A verifiable display is provided that enables the visual content of the display to be detected and confirmed in a variety of ambient lighting conditions, environments, and operational states. In particular, the verifiable display has a display layer that is capable of visually setting an intended message for human or machine reading, with the intendended message being set using pixels. Depending on the operational condition of the display and the ambient light, for example, the message that is actually displayed and perceivable may vary from the intended message. To detect what message is actually displayed, a light detection layer in the verifiable display detects the illumination state of the pixels, and in that way is able to detect what message is actually being presented by the display layer.

Methods of manufacturing electrochromic windows are described. Insulated glass units (IGU's) are protected, e.g. during handling and shipping, by a protective bumper. The bumper can be custom made using IGU dimension data received from the IGU fabrication tool. The bumper may be made of environmentally friendly materials. Laser isolation configurations and related methods of patterning and/or configuring an electrochromic device on a substrate are described. Edge deletion is used to ensure a good seal between spacer and glass in an IGU and thus better protection of an electrochromic device sealed in the IGU. Configurations for protecting the electrochromic device edge in the primary seal and maximizing viewable area in an electrochromic pane of an IGU are also described.

Onboard EC window controllers are described. The controllers are configured in close proximity to the EC window, for example, within the IGU. The controller may be part of a window assembly, which includes an IGU having one or more EC panes, and thus does not have to be matched with the EC window, and installed, in the field. The window controllers described herein have a number of advantages because they are matched to the IGU containing one or more EC devices and their proximity to the EC panes of the window overcomes a number of problems associated with conventional controller configurations. Also described are self-meshing networks for electrochromic windows.

Various embodiments herein relate to networks of electrochromic windows. The networks may be configured in particular ways to minimize the likelihood that the windows on the network draw more power than can be provided. The network may include particular hardware components that provide additional power to windows as needed. The network may also be configured to adjust how the windows therein transition to prevent overloading the network. The techniques described herein can be used to design networks of electrochromic windows that are undersized when considering the amount of power that would be needed to simultaneously transition all the windows on the network using normal transition parameters, while still allowing simultaneous transitions to occur.

Various embodiments herein relate to networks of electrochromic windows. The networks may be configured in particular ways to minimize the likelihood that the windows on the network draw more power than can be provided. The network may include particular hardware components that provide additional power to windows as needed. The network may also be configured to adjust how the windows therein transition to prevent overloading the network. The techniques described herein can be used to design networks of electrochromic windows that are undersized when considering the amount of power that would be needed to simultaneously transition all the windows on the network using normal transition parameters, while still allowing simultaneous transitions to occur.

A view angle control device includes an electrochromic layer including a first extending section extending in a first direction and a second extending section extending in a second direction that crosses the first direction, light transmission layers defined by the first extending section and the second extending section, a first electrode disposed arranged to overlap the first extending section and contacted with the first extending section, a second electrode arranged to overlap the second extending section and contacted with the second extending section, a third electrode arranged not to overlap the first electrode but to overlap the second extending section and contacted with the second extending section, and a fourth electrode arranged not to overlap the second electrode but to overlap the first extending section and contacted with the first extending section.

A view angle control device includes an electrochromic layer including a first extending section extending in a first direction and a second extending section extending in a second direction that crosses the first direction, light transmission layers defined by the first extending section and the second extending section, a first electrode disposed arranged to overlap the first extending section and contacted with the first extending section, a second electrode arranged to overlap the second extending section and contacted with the second extending section, a third electrode arranged not to overlap the first electrode but to overlap the second extending section and contacted with the second extending section, and a fourth electrode arranged not to overlap the second electrode but to overlap the first extending section and contacted with the first extending section.

Some embodiments of the present disclosure relate to a heads-up display (HUD) system. The HUD system may include a transparent support structure, an electrochromic element, and a HUD controller. The electrochromic element may be affixed to a surface of a transparent material. The HUD controller may be electrically coupled to the electrochromic element and configured to control translucence of the electrochromic element via control signals.

Some embodiments of the present disclosure relate to a heads-up display (HUD) system. The HUD system may include a transparent support structure, an electrochromic element, and a HUD controller. The electrochromic element may be affixed to a surface of a transparent material. The HUD controller may be electrically coupled to the electrochromic element and configured to control translucence of the electrochromic element via control signals.

Some embodiments are directed to a light modulator comprising transparent substrates, or a transparent substrate and a reflective or partially reflective substrate, multiple electrodes being applied to the substrates in a pattern across the substrate. A controller may apply an electric potential to the electrodes to obtain an electro-magnetic field between the electrodes providing electrophoretic movement of the particles towards or from an electrode.