mhurhangee/patent-ind-claim-en huggingface dataset:
A projection apparatus, comprising a projection cavity , a light source , a scanning motor , and a processor , wherein the processor is connected to both the light source and the scanning motor and is configured to determine scanning parameters and light parameters; wherein a scanning mirror of the scanning motor is covered by a reflection layer , the reflection layer being configured to reflect light emitted by the light source outside of the projection cavity; wherein the projection apparatus is a near-eye projection apparatus; and wherein the light source and the scanning motor are located inside the projection cavity ; characterized in that the scanning mirror covered by the reflection layer is a surface with a first arc-shaped cross section, in that the reflection layer forms a convex reflective surface when the scanning motor performs scanning, the convex reflective surface having a second arc-shaped cross-section, and in that the first arc-shaped cross-section and the second arc-shaped cross-section are concentric, such that a scanning range of the light reflected outside the projection cavity is larger than a scanning range of the scanning motor . the processor is connected to both the light source and the scanning motor and is configured to determine scanning parameters and light parameters; wherein a scanning mirror of the scanning motor is covered by a reflection layer , the reflection layer being configured to reflect light emitted by the light source outside of the projection cavity; wherein the projection apparatus is a near-eye projection apparatus; and wherein the light source and the scanning motor are located inside the projection cavity ; characterized in that the scanning mirror covered by the reflection layer is a surface with a first arc-shaped cross section, in that the reflection layer forms a convex reflective surface when the scanning motor performs scanning, the convex reflective surface having a second arc-shaped cross-section, and in that the first arc-shaped cross-section and the second arc-shaped cross-section are concentric, such that a scanning range of the light reflected outside the projection cavity is larger than a scanning range of the scanning motor .
A gearbox for a vehicle, comprising a planetary gear with a ring gear , a sun wheel and a planetary wheel carrier , on which at least one planetary wheel is mounted in a rotatable manner, which ring gear and sun wheel engage with the at least one planetary wheel through teeth ; an input shaft to the gearbox is connected with the sun wheel , and the planetary wheel carrier is connected with an output shaft in the gearbox , a first axially shiftable coupling sleeve , which is arranged to disconnect the input shaft to the gearbox from the planetary wheel carrier in the first gear position, and to connect the input shaft with the planetary wheel carrier in the second gear position; a second axially shiftable coupling sleeve is arranged to connect a gearbox house surrounding the planetary gearbox with the ring gear in the first gear position, and to disconnect the gearbox house from the ring gear in the second gear position, and an axial stop , mounted on the planetary wheel carrier , abuts against and is connected with the ring gear , which axial stop prevents the ring gear from shifting axially, characterised in that the input shaft is connected with the sun wheel via a splines joint , which has an axial extension, allowing for an angular shift between the input shaft and the shaft of the sun wheel .
An automotive or architectural glazing, comprising: a glass product comprising first and second surfaces, wherein the first surface faces an exterior side of the automotive or architectural glazing and the second surface faces an interior side of the automotive or architectural glazing, wherein the glass product comprises at least one glass substrate ; a functional nano-structured coating (72;82) provided on at least one of the first and second surfaces of the glass product and having at least one function from a functional material applied to a precursor nano-structured coating having a porous surface, wherein the functional material coats the precursor nano-structured coating within the porous surface and comprises at least one Low-Emissivity (Low-E) functional material, at least one infrared absorbing coating or at least one conductive coating, wherein the precursor nano-structured coating comprises nano-pores less than or equal to 400 nm in diameter and the functional nano-structured coating is from 50 nm to 1 μm thick. a glass product comprising first and second surfaces, wherein the first surface faces an exterior side of the automotive or architectural glazing and the second surface faces an interior side of the automotive or architectural glazing, wherein the glass product comprises at least one glass substrate ; a functional nano-structured coating (72;82) provided on at least one of the first and second surfaces of the glass product and having at least one function from a functional material applied to a precursor nano-structured coating having a porous surface, wherein the functional material coats the precursor nano-structured coating within the porous surface and comprises at least one Low-Emissivity (Low-E) functional material, at least one infrared absorbing coating or at least one conductive coating, wherein the precursor nano-structured coating comprises nano-pores less than or equal to 400 nm in diameter and the functional nano-structured coating is from 50 nm to 1 μm thick.
