mhurhangee/patent-ind-claim-en huggingface dataset:
A method for directed differentiation into insulin-producing cells, comprising: (I) a step of (1-1) culturing pluripotent stem cells in a medium comprising an activin and a GSK3 inhibitor, and then (1-2) culturing in a medium comprising an activin, and a step of culturing the cells obtained in step in a medium comprising a hedgehog signaling inhibitor and an FGF; or (II) a step of culturing pluripotent stem cell-derived endodermal cells in a medium comprising a hedgehog signaling inhibitor and an FGF; wherein step (I) or (II) is followed by: a step of culturing the cells obtained in step or (II) in a medium comprising a retinoic acid receptor agonist, a hedgehog signaling inhibitor and a BMP signaling inhibitor; a step of culturing the cells obtained in step in a medium comprising a TGF-β type I activin receptor-like kinase-4/-5/-7 inhibitor and a BMP signaling inhibitor; and a step of culturing the cells obtained in step in a medium comprising a phosphodiesterase inhibitor, a GLP-1 receptor agonist, nicotinamide and an adenylate cyclase activator. (I) a step of (1-1) culturing pluripotent stem cells in a medium comprising an activin and a GSK3 inhibitor, and then (1-2) culturing in a medium comprising an activin, and a step of culturing the cells obtained in step in a medium comprising a hedgehog signaling inhibitor and an FGF; or (II) a step of culturing pluripotent stem cell-derived endodermal cells in a medium comprising a hedgehog signaling inhibitor and an FGF; a step of culturing the cells obtained in step or (II) in a medium comprising a retinoic acid receptor agonist, a hedgehog signaling inhibitor and a BMP signaling inhibitor; a step of culturing the cells obtained in step in a medium comprising a TGF-β type I activin receptor-like kinase-4/-5/-7 inhibitor and a BMP signaling inhibitor; and a step of culturing the cells obtained in step in a medium comprising a phosphodiesterase inhibitor, a GLP-1 receptor agonist, nicotinamide and an adenylate cyclase activator.
A terminal synchronization method applied to a vehicle to vehicle communications system, comprising: obtaining , by a terminal , a transmission interval for sending a plurality of first synchronization signals within a time duration, wherein the transmission interval is used to indicate a time interval between two adjacent ones of the plurality of first synchronization signals from the terminal , and the transmission interval is a configurable interval; obtaining , by the terminal , a starting offset for sending the plurality of first synchronization signals, wherein the starting offset is used to indicate an offset time period of a starting time point at which the terminal starts to send the plurality of first synchronization signals; wherein the terminal obtains the starting offset based on a type of a first synchronization source corresponding to the plurality of first synchronization signals; sending , by the terminal , the plurality of first synchronization signals based on the transmission interval and the starting offset. obtaining , by a terminal , a transmission interval for sending a plurality of first synchronization signals within a time duration, wherein the transmission interval is used to indicate a time interval between two adjacent ones of the plurality of first synchronization signals from the terminal , and the transmission interval is a configurable interval; obtaining , by the terminal , a starting offset for sending the plurality of first synchronization signals, wherein the starting offset is used to indicate an offset time period of a starting time point at which the terminal starts to send the plurality of first synchronization signals; wherein the terminal obtains the starting offset based on a type of a first synchronization source corresponding to the plurality of first synchronization signals; sending , by the terminal , the plurality of first synchronization signals based on the transmission interval and the starting offset.
An aquafarming system comprising: a cage for enclosing a harvest; and, at least one float secured to a top surface of the cage to provide buoyancy to the cage , each one of the at least one float further comprising: a hydrodynamic top portion having slanted faces to allow for improved displacement on a water surface; and a first and second end having a bow shape for reducing resistance of the at least one float when traveling on the water surface; characterised in that each one of the at least one float further comprises: at least two legs secured to the top surface of the cage , the at least two legs defining at least one flow channel allowing water to travel between the top surface of the cage and the at least one float . a cage for enclosing a harvest; and, at least one float secured to a top surface of the cage to provide buoyancy to the cage , each one of the at least one float further comprising: a hydrodynamic top portion having slanted faces to allow for improved displacement on a water surface; and a first and second end having a bow shape for reducing resistance of the at least one float when traveling on the water surface; characterised in that each one of the at least one float further comprises: at least two legs secured to the top surface of the cage , the at least two legs defining at least one flow channel allowing water to travel between the top surface of the cage and the at least one float . a hydrodynamic top portion having slanted faces to allow for improved displacement on a water surface; and a first and second end having a bow shape for reducing resistance of the at least one float when traveling on the water surface; characterised in that each one of the at least one float further comprises: at least two legs secured to the top surface of the cage , the at least two legs defining at least one flow channel allowing water to travel between the top surface of the cage and the at least one float .
