mhurhangee/patent-ind-claim-en huggingface dataset:
A method of delivering a cell to a target tissue in an animal, said method comprising, (a) affixing, binding, or attaching at least one magnetic nanoparticle(s) having a diameter of no more than about 200 nm to the surface of said cell to obtain a magnetic nanoparticle-comprising cell wherein the magnetic nanoparticle is affixed to the cell surface by means of a cell-surface specific binding agent wherein the magnetic nanoparticles comprise iron in any ferromagnetic form; (b) administering said magnetic nanoparticle-comprising cell to the animal; and (c) applying a magnetic field to said target tissue thereby delivering said magnetic nanoparticle-comprising cell to specific regions of said target tissue, wherein the cell is an ocular cell or optic nerve cell and the target tissue is eye tissue; and wherein the magnetic nanoparticles have a surface coating. (a) affixing, binding, or attaching at least one magnetic nanoparticle(s) having a diameter of no more than about 200 nm to the surface of said cell to obtain a magnetic nanoparticle-comprising cell wherein the magnetic nanoparticle is affixed to the cell surface by means of a cell-surface specific binding agent wherein the magnetic nanoparticles comprise iron in any ferromagnetic form; (b) administering said magnetic nanoparticle-comprising cell to the animal; and (c) applying a magnetic field to said target tissue thereby delivering said magnetic nanoparticle-comprising cell to specific regions of said target tissue, wherein the cell is an ocular cell or optic nerve cell and the target tissue is eye tissue; and
Elevator car comprising a raw ceiling , at least one wall element and at least one connecting device for connecting the wall element to the raw ceiling , wherein the connecting device comprises at least one rail element having two legs , of which a first leg rests against the raw ceiling in the mounted state and a second leg has at least one mounting surface for at least one wall element , wherein the mounting surface comprises at least one first recess for suspending the wall element , wherein the wall element has, on the edge thereof pointing upwards in the mounted state, at least one suspension element for engaging in the first recess of the connecting device , which suspension element is designed in particular as a bracket, or wherein the wall element comprises, on the edge thereof pointing upwards in the mounted state, at least one first recess and the mounting surface has at least one suspension element for engaging in the first recess of the wall element .
A thermally expandable composition, containing (a) at least one peroxidically crosslinking polymer, (b) at least one peroxide, (c) at least one polysaccharide and (d) at least one endothermic chemical blowing agent. (a) at least one peroxidically crosslinking polymer, (b) at least one peroxide, (c) at least one polysaccharide and (d) at least one endothermic chemical blowing agent.
A compound, or a pharmaceutically acceptable salt thereof, of Formula I: in which R 1 and R 2 are each independently fluoro or chloro; R 3 and R 4 are each independently alkyl C1-C20; R 5 is hydrogen or alkyl C1-C20; and R 6 is amide, sulfonamide, hydroxamic acid, or -CH(CF 3 )OH or -C(CF 3 ) 2 OH
A method for manufacturing a tip rail for a turbine rotor blade , the method comprising: providing the turbine rotor blade having a tip plate ; forming at least a first portion of the tip rail by adding material to at least a portion of an area about the tip plate by laser irradiating a wire material with a laser in an inert gas in a vicinity of the at least a portion of the area about the tip plate , wherein the laser irradiating the wire material includes modulated pulsing the laser through: a first warm up phase during which an on-power of the laser is increased over time to a maximum target on-power for the first laser irradiating, a first melt and bond phase during which the wire material is melted and during which the on-power for the first laser irradiating is less than the maximum target on-power for the first laser irradiating, and a first stress releasing phase during which the on-power of the laser is less than the on-power during the melt and bond phase, wherein the irradiated wire material forms a first weld material forming the at least the first portion of the tip rail ; first spraying a bond coating on at least an inner rail surface of the tip rail ; and second spraying a thermal barrier coating (TBC) coating on the bond coating . providing the turbine rotor blade having a tip plate ; forming at least a first portion of the tip rail by adding material to at least a portion of an area about the tip plate by laser irradiating a wire material with a laser in an inert gas in a vicinity of the at least a portion of the area about the tip plate , wherein the laser irradiating the wire material includes modulated pulsing the laser through: a first warm up phase during which an on-power of the laser is increased over time to a maximum target on-power for the first laser irradiating, a first melt and bond phase during which the wire material is melted and during which the on-power for the first laser irradiating is less than the maximum target on-power for the first laser irradiating, and a first stress releasing phase during which the on-power of the laser is less than the on-power during the melt and bond phase, a first warm up phase during which an on-power of the laser is increased over time to a maximum target on-power for the first laser irradiating, a first melt and bond phase during which the wire material is melted and during which the on-power for the first laser irradiating is less than the maximum target on-power for the first laser irradiating, and a first stress releasing phase during which the on-power of the laser is less than the on-power during the melt and bond phase, wherein the irradiated wire material forms a first weld material forming the at least the first portion of the tip rail ; first spraying a bond coating on at least an inner rail surface of the tip rail ; and second spraying a thermal barrier coating (TBC) coating on the bond coating .
