Glazed unit having transparent polychromic colouring, and method for producing same by liquid deposition in one or more passes
US-2024336038-A1 · Oct 10, 2024 · US
US10359681B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-10359681-B2 |
| Application number | US-201314443353-A |
| Country | US |
| Kind code | B2 |
| Filing date | Nov 26, 2013 |
| Priority date | Nov 26, 2012 |
| Publication date | Jul 23, 2019 |
| Grant date | Jul 23, 2019 |
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Multi-pane laminates having electrochromic devices and electromechanical systems, multi-pane window units having electrochromic devices and electromechanical systems, single panes with electrochromic devices and electromechanical systems, and methods of fabricating components thereof.
Opening claim text (preview).
What is claimed is: 1. An insulating glass unit comprising: a first pane having an electrochromic device disposed thereon; a second pane having an array of electromechanical systems devices configured to vary transmission of visible light between actuated and non-actuated states, wherein the array of electromechanical systems devices is configured to be controlled independently of the electrochromic device; and a sealing separator defining, together with the first and second panes, an interior region that is thermally insulating; wherein the insulated glass unit has at least four optical states with different levels of transmissivity of visible light and wherein the array of electromechanical systems devices is configured to operate at variable speeds of transition between different transmission states of visible light. 2. The insulating glass unit of claim 1 , further comprising leads for connecting the electrochromic device to a power source. 3. The insulating glass unit of claim 1 , wherein the electromechanical systems devices are microelectromechanical systems. 4. The insulating glass unit of claim 1 , further comprising a controller configured to control two or more optical states of the electrochromic device and independently control the actuated and non-actuated states of the array of electromechanical systems devices. 5. The insulating glass unit of claim 1 , wherein the electrochromic device and the array of electromechanical systems devices face the interior region. 6. A method of fabricating an insulating glass unit, the method including: arranging a first pane of architectural glass and a second pane of architectural glass in a substantially parallel arrangement, wherein the first pane includes an electrochromic device disposed thereon, and the second pane includes an array of electromechanical systems devices configured to vary transmission of visible light between actuated and non-actuated states and configured to operate at variable speeds of transition between different transmission states of visible light, wherein the array of electromechanical systems devices is configured to be controlled independently of the electrochromic device, wherein the insulated glass unit has at least four optical states with different levels of transmissivity of visible light; providing a sealing separator between the first and second panes, the sealing separator defining, together with the first and second panes, a thermally-insulating interior region between the first and second panes; and charging the thermally-insulating interior region of the insulating glass unit with an inert gas. 7. A multi-pane window unit comprising: a first pane having an electrochromic device thereon; a second pane; and an array of electromechanical systems devices disposed on the second pane, wherein the second pane is laminated to the first pane, the array of electromechanical systems devices configured to vary transmission of visible light between actuated and non-actuated states, wherein the array of electromechanical systems devices is configured to be controlled independently of the electrochromic device, wherein the multi-pane window has at least four optical states with different levels of transmissivity of visible light and wherein the array of electromechanical systems devices is configured to operate at variable speeds of transition between different transmission states of visible light. 8. The multi-pane window unit of claim 7 , further comprising: a third pane; and a separator between the third pane and the laminated first and second panes. 9. The multi-pane window unit of claim 8 , wherein the third pane is located on an outward side of the multi-pane window. 10. The multi-pane window unit of claim 8 , further comprising a second electrochromic device disposed on the third pane. 11. The multi-pane window unit of claim 10 , wherein the second electrochromic device is disposed on a surface of the third pane facing an interior region of the multi-pane window unit. 12. The multi-pane window unit of claim 8 , wherein the separator comprises a spacer and a seal between the spacer and each of the third pane and the second pane. 13. The multi-pane window unit of claim 12 , wherein the separator defines, together with the third and second pane, an interior region. 14. The multi-pane window unit of claim 13 , wherein the interior region is thermally insulating. 15. The multi-pane window unit of claim 8 , further comprising a second electrochromic device disposed on the second pane. 16. The multi-pane window unit of claim 10 , wherein the second electrochromic device is disposed on a surface of the second pane facing outward. 17. The multi-pane window unit of claim 8 , wherein the electrochromic device has at least two optical states, and wherein the array of electromechanical systems devices has two states. 18. The multi-pane window unit of claim 7 , wherein the electromechanical systems devices are microelectromechanical systems. 19. A substantially transparent substrate comprising: a first side; a second side opposing the first side; an electrochromic device disposed on the first side; and an array of electromechanical systems devices disposed on one of the first and second sides, the array of electromechanical systems configured to vary transmission of visible light between actuated and non-actuated states, wherein the array of electromechanical systems devices is controlled independently of the electrochromic device, wherein the electrochromic device and the array of electromechanical systems have at least four optical states with different levels of transmissivity of visible light and wherein the array of electromechanical systems devices is disposed in tandem with and on the electrochromic device. 20. The substantially transparent substrate of claim 19 , wherein the array of electromechanical systems devices is disposed on the second side. 21. The substantially transparent substrate of claim 19 , wherein the array of electromechanical systems devices is disposed on the first side. 22. The substantially transparent substrate of claim 19 , further comprising another substantially transparent substrate laminated to the substantially transparent substrate. 23. The substantially transparent substrate of claim 19 , wherein the substantially transparent substrate is one pane of an insulated glass unit. 24. The insulating glass unit of claim 1 , further comprising one or more of an ultraviolet absorbing or reflective layer and an infrared absorbing or reflective layer. 25. The insulating glass unit of claim 1 , wherein the array electromechanical systems devices comprises microshutters. 26. The insulating glass unit of claim 19 , wherein the array of electromechanical systems devices is configured to operate at variable speeds of transition between different transmission states of visible light. 27. The insulating glass unit of claim 1 , wherein the array of electromechanical systems devices is disposed in tandem with the electrochromic device. 28. The multi-pane window unit of claim 7 , wherein the array of electromechanical systems devices comprises microshutters. 29. The multi-pane window unit of claim 7 , wherein the array of electromechanical systems devices is disposed in tandem with the electrochromic device. 30.
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