mhurhangee/patent-ind-claim-en huggingface dataset:
A method for stabilizing a camera frame of a video sequence comprising: a) obtaining an indication of movement of a camera from acquisition of a previous camera frame to acquisition of a current camera frame; b) determining an absolute orientation ( Q F ) for said camera at a time of acquiring said current camera frame; c) determining a candidate orientation, Q → C ′ , for a crop frame for the current camera frame by adjusting an orientation, Q C , of a crop frame associated with said previous camera frame according to said determined absolute orientation to maintain stable image content in the presence of camera movement; d) traversing a boundary of one of said camera frame or said crop frame to determine if a specific point ( p ) on the boundary of the crop frame in the candidate orientation, Q → C ′ , exceeds a boundary of said camera frame; e) responsive to a specific point maximally exceeding said boundary, determining a rotation , Q cor , of said specific point location which would bring said specific point location onto said boundary of said crop frame, f) updating said candidate crop frame orientation, Q → C ′ , according to said rotation, Q cor , g) mapping image information from said camera frame to said crop frame in accordance with said updated candidate crop frame orientation, Q → C " ; h) displaying said crop frame; and i) repeating steps a) to i) for successive camera frames. a) obtaining an indication of movement of a camera from acquisition of a previous camera frame to acquisition of a current camera frame; b) determining an absolute orientation ( Q F ) for said camera at a time of acquiring said current camera frame; c) determining a candidate orientation, Q → C ′ , for a crop frame for the current camera frame by adjusting an orientation, Q C , of a crop frame associated with said previous camera frame according to said determined absolute orientation to maintain stable image content in the presence of camera movement; d) traversing a boundary of one of said camera frame or said crop frame to determine if a specific point ( p ) on the boundary of the crop frame in the candidate orientation, Q → C ′ , exceeds a boundary of said camera frame; e) responsive to a specific point maximally exceeding said boundary, determining a rotation , Q cor , of said specific point location which would bring said specific point location onto said boundary of said crop frame, f) updating said candidate crop frame orientation, Q → C ′ , according to said rotation, Q cor , g) mapping image information from said camera frame to said crop frame in accordance with said updated candidate crop frame orientation, Q → C " ; h) displaying said crop frame; and i) repeating steps a) to i) for successive camera frames.
An apparatus of a user equipment comprising: a baseband processing unit configured to perform radio resource management measurements of a subset of a set of neighboring carriers based at least in part on subcarrier spacings for the subset of the set of neighboring carriers; storage configured for storing frequency test parameters of neighboring carriers, the frequency test parameters including the subcarrier spacings of the subset of the set of neighboring carriers; the baseband processing unit configured to: decode an information element, IE, from a radio access network, RAN, node describing subcarrier spacings of neighboring carriers; perform the radio resource management, RRM, measurements using the subcarrier spacings described in the IE and the stored frequency test parameters; and generate a measurement report describing results of the measurements of the subset of the set of neighboring carriers for transmission to the RAN node. storage configured for storing frequency test parameters of neighboring carriers, the frequency test parameters including the subcarrier spacings of the subset of the set of neighboring carriers; the baseband processing unit configured to: decode an information element, IE, from a radio access network, RAN, node describing subcarrier spacings of neighboring carriers; perform the radio resource management, RRM, measurements using the subcarrier spacings described in the IE and the stored frequency test parameters; and generate a measurement report describing results of the measurements of the subset of the set of neighboring carriers for transmission to the RAN node. decode an information element, IE, from a radio access network, RAN, node describing subcarrier spacings of neighboring carriers; perform the radio resource management, RRM, measurements using the subcarrier spacings described in the IE and the stored frequency test parameters; and generate a measurement report describing results of the measurements of the subset of the set of neighboring carriers for transmission to the RAN node.
A method of manufacturing an airbag package or an occupant restraint system comprising an airbag package in which a folded airbag is inserted in a molding element and subsequently compressed and heated, wherein compressing the airbag is carried out at least until the airbag package is substantially independently continuously dimensionally stable, characterized in that , for thermally fixing the airbag package , after the step of heating a step of cooling the airbag to an end of process temperature within a short period of less than 35 minutes by at least 100°C is provided.
