METHOD FOR PRODUCING GAMMA-CSSNI3 AND USE OF GAMMA-CSSNI3, CS1-XAXB1-YCYI3-ZXZ, BII3 OR BI1-XMI3-YXY FOR THIN-LAYER TRANSISTORS
    1.
    发明申请
    METHOD FOR PRODUCING GAMMA-CSSNI3 AND USE OF GAMMA-CSSNI3, CS1-XAXB1-YCYI3-ZXZ, BII3 OR BI1-XMI3-YXY FOR THIN-LAYER TRANSISTORS 审中-公开
    用于生产伽马CSSNI3和γ-CSSNI3,CS1 XAXB1-YCYI3-ZXZ,BiI3或BI1 XMI3-YXY的使用薄膜晶体管

    公开(公告)号:WO2014154521A2

    公开(公告)日:2014-10-02

    申请号:PCT/EP2014055358

    申请日:2014-03-18

    Applicant: BASF SE

    Abstract: The invention relates to the production of ϒ-caesium-tin-iodide from a caesium-tin-iodide solution, wherein the solvent is evaporated and the caesium-tin-iodide is then thermally treated, and to a solvent-based application of ϒ-caesium-tin-iodide, Cs1-xAxB1-yCyI3, Bi1-xMI3-yXy or bismuth-iodide to a substrate and use as semi-conductor material in transistor structures, wherein a CsSnI3 solution, a Cs1-xAxB1-yCyI3-zXz-solution, a Bi1-xMxI3-yXy-solution or a BiI3-solution is applied to a substrate using pressure technologies, wherein the application is carried out under an inert atmosphere and/or vacuum using a CsSnI3-solution.

    Abstract translation: 本发明涉及生产由CäsiumZinn碘化溶液Υ-CäsiumZinn碘化物的方法,其中所述溶剂蒸发,并将CäsiumZinn碘化物进行热处理,以及Υ-铯的基于溶剂的顺序 碘化锡,CS1-xAxB1-yCyI3,在基板上BI1-xMI3-YXY或Bismuthiodid并且如在晶体管结构的半导体材料,其中a CsSnI3溶液,CS1-xAxB1-yCyI3-ZXZ溶液,BI1-xMxI3-使用 YXY溶液或BiI3溶液到使用印刷技术的基板施加,使用惰性气氛和/或在真空下CsSnI3作业的溶液来执行。

    PROCESS AND APPARATUS FOR SWITCHING REDOXACTIVE CELLS

    公开(公告)号:CA3016378A1

    公开(公告)日:2017-09-14

    申请号:CA3016378

    申请日:2017-03-07

    Applicant: BASF SE

    Abstract: The invention relates to a process for switching an electrochromic cell (100) comprising at least a first electrode layer (106) and a second electrode layer (108) each capable of reversibly inserting ions. Further the cell (100) comprises an ion-conducting layer (110) that separates the first electrode layer (106) and the second electrode layer (108) and a temperature sensor (216) for measuring a temperature (T) in or on or in the vicinity of the electrochromic cell (100). Moreover, a first contact member (101) is electronically connected with the first electrode layer (106) and a second contact member (102) is electronically connected with the second electrode layer (108), wherein the first (106) and the second electrode layer (108) are counter electrodes to each other. Furthermore, at least said first electrode layer (106) comprises an organic polymer matrix and dispersed within said organic polymer matrix an electrochromic material, electronically conductive nanoobjects (112) and an electrolyte (114) dissolved in a solvent. Further, the process comprises to measure the current (iC) flowing through the cell (100) if a voltage (UC) is applied to the electrode layers (106, 108), and applying a voltage (UC) to contact members (101, 102) and varying the applied voltage (UC) as a function of current (iC), such that the voltage (UC) generated between the electrode layers (106, 108) is kept within predetermined temperature (T) dependent safe redox limits and such that the cell current (iC) is limited to predetermined temperature-dependent limits. Moreover, the applied voltage (UC) is only increased if the cell current (iC) is less than a maximum cell current (imax), determined according to: imax = jmax x Area + (T-T0) x F, where jmax is a predetermined maximum current density, Area is the active cell area, T is the temperature of the electrochromic cell (100) measured with the temperature sensor (216), T0 is a reference temperature, and F a factor. Further, the invention relates to an apparatus (200) and a system (300) for performing the process.

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