mhurhangee/patent-ind-claim-en huggingface dataset:
A self-moving device configured to be powered by an energy module, the self-moving device for moving and working inside a defined working area, wherein the self-moving device comprises: a body ; a movement module , disposed on the body and configured to drive the self-moving device to move; a task execution module, disposed on the body and configured to perform a work task; and a control module , configured to: control the movement module to drive the self-moving device to move inside a defined area, and control the task execution module to perform the work task, the self-moving device is configured to be powered by the detachable energy module , the self-moving device comprises an accommodating cavity provided with an inlet and configured to accommodate the energy module and a protective cover configured to operably block the inlet, and the self-moving device further comprises a reset structure to restore the protective cover that is open to a water-proof state; the self-moving device being characterized in that the reset structure comprises an automatic reset structure to automatically restore the protective cover that is open to the water-proof state; and wherein the self-moving device further comprises a pivot portion configured to connect the protective cover and the body , to enable the protective cover to be rotatable around the pivot portion to implement opening or closing of the protective cover . a body ; a movement module , disposed on the body and configured to drive the self-moving device to move; a task execution module, disposed on the body and configured to perform a work task; and a control module , configured to: control the movement module to drive the self-moving device to move inside a defined area, and control the task execution module to perform the work task, the self-moving device is configured to be powered by the detachable energy module , the self-moving device comprises an accommodating cavity provided with an inlet and configured to accommodate the energy module and a protective cover configured to operably block the inlet, and the self-moving device further comprises a reset structure to restore the protective cover that is open to a water-proof state; the self-moving device being characterized in that the reset structure comprises an automatic reset structure to automatically restore the protective cover that is open to the water-proof state; and wherein the self-moving device further comprises a pivot portion configured to connect the protective cover and the body , to enable the protective cover to be rotatable around the pivot portion to implement opening or closing of the protective cover .
A computer implemented method for dynamically controlling the execution of a code by a processing system, said execution being described by a control flow graph comprising a plurality of basic blocks composed of at least an input node and an output node, a transition in the control flow graph corresponding to a link between an origin output node belonging to a first basic block and an input node of a second basic block, a plurality of initialization vectors being associated with the output nodes at the time of generating the code, an a priori control word being associated with each input node which is linked to the same origin output node according the control flow graph, said a priori control word being precomputed at the time of generating the code by applying a predefined deterministic function F to the initialization vector associated with its origin output node, the method comprising the following steps in response to the termination of the execution of the output node belonging to a first basic block,at the time of executing the input node of a second basic block: - providing the a priori control word associated with the input node of the second basic block; - providing the initialization vector associated with the output node of the first basic block; - determining an a posteriori control word by applying to the provided initialization vector said function F; - determining if the a priori control word matches the a posteriori control word, a forbidden transition in the control flow graph being otherwise detected . - providing the a priori control word associated with the input node of the second basic block; - providing the initialization vector associated with the output node of the first basic block; - determining an a posteriori control word by applying to the provided initialization vector said function F; - determining if the a priori control word matches the a posteriori control word, a forbidden transition in the control flow graph being otherwise detected .
A hydraulic system comprising a casing wherein a hydraulic engine is disposed comprising a cylinder block comprising a plurality of cylinders each provided with pistons, a multilobe cam and a fluid distributor , the hydraulic apparatus being configured so as to alternate between an activated configuration in which the pistons are in contact with the cam , and a deactivated configuration in which the pistons are not in contact with the cam , the hydraulic system comprising main lines for the supply and discharge of the hydraulic engine in activated configuration, a shaft engaged in the casing, and a sealing device between the shaft and the casing, the sealing device comprising a first and a second sealing element successively disposed on the shaft by arranging an intermediate chamber therebetween, characterized in that it has a connection between the intermediate chamber and one of the main lines, this connection being equipped with a check valve allowing only the circulation of fluid in the direction from the intermediate chamber to said one of the main lines .
