mhurhangee/patent-ind-claim-en huggingface dataset:
A power backup system , comprising a first uninterruptible power supply and a second uninterruptible power supply configured to drive a load (110 , 110 ) in parallel, wherein the first uninterruptible power supply and the second uninterruptible power supply are both connected through a direct connection to at least two power sources , and wherein the direct connection comprises a connection (C1-C10) between the first and second uninterruptible power supplies and the at least two power sources without an active device for switching interposed therebetween, characterised in that the first uninterruptible power supply (106 ) and the second uninterruptible power supply (106 ) each comprise a primary feed (106 , 106 ) and a maintenance bypass feed (106 , 106 ), wherein the primary feed (106 ) of the first uninterruptible power supply and the primary feed (106 ) of the second uninterruptible power supply are connected to different power sources, and wherein the maintenance bypass feed (106 ) of the first uninterruptible power supply and the maintenance bypass feed (106 ) of the second uninterruptible power supply are connected to different power sources, wherein the primary feed of the first uninterruptible power supply and the maintenance bypass feed of the second uninterruptible power supply are both connected to a first power source of the at least two power sources; and the primary feed of the second uninterruptible power supply and the maintenance bypass feed of the first uninterruptible power supply are both connected to a second power source of the at least two power sources.
An image processing apparatus comprising: an acquisition means configured to acquire a turning speed of an image capturing device ; and an image signal processing means configured to perform cyclic type noise reduction processing on an image of a target frame, which is one of a plurality of frames, at an intensity expressed by a cyclic coefficient K, wherein a signal value A' N of the image of the target frame after the cyclic type noise reduction is expressed by the formula: A ′ N = K × A ′ N − 1 + 1 − K × A N = A N − K × A N − A ′ N − 1 , wherein A N is the signal value of the image of the target frame, A' N-1 is a signal value of the image of the previous frame immediately preceding the target frame after cyclic noise reduction, and K is a cyclic coefficient, wherein 0 ≤ K ≤ 1, characterized by a determination means configured to determine the cyclic coefficient K according to the turning speed, wherein the image signal processing means is configured to perform the cyclic type noise reduction processing at the intensity determined by the determination means; and wherein the determination means is configured to determine the cyclic coefficient K such that the cyclic coefficient K is set to a first intensity (S 1 ) corresponding to the intensity in the initial state of the image capturing apparatus, when the turning speed acquired by the acquisition means is higher than a predetermined speed range and the cyclic coefficient K is set to a second intensity (S 2 ) that is lower than the first intensity (S 1 ) when the turning speed is within the predetermined speed range. an acquisition means configured to acquire a turning speed of an image capturing device ; and an image signal processing means configured to perform cyclic type noise reduction processing on an image of a target frame, which is one of a plurality of frames, at an intensity expressed by a cyclic coefficient K, wherein a signal value A' N of the image of the target frame after the cyclic type noise reduction is expressed by the formula: A ′ N = K × A ′ N − 1 + 1 − K × A N = A N − K × A N − A ′ N − 1 , wherein A N is the signal value of the image of the target frame, A' N-1 is a signal value of the image of the previous frame immediately preceding the target frame after cyclic noise reduction, and K is a cyclic coefficient, wherein 0 ≤ K ≤ 1, characterized by a determination means configured to determine the cyclic coefficient K according to the turning speed, wherein the image signal processing means is configured to perform the cyclic type noise reduction processing at the intensity determined by the determination means; and wherein the determination means is configured to determine the cyclic coefficient K such that the cyclic coefficient K is set to a first intensity (S 1 ) corresponding to the intensity in the initial state of the image capturing apparatus, when the turning speed acquired by the acquisition means is higher than a predetermined speed range and the cyclic coefficient K is set to a second intensity (S 2 ) that is lower than the first intensity (S 1 ) when the turning speed is within the predetermined speed range.
