mhurhangee/patent-ind-claim-en huggingface dataset:
A coil for transcranial magnetic stimulation, the coil comprising: a base portion including a central axis defining a base portion right side and a base portion left side , wherein said base portion right side is positioned on a right side of said central axis and said base portion left side is positioned on a left side of said central axis said base portion comprising multiple adjacent stimulating elements , said multiple adjacent stimulating elements comprised of: multiple right side stimulating elements , said right side stimulating elements positioned in said base portion right side , said multiple right side stimulating elements configured to carry electrical current in a first direction, and multiple left side stimulating elements , said left side stimulating elements positioned in said base portion left side , said multiple left side stimulating elements configured to carry electrical current in said first direction, wherein at least two adjacent stimulating elements are spaced apart from one another by a distance of 2-8 centimeters, wherein the at least two spaced apart adjacent stimulating elements are a right side stimulating element and a left side stimulating element; and a return portion including multiple right side return elements positioned on the right side of the central axis , wherein each of said right side return elements is connected to one of said multiple right side stimulating elements , and wherein each of said right side return elements is positioned further away from said central axis than its connected right side stimulating element , and wherein each of said multiple right side return elements is configured to carry electrical current in a second direction, wherein said second direction is an opposite direction to said first direction, and multiple left side return elements positioned on the left side of the central axis , wherein each of said left side return elements is connected to one of said multiple left side stimulating elements , and wherein each of said left side return elements is positioned further away from said central axis than its connected left side stimulating element , and wherein each of said multiple left side return elements is configured to carry electrical current in said second direction, wherein said return portion is spaced a distance away from said base portion . multiple right side stimulating elements , said right side stimulating elements positioned in said base portion right side , said multiple right side stimulating elements configured to carry electrical current in a first direction, and multiple left side stimulating elements , said left side stimulating elements positioned in said base portion left side , said multiple left side stimulating elements configured to carry electrical current in said first direction,
A clavicle fixation device comprising: an elongated plate extending between first and second ends and defining a central portion , a first end portion between the central portion and the first end , and a second end portion between the central portion and the second end , the elongated plate defining a plurality of spaced apart screw holes , wherein at least one pair of relief cuts extends into the elongated plate on opposite sides thereof, the at least one pair of relief cuts axially positioned between a pair of the spaced apart screw holes and at least one pair of suture holes along opposite sides of the elongated plate , the at least one pair of suture holes axially positioned between a pair of the spaced apart screw holes , and wherein the at least one pair of suture holes is oblong and each suture hole is aligned with an undercut configured to allow free passage of a suture underneath the elongated plate without interference with an interface between the elongated plate and a bone. an elongated plate extending between first and second ends and defining a central portion , a first end portion between the central portion and the first end , and a second end portion between the central portion and the second end , the elongated plate defining a plurality of spaced apart screw holes , wherein at least one pair of relief cuts extends into the elongated plate on opposite sides thereof, the at least one pair of relief cuts axially positioned between a pair of the spaced apart screw holes and at least one pair of suture holes along opposite sides of the elongated plate , the at least one pair of suture holes axially positioned between a pair of the spaced apart screw holes , and wherein the at least one pair of suture holes is oblong and each suture hole is aligned with an undercut configured to allow free passage of a suture underneath the elongated plate without interference with an interface between the elongated plate and a bone.