A torque sensing device of a power tool , the torque sensing device comprising: an outer casing ; a power structure , installed in the outer casing , and comprising a power body with a drive shaft ; a jacket , adapted to sheathe the power body ; characterised by an inner casing socket , adapted to sheathe the jacket ; a bearing set , comprising a front bearing and a rear bearing , and the front bearing installed between the jacket and the inner casing socket , and the rear bearing installed between the inner casing socket and the outer casing ; and at least one torque sensor , installed on the inner casing socket . an outer casing ; a power structure , installed in the outer casing , and comprising a power body with a drive shaft ; a jacket , adapted to sheathe the power body ; characterised by an inner casing socket , adapted to sheathe the jacket ; a bearing set , comprising a front bearing and a rear bearing , and the front bearing installed between the jacket and the inner casing socket , and the rear bearing installed between the inner casing socket and the outer casing ; and at least one torque sensor , installed on the inner casing socket .
A transmission method for eliminating or reducing terminal self-interference, which is performed by a first network device, characterized by comprising: obtaining transmission time domain information of a user terminal experiencing terminal self-interference, the transmission time domain information being transmission time domain information of the user terminal after the terminal self-interference occurs at the user terminal; and carrying out transmission with the user terminal according to the transmission time domain information; wherein the obtaining transmission time domain information of a user terminal experiencing terminal self-interference, comprises: receiving the transmission time domain information sent by a second network device; wherein the transmission time domain information comprises location information of time domain resources, the time domain resources comprise available time domain resources for transmission between the first network device and the user terminal, or comprise time domain resources to be occupied by transmission between the second network device and the user terminal; wherein the terminal self-interference is interference of an uplink signal sent by the user terminal to a downlink signal received by the user terminal. obtaining transmission time domain information of a user terminal experiencing terminal self-interference, the transmission time domain information being transmission time domain information of the user terminal after the terminal self-interference occurs at the user terminal; and carrying out transmission with the user terminal according to the transmission time domain information; wherein the obtaining transmission time domain information of a user terminal experiencing terminal self-interference, comprises: receiving the transmission time domain information sent by a second network device; wherein the transmission time domain information comprises location information of time domain resources, the time domain resources comprise available time domain resources for transmission between the first network device and the user terminal, or comprise time domain resources to be occupied by transmission between the second network device and the user terminal; wherein the terminal self-interference is interference of an uplink signal sent by the user terminal to a downlink signal received by the user terminal. receiving the transmission time domain information sent by a second network device; wherein the transmission time domain information comprises location information of time domain resources, the time domain resources comprise available time domain resources for transmission between the first network device and the user terminal, or comprise time domain resources to be occupied by transmission between the second network device and the user terminal; wherein the terminal self-interference is interference of an uplink signal sent by the user terminal to a downlink signal received by the user terminal.
A device for controlling package pressure and gas flow for a packaged good comprising: a film having a first opening for exposure to the inside of a package and a second opening for exposure to the outside of a package; and a laser-ablated microchannel extending between the first opening and the second opening, wherein the dimensions of the microchannel are configured to control the rate of flow of CO 2 from the inside of the package to the outside of the package and control the oxygen transmission rate, or OTR, from the outside of the package to the inside of the package so that a flow of CO 2 /OTR ratio is between about 0,1 and about 100 with the flow of CO 2 expressed in cm 3 per min at 6,9 kPa (1 PSI) and the OTR expressed in cm 3 per day per 10 5 Pa (1 Atm), characterized in that : the dimensions of the microchannel are configured using the cross-sectional area of the microchannel and the length of the microchannel, the cross-sectional area being between about 1 500 μm 2 and about 1 mm 2 . a film having a first opening for exposure to the inside of a package and a second opening for exposure to the outside of a package; and a laser-ablated microchannel extending between the first opening and the second opening, wherein the dimensions of the microchannel are configured to control the rate of flow of CO 2 from the inside of the package to the outside of the package and control the oxygen transmission rate, or OTR, from the outside of the package to the inside of the package so that a flow of CO 2 /OTR ratio is between about 0,1 and about 100 with the flow of CO 2 expressed in cm 3 per min at 6,9 kPa (1 PSI) and the OTR expressed in cm 3 per day per 10 5 Pa (1 Atm), characterized in that : the dimensions of the microchannel are configured using the cross-sectional area of the microchannel and the length of the microchannel, the cross-sectional area being between about 1 500 μm 2 and about 1 mm 2 .
