mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing device, comprising: a decision unit that decides, in accordance with location information and a user profile, navigation for experiencing a plurality of events having a time condition and a location condition; a notification control unit that controls a notification of the decided navigation; characterized in that the decision unit determines whether the events have ended and, if the events have ended, computes, based on location information of users who experienced the events that have ended, a recommended location where the users who experienced the events that have ended are gathered. a decision unit that decides, in accordance with location information and a user profile, navigation for experiencing a plurality of events having a time condition and a location condition; a notification control unit that controls a notification of the decided navigation; characterized in that the decision unit determines whether the events have ended and, if the events have ended, computes, based on location information of users who experienced the events that have ended, a recommended location where the users who experienced the events that have ended are gathered.
A medium for culturing stem cells, comprising an albumin carrying a reduced amount of fatty acid, wherein the amount of fatty acid carried by albumin is 0.1 mg/g - 0.65 mg/g, wherein the fatty acid is a long chain fatty acid.
A razor cartridge comprising a housing having a proximal end portion , a distal end portion , and first and second lateral end portions, and at least one blade positioned between said proximal and distal end portions; said housing comprising i) A skin contacting bar in front and adjacent said blade , wherein said skin contacting bar (40 has a plurality of rigid projections extending generally perpendicular to said blade, ii) an elongated gap adjacent said skin contacting bar and generally parallel to said skin contacting bar and iii) an elongated skin contacting element adjacent said elongated gap , wherein said elongated skin contacting element has from 2 to 30 discrete fluid pathway channels , extending generally perpendicular to said blade , each channel having a fluid inlet and fluid outlet and corresponding land portions in-between said channels , wherein at least one of said land portions , preferably each of said land portions comprises at least one skin stretching means and iv) wherein said fluid inlets of said channels are coincident with the edge of the proximal end portion of said housing . i) A skin contacting bar in front and adjacent said blade , wherein said skin contacting bar (40 has a plurality of rigid projections extending generally perpendicular to said blade, ii) an elongated gap adjacent said skin contacting bar and generally parallel to said skin contacting bar and iii) an elongated skin contacting element adjacent said elongated gap , wherein said elongated skin contacting element has from 2 to 30 discrete fluid pathway channels , extending generally perpendicular to said blade , each channel having a fluid inlet and fluid outlet and corresponding land portions in-between said channels , wherein at least one of said land portions , preferably each of said land portions comprises at least one skin stretching means and iv) wherein said fluid inlets of said channels are coincident with the edge of the proximal end portion of said housing .
A wing assembly comprising: a wing having a leading edge and a trailing edge ; a flow control structure carried by the wing so as to extend from a first end to a second end , wherein the first end is closer to the leading edge than the second end and the second end is closer to the trailing edge than the first end, wherein the flow control structure defines an inlet proximate the first end, an outlet comprising a plurality of openings proximate the second end and an internal passage extending from the inlet to the outlet, wherein the flow control structure comprises a control section configured to control a flow of air exiting from the outlet; and a control surface positioned downstream of the outlet of the flow control structure, wherein the flow control structure is configured to control the flow of air exiting from the outlet in order to correspondingly control attachment of the air with the control surface, the assembly being characterised in that the outlet further comprises one or more openings that extend in an upstream direction and one or more openings that extend in a downstream direction; wherein the control section is configured to selectively direct air through one or both of the openings that extend in the upstream direction or the openings that extend in the downstream direction so as to control a direction of the flow of the air upon exiting from the outlet. a wing having a leading edge and a trailing edge ; a flow control structure carried by the wing so as to extend from a first end to a second end , wherein the first end is closer to the leading edge than the second end and the second end is closer to the trailing edge than the first end, wherein the flow control structure defines an inlet proximate the first end, an outlet comprising a plurality of openings proximate the second end and an internal passage extending from the inlet to the outlet, wherein the flow control structure comprises a control section configured to control a flow of air exiting from the outlet; and a control surface positioned downstream of the outlet of the flow control structure, wherein the flow control structure is configured to control the flow of air exiting from the outlet in order to correspondingly control attachment of the air with the control surface, the assembly being characterised in that the outlet further comprises one or more openings that extend in an upstream direction and one or more openings that extend in a downstream direction; wherein the control section is configured to selectively direct air through one or both of the openings that extend in the upstream direction or the openings that extend in the downstream direction so as to control a direction of the flow of the air upon exiting from the outlet.
