mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a reduced capability, REDCAP, device , the method comprising: receiving (S502) system information from a base station serving a cell, the system information including allowance information specific to a device category associated with the REDCAP device ; receiving (S500) authorization information including configuration data for REDCAP devices and indicating whether a half-duplex frequency division duplex functionality is allowed for the REDCAP device ; and determining (S504), based on the allowance information and the authorization information, whether access to the cell by the REDCAP device is permitted. receiving (S502) system information from a base station serving a cell, the system information including allowance information specific to a device category associated with the REDCAP device ; receiving (S500) authorization information including configuration data for REDCAP devices and indicating whether a half-duplex frequency division duplex functionality is allowed for the REDCAP device ; and determining (S504), based on the allowance information and the authorization information, whether access to the cell by the REDCAP device is permitted.
A method of obscuring software code including a data array and a plurality of operations, comprising: identifying , by a processor , a data array with an index to be obscured and an operation using the data array; permutating the identified data array using a permutating function; and replacing the identified operation using the permutated data array and equivalent encoded permutation function comprising obscuring the index by determining an equivalent encoded expression for the index using split variables and replacing the index in the permutation function with the encoded expression for the index, wherein the split variables are split into two portions, wherein the split variables are determined using first and second secret splitting multiplicative values and a modulus value, and wherein the permutation function includes multiplying the encoded expression for the index by a secret permutation multiplication value. identifying , by a processor , a data array with an index to be obscured and an operation using the data array; permutating the identified data array using a permutating function; and replacing the identified operation using the permutated data array and equivalent encoded permutation function comprising obscuring the index by determining an equivalent encoded expression for the index using split variables and replacing the index in the permutation function with the encoded expression for the index, wherein the split variables are split into two portions, wherein the split variables are determined using first and second secret splitting multiplicative values and a modulus value, and wherein the permutation function includes multiplying the encoded expression for the index by a secret permutation multiplication value.
An optical system for real-time closed-loop control of a fundus camera, comprising an optical path structure composed of a two-dimensional fundus camera, a light source, a plurality of lenses, and a dividing mirror, and further comprising an orthogonal steering mirror group, the orthogonal steering mirror group comprising a first steering mirror SM1 moving in a horizontal direction and a second steering mirror SM2 moving in a vertical direction; wherein the optical system is arranged to convert fundus motion information obtained from an image of the fundus camera into residual motion information that has been compensated by the first steering mirror SM1 and the second steering mirror SM2, , and to manipulate the first steering mirror SM1 and the second steering mirror SM2 respectively in real time to compensate for a translational motion and optionally control the fundus camera to compensate for a fundus rotation by a translation control instruction and a fundus rotation control instruction using a relationship between control parameters, wherein an incident light emitted from the light source is collimated by a lens L1 and reaches a dividing mirror DM1, and then a portion of the incident light is reflected by the dividing mirror DM1 and enters a lens L2 to reach a fundus; the light reflected from the fundus transmits through the lens L2, the dividing mirror DM1, and a focusing lens L3, and is received by the two-dimensional fundus camera.
A production method for a sponge-attached tire (ST) having a belt-shaped sponge (S) attached to an inner circumferential surface thereof, the production method comprising: a step of mounting a sponge storage cassette including a winding core , to a winding device ; a step of setting an end portion of a sponge material (M) including the sponge (S), into the winding core ; a step of rotating the winding core to wind the sponge material (M) thereonto in a spiral shape to store the sponge material (M) in the sponge storage cassette ; a step of mounting the sponge storage cassette in which the sponge material (M) has been stored, to an attaching device ; and a step of attaching the sponge (S) to the inner circumferential surface of a tire (T) while pulling out the sponge material (M) from the sponge storage cassette , wherein in the step of storing the sponge material (M) in the sponge storage cassette , the sponge material (M) passes between the winding core and a pressing member arranged at a position facing the winding core , as the winding core rotates, the sponge material (M) passing between the pressing member and the winding core is compressed by causing the pressing member to come closer to the winding core , and the compressed sponge material (M) is wound onto the winding core . a step of mounting a sponge storage cassette including a winding core , to a winding device ; a step of setting an end portion of a sponge material (M) including the sponge (S), into the winding core ; a step of rotating the winding core to wind the sponge material (M) thereonto in a spiral shape to store the sponge material (M) in the sponge storage cassette ; a step of mounting the sponge storage cassette in which the sponge material (M) has been stored, to an attaching device ; and a step of attaching the sponge (S) to the inner circumferential surface of a tire (T) while pulling out the sponge material (M) from the sponge storage cassette , wherein in the step of storing the sponge material (M) in the sponge storage cassette , the sponge material (M) passes between the winding core and a pressing member arranged at a position facing the winding core , as the winding core rotates, the sponge material (M) passing between the pressing member and the winding core is compressed by causing the pressing member to come closer to the winding core , and the compressed sponge material (M) is wound onto the winding core .