A method comprising: transmitting a downlink control information message in a first subframe, the downlink control information message indicating a resource assignment and a modulation and coding scheme and indicating a plurality of cyclic shifts from which a user equipment may select one cyclic shift for transmission in a second subframe on an uplink carrier; receiving a data packet on a physical uplink shared channel in a resource indicated by the resource assignment and modulation and coding scheme, and using a demodulation reference signal based on a selected cyclic shift in the second subframe on the uplink carrier; wherein a first cyclic shift is indicated using a cyclic shift for demodulation reference signal and orthogonal cover code index field of the downlink control information message; and wherein a second cyclic shift is indicated using a field used for transmit power control for a physical uplink shared channel and a field used for a new data indicator. transmitting a downlink control information message in a first subframe, the downlink control information message indicating a resource assignment and a modulation and coding scheme and indicating a plurality of cyclic shifts from which a user equipment may select one cyclic shift for transmission in a second subframe on an uplink carrier; receiving a data packet on a physical uplink shared channel in a resource indicated by the resource assignment and modulation and coding scheme, and using a demodulation reference signal based on a selected cyclic shift in the second subframe on the uplink carrier; wherein a first cyclic shift is indicated using a cyclic shift for demodulation reference signal and orthogonal cover code index field of the downlink control information message; and wherein a second cyclic shift is indicated using a field used for transmit power control for a physical uplink shared channel and a field used for a new data indicator.
An imaging system, comprising a video camera that in turn comprises: a wide field of view lens ; an imaging sensor operable to form a wide field of view first image having a first pixel area; and an interface operable to receive commands from a host entertainment device; in which the video camera is operable to receive such a command from the host entertainment device requesting a secondary image having a second pixel area and based upon a 3D mapping of a portion of the first image; and the video camera comprises a graphics processor operable to perform the 3D mapping to generate the secondary image from the portion of the first image, characterised in that the 3D mapping comprises: estimating a plane of a surface from a position and estimated depth of at least three points on the surface as captured in the portion of the first image; estimating a first direction of a normal of that surface; and transforming the portion of the first image depicting that surface, by rotating the estimated normal of that surface in the scene in 3D space so that its normal substantially coincides with the normal of a 2D plane of the secondary image, to form the secondary image in which the normal of that surface points directly out of the secondary image. a wide field of view lens ; an imaging sensor operable to form a wide field of view first image having a first pixel area; and an interface operable to receive commands from a host entertainment device; in which the video camera is operable to receive such a command from the host entertainment device requesting a secondary image having a second pixel area and based upon a 3D mapping of a portion of the first image; and the video camera comprises a graphics processor operable to perform the 3D mapping to generate the secondary image from the portion of the first image, characterised in that the 3D mapping comprises: estimating a plane of a surface from a position and estimated depth of at least three points on the surface as captured in the portion of the first image; estimating a first direction of a normal of that surface; and transforming the portion of the first image depicting that surface, by rotating the estimated normal of that surface in the scene in 3D space so that its normal substantially coincides with the normal of a 2D plane of the secondary image, to form the secondary image in which the normal of that surface points directly out of the secondary image. estimating a plane of a surface from a position and estimated depth of at least three points on the surface as captured in the portion of the first image; estimating a first direction of a normal of that surface; and transforming the portion of the first image depicting that surface, by rotating the estimated normal of that surface in the scene in 3D space so that its normal substantially coincides with the normal of a 2D plane of the secondary image, to form the secondary image in which the normal of that surface points directly out of the secondary image.
Latch comprising a locking mechanism consisting of a catch and a pawl for ratcheting the catch in a ratchet position, an electric drive by means of which the pawl can be moved out of its ratchet position, a movable blocking pawl being provided which, in a blocking position, can prevent the electric drive from being able to open the latch, the electric drive being able to move a drive element for opening the locking mechanism and, in its blocking position, the blocking pawl extending into a recess in the drive element and thereby blocking or limiting movement of the drive element in such a way that the locking mechanism cannot be opened by the electric drive , the blocking pawl being rotatable about an axis , characterized in that a stop for the blocking pawl is provided, which stop can limit the movement of the blocking pawl into its blocking position.
