Airborne Nanoparticles: Control and Detection,
Fig. 4 (a) The effect of the fiber diameter of yttria-stabilized
zirconia (YSZ) on filtration efficiency and pressure drop.
(Reprinted with permission [4]). (b) Schematic landscape of
the relationship between fiber diameter and particle capture.
(c) The effect of packing density on MPPS. (Reprinted with
permission [35]). (d) Relationship between fiber basis weight
and filtration efficiency. (Reprinted with permission [36]). (e)
Pressure drop and (f) filtration efficiency for PSU/TiO 2 -0 and
PSU/TiO 2 -5 as a function of face velocity. (Reprinted with
permission [37]). Relationship between the particle diameter
and the MPPS. (Reprinted with permission [38]). (h) The
captured particle diameter increases with air velocity.
(Reprinted with permission [31])
96
Airborne Nanoparticles: Control and Detection
Fig. 4 (a) The effect of the fiber diameter of yttria-stabilized
zirconia (YSZ) on filtration efficiency and pressure drop.
(Reprinted with permission [4]). (b) Schematic landscape of
the relationship between fiber diameter and particle capture.
(c) The effect of packing density on MPPS. (Reprinted with
permission [35]). (d) Relationship between fiber basis weight
and filtration efficiency. (Reprinted with permission [36]). (e)
Pressure drop and (f) filtration efficiency for PSU/TiO 2 -0 and
PSU/TiO 2 -5 as a function of face velocity. (Reprinted with
permission [37]). Relationship between the particle diameter
and the MPPS. (Reprinted with permission [38]). (h) The
captured particle diameter increases with air velocity.
(Reprinted with permission [31])
96
Airborne Nanoparticles: Control and Detection