Abstract: The present invention discloses a Nanowire Field Effect Transistor Detection Device and the Detection Method thereof. The Nanowire Field Effect Transistor Detection Device of the present invention comprises: gate oxide, SiNW chip, surface oxide, and surface molecule layer. The circuit structure of the Nanowire Field Effect Transistor Detection Device comprises a first resistor, a second resistor, a first capacitor, a second capacitor, a third capacitor, a fourth capacitor, an AC voltage source, and an ammeter. In addition, the present invention provides a method for attaching the probe Ni-NTA to the Nanowire Field Effect Transistor Detection Device. Furthermore, the present invention provides a method for attaching the isooctyl trimethoxysilane molecule to the Nanowire Field Effect Transistor Detection Device.

Abstract: The present invention discloses a Nanowire Field Effect Transistor Detection Device and the Detection Method thereof. The Nanowire Field Effect Transistor Detection Device of the present invention comprises: gate oxide, SiNW chip, surface oxide, and surface molecule layer. The circuit structure of the Nanowire Field Effect Transistor Detection Device comprises a first resistor, a second resistor, a first capacitor, a second capacitor, a third capacitor, a fourth capacitor, an AC voltage source, and an ammeter. In addition, the present invention provides a method for attaching the probe Ni-NTA to the Nanowire Field Effect Transistor Detection Device. Furthermore, the present invention provides a method for attaching the isooctyl trimethoxysilane molecule to the Nanowire Field Effect Transistor Detection Device.

Abstract: A method for producing single-dimensioned gold-nano-particle patterns having a single-particle resolution in which the line-width is only limited by the particle size. Initially, a focused electron beam is used to generate a positive charge layer on an SiO2 surface. Biotinated DNA molecules attracted by these positive charges are then used to acquire Au-nano-particles revealing the e-beam exposure patterns. The particles in the single-line patterns become separated in an orderly manner, due to the repulsive force between different Au colloidal particles. Each single-line pattern has potential use in nano-photonics and nano-electronics. In nano-electronics, the line patterns serve as a template for high or low resistance conductive nano-wires. Low resistance wires exhibit linear current-voltage characteristics with an extremely high maximum allowed current density. The high resistance wires display charging effect with clear Coulomb oscillation behavior at low temperatures.

Abstract: A pattern transfer method includes providing a substrate, forming a first biomaterial over the substrate, exposing the first biomaterial to a pattern writing agent in a manner consistent with a pattern to be transferred, forming a second biomaterial over the first biomaterial, wherein the second biomaterial reacts and bonds with portions of the first biomaterial not exposed to the pattern writing agent, and does not react and bond with portions of the first biomaterial exposed to the pattern writing agent.

Abstract: A single electron device. Fabricated from nanoparticle derivatives, particularly from Au and fullerene nanoparticle derivatives, the device reduces thermal fluctuation in the nanoparticle array and has 15 nm of spacing between two electrodes.