each pixel is associated with a single switch; and a control circuit , configured to: control each pixel in the pixel array to work separately by controlling the single switch to be switched on or off; control the image sensor to work in an imaging mode or in a light sensing mode; receive a light sensing instruction to control an intersection region of a part of row pixels and a part of column pixels in the pixel array to detect an illumination intensity, so as to enable the image sensor to work in the light sensing mode; and receive an imaging instruction to control the pixel array to acquire an image, so as to enable the image sensor to work in the imaging mode; control each pixel in the pixel array to work separately by controlling the single switch to be switched on or off; control the image sensor to work in an imaging mode or in a light sensing mode; receive a light sensing instruction to control an intersection region of a part of row pixels and a part of column pixels in the pixel array to detect an illumination intensity, so as to enable the image sensor to work in the light sensing mode; and receive an imaging instruction to control the pixel array to acquire an image, so as to enable the image sensor to work in the imaging mode; wherein the intersection region is an annular intersection region surrounding a center of the pixel array .
Group of at least two assemblies each comprising a support, at least one rail and a plurality of devices for fixing said rail to said support, said support comprising a plurality of concrete blocks , each block being integral and comprising at least two grooves , said fixing devices each comprising at least one head arranged in a groove of one of said blocks , said assemblies each comprising a plain track section, or a turnout, the plain track sections or turnouts of the first and second assemblies having different geometries, said group being characterized in that at least one block of said first assembly is identical to at least one block of said second assembly, or one of the two assemblies comprises at least two identical blocks.
Umbrella with a holding device for fastening the umbrella in a releasable manner on the clothing of a person using the umbrella, wherein the umbrella has at least a handle , an umbrella shaft and a fastening means which is mounted on the umbrella shaft , characterized in that - at least one freely movable holding body is arranged in a releasable manner on or in the handle of the umbrella, - wherein the handle and the freely movable holding body , which is arranged at least on a vertically extending connecting region of the handle , comprise a magnetic connection for fastening the handle in a releasable manner on the clothing that is able to be arranged between handle and holding body , and - the fastening means , for the purpose of producing a second holding point of the umbrella shaft on the clothing above the handle , is guided and fastened so as to be releasable and displaceable on the umbrella shaft . - at least one freely movable holding body is arranged in a releasable manner on or in the handle of the umbrella, - wherein the handle and the freely movable holding body , which is arranged at least on a vertically extending connecting region of the handle , comprise a magnetic connection for fastening the handle in a releasable manner on the clothing that is able to be arranged between handle and holding body , and - the fastening means , for the purpose of producing a second holding point of the umbrella shaft on the clothing above the handle , is guided and fastened so as to be releasable and displaceable on the umbrella shaft .
A method of wireless communications performed by a user equipment, UE, , comprising: communicating with and camping on a next generation node B, gNB, in a 5G new radio, NR, system; initiating a voice call with the gNB; receiving a 5GNR-to-long term evolution, LTE, handover command in response to initiating the voice call; performing a handover procedure in response to the handover command; detecting a failure in the handover procedure; and taking one or more actions in response to detecting the failure in the handover procedure, wherein taking the one or more actions comprises: returning to camp on the gNB in the 5G NR system when the UE has not received, from the gNB, at least one of: a) an NR-to-LTE voice fallback indicator in the handover command, or b) an indication of evolved packet system, EPS, or inter-radio access technology, RAT, fallback support in a registration accept message; and attempting a handover procedure with one or more secondary LTE cells after returning to camp on the gNB. communicating with and camping on a next generation node B, gNB, in a 5G new radio, NR, system; initiating a voice call with the gNB; receiving a 5GNR-to-long term evolution, LTE, handover command in response to initiating the voice call; performing a handover procedure in response to the handover command; detecting a failure in the handover procedure; and taking one or more actions in response to detecting the failure in the handover procedure, wherein taking the one or more actions comprises: returning to camp on the gNB in the 5G NR system when the UE has not received, from the gNB, at least one of: a) an NR-to-LTE voice fallback indicator in the handover command, or b) an indication of evolved packet system, EPS, or inter-radio access technology, RAT, fallback support in a registration accept message; and attempting a handover procedure with one or more secondary LTE cells after returning to camp on the gNB. returning to camp on the gNB in the 5G NR system when the UE has not received, from the gNB, at least one of: a) an NR-to-LTE voice fallback indicator in the handover command, or b) an indication of evolved packet system, EPS, or inter-radio access technology, RAT, fallback support in a registration accept message; and a) an NR-to-LTE voice fallback indicator in the handover command, or b) an indication of evolved packet system, EPS, or inter-radio access technology, RAT, fallback support in a registration accept message; and attempting a handover procedure with one or more secondary LTE cells after returning to camp on the gNB.