A clamping device for fixedly clamping an in particular plate-shaped workpiece (W) to be machined, comprising - a machine frame , - at least one clamping means which is moveable relative to the machine frame and can be connected to the machine frame , wherein the clamping means include a plurality of brackets (3.1) which are moveable in a first direction (X) relative to the machine frame and can be fixed to the machine frame and the clamping means include a plurality of clamping elements (3.2) which are moveable in a second direction (Y) relative to the brackets (3.1) and can be fixed to the brackets (3.1), and - at least one positioning device for positioning the at least one clamping means relative to the machine frame , wherein the positioning device has a plurality of individually activitable light emitting diodes , wherein at least one target or actual parameter (P) for the at least one clamping means can be displayed by at least one activated light emitting diode , wherein the plurality of light emitting diodes is adapted to emit light (L) of at least two different wavelengths in the visible wavelength range, characterised in that the positioning device has a clamping element positioning device (4.2) having the plurality of light emitting diodes for positioning of the clamping elements (3.2), wherein the clamping element positioning device (4.2) for positioning the clamping elements (3.2) is arranged at at least one bracket (3.1), wherein in dependence on at least one target or actual parameter (P) displayed by way of the clamping element positioning device (4.2) the individual clamping elements (3.2) are displaceable along the at least one bracket (3.1) in the second direction (Y) and are fixable to the at least one bracket (3.1). - a machine frame , - at least one clamping means which is moveable relative to the machine frame and can be connected to the machine frame , wherein the clamping means include a plurality of brackets (3.1) which are moveable in a first direction (X) relative to the machine frame and can be fixed to the machine frame and the clamping means include a plurality of clamping elements (3.2) which are moveable in a second direction (Y) relative to the brackets (3.1) and can be fixed to the brackets (3.1), and - at least one positioning device for positioning the at least one clamping means relative to the machine frame , wherein the positioning device has a plurality of individually activitable light emitting diodes , wherein at least one target or actual parameter (P) for the at least one clamping means can be displayed by at least one activated light emitting diode ,
A method for identifying a trajectory between rows of a plantation by means of a radar interfaced with processing means of an agricultural vehicle, the method comprising the following steps in the same order: - (Step 1) acquisition of an approximate distance (D) between two consecutive rows of the plantation, - (Step 2) acquisition of signals by said radar, - (Step 3) processing of said signals to obtain a two-dimensional map of points corresponding to reflections picked up by said radar, - (Step 6) first linear interpolation to obtain a first interpolating line (IN1) on the points of greatest intensity, - (Step 7) second windowing of an elongated area of the two-dimensional map having an axis of development approximately parallel to said first interpolating straight line and at said approximate distance (D) from said first interpolating line, - (Step 8) second linear interpolation of a second interpolating straight line (IN2) on points of greater intensity in the windowed area, - (End step) calculation of a trajectory (T) parallel and intermediate between said first and second interpolating straight line. - (Step 1) acquisition of an approximate distance (D) between two consecutive rows of the plantation, - (Step 2) acquisition of signals by said radar, - (Step 3) processing of said signals to obtain a two-dimensional map of points corresponding to reflections picked up by said radar, - (Step 6) first linear interpolation to obtain a first interpolating line (IN1) on the points of greatest intensity, - (Step 7) second windowing of an elongated area of the two-dimensional map having an axis of development approximately parallel to said first interpolating straight line and at said approximate distance (D) from said first interpolating line, - (Step 8) second linear interpolation of a second interpolating straight line (IN2) on points of greater intensity in the windowed area, - (End step) calculation of a trajectory (T) parallel and intermediate between said first and second interpolating straight line.
