Abstract: 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.

Abstract: 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 vapour 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.

Abstract: An electrochromic assembly 32 is disclosed. The assembly comprises: first and second electrodes 22, 24, at least one electrode being transparent; a porous membrane 10 defining a plurality of pores, the membrane having a first refractive index and located between the electrodes 22, 24; 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 layer 18 covering at part of the first electrode 22. The membrane 10 is flexible and the spacing between the electrodes 22, 24 is held substantially constant by the membrane 10. The membrane is sealed with sealant 42.

Abstract: An electrochromic assembly 32 is disclosed. The assembly comprises: first and second electrodes 22, 24, at least one electrode being transparent; a porous membrane 10 defining a plurality of pores, the membrane having a first refractive index and located between the electrodes 22, 24; 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 layer 18 covering at part of the first electrode 22. The membrane 10 is flexible and the spacing between the electrodes 22, 24 is held substantially constant by the membrane 10. The membrane is sealed with sealant 42.

Abstract: A coating material dispensing system comprises a hazardous area and a non-hazardous area. Multiple coating material type controls have coating material input ports, coating material output ports, and control ports for controlling the passage of a type of coating material controlled by each respective coating material type control from its input port to its output port. A controller generates control signals for controlling the multiple coating material type controls. The control signals are multiplexed in the non-hazardous area, and transmitted into the hazardous area where they are demultiplexed and provided to the coating material type controls. The demultiplexer and coating material type controls are intrinsically safe.