A computer-implemented method for processing operations for head mounted display (HMD) users to join virtual reality (VR) scenes, comprising: providing a first perspective of a VR scene to a first HMD of a first user ; tracking the real-world position and orientation of the first HMD and the position and orientation of the second HMD; determining real-world position and orientation data of the second HMD relative to the first HMD; and receiving an indication that a second user of a second HMD is requesting to join the VR scene provided to the first HMD by detecting that the second HMD is within a predetermined proximity of the first user in a real-world location within which the first user may be expected to move about or gesture; providing a second perspective of the VR scene in response to the request to join the VR scene by the second user by modifying the first perspective of the VR scene based on the real-world position and orientation data of the second HMD relative to the first HMD; wherein the first perspective and the second perspective of the VR scene are each controlled by respective position and orientation changes of the first HMD and the second HMD. providing a first perspective of a VR scene to a first HMD of a first user ; tracking the real-world position and orientation of the first HMD and the position and orientation of the second HMD; determining real-world position and orientation data of the second HMD relative to the first HMD; and receiving an indication that a second user of a second HMD is requesting to join the VR scene provided to the first HMD by detecting that the second HMD is within a predetermined proximity of the first user in a real-world location within which the first user may be expected to move about or gesture; providing a second perspective of the VR scene in response to the request to join the VR scene by the second user by modifying the first perspective of the VR scene based on the real-world position and orientation data of the second HMD relative to the first HMD; wherein the first perspective and the second perspective of the VR scene are each controlled by respective position and orientation changes of the first HMD and the second HMD.
Light-emitting device, comprising: - a first electrode (E 1 ), reflecting in a spectral range; - a second electrode (E 2 ); - a light-emitting layer (EL), extending between the first and second electrodes (E 1 , E 2 ), and adapted to emit electromagnetic radiation in the spectral range, the electromagnetic radiation emitted by the light-emitting layer (EL) being circularly polarized in a first polarization direction, the electromagnetic radiation reflected by the first electrode (E 1 ) being circularly polarized in a second polarization direction, opposite to the first polarization direction; characterized in that the second electrode (E 2 ) is structured so as to define: - opaque patterns (M) in the spectral range, arranged to block transmission of the circularly polarized electromagnetic radiation in the first polarization direction; - a spacing zone (ZE), spacing apart the opaque patterns (M) from one another, and transparent in the spectral range so as to allow transmission of the circularly polarized electromagnetic radiation in the second polarization direction. - a first electrode (E 1 ), reflecting in a spectral range; - a second electrode (E 2 ); - a light-emitting layer (EL), extending between the first and second electrodes (E 1 , E 2 ), and adapted to emit electromagnetic radiation in the spectral range, the electromagnetic radiation emitted by the light-emitting layer (EL) being circularly polarized in a first polarization direction, the electromagnetic radiation reflected by the first electrode (E 1 ) being circularly polarized in a second polarization direction, opposite to the first polarization direction; - opaque patterns (M) in the spectral range, arranged to block transmission of the circularly polarized electromagnetic radiation in the first polarization direction; - a spacing zone (ZE), spacing apart the opaque patterns (M) from one another, and transparent in the spectral range so as to allow transmission of the circularly polarized electromagnetic radiation in the second polarization direction.