A method performed by a wireless device for managing transport block, TB, transmissions by the wireless device to a network node at periodic transmission occasions , the periodic transmission occasions having a periodicity configured by the network node , the method comprising: performing a transport block, TB, transmission to the network node in a first transmission occasion of the periodic transmission occasions; starting a timer for a hybrid automatic repeat request, HARQ, process associated with the TB transmission , the timer being started at the transmission of the TB; identifying a HARQ policy for the HARQ process, wherein the HARQ policy governs whether the wireless device is to retransmit the TB or transmit a new TB where no HARQ feedback responsive to the TB transmission is received from the network node before the timer expires; and responsive to determining that the timer has expired without receiving from the network node HARQ feedback responsive to the TB transmission , retransmitting the TB or transmitting the new TB according to the HARQ policy at a next transmission occasion of the periodic transmission occasions for the HARQ process. performing a transport block, TB, transmission to the network node in a first transmission occasion of the periodic transmission occasions; starting a timer for a hybrid automatic repeat request, HARQ, process associated with the TB transmission , the timer being started at the transmission of the TB; identifying a HARQ policy for the HARQ process, wherein the HARQ policy governs whether the wireless device is to retransmit the TB or transmit a new TB where no HARQ feedback responsive to the TB transmission is received from the network node before the timer expires; and responsive to determining that the timer has expired without receiving from the network node HARQ feedback responsive to the TB transmission , retransmitting the TB or transmitting the new TB according to the HARQ policy at a next transmission occasion of the periodic transmission occasions for the HARQ process.
A grain-oriented electrical steel sheet, in which a groove is formed on a surface thereof, wherein, in a cross section of the grain-oriented electrical steel sheet orthogonal to the groove, a KAM value in a region, which is on a central side in a thickness direction of the grain-oriented electrical steel sheet with respect to the groove and which is surrounded by a square of which one side is in contact with a groove bottom of the groove and a length in each side of which is 50 μm, is 0.1 or more and 3.0 or less, wherein the KAM value is measured in accordance the description.
A valve device with a housing comprising a first connection port and a second connection port for a first liquid circuit, and a third connection port and a fourth connection port for a second liquid circuit, wherein the first connection port is permanently fluidically connected to the second connection port , and with a valve unit comprising a movably mounted valve element with which a thermally activatable spring element is associated and which opens a connection between the third connection port and the fourth connection port in a first end position and cuts off the connection in a second end position, characterized in that the thermally activatable spring element is arranged in a chamber located between the first connection port and the second connection port , which is permanently cut off from the third and the fourth connection port and which preloads the valve element in the direction of the second end position, and in that the valve unit is designed as a slide-in module which can be slid into the housing and which comprises a cylindrical module housing comprising a bottom with an opening at one end, the bottom delimiting the chamber , wherein the valve element is slidably mounted in the module housing and passed with means of a free end in a radially sealing/tight manner through the opening .
An electronic device, comprising: a light source for emitting light; and a display panel configured to output an image, wherein the display panel includes: a pixel layer including a plurality of pixels configured to display the image, a driving circuit layer configured to drive at least one of the plurality of pixels, and a light shielding layer disposed adjacent to the driving circuit layer and configured to block the driving circuit layer from the light, wherein the light shielding layer is grounded to a ground part formed inside the electronic device ; wherein the electronic device comprises a pressure sensor ; characterized in that the pressure sensor includes a cushion layer disposed adjacent the light shielding layer and an electrode layer disposed facing the light shielding layer with the cushion layer disposed therebetween, and wherein the pressure sensor is configured to sense a variation in capacitance between the light shielding layer and the electrode layer . a light source for emitting light; and a display panel configured to output an image, wherein the display panel includes: a pixel layer including a plurality of pixels configured to display the image, a driving circuit layer configured to drive at least one of the plurality of pixels, and a light shielding layer disposed adjacent to the driving circuit layer and configured to block the driving circuit layer from the light, a pixel layer including a plurality of pixels configured to display the image, a driving circuit layer configured to drive at least one of the plurality of pixels, and a light shielding layer disposed adjacent to the driving circuit layer and configured to block the driving circuit layer from the light, wherein the light shielding layer is grounded to a ground part formed inside the electronic device ; wherein the electronic device comprises a pressure sensor ;
