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Himankar Sharma

Tohoku University
  •  Home
  •  Publications
    7
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    1

 More details
  • Tohoku University
    Undergraduate
Areas of Interest
Metaphysics
Social and Political Philosophy
  • All publications (7)
  •  118
    Ordering of adsorbed species on quasicrystal surfaces
    with J. A. Smerdon, L. H. Wearing, J. K. Parle, L. Leung, J. Ledieu, and R. Mcgrath
    Philosophical Magazine 88 (13-15): 2073-2082. 2008.
    Species
  •  90
    Step-terrace morphology and reactivity to C60of the five-fold icosahedral Ag–In–Yb quasicrystal
    with P. J. Nugent, J. A. Smerdon, R. McGrath, M. Shimoda, C. Cui, and A. P. Tsai
    Philosophical Magazine 91 (19-21): 2862-2869. 2011.
  •  106
    XPS study of adsorption and desorption of a Bi thin film on the five-fold icosahedral Al-Pd-Mn surface
    with K. M. Young, N. Cross, J. A. Smerdon, V. R. Dhanak, T. A. Lograsso, A. R. Ross, and R. McGrath
    Philosophical Magazine 91 (19-21): 2889-2893. 2011.
    Film Media
  •  74
    Influence of the substrate temperature and deposition flux in the growth of a Bi thin film on the ten-fold decagonal Al-Ni-Co surface
    with J. Ledieu, V. Fournée, and P. Gille
    Philosophical Magazine 91 (19-21): 2870-2878. 2011.
  •  16
    Shrink-induced silica multiscale structures for enhanced fluorescence from DNA microarrays
    with J. B. Wood, S. Lin, R. M. Corn, and M. Khine
    © 2014 American Chemical Society. We describe a manufacturable and scalable method for fabrication of multiscale wrinkled silica structures on shrink-wrap film to enhance fluorescence signals in DNA fluorescence microarrays. We are able to enhance the fluorescence signal of hybridized DNA by more than 120 fold relative to a planar glass slide. Notably, our substrate has improved detection sensitivity relative to planar glass slide. Furthermore, this is accompanied by a 30-45 times improvement in…Read more
    © 2014 American Chemical Society. We describe a manufacturable and scalable method for fabrication of multiscale wrinkled silica structures on shrink-wrap film to enhance fluorescence signals in DNA fluorescence microarrays. We are able to enhance the fluorescence signal of hybridized DNA by more than 120 fold relative to a planar glass slide. Notably, our substrate has improved detection sensitivity relative to planar glass slide. Furthermore, this is accompanied by a 30-45 times improvement in the signal-tonoise ratio. Unlike metal enhanced fluorescence based enhancements, this is a far-field and uniform effect based on surface concentration and photophysical effects from the nano- to microscale SiO 2 structures. Notably, the photophysical effects contribute an almost 2.5 fold enhancement over the concentration effects alone. Therefore, this simple and robust method offers an efficient technique to enhance the detection capabilities of fluorescence based DNA microarrays.
  •  91
    First UHV surface studies of single-grain icosahedral Ag–In–Yb quasicrystal
    with M. Shimoda, S. Ohhashi, and A. P. Tsai
    Philosophical Magazine 87 (18-21): 2989-2994. 2007.
  •  69
    Terrace-dependent morphology of thin Sn films deposited on the fivefold surface of the icosahedral Al–Cu–Fe quasicrystal
    with M. Shimoda, A. R. Ross, T. A. Lograsso, and A. P. Tsai
    Philosophical Magazine 86 (6-8): 807-812. 2006.
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