A method of drawing spun yarn in a drawing apparatus comprising: rollers which are provided along a yarn path to draw yarns spun out from a spinning apparatus ; and a speed controller configured to control yarn feeding speeds of the rollers , wherein, the yarns are wound onto each of the rollers at a winding angle of smaller than 270 degrees, and the rollers include at least one first roller and second rollers on which the yarns supplied from the at least one first roller are wound and which are heating rollers having higher yarn feeding speeds than the at least one first roller , wherein the speed controller causes the yarn feeding speed of a roller on the downstream in a yarn running direction among neighboring two of the second rollers to be equal to or lower than the yarn feeding speed of a roller on the upstream in the yarn running direction among the neighboring two of the second rollers , and a deceleration rate between the yarn feeding speeds of the most upstream and the most downstream ones in the yarn running direction of the second rollers to be 2% or higher, characterized in that the number of the second rollers is three or more, and the speed controller causes a deceleration rate between the yarn feeding speeds of each neighboring pair of the second rollers neighboring each other in the yarn running direction to be 1% or higher. rollers which are provided along a yarn path to draw yarns spun out from a spinning apparatus ; and a speed controller configured to control yarn feeding speeds of the rollers , wherein, the yarns are wound onto each of the rollers at a winding angle of smaller than 270 degrees, and the rollers include at least one first roller and second rollers on which the yarns supplied from the at least one first roller are wound and which are heating rollers having higher yarn feeding speeds than the at least one first roller , wherein the speed controller causes the yarn feeding speed of a roller on the downstream in a yarn running direction among neighboring two of the second rollers to be equal to or lower than the yarn feeding speed of a roller on the upstream in the yarn running direction among the neighboring two of the second rollers , and a deceleration rate between the yarn feeding speeds of the most upstream and the most downstream ones in the yarn running direction of the second rollers to be 2% or higher, characterized in that the number of the second rollers is three or more, and the speed controller causes a deceleration rate between the yarn feeding speeds of each neighboring pair of the second rollers neighboring each other in the yarn running direction to be 1% or higher.
A torque wrench assembly comprising a torque wrench and a reaction arm and locking means for locking together the torque wrench and the reaction arm, wherein the locking means comprises: a connection member located on either one of the torque wrench or the reaction arm ; an opening on a respective other one of the torque wrench and the reaction arm for receipt of the connection member and a locking member slidably mounted in a channel on said torque wrench or reaction arm, wherein the locking member includes an aperture sized to allow the connection member to pass therethrough, the aperture having a first region with a first diameter and a second region with a second diameter smaller than the first diameter; and biasing means arranged to bias the locking member into a position wherein the aperture of the locking member is partially aligned with the opening; wherein the connection member includes a recess , and wherein both the second region of the aperture of the locking member and the recess are shaped and dimensioned such that the locking member is a sliding fit in the recess a connection member located on either one of the torque wrench or the reaction arm ; an opening on a respective other one of the torque wrench and the reaction arm for receipt of the connection member and a locking member slidably mounted in a channel on said torque wrench or reaction arm, wherein the locking member includes an aperture sized to allow the connection member to pass therethrough, the aperture having a first region with a first diameter and a second region with a second diameter smaller than the first diameter; and biasing means arranged to bias the locking member into a position wherein the aperture of the locking member is partially aligned with the opening; wherein the connection member includes a recess , and wherein both the second region of the aperture of the locking member and the recess are shaped and dimensioned such that the locking member is a sliding fit in the recess
A transmitter for measurement of mass (M), weight (W), volume (V), level (L) and/or density (p) of a product in a vessel comprising: - a level sensor , comprising: -- a conductive probe extending into the vessel , -- means for generating and sending short electromagnetic pulses (S) down the probe, -- means for reception of echoes (E) of the pulses (S) reflected at a surface of the product , -- means for determining a time of flight (t) needed for a pulse (S) to travel down the probe and its echo (E) to return, - a temperature sensor mounted on the conductive probe , - a pressure sensor mounted on the conductive probe , and - a signal processing unit for determining temperature compensated mass (M), weight (W), volume (V), level (L) and density (p) of the product based on measurement signals supplied by the level sensor , the temperature sensor and the pressure sensor , characterised in that the temperature sensor consists of at least one optical fibre for measuring a temperature profile along a length of the optical fibre which is integrated in the conductive probe , and in that the pressure sensor is an optically analyzable pressure sensor using said optical fiber , mounted on an end of the conductive probe . - a level sensor , comprising: -- a conductive probe extending into the vessel , -- means for generating and sending short electromagnetic pulses (S) down the probe, -- means for reception of echoes (E) of the pulses (S) reflected at a surface of the product , -- means for determining a time of flight (t) needed for a pulse (S) to travel down the probe and its echo (E) to return, -- a conductive probe extending into the vessel , -- means for generating and sending short electromagnetic pulses (S) down the probe, -- means for reception of echoes (E) of the pulses (S) reflected at a surface of the product , -- means for determining a time of flight (t) needed for a pulse (S) to travel down the probe and its echo (E) to return, - a temperature sensor mounted on the conductive probe , - a pressure sensor mounted on the conductive probe , and - a signal processing unit for determining temperature compensated mass (M), weight (W), volume (V), level (L) and density (p) of the product based on measurement signals supplied by the level sensor , the temperature sensor and the pressure sensor ,
An optical sensor for detecting objects in a detection range, a protective field being predefined in the optical sensor , and an object detection signal being generated in the optical sensor when an object is detected in the protective field , characterised in that a residual protective field is generated within the protective field in the optical sensor as a function of the detection of a permissible object, and in that , in the event of an object engagement in the residual protective field , an object detection signal is generated in the optical sensor only if this object engagement represents a deviation from an object structure of the permissible obj ect.
Telescopic rail with a first and a second guide rail and with an intermediate rail , wherein the first guide rail is forcibly guided via rolling elements on a first track of the intermediate rail and the second guide rail is forcibly guided via rolling elements on a second track of the intermediate rail which is running in parallel to the first track , wherein the first and second guide rails and the intermediate rail are synchronized via at least two elongated connecting elements (220; 421, 422) when moving from a compacted position into an extended position, or vice versa, wherein a first end of a first connecting element and a second end of a second connecting element are fixed to the first guide rail and a second end of the first connecting element and a first end of the second connecting element are fixed to the second guide rail , and wherein the rolling elements for guiding the first and second guide rails on the intermediate rail are respectively guided in a rolling element slide , characterized in that each rolling element slide comprises at least one self-contained circulating track for guiding the rolling elements , and the rolling element slides are connected to the first and/or second guide rail via a screw connection, a welded connection, a press-fit connection, an adhesive connection or a form-fit connection.
Valve for pressurized fluid, comprising a body having a front face and a rear face and housing an internal fluid circuit having an upstream end intended to be placed in communication with a reserve of pressurized fluid and a downstream end intended to be placed in communication with a user of fluid, the circuit comprising a collection of valve shutter(s) comprising at least one shut-off valve shutter for closing or opening the circuit , the valve comprising a member for manually controlling the collection of valve shutter (s) , the control member being mounted on the body so as to be movable between a rest position, in which the collection of valve shutter(s) is in a position in which the circuit is closed, and an active position, in which the control member actuates the collection of valve shutter (s) into a position in which the circuit is open with a first bore section (S1), the valve having a mechanism for locking the control member in its rest position, the locking mechanism comprising a locking lever provided with an end for grasping, notably a terminal end, the locking lever being able to move on the body between a locked first position, which locks the control member to prevent it from moving from its rest position towards its active position, and an unlocked second position, in which the control member is unlocked, allowing it to move from its rest position towards its active position, wherein, in the locked first position of the locking lever , the end for grasping of the locking lever is disposed along or in a manner facing the front face of the body of the valve at a first distance from the front face of the body of the valve, in the unlocked second position of the locking lever , the end for grasping is spaced apart from the front face of the body of the valve by a second distance greater than the first distance, the body of the valve having a concealing portion for concealing at least the end for grasping of the locking lever , forming a barrier between the rear face of the body of the valve and the end for grasping of the lever , in order to prevent or limit the possibility of a rectilinear object being able to push the locking lever from its locked position toward its unlocked position from the rear of the valve at the end for grasping, characterized in that , in its unlocked second position, the locking lever actuates the collection of valve shutter (s) into a position in which the circuit is open with a second bore section (S2).
