Smr Patents Sarl

University of South Australia

Colin James Hall

Simon David Field

Kamil Zuber

Drew Raymond Evans

Simon Belcher

Gordon George Wallace

Dean Caruso

Andrew Brian Little

David Derry Chamberlain

Eugene Schmirin

Jakub Henryk Mazurkiewicz

Charles Peter Innis

Scott A Edwards

Peter J Murphy

Rick Fabretto

Andreas Herrmann

Arne Schmierer

Oliver G Schmidt

Daniel Fritz

Jacob Heath Messenger

Raimund Negel

Sam Thoday

Volker Erhart

Scott Agung Edwards

Gary Dekievit

Shane Randell Koehne

Eugen Meier

James Nicholas Dickson

James Nicholson

Bill Frank

Mathew Chapman-Winter

Mark Delaine

A multifunction lamp unit for a vehicle includes a housing, at least one light pipe together with at least one light source disposed at least partially within the housing, and a clear lens substantially enclosing the housing, the at least one light pipe and the at least one light source, the lens having an inner surface, an outer surface disposed opposite the inner surface and at least one of a continuous transparent and translucent coating on the outer surface.

Light efficiency methods for vehicular HTL systems

The present invention relates to decorative coatings for plastic substrates, the decorative coatings ideally being stable and durable coatings that are spectrally tunable to permit the selection of a variety of appearances, and ideally providing a decorative metal finish. More particularly the present invention provides for a plastic substrate having a decorative coating including a spectrally controlling system and a stress controlling system. The spectrally controlling system includes alternating absorbing layers and transparent layers, and the stress controlling system controls the overall residual stress of the decorative coating to within a desired range. Further provided are methods for applying to a plastic substrate a decorative coating having a spectrally controlling system and a stress controlling system.

Decorative coatings for plastic substrates

The present invention relates to a polymeric substrate being coated with a reflective coating, particularly a chromium-based reflective coating.

Coated polymeric substrates

A chromium-based reflective coating for a polymeric substrate, wherein the coating has a thickness of 200 nm or less and is an alloy of chromium and a dopant material, the dopant material being selected from the hexagonally close-packed transition metals, the alloy having a crystal structure of a primary body-centered cubic phase in coexistence with a secondary omega hexagonally close-packed phase.

Chromium-based reflective coating

A plastic mirror that includes a plastic substrate having a front surface, a hardcoating on the front surface, a reflective layer, and an intermediate zone between the hardcoating and the reflective layer, the intermediate zone including at least one layer formed from a material selected from the group consisting of metals and metalloids, oxides and nitrides of metals and metalloids, and carbon.

Plastic automotive mirrors

The present invention provides a process for producing an electroactive substrate. The process includes providing a substrate having an oxidant layer on a surface thereof, exposing the surface containing the oxidant layer to a vapor containing an aryl or heteroaryl monomer that is polymerizable to form an electroactive polymer, and polymerizing the aryl or heteroaryl monomer in the presence of a volatile Lewis base to form a polyaryl or polyheteroaryl electroactive polymer film on the surface of the substrate. The invention also provides electroactive substrates formed by the process.

Processes for producing electrochromic substrates and electrochromic articles made therefrom

An electrochromic assemblyis disclosed. The assembly comprises: first and second electrodes, at least one electrode being transparent; a porous membranedefining a plurality of pores, the membrane having a first refractive index and located between the electrodes; an electrolyte filling the pores, the electrolyte having a second refractive index substantially matching the first refractive index, the electrolyte and membrane together forming a substantially transparent electrolytic layer; and at least one electrochromic layercovering at part of the first electrode. The membraneis flexible and the spacing between the electrodesis held substantially constant by the membrane. The membrane is sealed with sealant

Charge conducting medium

Growing community of inventors

Brighton, Australia

Colin James Hall