A sensing agent , comprising: a sensing unit configured to monitor a sensing zone; and a computing unit in electronic communication with the sensing unit , wherein in response to the sensing unit detecting an object in the sensing zone, the computing unit is configured to determine an object physical property, the object physical property comprising one or more data points related to the object, the one or more data points being at least one of an image of the object, a video of the object, an object dimension, an object shape, an object characteristic, an object orientation, an object location, an object weight, or point cloud data, wherein the object physical property does not include a reading of an identification tag or a label; and characterized in that the computing unit is configured to generate an object model based on the object physical property; and wherein the computing unit is configured to identify the object as a ULD or a non-ULD object based on the object model. a sensing unit configured to monitor a sensing zone; and a computing unit in electronic communication with the sensing unit , wherein in response to the sensing unit detecting an object in the sensing zone, the computing unit is configured to determine an object physical property, the object physical property comprising one or more data points related to the object, the one or more data points being at least one of an image of the object, a video of the object, an object dimension, an object shape, an object characteristic, an object orientation, an object location, an object weight, or point cloud data, wherein the object physical property does not include a reading of an identification tag or a label; and characterized in that the computing unit is configured to generate an object model based on the object physical property; and wherein the computing unit is configured to identify the object as a ULD or a non-ULD object based on the object model.
A non-perturbative method of measuring magnetic fields in high-temperature plasmas, comprising: imaging a wavelength of a Field Reversed Configuration, FRC, plasma along a horizontal axis direction of a fast imaging CCD camera; imaging a radial extent of the FRC plasma along a vertical axis direction of the CCD camera; splitting light in the vertical direction into orthogonal polarizations using a birefringent crystal; and measuring a null location of an FRC magnetic field of the FRC plasma by observing where the linear polarization signal peaks. imaging a wavelength of a Field Reversed Configuration, FRC, plasma along a horizontal axis direction of a fast imaging CCD camera; imaging a radial extent of the FRC plasma along a vertical axis direction of the CCD camera; splitting light in the vertical direction into orthogonal polarizations using a birefringent crystal; and measuring a null location of an FRC magnetic field of the FRC plasma by observing where the linear polarization signal peaks.
A method of forming packaged semiconductor devices, comprising: providing a first semiconductor die , having bond pads (121, 122, 126-129) thereon mounted face up on a package substrate or on a die pad of a lead frame, also referred to as substrate , wherein the substrate includes terminals or contact pads, also referred to as substrate pads , forming a first dielectric layer including printing a first dielectric precursor layer including a first ink including a first liquid carrier extending from the substrate pads to the bond pads; printing a first interconnect precursor layer including a second ink including a second liquid carrier over the first dielectric layer or the first dielectric precursor layer extending from the substrate pads to the bond pads, and sintering or curing the first interconnect precursor layer to remove at least the second liquid carrier to form a first electrically conductive interconnect including an ink residue which connects respective ones of the substrate pads to respective ones of the bond pads; wherein a plasma treatment step using an ink printer is performed on the substrate pads or bond pads 1 right before printing the second ink. providing a first semiconductor die , having bond pads (121, 122, 126-129) thereon mounted face up on a package substrate or on a die pad of a lead frame, also referred to as substrate , wherein the substrate includes terminals or contact pads, also referred to as substrate pads , forming a first dielectric layer including printing a first dielectric precursor layer including a first ink including a first liquid carrier extending from the substrate pads to the bond pads; printing a first interconnect precursor layer including a second ink including a second liquid carrier over the first dielectric layer or the first dielectric precursor layer extending from the substrate pads to the bond pads, and sintering or curing the first interconnect precursor layer to remove at least the second liquid carrier to form a first electrically conductive interconnect including an ink residue which connects respective ones of the substrate pads to respective ones of the bond pads; wherein a plasma treatment step using an ink printer is performed on the substrate pads or bond pads 1 right before printing the second ink.