Rotating electrical machine , notably for a motor vehicle, comprising: - a stator comprising a stator body provided with a plurality of stator teeth defining a plurality of notches , and a stator winding inserted into said notches , - a rotor having an axis of rotation (X) and comprising a plurality of rotor teeth defining cavities in which are housed permanent magnets , said rotor comprising a set of magnetic poles, - said stator comprises a stator tooth pitch (A1) equal to 360 degrees divided by the number of stator teeth , - each rotor tooth comprising an outer face facing an inner periphery of said stator , - in a radial plane (PI_R) relative to said axis of rotation (X), a rotor tooth aperture (A2) is equal to an angle between two straight lines (D1, D2) each passing through said axis of rotation (X) and an end orthoradial to said outer face , and - a ratio (R1) of said rotor tooth aperture (A2) expressed in degrees divided by said stator tooth pitch (A1) expressed in degrees is between 0.8 and 1.2, - a ratio (R2) between an inner diameter (L2) of said stator , expressed in mm, and a number of pairs of rotor poles (p) is between 12 and 22, notably between 13 and 21, for example between 14 and 20. - a stator comprising a stator body provided with a plurality of stator teeth defining a plurality of notches , and a stator winding inserted into said notches , - a rotor having an axis of rotation (X) and comprising a plurality of rotor teeth defining cavities in which are housed permanent magnets , said rotor comprising a set of magnetic poles, - said stator comprises a stator tooth pitch (A1) equal to 360 degrees divided by the number of stator teeth , - each rotor tooth comprising an outer face facing an inner periphery of said stator , - in a radial plane (PI_R) relative to said axis of rotation (X), a rotor tooth aperture (A2) is equal to an angle between two straight lines (D1, D2) each passing through said axis of rotation (X) and an end orthoradial to said outer face , and - a ratio (R1) of said rotor tooth aperture (A2) expressed in degrees divided by said stator tooth pitch (A1) expressed in degrees is between 0.8 and 1.2, - a ratio (R2) between an inner diameter (L2) of said stator , expressed in mm, and a number of pairs of rotor poles (p) is between 12 and 22, notably between 13 and 21, for example between 14 and 20.
Medical device, in particular for subcutaneous insertion of a sensor or an infusion set, comprising a cannula having an elongated hollow shaft and a sharp tip provided at a distal end of the shaft , wherein the shaft is formed as a bent part from a sheet material and confines an interior passage which has a lateral slit opening , characterized in that the shaft has at least one longitudinal pre-bending channel provided in the sheet material, wherein the thickness of the sheet material is reduced along the pre-bending channel and a sidewall of the shaft is folded over the pre-bending channel .
A power control apparatus for controlling equipment provided in a consumer facility , the consumer facility being a house, building or factory, comprising: a transceiver unit configured to transmit a command to the equipment to instruct processing executed by the equipment; and a control unit ; wherein the control unit is configured to acquire start time information indicating a time from when the equipment receives the command to when the equipment starts processing according to the command from the equipment and to control the equipment based on the acquired start time information, and the control unit is further configured to acquire completion time information indicating a time from when the equipment receives the command to when the equipment completes processing according to the command from the equipment and to control the equipment based on the acquired completion time information. a transceiver unit configured to transmit a command to the equipment to instruct processing executed by the equipment; and a control unit ; wherein the control unit is configured to acquire start time information indicating a time from when the equipment receives the command to when the equipment starts processing according to the command from the equipment and to control the equipment based on the acquired start time information, and the control unit is further configured to acquire completion time information indicating a time from when the equipment receives the command to when the equipment completes processing according to the command from the equipment and to control the equipment based on the acquired completion time information.
Non-therapeutic cosmetic use of a Scutellaria alpina extract as an active ingredient for skin whitening, reducing melanin, or suppressing pigmentation.
A powered circular surgical stapler , comprising a knife assembly , wherein the powered circular surgical stapler is configured to perform the following steps: advancing the knife assembly at a first velocity until a first predetermined force on the knife assembly is detected; and advancing the knife assembly at a second velocity when the first predetermined force is detected, the second velocity being less than the first velocity; followed by either: (A) continuing to advance the knife assembly at the second velocity until the knife assembly travels a cutting stroke distance; or (B) continuing to advance the knife assembly at the second velocity until a second predetermined force on the knife assembly is detected; followed by advancing the knife assembly at a third velocity which is less than the second velocity until the knife assembly travels the cutting stroke distance. advancing the knife assembly at a first velocity until a first predetermined force on the knife assembly is detected; and advancing the knife assembly at a second velocity when the first predetermined force is detected, the second velocity being less than the first velocity; followed by either: (A) continuing to advance the knife assembly at the second velocity until the knife assembly travels a cutting stroke distance; or (B) continuing to advance the knife assembly at the second velocity until a second predetermined force on the knife assembly is detected; followed by advancing the knife assembly at a third velocity which is less than the second velocity until the knife assembly travels the cutting stroke distance. (A) continuing to advance the knife assembly at the second velocity until the knife assembly travels a cutting stroke distance; or (B) continuing to advance the knife assembly at the second velocity until a second predetermined force on the knife assembly is detected; followed by advancing the knife assembly at a third velocity which is less than the second velocity until the knife assembly travels the cutting stroke distance.