A method for assembling a non-pneumatic wheel's radially outer portion into the non-pneumatic wheel's hub , the radially outer portion having a plurality of spokes attached at their radially outer end to a compliant outer band , each spoke having a thickened radially inner end , and the hub having a plurality of slots , the method characterised by inserting each radially inner end of each spoke into slots of the guide of an apparatus , said guide comprising: a first end ; a second end ; a length extending from the first end to the second end ; an outer circumferential surface; a plurality of guide slots formed in the outer circumferential surface, the guide slots extending the length of the guide arranged to extend from the first end to the second end whereby the distance between the guide slots at the first end is larger than the distance between the guide slots at the second end ; sliding the wheel's outer portion down the length of the guide ; aligning the guide slots with the hub slots ; and sliding the wheel's outer portion onto the hub . a first end ; a second end ; a length extending from the first end to the second end ; an outer circumferential surface; a plurality of guide slots formed in the outer circumferential surface, the guide slots extending the length of the guide arranged to extend from the first end to the second end whereby the distance between the guide slots at the first end is larger than the distance between the guide slots at the second end ; a second end ; a length extending from the first end to the second end ; an outer circumferential surface; a plurality of guide slots formed in the outer circumferential surface, the guide slots extending the length of the guide arranged to extend from the first end to the second end whereby the distance between the guide slots at the first end is larger than the distance between the guide slots at the second end ; sliding the wheel's outer portion down the length of the guide ; aligning the guide slots with the hub slots ; and sliding the wheel's outer portion onto the hub .
A gas turbine engine assembly, comprising: a plurality of components circumferentially distributed about an axis (A'); a plurality of seals ; and a damping device having a first side and a second side facing away from the first side , the first side includes a first recessed area engaging one of the seals , the second side includes a second recessed area engaging a first extension from a first one of the components and further engaging a second extension from a second one of the components , characterised in that the first recessed area extends longitudinally in a first direction (D 1 ), and the second recessed area extends longitudinally in a second direction (D 2 ) perpendicular to the first direction (D 1 ), wherein the first recessed area has a cross-sectional profile that mimics a cross-sectional profile of the second recessed area , wherein the damping device is reorientable such that the first recessed area engages the first and second extensions , and the second recessed area engages the one of the seals . a plurality of seals ; and a damping device having a first side and a second side facing away from the first side , the first side includes a first recessed area engaging one of the seals , the second side includes a second recessed area engaging a first extension from a first one of the components and further engaging a second extension from a second one of the components , characterised in that the first recessed area extends longitudinally in a first direction (D 1 ), and the second recessed area extends longitudinally in a second direction (D 2 ) perpendicular to the first direction (D 1 ), wherein the first recessed area has a cross-sectional profile that mimics a cross-sectional profile of the second recessed area , wherein the damping device is reorientable such that the first recessed area engages the first and second extensions , and the second recessed area engages the one of the seals .
Adapter for a breast shield of a breast pump for expressing human breast milk, wherein the breast shield is holdable in the adapter or is integrally connected in one piece to said adapter, wherein the adapter comprises a suction connection for connection to a vacuum pump and a milk connection for connection to a milk collecting container , wherein the adapter comprises a chamber from which the suction connection and a milk outlet opening lead, wherein the chamber additionally comprises an opening on the breast shield side which leads to the breast shield having a first diameter and an opening which is remote from the breast shield having a second diameter, and wherein the adapter additionally comprises a flexible media separating diaphragm which is received in the chamber and separates the chamber into a pump-side region and a breast-shield-side region for the purposes of transmitting a negative pressure generated by the vacuum pump into the breast shield and for the purposes of protecting against contamination of the vacuum pump, wherein the chamber tapers toward the opening on the breast shield side, wherein the chamber comprises the form of a spherical calotte which has been cut off in its tapering region, wherein the media separating diaphragm comprises substantially the form of a flattened spherical calotte with an even top surface and wherein the even top surface of the media separating diaphragm faces the opening of the chamber on the breast shield side, characterized in that the media separating diaphragm comprises an indentation which forms part of a milk channel between the opening on the breast shield side and the milk connection .