A method of attaching a nanofiber sheet having a nanofiber layer comprising a polymeric nanofiber and a base layer located on one side of the nanofiber layer to a surface of an object, the method comprising bringing a side of the nanofiber layer of the nanofiber sheet into contact with the surface of the object under the condition that a surface of the nanofiber layer or the surface of the object is wet, wherein the base layer is releasable from the nanofiber layer, and the method further comprising removing the base layer from the nanofiber sheet that is attached to the surface of the object to transfer the nanofiber layer onto the surface of the object and further comprising wetting the surface of the nanofiber layer or the surface of the object with a fluid having a probe tack of 3 to 2000 gf, wherein the probe tack is measured using a probe tack tester under conditions of a preload of 200 gf and a press time of 10 seconds.
An aircraft fuselage panel surface comprising an electricity-generating organic photovoltaic (OPV) device laminated to the aircraft fuselage panel surface, wherein the OPV device includes: a support substrate , a thin, flexible transparent substrate , a transfer release layer laminated between the support substrate and the thin, flexibletransparent substrate, an OPV device layer coated on the transfer release layer, wherein the OPV device layer , comprises one or more cells connected in series and/or parallel, and a pressure-sensitive adhesive coating on the OPV device layer , wherein the pressure-sensitive adhesive is configured to adhere and conform the support substrate, the transfer release layer, the thin, flexible transparent substrate, and the OPV device layer to the aircraft fuselage panel surface, wherein the support substrate and the transfer release layer are configured to be removable from the thin, flexible transparent substrate such that components of the thin, flexible transparent substrate, the OPV device layer, and the pressure-sensitive adhesive remain on the aircraft fuselage panel surface after the support substrate and the transfer release layer have been removed, and wherein the pressure-sensitive adhesive is semitransparent. a support substrate , a thin, flexible transparent substrate , a transfer release layer laminated between the support substrate and the thin, flexibletransparent substrate, an OPV device layer coated on the transfer release layer, wherein the OPV device layer , comprises one or more cells connected in series and/or parallel, and a pressure-sensitive adhesive coating on the OPV device layer , wherein the pressure-sensitive adhesive is configured to adhere and conform the support substrate, the transfer release layer, the thin, flexible transparent substrate, and the OPV device layer to the aircraft fuselage panel surface, wherein the support substrate and the transfer release layer are configured to be removable from the thin, flexible transparent substrate such that components of the thin, flexible transparent substrate, the OPV device layer, and the pressure-sensitive adhesive remain on the aircraft fuselage panel surface after the support substrate and the transfer release layer have been removed, and wherein the pressure-sensitive adhesive is semitransparent.
A vehicle frame, comprising a first longitudinal beam , a second longitudinal beam , a first traction beam , and a second traction beam , wherein an extension direction of the first longitudinal beam and an extension direction of the second longitudinal beam are both parallel to a running direction of a train, and the first longitudinal beam and the second longitudinal beam are arranged at an interval in a direction parallel to a horizontal plane; and a front end of the first longitudinal beam and a front end of the second longitudinal beam are connected by the first traction beam , and a rear end of the first longitudinal beam and a rear end of the second longitudinal beam are connected by the second traction beam ; wherein the first longitudinal beam comprises an upper side beam , a lower side beam and an outer covering plate , an extension direction of the upper side beam and an extension direction of the lower side beam being both parallel to the running direction of the train, the upper side beam and the lower side beam being arranged at an interval in a direction perpendicular to the horizontal plane, and the outer covering plate covers sides, away from the second longitudinal beam , of the upper side beam and the lower side beam ; wherein the upper side beam is made of channel steel, the lower side beam includes a first support plate and a second support plate , characterized in that , one end of the first support plate being perpendicularly connected with one end of the second support plate , the other end of the first support plate and the other end of the second support plate are connected with the outer covering plate . wherein the first longitudinal beam comprises an upper side beam , a lower side beam and an outer covering plate , an extension direction of the upper side beam and an extension direction of the lower side beam being both parallel to the running direction of the train, the upper side beam and the lower side beam being arranged at an interval in a direction perpendicular to the horizontal plane, and the outer covering plate covers sides, away from the second longitudinal beam , of the upper side beam and the lower side beam ; wherein the upper side beam is made of channel steel, the lower side beam includes a first support plate and a second support plate , characterized in that , one end of the first support plate being perpendicularly connected with one end of the second support plate , the other end of the first support plate and the other end of the second support plate are connected with the outer covering plate .
