mhurhangee/patent-ind-claim-en huggingface dataset:
A method of stabilizing heading in an inertial navigation system to correct for position error and velocity error due to vertical angular drift, the method comprising: operating an inertial measurement unit comprising horizontal-sensing elements that include: a first-horizontal-sensing gyroscope ; a first-horizontal-sensing accelerometer ; a second-horizontal-sensing gyroscope ; and a second-horizontal sensing accelerometer , and further comprising off-horizontal-sensing elements that include a vertical-sensing gyroscope and a vertical-sensing accelerometer , while the inertial measurement unit is in a first orientation with respect to x 1 , y 1 , and z 1 coordinates, wherein the horizontal-sensing elements are oriented in a horizontal reference plane (x 1 , y 1 ) of the x 1 , y 1 , and z 1 coordinates; calibrating the horizontal-sensing elements of the inertial measurement unit based on horizontal aiding measurements, the horizontal aiding measurements including a horizontal position reference and/or a horizontal velocity reference , received at a Kalman filter from a horizontal position sensor and a horizontal velocity sensor respectively,; the method further characterised by forward-rotating the inertial measurement unit by ninety degrees about a horizontal rotation axis of a rotational device , the horizontal-rotation axis being parallel to and offset from the x 1 axis, wherein the inertial measurement unit is oriented in a second orientation , and wherein, while the inertial measurement unit is in the second orientation, the off-horizontal-sensing elements are oriented in the horizontal reference plane; operating the forward-rotated inertial measurement unit while the inertial measurement unit is in the second orientation; and while the inertial measurement unit is in the second orientation, calibrating the rotated off-horizontal-sensing elements based on the horizontal aiding measurements received at the Kalman filter from the horizontal position sensor and/or the horizontal velocity sensor .
A method for allocating an Identifier, ID, of a data bearer, being applied to a terminal device and comprising: when receiving Data Radio Bearer, DRB, configuration information sent by a network side, allocating or reconfiguring , by the terminal device, a DRB ID, wherein the network side is applied to a dual connection system comprising: a Master Node, MN, and a Secondary Node, SN, and the SN is used for configuring a DRB ID; and sending , by the terminal device, a DRB configuration confirmation instruction to the network side, wherein the DRB configuration confirmation instruction comprises: an allocated DRB ID or a reconfigured DRB ID; wherein when receiving the DRB configuration information sent by the network side, allocating or reconfiguring , by the terminal device, the DRB ID comprises: when the DRB configuration information does not contain a DRB ID allocated by the network side, selecting one DRB ID from at least one available DRB ID as the allocated DRB ID; or, when the DRB configuration information contains a temporary DRB ID allocated by the network side, reselecting, by the terminal device, a DRB ID, and replacing, by the terminal device, the temporary DRB ID with the reselected DRB ID. when receiving Data Radio Bearer, DRB, configuration information sent by a network side, allocating or reconfiguring , by the terminal device, a DRB ID, wherein the network side is applied to a dual connection system comprising: a Master Node, MN, and a Secondary Node, SN, and the SN is used for configuring a DRB ID; and sending , by the terminal device, a DRB configuration confirmation instruction to the network side, wherein the DRB configuration confirmation instruction comprises: an allocated DRB ID or a reconfigured DRB ID; wherein when receiving the DRB configuration information sent by the network side, allocating or reconfiguring , by the terminal device, the DRB ID comprises: when the DRB configuration information does not contain a DRB ID allocated by the network side, selecting one DRB ID from at least one available DRB ID as the allocated DRB ID; or, when the DRB configuration information contains a temporary DRB ID allocated by the network side, reselecting, by the terminal device, a DRB ID, and replacing, by the terminal device, the temporary DRB ID with the reselected DRB ID.
Method for controlling a motor vehicle headlamp, the motor vehicle headlamp at least comprising a laser diode and a light conversion element associated with the laser diode , wherein regions of the light conversion element corresponding to different regions of the light image can be illuminated periodically and with different intensity by a light beam from the laser diode , wherein the illumination intensity in the regions of the light conversion element corresponding to the different regions of the light image is simultaneously adjusted both by the relative illumination duration of the different regions and by different light intensities of the laser diode in the regions of the light conversion element corresponding to the different regions of the light image , and the relative illumination duration is achieved by pivoting the light beam at different speeds in the regions of the light conversion element corresponding to the different regions of the light image , characterized in that in areas in which the light beam is moved at an angular velocity below a defined value for the angular velocity, only one switching-off and one switching-on of the laser diode takes place and different light intensities of the laser diode are set above a defined value for the angular velocity.