A method for transmitting data on a physical uplink data channel, PUSCH, in a subframe by a user equipment, UE, the method comprising: receiving first information associated with a first power control process and second information associated with a second power control process and receiving information indicating a first subframe set and a second subframe set; determining first power for PUSCH transmission in the subframe using the first power control process when the subframe belongs to the first subframe set; determining second power for the PUSCH transmission in the subframe using the second power control process when the subframe belongs to the second subframe set; and transmitting the data on the PUSCH with the determined first power or second power. receiving first information associated with a first power control process and second information associated with a second power control process and receiving information indicating a first subframe set and a second subframe set; determining first power for PUSCH transmission in the subframe using the first power control process when the subframe belongs to the first subframe set; determining second power for the PUSCH transmission in the subframe using the second power control process when the subframe belongs to the second subframe set; and transmitting the data on the PUSCH with the determined first power or second power.
A percutaneously implantable replacement heart valve, which valve comprises: a collapsible-expandable heart valve stent of generally tubular shape made of a shape-memory material which includes proximal and distal rings and at least three spaced apart posts that extend axially between said rings , and a valvular device comprising a plurality of flexible leaflets disposed interior of said stent , which leaflets open to permit blood flow in a downstream direction and close to prevent blood flow in an upstream direction therethrough, characterized in that wherein the proximal ring is formed to have an outwardly concave C-shape contour, and said stent further comprises a plurality of distal arms extending from some spaced-apart tips of the proximal ring at a distal end of the proximal ring , and a plurality of proximal arms extending from some other spaced-apart tips of the proximal ring at a proximal end of the proximal ring in an opposite direction to the plurality of distal arms , wherein the proximal ring , the proximal arms , and the distal arms wrap around leaves of a malfunctioning heart valve. a collapsible-expandable heart valve stent of generally tubular shape made of a shape-memory material which includes proximal and distal rings and at least three spaced apart posts that extend axially between said rings , and a valvular device comprising a plurality of flexible leaflets disposed interior of said stent , which leaflets open to permit blood flow in a downstream direction and close to prevent blood flow in an upstream direction therethrough, characterized in that wherein the proximal ring is formed to have an outwardly concave C-shape contour, and said stent further comprises a plurality of distal arms extending from some spaced-apart tips of the proximal ring at a distal end of the proximal ring , and a plurality of proximal arms extending from some other spaced-apart tips of the proximal ring at a proximal end of the proximal ring in an opposite direction to the plurality of distal arms , wherein the proximal ring , the proximal arms , and the distal arms wrap around leaves of a malfunctioning heart valve.
Brake system for a vehicle, comprising: - at least two hydraulic brake circuits (BK1, BK2) with in each case at least one hydraulically acting wheel brake (RB1, RB2, RB3, RB4), - at least two pressure supply devices (DVI, DV2), which are driven by an electric motor drive (MI, M2), - at least one valve assembly (HCU) with valves for the wheel-specific adjustment of brake pressures and/or for disconnecting or connecting the at least one wheel brake (RB1, RB2, RB3, RB4) from or to a pressure supply device (DVI, DV2) of the at least two pressure supply devices (DVI, DV2) - at least one electronic control and regulating unit, wherein one of them is a superordinate central control unit (M-ECU) which controls individual control and regulating units of components of the brake system, and - at least one additional electric drive motor (TM1, TM2) for at least one axle or wheel of the vehicle, wherein the additional electric drive motor (TM1, TM2) can be utilized to drive and decelerate the axle or the wheel, wherein for steering interventions (torque vectoring), the brake system utilizes the at least one pressure supply device (DVI, DV2) for pressure regulation in at least one wheel brake (RB) and/or utilizes the at least one electric drive motor (TM1, TM2), wherein, during braking, different brake torques are generated at the axles for the brakeforce distribution and/or at the wheels of an axle for generating a yaw moment or steering intervention (torque vectoring) by means of the at least one wheel brake (RB1, RB2, RB3, RB4) and/or the at least one drive motor (TM1, TM2). - at least two hydraulic brake circuits (BK1, BK2) with in each case at least one hydraulically acting wheel brake (RB1, RB2, RB3, RB4), - at least two pressure supply devices (DVI, DV2), which are driven by an electric motor drive (MI, M2), - at least one valve assembly (HCU) with valves for the wheel-specific adjustment of brake pressures and/or for disconnecting or connecting the at least one wheel brake (RB1, RB2, RB3, RB4) from or to a pressure supply device (DVI, DV2) of the at least two pressure supply devices (DVI, DV2) - at least one electronic control and regulating unit, wherein one of them is a superordinate central control unit (M-ECU) which controls individual control and regulating units of components of the brake system, and - at least one additional electric drive motor (TM1, TM2) for at least one axle or wheel of the vehicle, wherein the additional electric drive motor (TM1, TM2) can be utilized to drive and decelerate the axle or the wheel, wherein