The present disclosure provides for UV-responsive laminates including a first layer having a photochromatic pigment arranged as a pigment texture, or one or more photochromatic indicators, or combinations thereof. The photochromatic pigment may be disposed on the laminate during laminate fabrication, prior to installation of the laminate, or in-situ, subsequent to installation. The photochromatic pigment is configured to change from a first state to a second state in response to exposure to an ultraviolet (UV) light source, the first state is invisible to a naked eye under ambient lighting and the second state is visible to the naked eye under ambient lighting. The UV-responsive laminates may further include additional layers, such as a second layer which may be a coupling layer configured to removably couple the laminate to a component. Additional layers, such as a protective layer or a backing layer, may be included in the UV-responsive laminate as well.

Disclosed is a media element including an environmental indicator material configured, in response to exposure to a predetermined environmental condition, to change from an initial state to a second state producing an observable effect. The media element further includes a plurality of microcapsules, each microcapsule encapsulating the environmental indicator material in a non-activated configuration and releasing the environmental indicator material when ruptured. The microcapsules prevent an occurrence of the observable effect while in the non-activated configuration and allow the occurrence of the observable effect when the environmental indicator material is exposed to the predetermined environmental condition after at least a portion of the plurality of microcapsules are ruptured. The media element further includes a bursting additive proximate the plurality of microcapsules. The bursting additive selectively interacts with the plurality of microcapsule to rupture the plurality of microcapsules when a force is applied to the plurality of microcapsules and bursting additive.

Disclosed is a media element including an environmental indicator material configured, in response to exposure to a predetermined environmental condition, to change from an initial state to a second state producing an observable effect. The media element further includes a plurality of microcapsules, each microcapsule encapsulating the environmental indicator material in a non-activated configuration and releasing the environmental indicator material when ruptured. The microcapsules prevent an occurrence of the observable effect while in the non-activated configuration and allow the occurrence of the observable effect when the environmental indicator material is exposed to the predetermined environmental condition after at least a portion of the plurality of microcapsules are ruptured. The media element further includes a bursting additive proximate the plurality of microcapsules. The bursting additive selectively interacts with the plurality of microcapsule to rupture the plurality of microcapsules when a force is applied to the plurality of microcapsules and bursting additive.

This invention provides a method for collecting signals from single photon or isolated, low quantities of photons through electrochemiluminescence, including an electrochemiluminescent reaction system and a photon signal collection system. In the electrochemiluminescent system, an electrochemiluminescent reaction is initiated. The photon signal collection system is designed to harvest signals from single photon or isolated, low quantities of photons released by the electrochemiluminescent reaction. These signals are generated by single-molecule electrochemical reactions. Furthermore, the invention provides an electrochemiluminescence imaging system and its applications, capable of enhancing the resolution of imaging, surpassing the optical diffraction limit to achieve super-resolution. Images produced by the method described in this invention can achieve resolutions beyond the Abbe diffraction limit.

This invention provides a method for collecting signals from single photon or isolated, low quantities of photons through electrochemiluminescence, including an electrochemiluminescent reaction system and a photon signal collection system. In the electrochemiluminescent system, an electrochemiluminescent reaction is initiated. The photon signal collection system is designed to harvest signals from single photon or isolated, low quantities of photons released by the electrochemiluminescent reaction. These signals are generated by single-molecule electrochemical reactions. Furthermore, the invention provides an electrochemiluminescence imaging system and its applications, capable of enhancing the resolution of imaging, surpassing the optical diffraction limit to achieve super-resolution. Images produced by the method described in this invention can achieve resolutions beyond the Abbe diffraction limit.