74
L. Acosta-Soto and S. Hosseini
Table 3.1
(continued)
BioMEMS platform
Main components
Fabrication strategy
Mechanisms of
operation
Detected analyte
Specifics
Ref
3D microfluidic device
with embedded
micro-ball lenses array
• 3D multilayer
PDMS
• Solid micro-ball
lenses
A photolithography
process was used to
fabricate a SU-8 post
array on a silicon
wafer, which was
used to cast PDMS
microwells following
a soft lithography
protocol. Glass
microspheres were
spread on the surface
of the well array and
swept into them
A high-power laser
diode provided
fluorescence
excitation on cells
through a micro-ball
lens array. Multicolor
fluorescence emission
from cells were
collected by the same
micro-lens array and
imaged by a
high-speed CMOS
camera through
telescope optics
Live Mammalian
cells
The fluid flow
should be centered
in order to achieve
optimal uniformity
in signal detection
Fan et al.
(2013)
(continued)
L. Acosta-Soto and S. Hosseini
Table 3.1
(continued)
BioMEMS platform
Main components
Fabrication strategy
Mechanisms of
operation
Detected analyte
Specifics
Ref
3D microfluidic device
with embedded
micro-ball lenses array
• 3D multilayer
PDMS
• Solid micro-ball
lenses
A photolithography
process was used to
fabricate a SU-8 post
array on a silicon
wafer, which was
used to cast PDMS
microwells following
a soft lithography
protocol. Glass
microspheres were
spread on the surface
of the well array and
swept into them
A high-power laser
diode provided
fluorescence
excitation on cells
through a micro-ball
lens array. Multicolor
fluorescence emission
from cells were
collected by the same
micro-lens array and
imaged by a
high-speed CMOS
camera through
telescope optics
Live Mammalian
cells
The fluid flow
should be centered
in order to achieve
optimal uniformity
in signal detection
Fan et al.
(2013)
(continued)
