Abstract: A manufacture method for a projection capacitive touch screen, includes following steps: (1) placing a clean PET substrate on a 3D printing platform, (2) the 3D printing platform outputting movement of x, y and z directions through control software, (3) aligning tail-throwing leads on the PET-X film, (4) tearing off the protective release film on one side of the PET-Y film, (5) bonding the PET-Y film and the PET-X film, (6) cutting off the redundant areas around the PET-XY film completed in the step (5), (7) drying the PET-XY film, and (8) laser welding the dried PET-XY film to obtain a projection capacitive touch screen.

Abstract: The present disclosure relates to micro-hybrid battery modules that include at least one battery cell having a titanate-based oxide anode active material with spinel structure and a high voltage spinel (LiMn2?xMxO4) cathode active material. The battery module may be configured to couple to an energy storage unit to enable the module to be used in start-stop applications.

Abstract: The present invention discloses a manufacture method for a projection capacitive touch screen, comprising following steps: (1) placing a clean PET substrate on a 3D printing platform, (2) the 3D printing platform outputing movement of x, y and z directions through control software, (3) aligning tail-throwing leads on the PET-X film, (4) tearing off the protective release film on one side of the PET-Y film, (5) bonding the PET-Y film and the PET-X film, (6) cutting off the redundant areas around the PET-XY film completed in the step (5), (7) drying the PET-XY film, and (8) laser welding the dried PET-XY film to obtain a projection capacitive touch screen. Through above approaches, the manufacture method for a projection capacitive touch screen according to the present invention is mainly used for large-size capacitive touch film and has advantages of simple production process, fast production speed, high yield and low cost.

Abstract: The performance of a lithium ion-cell where the cathode is a layered-layered lithium rich cathode material xLiMO2(1-x)Li2MNO3, M being a transition metal selected from the group consisting of Co, Ni, or Mn, is improved by coating the surface of the cathode with a sulfonyl-containing compound, such as poly(1,4-phenylene ether-ether-sulfone), inhibits the reactivity of the electrolyte with the oxidized electrode surface while allowing lithium ion conduction.

Abstract: The present disclosure relates to micro-hybrid battery modules that include at least one battery cell having a titanate-based oxide anode active material with spinel structure and a high voltage spinel (LiMn2-xMxO4) cathode active material. The battery module may be configured to couple to an energy storage unit to enable the module to be used in start-stop applications.

Abstract: The performance of a lithium ion-cell where the cathode is a layered-layered lithium rich cathode material xLiMO2 (1-x)Li2MNO3, M being a transition metal selected from the group consisting of Co, Ni, or Mn, is improved by coating the surface of the cathode with a sulfonyl-containing compound, such as poly(l,4-phenylene ether-ether-sulfone), inhibits the reactivity of the electrolyte with the oxidized electrode surface while allowing lithium ion conduction.