Transmitter (110-m) for transmitting payload data (112-m) via a unidirectional communication to a receiver within a time interval (T), comprising a means (ENC) for generating a plurality of channel-coded data packets (210-n) from the payload data (112-m), each of the channel-coded data packets comprising packet core data (212-n) corresponding to a packet identification which is different for each of the plurality of channel coded data packets (210-n), and the packet core data (212-n) being coded with a channel code of a higher redundancy than the payload data (112-m), wherein the plurality of data packets comprise different coded payload data; and a means (TX) for transmitting the plurality of channel-coded data packets (210-n) to the receiver within the time interval (T), the means (TX) for transmitting being configured to transmit the plurality of channel-coded data packets (210-n) from the transmitter (110-m) to the receiver within the time interval (T) without using a return channel; wherein the channel-coded data packets (210-n) are decodable by themselves at a decoder end given a sufficiently correct transmission, so as to obtain the associated payload data ; wherein the means (TX) for transmitting is configured to transmit a first one of the plurality of channel-coded data packets (210-1) at a random time and to subsequently transmit any remaining data packets of the plurality of channel-coded data packets within the time interval.
A method comprising: establishing, at a remote unit, a first connection with a primary network slice of a mobile communication network, the primary network slice supporting a first set of service types; establishing, at the remote unit, a second connection with a secondary network slice of the mobile communication network while maintaining the first connection, the secondary network slice supporting a second set of service types; detecting a mobility management event for the remote unit, wherein the first connection and the second connection are maintained when the mobility management event occurs; transmitting a single mobility management request to the primary network slice via the first connection in response to the mobility management event; and receiving a mobility management response via the first connection, wherein the mobility management response includes a first response from the primary network slice and a second response from the secondary network slice. establishing, at a remote unit, a first connection with a primary network slice of a mobile communication network, the primary network slice supporting a first set of service types; establishing, at the remote unit, a second connection with a secondary network slice of the mobile communication network while maintaining the first connection, the secondary network slice supporting a second set of service types; detecting a mobility management event for the remote unit, wherein the first connection and the second connection are maintained when the mobility management event occurs; transmitting a single mobility management request to the primary network slice via the first connection in response to the mobility management event; and receiving a mobility management response via the first connection, wherein the mobility management response includes a first response from the primary network slice and a second response from the secondary network slice.
A cardboard box dividing device for cutting and dividing, along a width direction intersecting with a transport direction, a connected cardboard box laminate in which a plurality of connected cardboard box bodies (B0) continuous along the transport direction are stacked in a thickness direction, the cardboard box dividing device comprising: lower conveyors on which the plurality of connected cardboard box (B0) bodies are configured to be stacked and transported; a pressing device configured for pressing, from above, a plurality of connected cardboard box bodies (B0) stacked on the lower conveyors ; a cutting knife disposed along a width direction (Db) of a connected cardboard box body (B0) and configured for dividing a plurality of connected cardboard box bodies (B0) stacked on the lower conveyor into a front part and a rear part; and a lifting/lowering device having a lifting/lowering base supporting the lower conveyors , and the lifting/lowering drive device for lifting and lowering the lifting/lowering base , configured for relatively moving a plurality of connected cardboard box bodies (B0) on the lower conveyor and the cutting knife along an up-down direction; characterized in that the cardboard box dividing device further comprises: upper conveyors disposed so as to face the lower conveyors from above and supporting upper portions of a plurality of stacked connected cardboard box bodies (BO); wherein the lifting/lowering base is configured to support the upper conveyors , and the pressing device . lower conveyors on which the plurality of connected cardboard box (B0) bodies are configured to be stacked and transported; a pressing device configured for pressing, from above, a plurality of connected cardboard box bodies (B0) stacked on the lower conveyors ; a cutting knife disposed along a width direction (Db) of a connected cardboard box body (B0) and configured for dividing a plurality of connected cardboard box bodies (B0) stacked on the lower conveyor into a front part and a rear part; and a lifting/lowering device having a lifting/lowering base supporting the lower conveyors , and the lifting/lowering drive device for lifting and lowering the lifting/lowering base , configured for relatively moving a plurality of connected cardboard box bodies (B0) on the lower conveyor and the cutting knife along an up-down direction; characterized in that the cardboard box dividing device further comprises: upper conveyors disposed so as to face the lower conveyors from above and supporting upper portions of a plurality of stacked connected cardboard box bodies (BO); wherein the lifting/lowering base is configured to support the upper conveyors , and the pressing device . upper conveyors disposed so as to face the lower conveyors from above and supporting upper portions of a plurality of stacked connected cardboard box bodies (BO); wherein the lifting/lowering base is configured to support the upper conveyors , and the pressing device .
