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              Possible NanoLego™ Experiments   The MikroRhino™ Suite 
              of Experiments The MikroRhino™ Experiments 
              are an example of the applicability of NanoLego™ Molecular 
              Building-Blocks. Exploiting the ability of a smart materials to 
              interact with sub-ppm levels of volatile organic compounds in 
              qualitative and quantitative manners unique to each material, the 
              four formulations within NanoLego™ Molecular Building-Blocks are 
              fabricated into optoelectronic gas sensors which, when used within 
              in a sensory array provides the selectivity and resolution to 
              differentiate between all types of vapors, even closely related 
              ones, to sub-ppm levels of sensitivity. These building blocks can 
              be tailored for use as sensory elements in the sensing of volatile 
              organic compounds in both air and liquid environments. The 
              MikroRhino™ Experiments can be used to demonstrate the fabrication 
              of workable electronic noses from the bottom up, in a 
              comprehensive laboratory module scalable from the undergraduate to 
              graduate education levels and can be used by postgraduates as a 
              platform in their foundational studies in electronic or optical 
              nose technology. Laboratory Material Development Modules are 
              available to aid in the development of laboratory units.   
              The OrganicWire™ Suite of Experiments The 
              MicroKontact™ Experiments are an example of the applicability of 
              NanoLego™ Molecular Building-Blocks towards laboratory 
              instruction in the formation and application of molecular wires 
              and electronics. Exploiting the phenomenon of intrinsic 
              conduction, three of the four formulations within NanoLego™ 
              Molecular Building-Blocks can be fabricated into molecular wires 
              and electrodes that can the be processed and then applied to 
              surfaces such as transparent flexible substrates using a variety 
              of cost-effective techniques such as micro contact printing, 
              simple plotting or inkjet/laser printing to form a host of simple 
              transistors and photoelectrics with all-organic architectures, or 
              of higher hierarchies thereof, which can be further characterized 
              using multimeters. |