A Radio Frequency (RF) device, comprising: a package having a redistribution layer ; first and second antennas formed in the redistribution layer of the package; and at least one conductive trace formed in the redistribution layer of the package, the at least one conductive trace separate from the first and second antennas; a first ground terminal , and a second ground terminal , wherein: the first antenna is a transmitter antenna substantially surrounded by the first ground terminal , the second antenna is a receiver antenna substantially surrounded by the second ground terminal , the at least one conductive trace is a stub having an open end and an end connected to the first or second ground terminal ; the at least one conductive trace is sized and positioned to couple energy from the first antenna, and the at least one conductive trace is configured to reduce coupling between the first antenna and the second antenna. a package having a redistribution layer ; first and second antennas formed in the redistribution layer of the package; and at least one conductive trace formed in the redistribution layer of the package, the at least one conductive trace separate from the first and second antennas; a first ground terminal , and a second ground terminal , wherein: the first antenna is a transmitter antenna substantially surrounded by the first ground terminal , the second antenna is a receiver antenna substantially surrounded by the second ground terminal , the at least one conductive trace is a stub having an open end and an end connected to the first or second ground terminal ; the at least one conductive trace is sized and positioned to couple energy from the first antenna, and the at least one conductive trace is configured to reduce coupling between the first antenna and the second antenna. the first antenna is a transmitter antenna substantially surrounded by the first ground terminal , the second antenna is a receiver antenna substantially surrounded by the second ground terminal , the at least one conductive trace is a stub having an open end and an end connected to the first or second ground terminal ; the at least one conductive trace is sized and positioned to couple energy from the first antenna, and the at least one conductive trace is configured to reduce coupling between the first antenna and the second antenna.
A surgical instrument, comprising: a housing ; an actuator operably associated with the housing; a shaft extending distally from the housing; an end effector assembly disposed at a distal end portion of the shaft; and a drive assembly extending through the housing and the shaft, the drive assembly operably coupling the actuator and the end effector assembly with one another such that actuation of the actuator manipulates the end effector assembly, the drive assembly including: a proximal sleeve defining a longitudinal axis and an interior lumen extending longitudinally therethrough; a drive bar including a proximal portion and a distal portion; characterized in further comprising: a lock washer configured to engage the proximal portion of the drive bar with the proximal sleeve such that the proximal portion of the drive bar is disposed within the interior lumen of the proximal sleeve and positioned offset relative to the longitudinal axis of the proximal sleeve wherein the lock washer includes a finger extending into the interior lumen of the proximal sleeve, the finger defining a slot configured to engage the proximal portion of the drive bar with the lock washer wherein the proximal portion of the drive bar defines a notch configured for receipt within the slot of the finger of the lock washer wherein the slot of the finger includes a circular portion and a vertical portion , wherein the proximal portion of the drive bar is insertable proximally through the circular portion and movable transversely from the circular portion into the vertical portion. a housing ; an actuator operably associated with the housing; a shaft extending distally from the housing; an end effector assembly disposed at a distal end portion of the shaft; and a drive assembly extending through the housing and the shaft, the drive assembly operably coupling the actuator and the end effector assembly with one another such that actuation of the actuator manipulates the end effector assembly, the drive assembly including: a proximal sleeve defining a longitudinal axis and an interior lumen extending longitudinally therethrough; a drive bar including a proximal portion and a distal portion; a proximal sleeve defining a longitudinal axis and an interior lumen extending longitudinally therethrough; a drive bar including a proximal portion and a distal portion;
A compound having a structure represented by the following general formula (I): in the above-mentioned general formula (I), "l" and "n" are molar fractions when l+n=1.0, and 0≤l<1.0 and 0<n≤1.0, the structure represented by A is at least one selected from the group consisting of: and B represents a structure represented by the following general formula (VII), the respective structural units are random copolymerized, and at least one benzene ring in the formula (I) has at least one sulfo group. in the above-mentioned general formula (I), "l" and "n" are molar fractions when l+n=1.0, and 0≤l<1.0 and 0<n≤1.0, the structure represented by A is at least one selected from the group consisting of: and B represents a structure represented by the following general formula (VII), the respective structural units are random copolymerized, and at least one benzene ring in the formula (I) has at least one sulfo group.