Dental device for probing interdental spaces, in particular for determining an optimally cleaning interdental brush, comprising: a) a probe which is insertable into an interdental space, b) which probe has at least two probing portions, namely a first probing portion and a second probing portion differing from the first probing portion , c) wherein the probing portions are formed by a plastic body, characterized in that d) the plastic body consists of a plastic having e) a flexural strength, according to ASTM D790-03, of 30 to 300 MPa, f) an elongation at break, according to ASTM D638-99, of in particular at least 10%, and g) a flexural modulus, according to ASTM D790-03, of at least 1 and at most 15 GPa. a) a probe which is insertable into an interdental space, b) which probe has at least two probing portions, namely a first probing portion and a second probing portion differing from the first probing portion , c) wherein the probing portions are formed by a plastic body, characterized in that d) the plastic body consists of a plastic having e) a flexural strength, according to ASTM D790-03, of 30 to 300 MPa, f) an elongation at break, according to ASTM D638-99, of in particular at least 10%, and g) a flexural modulus, according to ASTM D790-03, of at least 1 and at most 15 GPa.
A method for migrating a virtual machine in a virtualization environment, comprising: configuring, by a first migration tool of a first virtualization system, a temporary address, instructing, by the first migration tool, a second migration tool of a second virtualization system to migrate a source virtual machine comprising a first migration agent, so as to generate a destination virtual machine on a host of the second virtualization system, wherein the destination virtual machine corresponds to the source virtual machine and comprises the first migration agent, wherein the source virtual machine is a to-be-migrated virtual machine in the first virtualization system, an address of the destination virtual machine is the temporary address and is different from an address of the source virtual machine, and the destination virtual machine comprises the first migration agent as a different instance to the first migration agent on the source virtual machine; and establishing, by the first migration tool, a connection to the first migration agent in the destination virtual machine; and instructing, by the first migration tool, the first migration agent in the destination virtual machine to modify the address of the destination virtual machine to the address of the source virtual machine. configuring, by a first migration tool of a first virtualization system, a temporary address, instructing, by the first migration tool, a second migration tool of a second virtualization system to migrate a source virtual machine comprising a first migration agent, so as to generate a destination virtual machine on a host of the second virtualization system, wherein the destination virtual machine corresponds to the source virtual machine and comprises the first migration agent, wherein the source virtual machine is a to-be-migrated virtual machine in the first virtualization system, an address of the destination virtual machine is the temporary address and is different from an address of the source virtual machine, and the destination virtual machine comprises the first migration agent as a different instance to the first migration agent on the source virtual machine; and establishing, by the first migration tool, a connection to the first migration agent in the destination virtual machine; and instructing, by the first migration tool, the first migration agent in the destination virtual machine to modify the address of the destination virtual machine to the address of the source virtual machine.
A method for optimizing aircraft carbon disc brake wear during taxiing, comprising: calculating from the parameters of braking torque, wheel speed, brake pedal depression, aircraft mass per wheel, ambient temperature and state of brake wear, the actual energy absorbed by each carbon disc brake during taxiing operations; from the calculations of energy absorbed, determining a current carbon disc brake temperature; and selectively inhibiting and enabling actuation of said carbon disc brakes as a function of said disc brake temperature. calculating from the parameters of braking torque, wheel speed, brake pedal depression, aircraft mass per wheel, ambient temperature and state of brake wear, the actual energy absorbed by each carbon disc brake during taxiing operations; from the calculations of energy absorbed, determining a current carbon disc brake temperature; and selectively inhibiting and enabling actuation of said carbon disc brakes as a function of said disc brake temperature.
Sensor device for a knife holder , characterised by , - a base body , for purposes of attaching the sensor device to a knife holder , wherein the base body is designed as a rotationally symmetrical knife holder for a round knife, as a ring nut or as a washer, - at least one sensor attached to the base body , for purposes of detecting a variable, and - a transmitter attached to the base body , for purposes of wireless transmission of the variable detected by the sensor . - a base body , for purposes of attaching the sensor device to a knife holder , wherein the base body is designed as a rotationally symmetrical knife holder for a round knife, as a ring nut or as a washer, - at least one sensor attached to the base body , for purposes of detecting a variable, and - a transmitter attached to the base body , for purposes of wireless transmission of the variable detected by the sensor .