A method of obtaining a measurement from a digital image, said method comprising: obtaining a digital image containing a rectangular primary object having a constraint dimension in the plane of the rectangular primary object defining a measurement to be obtained and a standard reference object having one or more readily identified known linear dimensions viewable in said digital image and located substantially in the plane of the primary object , wherein said digital image is captured substantially within a cuboid volume defined by a projection of said primary object orthogonal to the plane of the primary object , wherein the imaging plane of said digital image is nearly parallel to the plane of the primary object; correcting perspective distortion of said digital image based on a known right angle found in the digital image provided by one of said primary object or the standard reference object ; detecting said standard reference object in said digital image utilizing at least one of color, edge or shape detection ; determining reference pixel dimensions of said standard reference object ; calculating a pixel calibration factor relating the pixel dimensions of said standard reference object to the corrected digital image based on the reference pixel dimensions and the known linear dimensions of the standard reference object; and determining said measurement in accordance with said pixel calibration factor. obtaining a digital image containing a rectangular primary object having a constraint dimension in the plane of the rectangular primary object defining a measurement to be obtained and a standard reference object having one or more readily identified known linear dimensions viewable in said digital image and located substantially in the plane of the primary object , wherein said digital image is captured substantially within a cuboid volume defined by a projection of said primary object orthogonal to the plane of the primary object , wherein the imaging plane of said digital image is nearly parallel to the plane of the primary object; correcting perspective distortion of said digital image based on a known right angle found in the digital image provided by one of said primary object or the standard reference object ; detecting said standard reference object in said digital image utilizing at least one of color, edge or shape detection ; determining reference pixel dimensions of said standard reference object ; calculating a pixel calibration factor relating the pixel dimensions of said standard reference object to the corrected digital image based on the reference pixel dimensions and the known linear dimensions of the standard reference object; and determining said measurement in accordance with said pixel calibration factor.
Horse riding saddle comprising a saddle-tree placed within a covering, said saddle-tree having an arch that forms a pommel , the saddle comprising at least one sensor positioned in the saddle, characterized in that the sensor is positioned or the sensors are positioned in a fixed case which is connected to the saddle-tree by a thorough connection, the fixed case being attached on the underside of the arch at the level of the pommel, so that the sensor is immobile in relation to the saddle-tree , the sensor or its support being connected directly to the saddle-tree and not to the saddle covering.
A pharmaceutical composition comprising darunavir, dolutegravir and cobicistat with one or more pharmaceutically acceptable excipients, wherein the composition is in the form of a monolithic tablet, wherein a) an intragranular portion comprising combination of darunavir and dolutegravir and one or more pharmaceutically acceptable excipients and b) an extragranular portion comprising of cobicistat and one or more pharmaceutically acceptable excipients, and wherein the total tablet weight ranges from 1600 mg to 1750 mg. a) an intragranular portion comprising combination of darunavir and dolutegravir and one or more pharmaceutically acceptable excipients and b) an extragranular portion comprising of cobicistat and one or more pharmaceutically acceptable excipients,
A wireless transmit/receive unit, WTRU, comprising: a processor configured to: receive information that indicates a first set of resources to be used by the WTRU to transmit a first resource request associated with a first logical channel and a second set of resources to be used by the WTRU to transmit a second resource request associated with a second logical channel; determine that data associated with the first logical channel and data associated with the second logical channel are available for transmission; receive a grant for an uplink transmission, the grant indicating uplink resources associated with a first numerology; determine that the data associated with the first logical channel is allowed to be sent using the uplink resources associated with the first numerology indicated by the grant and that the data associated with the second logical channel is not allowed to be sent using the uplink resources associated with the first numerology indicated by the grant; transmit the data associated with the first logical channel using the uplink resources associated with the first numerology; and transmit the second resource request using the second set of resources based on the data associated with the second logical channel being available for transmission and on determining that the data associated with the second logical channel is not allowed to be sent using the uplink resources associated with the first numerology indicated by the grant. receive information that indicates a first set of resources to be used by the WTRU to transmit a first resource request associated with a first logical channel and a second set of resources to be used by the WTRU to transmit a second resource request associated with a second logical channel; determine that data associated with the first logical channel and data associated with the second logical channel are available for transmission; receive a grant for an uplink transmission, the grant indicating uplink resources associated with a first numerology; determine that the data associated with the first logical channel is allowed to be sent using the uplink resources associated with the first numerology indicated by the grant and that the data associated with the second logical channel is not allowed to be sent using the uplink resources associated with the first numerology indicated by the grant; transmit the data associated with the first logical channel using the uplink resources associated with the first numerology; and transmit the second resource request using the second set of resources based on the data associated with the second logical channel being available for transmission and on determining that the data associated with the second logical channel is not allowed to be sent using the uplink resources associated with the first numerology indicated by the grant.
A drywall sheet with a gypsum core sheathed in front and rear paper layers , an edge of the sheet being tapered from a front towards a rear of the sheet, the taper being formed by a flap of a marginal area of the front paper and a thin layer of gypsum attached to an inner side of the front paper margin being folded into a space resulting from a slot cut in the sheet edge to a depth generally equal to the width of the flap , the flap being held in place by a continuous layer of a hot melt adhesive occupying at least a major portion of the space of the slot not occupied by the flap and having an elasticity that imparts fastener penetration resistance to the associated edge from a front face of the sheet of a distance greater than a penetration resistance of conventionally tapered edge of the sheet formed by gradual reduction in the thickness of continuous gypsum core material towards the respective sheet edge terminus.