A spark plug , comprising: a bottomed tubular insulator that extends along an axial line (O) from a front end side to a rear end side and is closed at a front end; a tubular metal shell having a ledge portion that projects radially inward and locks the insulator from the front end side, the metal shell holding the insulator from an outer peripheral side; characterized in a conductive layer that covers at least a part of an inner peripheral surface of a portion of the insulator which is located on the front end side with respect to a locking portion of the insulator locked by the ledge portion ; and a terminal that is electrically connected to the conductive layer and is insulated from the metal shell . a bottomed tubular insulator that extends along an axial line (O) from a front end side to a rear end side and is closed at a front end; a tubular metal shell having a ledge portion that projects radially inward and locks the insulator from the front end side, the metal shell holding the insulator from an outer peripheral side; characterized in a conductive layer that covers at least a part of an inner peripheral surface of a portion of the insulator which is located on the front end side with respect to a locking portion of the insulator locked by the ledge portion ; and a terminal that is electrically connected to the conductive layer and is insulated from the metal shell .
A data processing cell observation system comprising: an image acquiring unit that acquires images of the inside of a culture container in which cells are cultured, the image acquiring unit acquiring the images over time; an image analysis unit that quantitatively analyzes a culture state of the cells cultured in the culture container on the basis of each of the images acquired by the image acquiring unit; a statistical analysis unit that statistically analyzes the data analyzed by the image analysis unit by creating a proliferation curve of the cells within each of a plurality of subculture periods, wherein one subculture period is defined as a period from after the subculture operation has been performed to the next subculture operation; and a display unit that displays statistical analysis results in the culture container within the plurality of subculture periods obtained by the statistical analysis unit in a manner allowing comparison of the statistical analysis results by displaying proliferation curves for the plurality of subculture periods sent from the analysis unit, wherein when a designation of the proliferation curves for the plurality of subculture periods among the displayed proliferation curves is received from an operator, the display unit is configured to superimpose and display the proliferation curves the designation of which is received. an image acquiring unit that acquires images of the inside of a culture container in which cells are cultured, the image acquiring unit acquiring the images over time; an image analysis unit that quantitatively analyzes a culture state of the cells cultured in the culture container on the basis of each of the images acquired by the image acquiring unit; a statistical analysis unit that statistically analyzes the data analyzed by the image analysis unit by creating a proliferation curve of the cells within each of a plurality of subculture periods, wherein one subculture period is defined as a period from after the subculture operation has been performed to the next subculture operation; and a display unit that displays statistical analysis results in the culture container within the plurality of subculture periods obtained by the statistical analysis unit in a manner allowing comparison of the statistical analysis results by displaying proliferation curves for the plurality of subculture periods sent from the analysis unit, wherein when a designation of the proliferation curves for the plurality of subculture periods among the displayed proliferation curves is received from an operator, the display unit is configured to superimpose and display the proliferation curves the designation of which is received.
A vehicle comprising an airbag , especially comprising a curtain airbag, comprising in the non-operating state a bale-type section and two arm sections , wherein the arm sections in cross-section encompass the bale-type section in portions and the two free ends of the arm sections delimit a deployment area , the bisecting line of the deployment area extending across the center (M) of the bale-type section , wherein the deployment area is rotated so that the bisecting line at least in portions intersects a securing plane (E) of the airbag formed by a securing plate and/or a section of the vehicle frame at an angle of rotation (β), characterized in that the angle of rotation (β) in longitudinal extension (L) of the airbag decreases starting from the A-pillar of the vehicle in the direction of the β-pillar and/or C-pillar of the vehicle, wherein in the front zone of the airbag formed between the A-pillar and the B-pillar of the vehicle plural airbag sections including different angles of rotation (β) are configured.
