Abstract: A biomolecular electronic switch includes a first electrical contact, a second electrical contact, a programmable monolayer of either cytochrome c or cytochrome c3 or bovine serum hormone sandwiched between the first and second electrical contacts and a substrate. These switches have high current-carrying capacities and are very fast. It appears that these protein materials can be either metals or semiconductors. Because of the high conductivity and tiny size, these globular proteins can be used to develop cost-effective, miniaturized FEDs, molecular diodes and rectifiers for nanocomputer chips.

Abstract: A biomolecular electronic switch includes a first electrical contact, a second electrical contact, a programmable monolayer of either cytochrome c or cytochrome c3 or bovine serum hormone sandwiched between the first and second electrical contacts and a substrate. These switches have high current-carrying capacities and are very fast. It appears that these protein materials can be either metals or semiconductors. Because of the high conductivity and tiny size, these globular proteins can be used to develop cost-effective, miniaturized FEDs, molecular diodes and rectifiers for nanocomputer chips.

Abstract: A biomolecular electronic switch includes a first electrical contact, a second electrical contact, a programmable monolayer of either cytochrome c or cytochrome c3 or bovine serum hormone sandwiched between the first and second electrical contacts and a substrate. These switches have high current-carrying capacities and are very fast. It appears that these protein materials can be either metals or semiconductors. Because of the high conductivity and tiny size, these globular proteins can be used to develop cost-effective, miniaturized FEDs, molecular diodes and rectifiers for nanocomputer chips.

Abstract: This invention is related to the field of uncooled infrared (IR) detector technology, and it particularly demonstrates the use of thin film structures on oxidized silicon consisting of Guanine Cytosine (GC)—rich double-stranded DNAs and peptide nucleic acid (PNAs) helices and the current CMOS electronic circuits for optimizing the IR detector performance of uncooled microbolometer technology. PNAs are a new class of DNA mimics in which the regular nucleotide bases of adenine, thymine, cytosine and guanine are connected via a peptide-like backbone (Ref. 1). PNA molecules retain the same Watson-Crick base pairing as regular oligonucleotides, with the added benefits of resistance to enzyme digestion.

Abstract: The invention provides a new low Curie temperature pyroelectric material related sensing devices based on lead titanate doped with various percentages of calcium, lanthanum, bismuth, cobalt and tungsten processed to provide a fine grain structure.