A composition comprising: (A) from 85 wt% to 99 wt% of an olefin-based polymer; (B) from 15 wt% to 1 wt% of an odor suppressant comprising a blend of: (i) particles of zinc oxide, the particles having a D50 particle size from 100 nm to 3000 nm, a surface area from 1 m 2 /g to 9 m 2 /g, and a porosity less than 0.020 m 3 /g; (ii) a zinc ionomer, and the composition has a methyl mercaptan odor suppression value of less than 70 at 3 days as measured in accordance with ASTM D5504-12. (A) from 85 wt% to 99 wt% of an olefin-based polymer; (B) from 15 wt% to 1 wt% of an odor suppressant comprising a blend of: (i) particles of zinc oxide, the particles having a D50 particle size from 100 nm to 3000 nm, a surface area from 1 m 2 /g to 9 m 2 /g, and a porosity less than 0.020 m 3 /g; (ii) a zinc ionomer, and the composition has a methyl mercaptan odor suppression value of less than 70 at 3 days as measured in accordance with ASTM D5504-12. (i) particles of zinc oxide, the particles having a D50 particle size from 100 nm to 3000 nm, a surface area from 1 m 2 /g to 9 m 2 /g, and a porosity less than 0.020 m 3 /g; (ii) a zinc ionomer, and
An inspection device configured to be provided in a mounter that is configured to pick up components supplied by a component supply device and mount the components on a circuit board, the inspection device comprising: a holding table capable of holding a component; a pair of measuring elements capable of moving towards and away from each other and capable of measuring electrical characteristics of a component by gripping the component; a holding table moving device that is configured to move the holding table ; a holding table movement control device that is configured to control the holding table moving device , wherein the holding table movement control device includes a measurement control section that is configured to, from a clamping state in which the pair of measuring elements grips the component held on the holding table , separate the holding table from the component by at least a set value, thus changing to a measurement state in which it is possible to measure electrical characteristics of the component, wherein the pair of measuring elements include a pair of opposing surfaces that oppose each other and that can contact the component, the component is held by the pair of opposing surfaces moving closer to each other, the component is released by the pair of opposing surfaces moving away from each other, and the holding table moving device includes a discard control section that changes from the measurement state to a discard state in which the component is caused to drop off from the pair of opposing surfaces and the holding table is not below the space between the pair of opposing surfaces that have been separated from each other, by moving the holding table . a holding table capable of holding a component; a pair of measuring elements capable of moving towards and away from each other and capable of measuring electrical characteristics of a component by gripping the component; a holding table moving device that is configured to move the holding table ; a holding table movement control device that is configured to control the holding table moving device , wherein the holding table movement control device includes a measurement control section that is configured to, from a clamping state in which the pair of measuring elements grips the component held on the holding table , separate the holding table from the component by at least a set value, thus changing to a measurement state in which it is possible to measure electrical characteristics of the component, wherein the pair of measuring elements include a pair of opposing surfaces that oppose each other and that can contact the component, the component is held by the pair of opposing surfaces moving closer to each other, the component is released by the pair of opposing surfaces moving away from each other, and the holding table moving device includes a discard control section that changes from the measurement state to a discard state in which the component is caused to drop off from the pair of opposing surfaces and the holding table is not below the space between the pair of opposing surfaces that have been separated from each other, by moving the holding table .
Use of a storage device for at least one component-carrier carriage of a conveying device for an automated production line, wherein the storage device comprises at least one receiving point and at least one discharge point and multiple storage points , wherein the component-carrier carriages are conveyed on a transport track, in particular a single-line track , wherein, for the purpose of being stored in the storage points , the component-carrier carriages are able to be transferred, in particular are able to be lifted off, from said transport track onto a storage track , and wherein at least one traversing carriage is comprised, wherein the traversing carriage is configured for receiving a component-carrier carriage transferred, in particular lifted off, from the transport track, characterized in that the traversing carriage comprises two crossmembers, wherein the crossmembers receive a component-carrier carriage at crossmembers of the component-carrier carriage and transport said component-carrier carriage.
Tyre for a vehicle of the heavy-duty type, comprising a radial carcass reinforcement made up of at least one layer of metal reinforcing elements, said tyre comprising a crown reinforcement , said crown reinforcement being capped radially by a tread , said tread being joined to two beads via two sidewalls, characterized in that, in a meridian section of the tyre, the smallest thickness E of the sidewall, measured in the axial direction, is greater than 10 millimetres, and in that the thickness E2 of rubber compound, measured in the axial direction defined by the smallest thickness of the sidewall, between the inner surface of the cavity of the tyre and the closest point of a metal reinforcing element of said at least one carcass reinforcement layer to said inner surface of the cavity is greater than the thickness E1 of rubber compound, measured in the axial direction defined by the smallest thickness of the sidewall, between the outer surface of the tyre and the closest point of a metal reinforcing element of said at least one carcass reinforcement layer to said outer surface of the tyre.