Abstract: Provided are a wireless and battery-free touch-responsive luminescent fiber and a preparation method and use thereof. The wireless and battery-free touch-responsive luminescent fiber includes a conductive core layer, a dielectric layer and a light-emitting layer sequentially from inside to outside, wherein the conductive core layer is a conductive fiber material; the dielectric layer is a first composite resin containing a high dielectric constant filler, the high dielectric constant filler having a dielectric constant of 10-80; and the light-emitting layer is a second composite resin containing a rare earth luminescent material. The preparation method includes steps of subjecting the conductive core layer to fiber pay-off, dielectric layer slurry impregnation, first heating, light-emitting layer slurry impregnation and second heating in sequence to obtain the wireless and battery-free touch-responsive luminescent fiber.

Abstract: Disclosed are a full-automatic storage shelf assembly production line and an operation method thereof. The production line includes a logistics channel, a stand column-based feeding area, a supporting beam-based feeding area, an in-line logistics system, a shelf assembly area, a finished product area, and a control system. The stand column-based feeding area, the supporting beam-based feeding area, the shelf assembly area, and the finished product area are connected in series by means of the in-line logistics system to form an integrated production line.

Abstract: Disclosed are a full-automatic storage shelf assembly production line and an operation method thereof. The production line includes a logistics channel, a stand column-based feeding area, a supporting beam-based feeding area, an in-line logistics system, a shelf assembly area, a finished product area, and a control system. The stand column-based feeding area, the supporting beam-based feeding area, the shelf assembly area, and the finished product area are connected in series by means of the in-line logistics system to form an integrated production line.

Abstract: Provided is a cocktail of factors for converting/reprogramming non-naïve pluripotent stem cells into TGF? signaling-independent (TSI) naïve induced pluripotent stem cells (iPSCs). Also provided are methods for reprograming a non-naïve PSC into a TSI naïve iPSC by contacting the cell to be reprogrammed with effective amounts of compounds for a sufficient period of time to reprogram the cell into a TSI naïve iPSC.

Abstract: A core-shell nanoparticle is provided. The core-shell nanoparticle has a core comprising a metal fluoride doped with a first sensitizer and a shell surrounding the core, wherein the shell comprises a first layer comprising the metal fluoride doped with a second sensitizer and a first activator, and a second layer comprising the metal fluoride doped with a third sensitizer and a second activator, wherein the first activator and the second activator are different, and each is independently selected from the group consisting of Tm3+, Ho3+, and combinations thereof. A method of generating an optical signal using the core-shell nanoparticle and a method of preparing the core-shell nanoparticle is also provided.

Abstract: A core-shell nanoparticle is provided. The core-shell nanoparticle has a core comprising a metal fluoride doped with a first sensitizer and a shell surrounding the core, wherein the shell comprises a first layer comprising the metal fluoride doped with a second sensitizer and a first activator, and a second layer comprising the metal fluoride doped with a third sensitizer and a second activator, wherein the first activator and the second activator are different, and each is independently selected from the group consisting of Tm3+, Ho3+, and combinations thereof. A method of generating an optical signal using the core-shell nanoparticle and a method of preparing the core-shell nanoparticle is also provided.

Abstract: The present invention relates to method or kit for efficient reprogramming of somatic cells.