A method of forming an apparel item having stand-off structures , the method comprising: providing a textile material ; applying tension in one or more directions to the textile material ; applying a surface treatment to one or more portions of the textile material while the textile material is under tension to form the stand-off structures ; and forming one or more openings in the textile material in locations that correspond to where the surface treatment was applied. providing a textile material ; applying tension in one or more directions to the textile material ; applying a surface treatment to one or more portions of the textile material while the textile material is under tension to form the stand-off structures ; and forming one or more openings in the textile material in locations that correspond to where the surface treatment was applied.
A connection terminal comprising: a cable connection portion ; a box-shaped connection portion having an insertion opening into which a mating connection portion can be inserted; and an elastic piece that is elastically deformable, is arranged inside the connection portion , with an end portion on the side of the cable connection portion superimposed on the bottom wall of the box-shaped connection portion as a base end and an end portion on a side of the insertion opening as a free end , and has a contact portion that is configured to come into contact with the mating connection portion , wherein the connection portion is provided with a protective wall having a protruding end protruding toward an inside of the connection portion and arranged adjacent to the free end of the elastic piece , and an end portion on a side of the free end of the elastic piece is arranged so as to intersect an extension line (L) connecting the protruding end of the protective wall and an opening edge of the insertion opening facing the protruding end wherein a portion of the connection portion facing the free end of the elastic piece is provided with a hole into which the free end of the elastic piece can be inserted when the elastic piece is elastically deformed, characterised in that the hole is a through hole formed so as to penetrate the bottom wall of the connection portion when the protective wall is cut and raised. a cable connection portion ; a box-shaped connection portion having an insertion opening into which a mating connection portion can be inserted; and an elastic piece that is elastically deformable, is arranged inside the connection portion , with an end portion on the side of the cable connection portion superimposed on the bottom wall of the box-shaped connection portion as a base end and an end portion on a side of the insertion opening as a free end , and has a contact portion that is configured to come into contact with the mating connection portion , wherein the connection portion is provided with a protective wall having a protruding end protruding toward an inside of the connection portion and arranged adjacent to the free end of the elastic piece , and an end portion on a side of the free end of the elastic piece is arranged so as to intersect an extension line (L) connecting the protruding end of the protective wall and an opening edge of the insertion opening facing the protruding end wherein a portion of the connection portion facing the free end of the elastic piece is provided with a hole into which the free end of the elastic piece can be inserted when the elastic piece is elastically deformed, characterised in that the hole is a through hole formed so as to penetrate the bottom wall of the connection portion when the protective wall is cut and raised.
Apparatus for the respirating of patients, more in particular for ventilating at home, for anaesthesia or for intensive care, comprising a line system for the lead-through of respiratory gas, which line system is provided with a connection for the patient and with connections for the supply of the various components of the gas and with connections for the discharge of the various components of the gas, whereby the line system , in whole or in part, is built up from a first and a second , substantially plate-shaped, part , each having an inner surface and an outer surface , whereby the first part and the second part are intended to be placed with their inner surfaces against each other, whereby in the inner surface of at least of one of the parts a canal is formed, having a longitudinal side that is open towards the inner surface , such, that during placement thereon of the inner surface of the other part the open side of the canal is covered and a flow-through pathway is formed through which the respiratory or anaesthetic gas can be led, whereby the first and/or the second part are provided with openings , whereby a canal connects to or communicates with an opening , characterized in that the inner surface of at least one of the parts is provided with a layer of material , with sealing or elastic properties, which layer of material is attached to the inner surface , or is coated onto the inner surface , and whereby the one part at the location of an opening is provided with a closing means that is displaceable to into the flow- through pathway for the opening and closing off of parts of the flow-through pathway , whilst on the inner surface the layer of material is provided, such that by means of the closing means the layer of material can be pressed against the inner surface of the other part . whereby the first and/or the second part are provided with openings , whereby a canal connects to or communicates with an opening , characterized in that the inner surface of at least one of the parts is provided with a layer of material , with sealing or elastic properties, which layer of material is attached to the inner surface , or is coated onto the inner surface , and whereby the one part at the location of an opening is provided with a closing means that is displaceable to into the flow- through pathway for the opening and closing off of parts of the flow-through pathway , whilst on the inner surface the layer of material is provided, such that by means of the closing means the layer of material can be pressed against the inner surface of the other part .
