Microlens having a carrier-free optical interference filter
A technology of interference filters and microlenses, which is applied in the fields of electric solid-state devices, semiconductor devices, and phase-influenced characteristic measurements, and can solve the problems of difficult, time-consuming, and high-cost implementations of external carriers and optical systems
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Embodiment 1
[0127] a) Example 1: Interference filter 15 above "bowl-shaped" microlens 13
[0128] Figure 1B : Shape the μ-lens 13a, 13b, 13c into a "bowl", which is filled with a highly refractive (optical dense) material and planarized
[0129] Figure 1C : deposition interference filter 15
Embodiment 2
[0130]b) Example 2: Interference filter 15 above "bowl-shaped" microlenses 13 and cavities 33, 36a, 36b
[0131] Figure 3A : Depositing a sacrificial layer 32 and forming microlenses 13a, 13b, 13c inside said sacrificial layer 32 as "bowls", which are filled and planarized with a highly refractive (optical dense) material
[0132] Figure 3B : (selectively for surrounding material) removal of sacrificial layer 32 and creation of cavities 33, 36a, 36b
[0133] Figure 3C : deposition interference filter 15
Embodiment 3
[0134] c) Example 3: Interference filter 15 above “arched” microlenses 13 a , 13 b , 13 c while retaining additional material layer 42
[0135] Figure 4A : Form microlenses 13a, 13b, 13c from optically dense material
[0136] Figure 4B : Lens gaps are filled with optically thinning material and planarized
[0137] Figure 4C : deposition interference filter 15
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