Titlebook: BioMEMS and Biomedical Nanotechnology; Volume IV: Biomolecu Mauro Ferrari (Editor-in-Chief, Professor Brown In Book 2007 Springer-Verlag US

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An On-Chip Artificial Pore for Molecular Sensing detect sequence-specific DNA strands with single-base resolution [., .] to “drilling” molecular-scaled holes into silicon nitride membranes to detect the presence of single molecules of DNA [., .] to employing gold [.] or carbon [.] nanotubes as the ultimate artificial pores. While all of these str

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Cell Based Sensing Technologies detects, records, and transmits information regarding a physiological change or the presence of various chemical or biological materials in the environment. Cell based sensing is the most promising alternative to the existing bio-sensing techniques as cells have the capability of identifying very m

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Intelligent Polymeric Networks in Biomolecular Sensingd in a wide range of uses, including environmental analysis, medical diagnostics, bioprocess monitoring, and biowarfare agent detection. The success of the biosensor is dependent on the ability to rapidly, sensitively, and selectively recognize various biomolecules, with relative importance dependen

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Dielectrophoretic Traps for Cell Manipulationorming measurements on cells in order to extract information from them. Manipulating the physical location and organization of cells or other biologically important particles is an important part in this endeavor. Apart from the fact that cell function is tied to their three-dimensional organization

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BioMEMS for Cellular Manipulation and Analysisms has been realized [., .]. BioMEMS, the abbreviation for Biomedical or Biological Micro-Electro-Mechanical- Systems, is nowa heavily researched area with a wide variety of important biomedical applications. In general, BioMEMS, and its synonym BioChip, can be defined as “Devices or systems, constr

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Microfluidic Tectonicser reagent volumes, shorter reaction times, and the possibility of parallel operation. They also hold the promise of integrating an entire laboratory onto a single chip [.]. In addition to the traditional advantages conferred by miniaturization, the greatest potential lies in the physics of the scal

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Particle Dynamics in a Dielectrophoretic Microdevicethe device is the dielectrophoretic interaction between the spheres and the fluid. The device was designed and manufactured by at Purdue University [.]. The device consists of a microchannel with a depth of 11.6 μm, width of 350 μm, and length of 3.3 mm. The channel was anisotropically etched in sil