Provided are methods of forming graphene laminate compositions and architectures. The method comprises: (i) contacting a graphene structure comprising one or more planar graphene sheets with a first interlayer material; (ii) depositing of a conductive material, where in the conductive material is deposited along an edge of the graphene and one end of the first interlayer; and (iii) contacting the graphene structure with a second interlayer material. Also provided are graphene laminates structures comprising doped graphene films having improved mechanical strength, electrical mobility and optical transparency.

A ballistic glass assembly including a first glass layer and a second layer including a polyethylene terephthalate (PET) adhesive film. The ballistic glass assembly may also include an intermediate layer comprising a substantially transparent impact resistant material positioned between the first layer and the second layer. Methods of forming the ballistic glass assembly where the second layer and the intermediate layer match the contour of the first glass layer.

Embodiments herein relate to a system and method for retaining an insulated glass subassembly including a laminated layer of glass within a frame of a fenestration unit providing protection against wind borne debris. A fenestration unit can include a frame member defining a channel with a lower end and an attachment surface thereon along with a glass subassembly including a proximal end received and seated within the channel and an outside facing surface of the exterior pane proximate the lower end of the channel. A retention member can engage the interior laminate pane, and a glazing material can be on the attachment surface at the lower end of the channel. The outside facing surface of the glass subassembly can be attached to the channel of the frame member with the glazing material. In various embodiments, methods of making a retention member are included herein. Other embodiments are also included herein.

A glazing system includes a first transparent layer comprising at least one of glass and a polymer. A first conductive layer arranged on one side of an autoshading layer. A second conductive layer arranged on an opposite side of the autoshading layer and including an antenna. A second transparent layer includes at least one of glass and a polymer. The autoshading layer, the first conductive layer and the second conductive layer are arranged between the first transparent layer and the second transparent layer.

The present invention provides a flexible display cover comprising: an ultra-thin glass; a plastic film disposed on the ultra-thin glass; an anti-fouling layer disposed on the plastic film; an impact-resistant layer disposed on at least one surface of the ultra-thin glass or the plastic film, the impact-resistant layer comprising a disperse phase and a continuous phase, the disperse phase accounting for 10-50 wt % of the impact-resistant layer, an elastic modulus ratio of the disperse phase to the continuous phase being greater than or equal to 70, and the impact-resistant layer having an elastic modulus greater than or equal to 1 GPa; and an adhesive layer disposed between the ultra-thin glass and the plastic film, and the adhesive layer having an elastic modulus greater than or equal to 0.1 GPa. The flexible display cover has good bending resistance and impact resistance.