Plasmonic properties of silver coated non-spherical gallium alloy nanoparticles

Detection and photothermal inactivation of Gram-positive and Gram-negative bloodstream bacteria using photonic crystal biosensor and plasmonic core–shell

“…The first step to express light-to-heat conversion process is calculated employing absorption cross-sections ( C abs ), extinction coefficients ( C ext ), and light absorption capacity ( A abs ), 70 using well known Mie theory is given by eqn (7) to (9), 71,72 and C abs = C ext − C sca .In which the light absorption capacity is , for volume of nanosphere ( V p = 4/3π r j 3 ), volume of nanorod ( V p = π r j 2 l here l is length of rod), and volume of plate ( V p = π r j 2 t t is thickness of plate core–shell). Where,For whichandHere, r c and r s are inner and outer radius of core–shell respectively, X j and Y j are determinants, η j is spherical Bessl function, ξ j is spherical Nuemann function, ψ j and Φ j are Riccati–Bessel function, and is wave number for ε j is permittivity in which j = c,s,m.…”

“…The first step to express light-to-heat conversion process is calculated employing absorption cross-sections ( C abs ), extinction coefficients ( C ext ), and light absorption capacity ( A abs ), 70 using well known Mie theory is given by eqn (7) to (9) , 71,72 and C abs = C ext − C sca . In which the light absorption capacity is , for volume of nanosphere ( V p = 4/3π r j 3 ), volume of nanorod ( V p = π r j 2 l here l is length of rod), and volume of plate ( V p = π r j 2 t t is thickness of plate core–shell).…”

“…68 In addition, FeO is selected for its high photon absorption that used to cool the overheated cell. 69 The rst step to express light-to-heat conversion process is calculated employing absorption cross-sections (C abs ), extinction coefficients (C ext ), and light absorption capacity (A abs ), 70 using well known Mie theory is given by eqn ( 7) to ( 9), 71,72…”