A Leuconostoc mesenteroides CJLM119 strain deposited under accession number KCTC 13043BP.
Warning device , for urban parking, applicable to a vehicle, and capable of communicating with a predetermined receiving unit configured to be carried by the driver who has left the parked vehicle, said device being characterised in that it comprises: - at least a first element comprising first coupling means to the outer surface of the vehicle, at least one activation element for the device , said activation element being configured to transmit to the driver a request for removal of the vehicle, and - at least a second element , arranged inside the vehicle, and comprising a transceiver element , which receives an activation control from said at least one activation element , and transmits it to said receiving unit wherein said activation element is comprised of a button , characterised in that said button comprises a cylindrical container suitable for housing a first magnet, and said transceiver provides a piston element with a second integral magnet, of opposite polarity with respect to said first magnet, and an activation button of the transmitter of said transceiver element , whereby when the button is pressed, first magnet approaches to the second magnet, said second magnet retracts and, moves along with the piston, the latter, at the end of its stroke, interferes with the activation button of the transceiver element . - at least a first element comprising first coupling means to the outer surface of the vehicle, at least one activation element for the device , said activation element being configured to transmit to the driver a request for removal of the vehicle, and first coupling means to the outer surface of the vehicle, at least one activation element for the device , said activation element being configured to transmit to the driver a request for removal of the vehicle, and - at least a second element , arranged inside the vehicle, and comprising a transceiver element , which receives an activation control from said at least one activation element , and transmits it to said receiving unit wherein said activation element is comprised of a button , characterised in that said button comprises a cylindrical container suitable for housing a first magnet, and said transceiver provides a piston element with a second integral magnet, of opposite polarity with respect to said first magnet, and an activation button of the transmitter of said transceiver element , whereby when the button is pressed, first magnet approaches to the second magnet, said second magnet retracts and, moves along with the piston, the latter, at the end of its stroke, interferes with the activation button of the transceiver element .
A motor drive system for an electric vehicle, configured to drive a motor of the electric vehicle that uses a power battery pack as a power supply, wherein the power battery pack comprises at least two battery modules (101a1:101an) that are independent of each other, the drive system comprises a vehicle control unit , a primary controller , at least two secondary controllers (106a1:106an) and at least two direct current-alternating current DC-AC circuits (102a1:102an), the battery modules one-to-one correspond to the DC-AC circuits, the primary controller is connected to the secondary controllers and the vehicle control unit, and each DC-AC circuit corresponds and is connected to one secondary controller; each battery module is correspondingly connected to an input end of one DC-AC circuit, and an output end of each DC-AC circuit is connected to a corresponding winding of the motor; the DC-AC circuit is configured to convert a direct current provided by the corresponding battery module into an alternating current to drive the corresponding winding of the motor; and when it is determined that a battery module is faulty, the vehicle control unit is configured to send a disable instruction to a secondary controller corresponding to the faulty battery module by using the primary controller, so that the secondary controller receiving the disable instruction controls a corresponding DC-AC circuit to stop working. wherein the power battery pack comprises at least two battery modules (101a1:101an) that are independent of each other, the drive system comprises a vehicle control unit , a primary controller , at least two secondary controllers (106a1:106an) and at least two direct current-alternating current DC-AC circuits (102a1:102an), the battery modules one-to-one correspond to the DC-AC circuits, the primary controller is connected to the secondary controllers and the vehicle control unit, and each DC-AC circuit corresponds and is connected to one secondary controller; each battery module is correspondingly connected to an input end of one DC-AC circuit, and an output end of each DC-AC circuit is connected to a corresponding winding of the motor; the DC-AC circuit is configured to convert a direct current provided by the corresponding battery module into an alternating current to drive the corresponding winding of the motor; and when it is determined that a battery module is faulty, the vehicle control unit is configured to send a disable instruction to a secondary controller corresponding to the faulty battery module by using the primary controller, so that the secondary controller receiving the disable instruction controls a corresponding DC-AC circuit to stop working.