A valve prosthesis comprising: a valve member and an implantable frame radially-expandable from a compressed configuration to an expanded configuration having an interior lumen characterised by the frame defining a laterally asymmetric partial sinus portion of the interior lumen extending around between about 10% and about 90% of the circumference of the frame in the expanded configuration and forming a bulge in the interior lumen extending in a first lateral direction of the frame in the expanded configuration, the frame including a proximal section , a distal section and an intermediate section , the proximal section and the distal section being spaced apart from one another, the intermediate section creating the artificial partial sinus , the distal section and proximal section having a radial force less than the radial force of the intermediate section ,
Detector element for detecting incident x-ray radiation, said detector element comprising a scintillation layer for converting the x-ray radiation into scintillation light and a photoactive element for converting the scintillation light into an electrical signal, wherein the photoactive element comprises two photodiodes , which in each case are arranged on one of the two plane faces of the scintillation layer , - wherein one of the photodiodes comprises a first photoactive absorption layer contacted by an electrode and the other of the photodiodes comprises a second photoactive absorption layer contacted by a counter electrode , - wherein the one photodiode comprises a first electrically conductive intermediate layer , wherein the other photodiode comprises a second electrically conductive intermediate layer , wherein the respective intermediate layer is arranged such that it adjoins the respective absorption layer on the outside face and wherein the respective absorption layer is coupled in an electrically conductive manner to the electrode and the counter electrode , respectively, by means of the respective intermediate layer , - wherein the scintillation layer is accommodated in a sandwich-like manner between the two photodiodes , wherein the scintillation layer is arranged between the first photoactive absorption layer and the second photoactive absorption layer . - wherein one of the photodiodes comprises a first photoactive absorption layer contacted by an electrode and the other of the photodiodes comprises a second photoactive absorption layer contacted by a counter electrode , - wherein the one photodiode comprises a first electrically conductive intermediate layer , wherein the other photodiode comprises a second electrically conductive intermediate layer , wherein the respective intermediate layer is arranged such that it adjoins the respective absorption layer on the outside face and wherein the respective absorption layer is coupled in an electrically conductive manner to the electrode and the counter electrode , respectively, by means of the respective intermediate layer , - wherein the scintillation layer is accommodated in a sandwich-like manner between the two photodiodes , wherein the scintillation layer is arranged between the first photoactive absorption layer and the second photoactive absorption layer .
Apparatus for block-based predictive video decoding a video from a data stream using motion compensated prediction for inter-predicted blocks, configured to perform a once-per-picture boundary padding of a picture boundary extension area of a reference picture to obtain a pre-filling of the picture boundary extension area, check whether the pre-filling of the picture boundary extension area at a portion of a motion compensated footprint of an inter-predicted block of a current picture, which extends beyond a boundary of the reference picture, fulfills a predetermined criterion, if the portion fulfills the predetermined criterion, use the pre-filling for determining a predictor for the inter-predicted block, and if the portion does not fulfill the predetermined criterion, perform an alternative boundary padding to fill the portion to obtain a further filling of the portion and use the further filling for determining the picture; characterised in that the apparatus is configured to perform the once-per-picture boundary padding by deriving a global transformation information on a linear transformation describing a global motion between a reference picture and a further picture of the video, using the linear transformation, to derive the pre-filling of the picture boundary extension area of the reference picture using the further picture. check whether the pre-filling of the picture boundary extension area at a portion of a motion compensated footprint of an inter-predicted block of a current picture, which extends beyond a boundary of the reference picture, fulfills a predetermined criterion, if the portion fulfills the predetermined criterion, use the pre-filling for determining a predictor for the inter-predicted block, and if the portion does not fulfill the predetermined criterion, perform an alternative boundary padding to fill the portion to obtain a further filling of the portion and use the further filling for determining the picture; characterised in that the apparatus is configured to perform the once-per-picture boundary padding by deriving a global transformation information on a linear transformation describing a global motion between a reference picture and a further picture of the video, using the linear transformation, to derive the pre-filling of the picture boundary extension area of the reference picture using the further picture.
A fluid mixer comprising: a flow splitter comprising a splitter well having an inlet for receiving a flow of fluid, a first outlet for conveying a first stream and a second outlet for conveying a second stream , the first outlet being above the second outlet with respect to gravity, such that the second fluid stream has a higher density than the first fluid stream, and the first outlet and the second outlet being on opposing sides of the splitter well; and a mixing chamber comprising a first inlet , a second inlet and a mixing well , the second inlet positioned below the first inlet with respect to gravity, wherein the second inlet of the mixing chamber is configured to receive the first fluid stream and the first inlet of the mixing chamber is configured to receive the second fluid stream, to promote mixing of the first and second streams in the mixing well. a flow splitter comprising a splitter well having an inlet for receiving a flow of fluid, a first outlet for conveying a first stream and a second outlet for conveying a second stream , the first outlet being above the second outlet with respect to gravity, such that the second fluid stream has a higher density than the first fluid stream, and the first outlet and the second outlet being on opposing sides of the splitter well; and a mixing chamber comprising a first inlet , a second inlet and a mixing well , the second inlet positioned below the first inlet with respect to gravity, wherein the second inlet of the mixing chamber is configured to receive the first fluid stream and the first inlet of the mixing chamber is configured to receive the second fluid stream, to promote mixing of the first and second streams in the mixing well.