A method, comprising: positioning singulated integrated circuit chips adjacent a sacrificial structure comprising a conductive portion , said integrated circuit chips individually comprising a backside surface ; forming wire bonds individually having a first end through which the wire bond is conductively coupled to one of the integrated circuit chips and a second end attached to said conductive portion of said sacrificial structure ; forming an encapsulant material adjacent said integrated circuit chip , adjacent said wire bonds , and adjacent said sacrificial structure ; removing said sacrificial structure by chemical mechanical polishing to expose said backside surfaces of said integrated circuit chips and to define conductive exposed portions at said second ends of said individual wire bonds in a plane defined by the backside surfaces of said integrated circuit chips, wherein the individual conductive exposed portions of the wire bonds are circular and have respective diameters from 16 to 80 micrometres; and trimming excess portions of said encapsulant material after removing said sacrificial structure , wherein trimming excess portions of the encapsulant material includes trimming excess portions of the encapsulant material to cause a distance from a side of one of the integrated circuit chips to a side of the encapsulant material to be from 0.1 to 0.4 millimetres. positioning singulated integrated circuit chips adjacent a sacrificial structure comprising a conductive portion , said integrated circuit chips individually comprising a backside surface ; forming wire bonds individually having a first end through which the wire bond is conductively coupled to one of the integrated circuit chips and a second end attached to said conductive portion of said sacrificial structure ; forming an encapsulant material adjacent said integrated circuit chip , adjacent said wire bonds , and adjacent said sacrificial structure ; removing said sacrificial structure by chemical mechanical polishing to expose said backside surfaces of said integrated circuit chips and to define conductive exposed portions at said second ends of said individual wire bonds in a plane defined by the backside surfaces of said integrated circuit chips, wherein the individual conductive exposed portions of the wire bonds are circular and have respective diameters from 16 to 80 micrometres; and trimming excess portions of said encapsulant material after removing said sacrificial structure , wherein trimming excess portions of the encapsulant material includes trimming excess portions of the encapsulant material to cause a distance from a side of one of the integrated circuit chips to a side of the encapsulant material to be from 0.1 to 0.4 millimetres.
A carbon-based semiconductor material comprising: reduced graphene oxide, r-GO, and carbon nanotubes, CNT, wherein a mass/mass ratio of CNT to r-GO is 0.6 to 0.7. reduced graphene oxide, r-GO, and carbon nanotubes, CNT, wherein a mass/mass ratio of CNT to r-GO is 0.6 to 0.7.
A method of operating an authenticator executing on a host , the method comprising: identifying a device interfaced to the host ; checking a device identifier obtained from the device against authorized device identifiers ; automatically granting an application access to the device when the device identifier matches one of the authorized device identifiers , including interacting with a device interface of the device to authenticate the device for application access, wherein interacting includes encrypting with a key a message that is sent to the device interface and receiving a decrypted version back from the device interface, wherein when the decrypted received message matches the message that was originally encrypted, then access is granted and authentication is considered to have passed; and automatically denying the application access to the device when the device identifier does not match one of the authorized device identifiers , wherein the step of automatically granting an application access to the device further includes performing the access without any action being required from the application and without any awareness by the application . identifying a device interfaced to the host ; checking a device identifier obtained from the device against authorized device identifiers ; automatically granting an application access to the device when the device identifier matches one of the authorized device identifiers , including interacting with a device interface of the device to authenticate the device for application access, wherein interacting includes encrypting with a key a message that is sent to the device interface and receiving a decrypted version back from the device interface, wherein when the decrypted received message matches the message that was originally encrypted, then access is granted and authentication is considered to have passed; and automatically denying the application access to the device when the device identifier does not match one of the authorized device identifiers , wherein the step of automatically granting an application access to the device further includes performing the access without any action being required from the application and without any awareness by the application .
A device for use in combining a first gas stream comprising molecular oxygen (O2) and a second gas stream comprising nitric oxide (NO) for delivery of a combined gas stream to a patient, characterized in that the diffusing of NO and O 2 occurs sufficiently rapidly that less than 1 ppm of NO 2 is delivered to the patient, wherein the second gas stream is provided by an NO source having an NO concentration of greater than 800 ppm to about 10,000 ppm.