A process control valve comprising: a valve body having an inlet and an outlet , with a process flow path defined between the inlet and the outlet ; a guide sleeve extending into the process flow path between the inlet and the outlet , the guide sleeve being closed opposite the process flow path to define a gap ; and a plug that is configured to move within the guide sleeve to selectively restrict fluid communication between the inlet and the outlet , characterised in that the plug is comprising a plug body and a plurality of fins extending radially outward from the plug body between a first end of the plug and a second end of the plug , each one of the plurality of fins having a tapered section proximate the second end of the plug , the tapered section tapering radially inward toward the second end of the plug , the plug being disposed partly within the guide sleeve with the plurality of fins disposed to guide movement of the plug within the guide sleeve and the tapered section extending into the gap , and in that the plug is including a cylindrical section configured to be received in the guide sleeve , the cylindrical section having a circumference that forms a tight clearance fit within the guide sleeve to restrict flow through the guide sleeve . a valve body having an inlet and an outlet , with a process flow path defined between the inlet and the outlet ; a guide sleeve extending into the process flow path between the inlet and the outlet , the guide sleeve being closed opposite the process flow path to define a gap ; and a plug that is configured to move within the guide sleeve to selectively restrict fluid communication between the inlet and the outlet , characterised in that the plug is comprising a plug body and a plurality of fins extending radially outward from the plug body between a first end of the plug and a second end of the plug , each one of the plurality of fins having a tapered section proximate the second end of the plug , the tapered section tapering radially inward toward the second end of the plug , the plug being disposed partly within the guide sleeve with the plurality of fins disposed to guide movement of the plug within the guide sleeve and the tapered section extending into the gap , and in that the plug is including a cylindrical section configured to be received in the guide sleeve , the cylindrical section having a circumference that forms a tight clearance fit within the guide sleeve to restrict flow through the guide sleeve .
A method of fabricating a microelectronic assembly , comprising: forming an insulating layer comprising a diblock copolymer on a substrate , the insulating layer including a self-assembled nanoscale matrix array of a first polymer and a second polymer ; removing the second polymer from the nanoscale matrix array to reveal a plurality of nanoscale holes in the nanoscale matrix array; filling the plurality of nanoscale holes with one or more conductive materials to form an array of a plurality of nanoscale conductors within the insulating layer, the nanoscale conductors extending from a first surface of the insulating layer to a second surface of the insulating layer opposite the first surface; joining the array of nanoscale conductors within the insulating layer to a plurality of first element contacts at a first face of a first microelectronic element , the plurality of first element contacts facing the first surface of the insulating layer, and subsequently removing the substrate from the second surface of the insulating layer; joining the array of nanoscale conductors within the insulating layer to a plurality of second element contacts at a second face of a second microelectronic element , the plurality of second element contacts facing the second surface of the insulating layer; and forming electrical interconnections between the first element contacts of the first microelectronic element and the second element contacts of the second microelectronic element with the plurality of nanoscale conductors . forming an insulating layer comprising a diblock copolymer on a substrate , the insulating layer including a self-assembled nanoscale matrix array of a first polymer and a second polymer ; removing the second polymer from the nanoscale matrix array to reveal a plurality of nanoscale holes in the nanoscale matrix array; filling the plurality of nanoscale holes with one or more conductive materials to form an array of a plurality of nanoscale conductors within the insulating layer, the nanoscale conductors extending from a first surface of the insulating layer to a second surface of the insulating layer opposite the first surface; joining the array of nanoscale conductors within the insulating layer to a plurality of first element contacts at a first face of a first microelectronic element , the plurality of first element contacts facing the first surface of the insulating layer, and subsequently removing the substrate from the second surface of the insulating layer; joining the array of nanoscale conductors within the insulating layer to a plurality of second element contacts at a second face of a second microelectronic element , the plurality of second element contacts facing the second surface of the insulating layer; and forming electrical interconnections between the first element contacts of the first microelectronic element and the second element contacts of the second microelectronic element with the plurality of nanoscale conductors .