A method for labeling RNAs with a unique label, comprising the steps of: a) providing a pool of RNAs; b) separating the pool of RNAs into sub-pools of RNAs comprising a number of starting RNAs; c) end-labeling each of said RNAs, at their 5' and/or 3' end, with a detectable oligonucleotide tag, each of said oligonucleotide tags optionally comprising a cohesive overhang of x nucleotides in length, x being an integer equal or greater than 2, such that the RNAs in each sub-pool are identically end-labeled to each other but differently end-labeled from the RNAs in any of the other subpools; d) combining the sub-pools of differently 5' and/or 3' end-labeled RNAs from step (c) to form a new pool of RNAs; e) repeating steps (b) - (d) two or more times on the new pool of RNAs generated in step (d) to thereby sequentially end-label the RNAs with a random combination of detectable oligonucleotide tags; and f) amplifying the 5' and/or 3' end-labeled RNAs from step (e), wherein the amplifying comprises (i) attaching an adapter comprising a first sequencing primer, and a capture moiety to the 5' and/or 3' end-labeled RNAs formed in step (e) a) providing a pool of RNAs; b) separating the pool of RNAs into sub-pools of RNAs comprising a number of starting RNAs; c) end-labeling each of said RNAs, at their 5' and/or 3' end, with a detectable oligonucleotide tag, each of said oligonucleotide tags optionally comprising a cohesive overhang of x nucleotides in length, x being an integer equal or greater than 2, such that the RNAs in each sub-pool are identically end-labeled to each other but differently end-labeled from the RNAs in any of the other subpools; d) combining the sub-pools of differently 5' and/or 3' end-labeled RNAs from step (c) to form a new pool of RNAs; e) repeating steps (b) - (d) two or more times on the new pool of RNAs generated in step (d) to thereby sequentially end-label the RNAs with a random combination of detectable oligonucleotide tags; and f) amplifying the 5' and/or 3' end-labeled RNAs from step (e), wherein the amplifying comprises (i) attaching an adapter comprising a first sequencing primer, and a capture moiety to the 5' and/or 3' end-labeled RNAs formed in step (e) (i) attaching an adapter comprising a first sequencing primer, and a capture moiety to the 5' and/or 3' end-labeled RNAs formed in step (e)
A method of automated noninvasive determining the fertility of a bird's egg , comprising the following steps: conveying a plurality of bird eggs sequentially or in parallel into an NMR apparatus , subjecting the bird eggs to an NMR measurement and generating a 3-D NMR image of at least a part of each of said eggs , preferably prior to incubation, said 3-D NMR image having a spatial resolution in at least one dimension of 1.0 mm or less, preferably of 0.50 mm or less, wherein said part of the egg includes the germinal disc of the respective egg , and determining a prediction of the fertility by deriving at least one feature from each of said 3-D NMR images, and employing said at least one feature in a feature-based classifier for determining a prediction of the fertility, wherein said at least one feature is chosen from the group consisting of a diameter of the germinal disc, the volume of the germinal disc, the shape of the germinal disc, the texture of the germinal disc, the location of the germinal disc in the egg, and a ratio between the volumes or surfaces of the germinal disc and one of the yolk, the latebra, and the albumen. conveying a plurality of bird eggs sequentially or in parallel into an NMR apparatus , subjecting the bird eggs to an NMR measurement and generating a 3-D NMR image of at least a part of each of said eggs , preferably prior to incubation, said 3-D NMR image having a spatial resolution in at least one dimension of 1.0 mm or less, preferably of 0.50 mm or less, wherein said part of the egg includes the germinal disc of the respective egg , and determining a prediction of the fertility by deriving at least one feature from each of said 3-D NMR images, and employing said at least one feature in a feature-based classifier for determining a prediction of the fertility, wherein said at least one feature is chosen from the group consisting of a diameter of the germinal disc, the volume of the germinal disc, the shape of the germinal disc, the texture of the germinal disc, the location of the germinal disc in the egg, and a ratio between the volumes or surfaces of the germinal disc and one of the yolk, the latebra, and the albumen.
A motor control apparatus for controlling an operation of a motor (M), the motor control apparatus comprising: a first sensor (Se1) that outputs, as a first signal, a certain level that is higher than a zero level when a gear (G) connected to a shaft of the motor (M) is not rotating, and outputs, as the first signal, continuous pulse waves that are higher than the zero level when the gear (G) is rotating; a second sensor (Se2) that outputs, as a second signal, a certain level that is higher than the zero level when the gear (G) is not rotating, and outputs, as the second signal, continuous pulse waves that are higher than the zero level, characterized in that the continuous pulse waves of the second signal have a different phase from the first signal when the gear (G) is rotating; and by a detection unit that detects that there is an abnormality of break in a first signal line (SL1) when the first signal, which is acquired via the first signal line (SL1), is at the zero level, and detects that there is an abnormality of break in a second signal line (SL2) when the second signal, which is acquired via the second signal line (SL2), is at the zero level; and the detection unit detects that there is an abnormality of break in a power line (PL) through which power is supplied to the first and second sensors (Se1, Se2) or that there is an abnormality of shorting of the power line (PL) and a ground, when at least either of the first and second signals is at the zero level and a zero current is flowing through the power line (PL). a first sensor (Se1) that outputs, as a first signal, a certain level that is higher than a zero level when a gear (G) connected to a shaft of the motor (M) is not rotating, and outputs, as the first signal, continuous pulse waves that are higher than the zero level when the gear (G) is rotating; a second sensor (Se2) that outputs, as a second signal, a certain level that is higher than the zero level when the gear (G) is not rotating, and outputs, as the second signal, continuous pulse waves that are higher than the zero level, characterized in that the continuous pulse waves of the second signal have a different phase from the first signal when the gear (G) is rotating; and by a detection unit that detects that there is an abnormality of break in a first signal line (SL1) when the first signal, which is acquired via the first signal line (SL1), is at the zero level, and detects that there is an abnormality of break in a second signal line (SL2) when the second signal, which is acquired via the second signal line (SL2), is at the zero level; and the detection unit detects that there is an abnormality of break in a power line (PL) through which power is supplied to the first and second sensors (Se1, Se2) or that there is an abnormality of shorting of the power line (PL) and a ground, when at least either of the first and second signals is at the zero level and a zero current is flowing through the power line (PL).
