This disclosure provides connectors for smart windows. A smart window may incorporate an optically switchable pane. In one aspect, a window unit includes an insulated glass unit including an optically switchable pane. A wire assembly may be attached to the edge of the insulated glass unit and may include wires in electrical communication with electrodes of the optically switchable pane. A floating connector may be attached to a distal end of the wire assembly. The floating connector may include a flange and a nose, with two holes in the flange for affixing the floating connector to a first frame. The nose may include a terminal face that present two exposed contacts of opposite polarity. Pre-wired spacers improve fabrication efficiency and seal integrity of insulated glass units. Electrical connection systems include those embedded in the secondary seal of the insulated glass unit.

Provided is an electrochromic element including: a first substrate; a first electrode layer including a transparent conductive layer A, a first metal layer, and a transparent conductive layer B; an electrochromic layer; an electrolyte layer; a second electrode layer including a transparent conductive layer C, a second metal layer, and a transparent conductive layer D; and a second substrate. The electrochromic element includes the electrolyte layer between the first electrode layer and the second electrode layer. The transparent conductive layers A to D contain at least one selected from the group consisting of ITO, FTO, and ATO. The first and the second metal layers contain at least one selected from the group consisting of silver alloys containing at least one of palladium, gold, platinum, and copper in silver, and silver. Average thickness of the transparent conductive layers A to D is 5 nm or greater but 12 nm or less.

Provided is an electrochromic element including: a first substrate; a first electrode layer including a transparent conductive layer A, a first metal layer, and a transparent conductive layer B; an electrochromic layer; an electrolyte layer; a second electrode layer including a transparent conductive layer C, a second metal layer, and a transparent conductive layer D; and a second substrate. The electrochromic element includes the electrolyte layer between the first electrode layer and the second electrode layer. The transparent conductive layers A to D contain at least one selected from the group consisting of ITO, FTO, and ATO. The first and the second metal layers contain at least one selected from the group consisting of silver alloys containing at least one of palladium, gold, platinum, and copper in silver, and silver. Average thickness of the transparent conductive layers A to D is 5 nm or greater but 12 nm or less.

A method of manufacturing a thin film is provided. The method includes providing a plurality of crystalline cathodic electrochromic particles comprising an alkali metal oxide material, size-reducing the crystalline cathodic electrochromic particles by grinding to produce crystalline cathodic electrochromic nanostructures, providing a substrate, and coating the crystalline cathodic electrochromic nanostructures onto the substrate to produce a thin film, wherein the thin film is an electrochromic thin film.

A method of manufacturing a thin film is provided. The method includes providing a plurality of crystalline cathodic electrochromic particles comprising an alkali metal oxide material, size-reducing the crystalline cathodic electrochromic particles by grinding to produce crystalline cathodic electrochromic nanostructures, providing a substrate, and coating the crystalline cathodic electrochromic nanostructures onto the substrate to produce a thin film, wherein the thin film is an electrochromic thin film.

This disclosure relates generally to optically-switchable devices, and more particularly, to systems, apparatus, and methods for controlling optically-switchable devices. In some implementations, the apparatus includes an interface for communicating with window controllers, and the apparatus includes one or more processors. A processor can be configured to cause status information received from a window controller to be processed. The status information can indicate at least a tint status of one or more optically-switchable devices controlled by the window controller. In response to receiving the status information, one or more tint commands can be sent via the interface to the window controller.

A display device, a method, and a computer-readable medium. The display device includes a layer including a first region and a second region, wherein the first region and the second region are configured to be visible to a user of the display device; and circuitry configured: to control displaying a computer generated image on an optical device overlapping the layer and to control a first transmittance of the first region of the layer to be lower than a second transmittance of the second region of the layer such that: a visibility, through the first region, of the computer generated image is increased and a visibility, through the second region, of an environment opposite the user relative to the display device is higher than a visibility, through the first region, of the environment opposite the user relative to the display device.

A display device, a method, and a computer-readable medium. The display device includes a layer including a first region and a second region, wherein the first region and the second region are configured to be visible to a user of the display device; and circuitry configured: to control displaying a computer generated image on an optical device overlapping the layer and to control a first transmittance of the first region of the layer to be lower than a second transmittance of the second region of the layer such that: a visibility, through the first region, of the computer generated image is increased and a visibility, through the second region, of an environment opposite the user relative to the display device is higher than a visibility, through the first region, of the environment opposite the user relative to the display device.

A display device, a method, and a computer-readable medium. The display device includes a layer including a first region and a second region, wherein the first region and the second region are configured to be visible to a user of the display device; and circuitry configured: to control displaying a computer generated image on an optical device overlapping the layer and to control a first transmittance of the first region of the layer to be lower than a second transmittance of the second region of the layer such that: a visibility, through the first region, of the computer generated image is increased and a visibility, through the second region, of an environment opposite the user relative to the display device is higher than a visibility, through the first region, of the environment opposite the user relative to the display device.

A display device, a method, and a computer-readable medium. The display device includes a layer including a first region and a second region, wherein the first region and the second region are configured to be visible to a user of the display device; and circuitry configured: to control displaying a computer generated image on an optical device overlapping the layer and to control a first transmittance of the first region of the layer to be lower than a second transmittance of the second region of the layer such that: a visibility, through the first region, of the computer generated image is increased and a visibility, through the second region, of an environment opposite the user relative to the display device is higher than a visibility, through the first region, of the environment opposite the user relative to the display device.