WINDOW SYSTEM AND METHOD UTILIZING A WINDOW PANE ASSEMBLY AND LOCKING SYSTEM FOR EASY INSERTION OF A WINDOW PANE ASSEMBLY WITH ELECTRONICALLY CONTROLLABLE SCALABLE APERTURES FOR ATTENUATING OR OTHERWISE MODULATING LIGHT TRANSMISSION THROUGH SAID ASSEMBLY
The present invention is a window pane assembly system and method utilizing locking a locking system for easy insertion of a second window pane and an electro kinetic strip or film on these window panes. These electrokinetic strips and films have the capability to do many things on the window panes like changing the opacity of the windows and allowing certain levels of light through the window. The use of this technology can create more opportunities for creating advertisements on window surfaces, storing energy or repelling solar energy for building temperature management and energy savings. The electrokinetic film can be used with a remodel of window panes or the electrokinetic strips and films can be built into new window panes. With the ability of the electrokinetic devices to allow certain levels of light in, there is the opportunity for many more technological advancements on the window panes. The electrokinetic film may incorporate a matrix of densely packed apertures with scalable shutters, to attenuate light transmission through the window pane assembly.
1 . A device, comprising:
a first electrokinetic (EK) device including:
a first electrode;
a second electrode;
a dielectric layer disposed adjacent to the second electrode;
a carrier fluid disposed at least between the first electrode and the dielectric layer; and
a compaction trench configured to contain pigments while the first EK device is operating in a first operating state, and
an imaging assembly disposed adjacent to the first EK device, the imaging assembly including:
a lens; and
an image sensor; and
wherein, in the first operating state, a first optical path allows electromagnetic radiation to pass through at least a portion of the first electrode, at least a portion of the carrier fluid, at least a portion of the dielectric layer, and at least a portion of the second electrode, before reaching the lens of the imaging assembly, and
wherein the compaction trench surrounds the first optical path, such that in the first operating state, the pigments are substantially located in the compaction trench instead of in the first optical path.