An electrochromic device, ECD,, the ECD comprising: a partially octadecyltrichlorosilane, OTS, covered indium tin oxide, ITO, substrate, POTS-ITO substrate, wherein the POTS-ITO substrate is an ITO substrate comprising a OTS coverage of between about 10% to about 40%; and an electrochromic polymer film, ECP, on the POTS-ITO substrate, wherein the POTS-ITO substrate is obtained by a method comprising immersing an ITO substrate in an OTS hexane solution for about 80 minutes, wherein the concentration of the OTS in the OTS hexane solution is 1vol%; whereby the POTS-ITO suppresses self-bleaching behavior of the ECP. a partially octadecyltrichlorosilane, OTS, covered indium tin oxide, ITO, substrate, POTS-ITO substrate, wherein the POTS-ITO substrate is an ITO substrate comprising a OTS coverage of between about 10% to about 40%; and an electrochromic polymer film, ECP, on the POTS-ITO substrate, wherein the POTS-ITO substrate is obtained by a method comprising immersing an ITO substrate in an OTS hexane solution for about 80 minutes, wherein the concentration of the OTS in the OTS hexane solution is 1vol%; whereby the POTS-ITO suppresses self-bleaching behavior of the ECP.
A method for wireless communication performed by a first wireless node in a wireless backhaul communications network, comprising: receiving (520; 1405), from an access and mobility function, AMF, or another wireless node of the wireless backhaul communications network, an indication of a set of wireless resources that are available for autonomous transmission of one or more paging messages to one or more other wireless nodes, the set of wireless resources controlled by a second wireless node; determining (555; 1410) that a paging message is to be transmitted to a third wireless node; and autonomously transmitting (560; 1415), based at least in part on the indication, the paging message to the third wireless node via the set of wireless resources controlled by the second wireless node; wherein the receiving comprises receiving signaling that indicates that the paging message is to be transmitted to the third wireless node, the signaling indicating that the set of wireless resources are available for autonomous transmission of the paging message. receiving (520; 1405), from an access and mobility function, AMF, or another wireless node of the wireless backhaul communications network, an indication of a set of wireless resources that are available for autonomous transmission of one or more paging messages to one or more other wireless nodes, the set of wireless resources controlled by a second wireless node; determining (555; 1410) that a paging message is to be transmitted to a third wireless node; and autonomously transmitting (560; 1415), based at least in part on the indication, the paging message to the third wireless node via the set of wireless resources controlled by the second wireless node; wherein the receiving comprises receiving signaling that indicates that the paging message is to be transmitted to the third wireless node, the signaling indicating that the set of wireless resources are available for autonomous transmission of the paging message.
A network service management method, wherein the method comprises: obtaining , by a network management unit, information of a target network service, wherein the information of the target network service comprises an identifier of the target network service and requirement information of the target network service, wherein the requirement information of the target network service comprises at least one of the following information: a quantity of users, a coverage area of the service or a network, a movement status of the user and a latency of the network; obtaining , by the network management unit, an identifier of a network based on the requirement information of the target network service, wherein the network meets the requirement information of the target network service; and configuring , by the network management unit, the identifier of the target network service in management information of the network. obtaining , by a network management unit, information of a target network service, wherein the information of the target network service comprises an identifier of the target network service and requirement information of the target network service, wherein the requirement information of the target network service comprises at least one of the following information: a quantity of users, a coverage area of the service or a network, a movement status of the user and a latency of the network; obtaining , by the network management unit, an identifier of a network based on the requirement information of the target network service, wherein the network meets the requirement information of the target network service; and configuring , by the network management unit, the identifier of the target network service in management information of the network.