A chimeric antigen receptor (CAR) comprising amino acids 22-493 of the amino acid sequence set forth in SEQ ID NO: 9.
A connecting device for releasably connecting two assemblies , comprising a closure module which is assigned to a first of the assemblies , and has a housing assembly, an adjustment element disposed so as to be adjustable on the housing assembly, and a vacuum element ; and an attachment assembly which is assigned to a second of the assemblies , wherein the vacuum element is connectable to the attachment assembly along an attachment direction (A) and in a connected position interacts with the attachment assembly in such a manner that the vacuum element and the attachment assembly , when the closure module and the attachment assembly are stressed relative to one another, are held together by virtue of a vacuum effect between the vacuum element and the attachment assembly , wherein the adjustment element for releasing the vacuum element from the attachment assembly is able to be tilted about different spatial directions in relation to the housing assembly so as to expose a flow opening in the housing assembly to an inflow of air into a space (B) present between the vacuum element and the attachment assembly , characterized in that the housing assembly has a first housing part and a second housing part which therebetween receive the adjustment element . a closure module which is assigned to a first of the assemblies , and has a housing assembly, an adjustment element disposed so as to be adjustable on the housing assembly, and a vacuum element ; and an attachment assembly which is assigned to a second of the assemblies , wherein the vacuum element is connectable to the attachment assembly along an attachment direction (A) and in a connected position interacts with the attachment assembly in such a manner that the vacuum element and the attachment assembly , when the closure module and the attachment assembly are stressed relative to one another, are held together by virtue of a vacuum effect between the vacuum element and the attachment assembly , wherein the adjustment element for releasing the vacuum element from the attachment assembly is able to be tilted about different spatial directions in relation to the housing assembly so as to expose a flow opening in the housing assembly to an inflow of air into a space (B) present between the vacuum element and the attachment assembly , characterized in that the housing assembly has a first housing part and a second housing part which therebetween receive the adjustment element .
An in vitro and/or ex vivo method of preparing epidermal skin tissue, the method comprising: (i) contacting an epidermal skin cell with an agent that disrupts the LINC complex of the cell, wherein the agent: (a) is a modified Nesprin that consists of a KASH domain; (b) is a modified SUN protein that consists of a SUN domain; and/or (c) comprises an amino acid sequence substantially as set out in SEQ ID No: 27, or a variant or fragment thereof, wherein the variant or fragment thereof has at least 70% identity to the SUN protein; (ii) culturing the cell on a substrate comprising culture media to induce proliferation of the cell into a plurality of cells; and (iii) removing a portion of culture media from the substrate such that the plurality of cells are disposed in an interface between culture media remaining on the substrate and air, to thereby induce differentiation of the cells into epidermal skin tissue. (i) contacting an epidermal skin cell with an agent that disrupts the LINC complex of the cell, wherein the agent: (a) is a modified Nesprin that consists of a KASH domain; (b) is a modified SUN protein that consists of a SUN domain; and/or (c) comprises an amino acid sequence substantially as set out in SEQ ID No: 27, or a variant or fragment thereof, wherein the variant or fragment thereof has at least 70% identity to the SUN protein; (a) is a modified Nesprin that consists of a KASH domain; (b) is a modified SUN protein that consists of a SUN domain; and/or (c) comprises an amino acid sequence substantially as set out in SEQ ID No: 27, or a variant or fragment thereof, wherein the variant or fragment thereof has at least 70% identity to the SUN protein; (ii) culturing the cell on a substrate comprising culture media to induce proliferation of the cell into a plurality of cells; and (iii) removing a portion of culture media from the substrate such that the plurality of cells are disposed in an interface between culture media remaining on the substrate and air, to thereby induce differentiation of the cells into epidermal skin tissue.