Training device for training individual muscle groups in the upper body, comprising a support frame and a training unit , wherein the training unit has an upper body support element and a seat which is movable on an arcuate path relative to the upper body support element in such a way that, when the upper body is resting on the upper body support element , the pelvis can be moved in a pendulum-like manner counter to an adjustable counterforce that acts in at least one direction of movement, wherein the seat is designed in such a way that only the gluteal region is supported and no elements for supporting the legs or feet are arranged on the training device , wherein the seat has a planar upper side and wherein the seat has no seat bolsters or other elements for fixing the pelvis on the seat .
A vibratory screening machine , comprising: an outer frame ; an inner frame connected to the outer frame ; a vibratory motor assembly attached to the inner frame such that the vibratory motor assembly vibrates the inner frame ; a plurality of screen deck assemblies attached to the inner frame and configured in a stacked arrangement, each one of the plurality of screen deck assemblies configured to receive a plurality of replaceable screen assemblies , the plurality of replaceable screen assemblies comprising a first screen assembly and a second screen assembly , the screen assemblies secured to the screen deck assemblies by tensioning the screen assemblies in a direction that a material to be screened flows across the screen assemblies , each screen deck assembly comprising a first tensioning device for tensioning the first replaceable screen assembly and a second tensioning device for tensioning the second replaceable screen assembly ; an undersized material discharge assembly configured to receive materials that pass through the screen assemblies ; and an oversized material discharge assembly configured to receive materials that pass over a top surface of the screen assemblies , wherein the undersized material discharge assembly includes an undersized chute in communication with each one of the plurality of screen deck assemblies , and wherein the oversized material discharge assembly includes an oversized chute assembly in communication with each one of the plurality of screen deck assemblies . an outer frame ; an inner frame connected to the outer frame ; a vibratory motor assembly attached to the inner frame such that the vibratory motor assembly vibrates the inner frame ; a plurality of screen deck assemblies attached to the inner frame and configured in a stacked arrangement, each one of the plurality of screen deck assemblies configured to receive a plurality of replaceable screen assemblies , the plurality of replaceable screen assemblies comprising a first screen assembly and a second screen assembly , the screen assemblies secured to the screen deck assemblies by tensioning the screen assemblies in a direction that a material to be screened flows across the screen assemblies , each screen deck assembly comprising a first tensioning device for tensioning the first replaceable screen assembly and a second tensioning device for tensioning the second replaceable screen assembly ; an undersized material discharge assembly configured to receive materials that pass through the screen assemblies ; and an oversized material discharge assembly configured to receive materials that pass over a top surface of the screen assemblies ,
An aerosol delivery device comprising: - an aerosol generator for generating an aerosol in the aerosol delivery device , - a sensor configured to detect a use of the aerosol delivery device for aerosol treatment, and - a controller configured to deactivate the aerosol generator if no use of the aerosol delivery device for aerosol treatment is detected by the sensor , characterised in that the controller is configured to deactivate the aerosol generator after the lapse of a period of time if no use of the aerosol delivery device for aerosol treatment is detected by the sensor , and wherein the period of time is in the range of 0.1 s to 10 min. - an aerosol generator for generating an aerosol in the aerosol delivery device , - a sensor configured to detect a use of the aerosol delivery device for aerosol treatment, and - a controller configured to deactivate the aerosol generator if no use of the aerosol delivery device for aerosol treatment is detected by the sensor , characterised in that the controller is configured to deactivate the aerosol generator after the lapse of a period of time if no use of the aerosol delivery device for aerosol treatment is detected by the sensor , and wherein the period of time is in the range of 0.1 s to 10 min. the controller is configured to deactivate the aerosol generator after the lapse of a period of time if no use of the aerosol delivery device for aerosol treatment is detected by the sensor , and wherein the period of time is in the range of 0.1 s to 10 min.