A voltage monitor system comprising: a voltage rail ; a voltage monitor operatively connected to the voltage rail to monitor voltage of the voltage rail with at least one input connection; a self-test module operatively connected to the voltage rail to perturb voltage at the at least one input connection of the voltage monitor for testing the voltage monitor; and characterised by : a logic component operatively connected to a voltage input of the self-test module and operatively connected to at least one output of the voltage monitor, wherein the logic component is configured to change voltage of the voltage input of the self-test module and monitor voltage of the at least one output of the voltage monitor to determine test response of the voltage monitor to the change in voltage of the voltage input of the self-test module and wherein the self-test module includes a capacitor (C1) connected in series between the voltage rail and the voltage input of the self-test module to perturb voltage at the at least one input connection of the voltage monitor in response to a change in voltage of the voltage input of the self-test module. a voltage rail ; a voltage monitor operatively connected to the voltage rail to monitor voltage of the voltage rail with at least one input connection; a self-test module operatively connected to the voltage rail to perturb voltage at the at least one input connection of the voltage monitor for testing the voltage monitor; and characterised by : a logic component operatively connected to a voltage input of the self-test module and operatively connected to at least one output of the voltage monitor, wherein the logic component is configured to change voltage of the voltage input of the self-test module and monitor voltage of the at least one output of the voltage monitor to determine test response of the voltage monitor to the change in voltage of the voltage input of the self-test module and wherein the self-test module includes a capacitor (C1) connected in series between the voltage rail and the voltage input of the self-test module to perturb voltage at the at least one input connection of the voltage monitor in response to a change in voltage of the voltage input of the self-test module.
A device for preparing a continuous nanofibrous yarn, comprising: an electrospinning chamber, comprising at least one first opening in the upper region of said chamber for receiving gas and a second opening in the bottom region of said chamber into a lower pressure zone for discharging gas from said electrospinning chamber; means for creating helical movement of gas within said electrospinning chamber, said means comprising a set of elongated slits through the walls of said chamber, said slits extending in parallel to the general direction of the air flow in said chamber; electrospinning means for forming a plurality of nanofibres directly into said helical movement of gas in said electrospinning chamber, wherein said nanofibres are twisted together by said helical movement of gas; and means for continuously removing said yarn from said chamber through said second opening or a third opening located at the bottom region of said chamber, wherein said means do not have any mechanical contact with the yarn within said chamber during normal operation of the device; wherein said means for creating helical movement of gas comprises means for creating a negative pressure within said chamber, the pressure inside the chamber is lower compared to ambient pressure so that the gas is sucked into said chamber through said first opening and said elongated slits. an electrospinning chamber, comprising at least one first opening in the upper region of said chamber for receiving gas and a second opening in the bottom region of said chamber into a lower pressure zone for discharging gas from said electrospinning chamber; means for creating helical movement of gas within said electrospinning chamber, said means comprising a set of elongated slits through the walls of said chamber, said slits extending in parallel to the general direction of the air flow in said chamber; electrospinning means for forming a plurality of nanofibres directly into said helical movement of gas in said electrospinning chamber, wherein said nanofibres are twisted together by said helical movement of gas; and means for continuously removing said yarn from said chamber through said second opening or a third opening located at the bottom region of said chamber, wherein said means do not have any mechanical contact with the yarn within said chamber during normal operation of the device; wherein said means for creating helical movement of gas comprises means for creating a negative pressure within said chamber, the pressure inside the chamber is lower compared to ambient pressure so that the gas is sucked into said chamber through said first opening and said elongated slits.
A method for operating a user interface in response to movement of a free-space hand-held input device responsive to pitch and yaw rotations, the user interface having a plurality of function icons displayed on a display, the method comprising: designating one of the plurality of function icons (420-480) on the basis of a direction and movement applied to the free-space hand-held input device, wherein the designating takes place if it is determined that a displacement corresponding to said movement of the free-space hand-held input device exceeds a first threshold; the method characterised in that it further comprises: exiting the designated one of the plurality of function icons (420-480) on the basis of a further direction and further movement applied to the free-space hand-held input device, wherein the exiting takes place if it is determined that a displacement corresponding to said further movement of the free-space hand-held input device exceeds a second threshold that has a higher value than the first threshold. designating one of the plurality of function icons (420-480) on the basis of a direction and movement applied to the free-space hand-held input device, wherein the designating takes place if it is determined that a displacement corresponding to said movement of the free-space hand-held input device exceeds a first threshold; the method characterised in that it further comprises: exiting the designated one of the plurality of function icons (420-480) on the basis of a further direction and further movement applied to the free-space hand-held input device, wherein the exiting takes place if it is determined that a displacement corresponding to said further movement of the free-space hand-held input device exceeds a second threshold that has a higher value than the first threshold.