A wireless transmit/receive unit, WTRU , comprising: a receiver configured to receive a plurality of TBs each TB allocated to a different spatial stream of a plurality of streams in a transmission time interval, TTI, wherein each TB is assigned to a particular HARQ process; a processor configured to: generate feedback comprising: (a) a channel quality indicator, CQI, for each different spatial stream, and (b) separate HARQ feedback for each TB of the plurality of TBs that is either a positive acknowledgement or a negative acknowledgment of each TB of the plurality of TBs received in the TTI, concatenate the separate HARQ feedback into a single packet in a predetermined sequence that is known to a transmitter of the plurality of TBs, and, based on the amount of the separate HARQ feedback for the plurality of TBs, select a coding scheme for the feedback; and a transmitter configured to transmit the feedback. a receiver configured to receive a plurality of TBs each TB allocated to a different spatial stream of a plurality of streams in a transmission time interval, TTI, wherein each TB is assigned to a particular HARQ process; a processor configured to: generate feedback comprising: (a) a channel quality indicator, CQI, for each different spatial stream, and (b) separate HARQ feedback for each TB of the plurality of TBs that is either a positive acknowledgement or a negative acknowledgment of each TB of the plurality of TBs received in the TTI, concatenate the separate HARQ feedback into a single packet in a predetermined sequence that is known to a transmitter of the plurality of TBs, and, based on the amount of the separate HARQ feedback for the plurality of TBs, select a coding scheme for the feedback; and generate feedback comprising: (a) a channel quality indicator, CQI, for each different spatial stream, and (b) separate HARQ feedback for each TB of the plurality of TBs that is either a positive acknowledgement or a negative acknowledgment of each TB of the plurality of TBs received in the TTI, concatenate the separate HARQ feedback into a single packet in a predetermined sequence that is known to a transmitter of the plurality of TBs, and, based on the amount of the separate HARQ feedback for the plurality of TBs, select a coding scheme for the feedback; and a transmitter configured to transmit the feedback.
Pump system for generating a volume flow of dialysis solution in a dialysis machine, wherein the pump system comprises at least one piston pump, the piston of which cooperates with a working fluid which in turn exerts a force on a conveying means, in particular on a membrane , characterized in that setting means are provided, by which the conveying volume of the piston pump per piston stroke can be reduced and increased, wherein the setting means comprise a piston stop for reducing or increasing the piston stroke, and/or means for reducing and increasing the quantity of the working fluid, wherein these means comprise a storage tank for receiving the working fluid, and a valve, which allow for the volume of the working fluid to be reduced and increased.
A stator vane for a gas turbine engine section comprising: a stator vane having an airfoil extending between a leading edge and a trailing edge , said airfoil having a suction side and a pressure side , and there being at least one piezoelectric actuator for changing a shape of at least one of said leading edge and said trailing edge ; characterised in that : at least one piezoelectric actuator is mounted on each of said suction and pressure sides , with one of said piezoelectric actuators on one said side being controlled to contract and one of said piezoelectric actuators on another of said sides being controlled to expand to change the position of said leading edge relative to said trailing edge ; and one or both of said piezoelectric actuators are operable to change a position of said leading edge about a virtual hinge axis while changing the position of the trailing edge to a lesser extent; and said piezoelectric actuators are operable to change a position of said trailing edge about a virtual hinge axis while changing the position of the leading edge to a lesser extent. a stator vane having an airfoil extending between a leading edge and a trailing edge , said airfoil having a suction side and a pressure side , and there being at least one piezoelectric actuator for changing a shape of at least one of said leading edge and said trailing edge ; characterised in that : at least one piezoelectric actuator is mounted on each of said suction and pressure sides , with one of said piezoelectric actuators on one said side being controlled to contract and one of said piezoelectric actuators on another of said sides being controlled to expand to change the position of said leading edge relative to said trailing edge ; and one or both of said piezoelectric actuators are operable to change a position of said leading edge about a virtual hinge axis while changing the position of the trailing edge to a lesser extent; and said piezoelectric actuators are operable to change a position of said trailing edge about a virtual hinge axis while changing the position of the leading edge to a lesser extent. at least one piezoelectric actuator is mounted on each of said suction and pressure sides , with one of said piezoelectric actuators on one said side being controlled to contract and one of said piezoelectric actuators on another of said sides being controlled to expand to change the position of said leading edge relative to said trailing edge ; and one or both of said piezoelectric actuators are operable to change a position of said leading edge about a virtual hinge axis while changing the position of the trailing edge to a lesser extent; and said piezoelectric actuators are operable to change a position of said trailing edge about a virtual hinge axis while changing the position of the leading edge to a lesser extent.