A head-up display device comprising at least one light module wherein each light module consists of at least one light source and at least one spatial light modulator , which display computer generated holograms to spatially modulate the light incident from said at least one light source characterized in that; said at least one light module form desired modulated beam that carries holographic image information and undesired beams ; wherein undesired beams are blocked with optical filtering means ; while the desired modulated beam transmitted through the optical filtering means form at least one exit pupil on an exit pupil plane for viewing the head-up display content,the exit pupils created by each of the at least one light module are steerable across the exit pupil plane using an optical steering apparatus ;and wherein said optical steering apparatus comprises rotatable steering mirror , said steering mirror executes steering for both left eye exit pupil and right eye exit pupil across the exit pupil plane together.
A computer implemented method comprising: receiving, a plurality of read commands generated by a tenant from a host; calculating, based on the plurality of read commands satisfying a predetermined condition, each latency of the plurality of read commands and obtaining the calculated plurality of latencies; calculating a uniformity of the plurality of latencies; and determining, based on the uniformity that is within a predetermined ratio range, that there is an attack from the tenant. receiving, a plurality of read commands generated by a tenant from a host; calculating, based on the plurality of read commands satisfying a predetermined condition, each latency of the plurality of read commands and obtaining the calculated plurality of latencies; calculating a uniformity of the plurality of latencies; and determining, based on the uniformity that is within a predetermined ratio range, that there is an attack from the tenant.
A system for growing vegetation, comprising: a rotating growth mat ; a plurality of rollers , wherein said rotating growth mat is suspended vertically from at least one of said plurality of rollers; and a cutting device , wherein said mat comprises a growth side and an inhibited side, wherein said cutting device is configured to cut vegetation grown on said growth side of said rotating growth mat, characterised in that said plurality of rollers are configured such that a mass of the mat on the growth side is greater than a mass on the inhibited side, and as a result, the growth side falls downward and the inhibited side moves upward. a rotating growth mat ; a plurality of rollers , wherein said rotating growth mat is suspended vertically from at least one of said plurality of rollers; and a cutting device , wherein said mat comprises a growth side and an inhibited side, wherein said cutting device is configured to cut vegetation grown on said growth side of said rotating growth mat, characterised in that said plurality of rollers are configured such that a mass of the mat on the growth side is greater than a mass on the inhibited side, and as a result, the growth side falls downward and the inhibited side moves upward.
A manufacturing method of a sheet molded article , comprising the steps of: thermoforming a molding sheet with a first mold , thereby molding a molded article including a body portion provided with a shape transferred from the first mold , and a peripheral edge portion surrounding the body portion ; wherein the molded article is molded such that the outer surface of a shoe shape constitutes a non-design surface (R), and the inner surface thereof constitutes a design surface (D), removing the molded article from the first mold , and an unnecessary peripheral edge portion is cut off from the peripheral edge portion by trimming the molded article so as to conform with a shoe shape, the method being characterized in that a peripheral edge remaining portion is left as a result of cutting off the unnecessary peripheral edge portion from the peripheral edge portion , inverting the body portion of the molded article front-to-back, such that the peripheral edge remaining portion that expanded outward faces inward, and the design surface (D) that constituted the inner surface of the shoe shape constitutes the outer surface, and the non-design surface (R) that constituted the outer surface constitutes the inner surface thereof. thermoforming a molding sheet with a first mold , thereby molding a molded article including a body portion provided with a shape transferred from the first mold , and a peripheral edge portion surrounding the body portion ; wherein the molded article is molded such that the outer surface of a shoe shape constitutes a non-design surface (R), and the inner surface thereof constitutes a design surface (D), removing the molded article from the first mold , and an unnecessary peripheral edge portion is cut off from the peripheral edge portion by trimming the molded article so as to conform with a shoe shape, the method being characterized in that a peripheral edge remaining portion is left as a result of cutting off the unnecessary peripheral edge portion from the peripheral edge portion , inverting the body portion of the molded article front-to-back, such that the peripheral edge remaining portion that expanded outward faces inward, and the design surface (D) that constituted the inner surface of the shoe shape constitutes the outer surface, and the non-design surface (R) that constituted the outer surface constitutes the inner surface thereof.