Nanobonding: A key technology for emerging applications in health and environmental sciences

作者: Matiar M. R. Howlader , M. Jamal Deen , Tadatomo Suga

DOI: 10.7567/JJAP.54.030201

关键词: SiliconMechanical componentsExternal pressureGallium arsenideFluidicsNanometrePhotonicsNanotechnologyBiosensor

摘要: In this paper, surface-activation-based nanobonding technology and its applications are described. This bonding allows for the integration of electronic, photonic, fluidic mechanical components into small form-factor systems emerging sensing imaging in health environmental sciences. Here, we describe four different techniques that have been used various substrates ? silicon, gallium arsenide, glass, gold. We use these to create electronic (silicon), photonic (silicon arsenide), microelectromechanical (glass silicon), glass) biosensing bioimaging being developed. Our technologies provide void-free, strong, nanometer scale at room temperature or low temperatures (<200 ?C), do not require chemicals, adhesives, high external pressure. The interfaces nanobonded materials ultra-high vacuum air correspond covalent bonds, hydrogen hydroxyl respectively.

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