A dispenser of disposable containers for the preparation of beverages, the dispenser comprises a hopper to contain a plurality of disposable containers ; a discharge unit to discharge the disposable containers ; a dispensing wheel (11; 25; 27) to receive disposable containers from the hopper and to dispense disposable containers to the discharge unit , the dispensing wheel (11; 25; 27) is mounted to rotate about a rotation axis , and comprises pockets each to receive at least one disposable container ; and an actuating device to rotate the dispensing wheel (11; 25; 27) about the rotation axis ; the dispenser is characterized in that the dispensing wheel (11; 25; 27) is interchangeable to reconfigure the dispenser depending on the shape and/or size of the disposable containers ; coupling means are provided to releasably connect the dispensing wheel (11; 25; 27) to the actuating device .
A method, performed by a hardware acceleration managing node , for managing a request for hardware acceleration "HA" by means of at least one hardware acceleration device within a multiple of hardware acceleration devices (120-122) managed by the hardware acceleration managing node , wherein the method comprises: receiving (A020), from a HA interfacing node , the request for hardware acceleration of processing of source data, wherein the source data is managed by an application, which called the HA interfacing node to initiate the hardware acceleration of the processing of the source data, sending (A030), to the HA interfacing node , an indication of a source memory location for storing of the source data, selecting (A040) at least one hardware acceleration device out of the multiple hardware acceleration devices (120-122), receiving (A070), from the HA interfacing node , a chunk of code to be executed, sending (A080), to said one hardware acceleration device , a set of acceleration instructions comprising the chunk of code and the indication of the source memory location, receiving (A110), from said one hardware acceleration device , an indication of a result memory location indicating result data, resulting from the processing of the source data, and sending (A120) an indication of completed hardware acceleration to the HA interfacing node . receiving (A020), from a HA interfacing node , the request for hardware acceleration of processing of source data, wherein the source data is managed by an application, which called the HA interfacing node to initiate the hardware acceleration of the processing of the source data, sending (A030), to the HA interfacing node , an indication of a source memory location for storing of the source data, selecting (A040) at least one hardware acceleration device out of the multiple hardware acceleration devices (120-122), receiving (A070), from the HA interfacing node , a chunk of code to be executed, sending (A080), to said one hardware acceleration device , a set of acceleration instructions comprising the chunk of code and the indication of the source memory location, receiving (A110), from said one hardware acceleration device , an indication of a result memory location indicating result data, resulting from the processing of the source data, and sending (A120) an indication of completed hardware acceleration to the HA interfacing node .
A pixel structure for OLED display, comprising a plurality rows of pixel unit groups, wherein each pixel unit group comprises a plurality of pixel units arranged repeatedly in sequence, each pixel unit comprising a first sub pixel (B), a second sub pixel (R) and a third sub pixel (G); wherein in each pixel unit, the second sub pixel (R) and the third sub pixel (G) are lined up along one of the sides of the first sub pixel (B); and in the pixel unit group in an even row, the arrangement of the first sub pixel, the second sub pixel and the third sub pixel of the pixel unit is formed by flipping the pixel unit of the pixel unit group in an odd row horizontally by 180°; characterized in that the first sub pixel (B) and a vertical center line (A-A') of horizontal spacing between said first sub pixel (B) and the closest sub pixel thereto of the second sub pixel (R) and the third sub pixel (G) are on the same side of a vertical center line (B-B') of the pixel unit; and that the vertical center line (A-A') of horizontal spacing and the vertical center line (B-B') of the pixel unit do not overlap; in that the pixel unit has a shape of square, the first sub pixel (B) has a shape of rectangle, the second sub pixel (R) and the third sub pixel (G) are aligned vertically along the long side of the first sub pixel (B), and the length of the long side of the first sub pixel (B) is larger than two-thirds of the side length of the pixel unit ; in that the area of the first sub pixel (B) is larger than that of the second sub pixel (R) and that of the third sub pixel (G), and is smaller than half of the area of the pixel unit ; and in that the pixel unit group in the even row is arranged to be offset by a first distance with respect to the pixel unit group in the odd row in a horizontal direction, so that the same sub pixels of two adjacent rows of pixel units are arranged in dislocation in a horizontal direction and so that the distances from the first sub pixel in an even row to two adjacent first sub pixels in an odd row adjacent to the even row are the same.
