The present disclosure relates to an ultrathin glass comprising a coating layer, wherein the coating layer comprises a top surface coating layer formed on the top surface of the ultrathin glass and a side surface coating layer that is connected to the top surface coating layer and covers the side surface of the ultrathin glass, and a method for preparing the same.

The present invention provides a method of increasing the strength of a glass substrate for optical filters and a tempered-glass optical filter using a tempered glass substrate manufactured using the same, in which the glass substrate for optical filters is subjected to chemical tempering so that a compressive stress (CS) and a depth of layer (DOL) of the glass substrate are adjusted to increase the bending strength thereof.

A coated glass substrate. The coated glass substrate comprises a glass sheet having a thickness from 0.1 to 0.7 mm and coated on a first side with a first optical layer having a positive photo-elastic constant and coated on a second side with a second optical layer having a negative photo-elastic constant.

A method and product produced by the method for forming an interactive information device with a conductively coated panel includes forming a reduced contrast increased light transmitting, conductively coated panel by providing a transparent substrate and applying a transparent, conductive layer on at least one surface of the substrate in a predetermined pattern with at least one area having a conductive layer thereon and a second area without a conductive layer. The method further includes applying a transparent layer of a metal oxide such that the metal oxide layer, such as silicon dioxide, overlies both areas whereby visible contrast between the areas is reduced and light transmission through the coated panel is increased. The coated panel is then attached to an electro-optic display for displaying information when electricity is applied thereto.

A vehicle window glazing is provided that includes a transparent substrate defining a first surface with a decorative layer positioned on the first surface defining an indicium. A light source is positioned on the decorative layer. A conductive lead is electrically coupled to the light source and extends along the first surface of the substrate away from the light source. The at least one conductive lead is substantially transparent and a transparent layer is positioned over the decorative layer and substrate.

A method includes applying a monolithic transparent substrate for separating a chamber cooled to a temperature of 0 to 4° C. from an ambient atmosphere, wherein a face of the monolithic transparent substrate in contact with the cooled air is provided with a low-emissivity layer, and another face of the monolithic transparent substrate in contact with the ambient atmosphere is provided with an anti-condensation layer

An anti-fog glass includes a glass body configured as a single layer or a multilayer stack; an active anti-fog layer disposed on the glass body and heating up when being provided with power; and a passive anti-fog layer disposed on the glass body and inhibiting fog from forming on the passive anti-fog layer. The passive anti-fog layer is a super hydrophobic coating and/or hydrophilic coating. Both the active anti-fog layer and the passive anti-fog layer are simultaneously disposed on the glass body to inhibit fog from forming. In this way, in a region of the glass body not covered by the active anti-fog layer, the anti-fog function is achieved by the passive anti-fog layer to a certain degree; in addition, in a region where the passive anti-fog layer itself cannot provide a desired anti-fog level, the active anti-fog layer together with the passive anti-fog layer provide a better anti-fog effect.

A blue-ray resisting glass protection sheet of a display screen comprises a glass substrate (4). One side surface of the glass substrate (4) is atomized to form an atomization layer (1), an atomization surface of the atomization layer (1) is coated with a fingerprint resisting coating (3), the other side surface of the glass substrate (4) is coated with a blue-ray resisting coating (2), and an A/B glue layer (5) is bonded to a surface of the blue-ray resisting coating (2).

A composition for forming a conductive film includes at least one of a metal salt (A1) and a metal particle (A2) as component (A) that serves as a metal source of the conductive film, and a metalloxane compound (B). The metal salt (A1) and the metal particle (A2) contain one or more metals selected from the group consisting of Ni, Pd, Pt, Cu, Ag, and Au. The metalloxane compound (B) has at least one metal atom selected from the group consisting of Ti, Zr, Sn, Si, and Al in its main chain. Preferably, the metal salt (A1) is a carboxylate containing a metal selected from the group consisting of Cu, Ag, and Ni. Preferably, the metal particle (A2) has an average particle diameter of 5 nm to 100 nm and comprises a metal selected from the group consisting of Cu, Ag, and Ni.

A coated article includes a temperable antireflection (AR) coating that utilizes medium and low index (index of refraction “n”) layers having compressive residual stress in the AR coating. In certain example embodiments, the coating may include the following layers from the glass substrate outwardly: silicon oxynitride (SiO.sub.xN.sub.y) medium index layer/high index layer/low index layer. In certain example embodiments, depending on the chemical and optical properties of the high index layer and the substrate, the medium and low index layers of the AR coating are selected to cause a net compressive residual stress.