Abstract: A method for enhancing the reliability of contacting the conductive layers in a laminated electrochromic device structure is disclosed (FIG. 7). The laminate structure (10), typically fabricated in the form of a sheet, comprises: two polymer substrates (21, 22); two conductive layers (31, 32)—one arranged on each substate—and facing each other; an electrochromic layer (41) and a counter-electrode layer (42) each arranged on different conductive layers; and an electrolyte layer (50) interposed between the electrochromic layer and the counter-electrode layer. Either an incision with an undulating cutting depth or perforations of predetermined sizes, depths (through at least most of one substrate) and separations are prefabricated along a desired tear line in the structure (step 220)—once the final shape of the device is defined—to facilitate the tearing away of the one polymer substrate to reveal the conductive layer to be contacted on the underlying substrate.

Abstract: A method for manufacturing of laminated electrochromic devices in a flexible and easy manner comprises provision (210) of a solid-electrochromic-layer layered polymer-based structure. The solid-electrochromic-layer layered polymer-based structure is positioned (240) between a first glass pane and a second glass pane, with a respective interlayer film between each side of the solid-electrochromic-layer layered polymer-based structure and the first glass pane and the second glass pane, respectively, forming a stack. The stack is exposed (250) to a lamination temperature, which is at most 120° C., for a hot lamination time period. The stack is cooled-down (252) at at least atmospheric pressure after the hot lamination time period. Laminated electrochromic devices produced by such a method are also disclosed.

Abstract: A method for enhancing the reliability of contacting the conductive layers in a laminated electrochromic device structure is disclosed (FIG. 7). The laminate structure (10), typically fabricated in the form of a sheet, comprises: two polymer substrates (21, 22); two conductive layers (31, 32)—one arranged on each substate—and facing each other; an electrochromic layer (41) and a counter-electrode layer (42) each arranged on different conductive layers; and an electrolyte layer (50) interposed between the electrochromic layer and the counter-electrode layer. Either an incision with an undulating cutting depth or perforations of predetermined sizes, depths (through at least most of one substrate) and separations are prefabricated along a desired tear line in the structure (step 220)—once the final shape of the device is defined—to facilitate the tearing away of the one polymer substrate to reveal the conductive layer to be contacted on the underlying substrate.

Abstract: A food and beverage tray is described having a supporting L-shaped bracket which is variably adjustable on the tray. Further, the tray has a first and a second strut member which extends rearward from the tray to the bracket providing a compressive force on a vertical supporting member in order to hold the tray steady. Thus, the tray is adjustable on three different structures, on the supporting bracket and on the first and second strut members. The tray itself has a first and second food recess for supporting food items as well as a drink recess for receiving a drink container.