An electrode plate for a secondary battery, the electrode plate comprising: a current collector layer ; and a mixture layer for an electrode, formed on one or both sides of the current collector layer , wherein the mixture layer includes a high binder-containing region with a high binder content and a low binder-containing region with a low binder content, wherein the mixture layer has a structure in which a first high binder-containing region , a first low binder-containing region , a k-th high binder-containing region , a k-th low binder-containing region , and an n-th high binder-containing region are sequentially formed in a direction of from one edge of the mixture layer to the other edge of the mixture layer , based on a cross section of a width direction (TD), and wherein, k is an integer between 2 and n-1, and n is an integer between 3 and 10, characterized in that a deviation between binder contents of the high binder-containing region and the low binder-containing region is in the range of 20 to 150% by weight, said deviation being a value obtained by converting the difference between the content of the binder contained in the high binder-containing region and the content of the binder contained in the low binder-containing region , into a percentage, compared to the binder content contained in the low binder-containing region . a current collector layer ; and a mixture layer for an electrode, formed on one or both sides of the current collector layer , wherein the mixture layer includes a high binder-containing region with a high binder content and a low binder-containing region with a low binder content, wherein the mixture layer has a structure in which a first high binder-containing region , a first low binder-containing region , a k-th high binder-containing region , a k-th low binder-containing region , and an n-th high binder-containing region are sequentially formed in a direction of from one edge of the mixture layer to the other edge of the mixture layer , based on a cross section of a width direction (TD), and wherein, k is an integer between 2 and n-1, and n is an integer between 3 and 10, characterized in that a deviation between binder contents of the high binder-containing region and the low binder-containing region is in the range of 20 to 150% by weight, said deviation being a value obtained by converting the difference between the content of the binder contained in the high binder-containing region and the content of the binder contained in the low binder-containing region , into a percentage, compared to the binder content contained in the low binder-containing region .
A heat-treated steel material, comprising: a chemical composition represented by, in mass%: C: 0.05% to 0.28%; Si: 0.50% to 5.00%; Mn: 2.0% to 10.0%; Cr: 0.01% to 1.00%; Ti: 0.010% to 0.100%; B: 0.0020% to 0.0100%; P: 0.050% or less; S: 0.0500% or less; N: 0.0100% or less; Ni: 0.0% to 2.0%; Cu: .0.0% to 1.0%; Mo: 0.0% to 1.0%; V: 0.0% to 1.0%; Al: 0.00% to 1.00%; Nb: 0.00% to 1.00%; and the balance: Fe and impurities, and a microstructure represented by martensite: 90 volume% or more, wherein an "Expression 1" is satisfied where [C] denotes a C content (mass%), [Si] denotes a Si content (mass%), and [Mn] denotes a Mn content (mass%), 4612 × C + 51 × Si + 102 × Mn + 605 ≥ 2000 wherein a dislocation density in the martensite is equal to or more than 1.2 × 10 16 m -2 ; and wherein a tensile strength measured based on rules of ASTM standard E8 is 2.000 GPa or more. a chemical composition represented by, in mass%: C: 0.05% to 0.28%; Si: 0.50% to 5.00%; Mn: 2.0% to 10.0%; Cr: 0.01% to 1.00%; Ti: 0.010% to 0.100%; B: 0.0020% to 0.0100%; P: 0.050% or less; S: 0.0500% or less; N: 0.0100% or less; Ni: 0.0% to 2.0%; Cu: .0.0% to 1.0%; Mo: 0.0% to 1.0%; V: 0.0% to 1.0%; Al: 0.00% to 1.00%; Nb: 0.00% to 1.00%; and the balance: Fe and impurities, and C: 0.05% to 0.28%; Si: 0.50% to 5.00%; Mn: 2.0% to 10.0%; Cr: 0.01% to 1.00%; Ti: 0.010% to 0.100%; B: 0.0020% to 0.0100%; P: 0.050% or less; S: 0.0500% or less; N: 0.0100% or less; Ni: 0.0% to 2.0%; Cu: .0.0% to 1.0%; Mo: 0.0% to 1.0%; V: 0.0% to 1.0%; Al: 0.00% to 1.00%; Nb: 0.00% to 1.00%; and the balance: Fe and impurities, and a microstructure represented by martensite: 90 volume% or more, wherein an "Expression 1" is satisfied where [C] denotes a C content (mass%), [Si] denotes a Si content (mass%), and [Mn] denotes a Mn content (mass%), 4612 × C + 51 × Si + 102 × Mn + 605 ≥ 2000 wherein a dislocation density in the martensite is equal to or more than 1.2 × 10 16 m -2 ; and wherein a tensile strength measured based on rules of ASTM standard E8 is 2.000 GPa or more.