Stacked Capacitor Semiconductor Structure for Higher Capacitance

The patent transitions from planar capacitor arrangements to three-dimensional stacked configurations. Multiple capacitor structures are vertically stacked across multiple semiconductor substrates, utilizing the vertical dimension to increase total capacitance without expanding the horizontal footprint. This dimensional transition directly resolves the contradiction by decoupling capacitance scaling from area occupation.

The patent implements nested capacitor structures where capacitors are embedded within semiconductor substrates, and multiple substrates are stacked together. The capacitors are nested inside the substrate volume, and substrates are nested in a vertical stack, creating a compact nested arrangement that maximizes capacitance within a confined space envelope.

The patent divides the capacitor system into multiple discrete capacitor structures distributed across separate semiconductor substrates. Each substrate contains individual capacitor elements that can be independently designed and manufactured, then assembled into a stacked configuration. This segmentation allows complex total capacitance to be achieved through modular assembly rather than a single complex structure.

The stacked semiconductor substrate structure serves multiple functions simultaneously: it provides mechanical support, electrical isolation through dielectric layers, capacitive storage through embedded capacitors, and thermal management pathways. This multi-functionality reduces the need for additional separate components, thereby managing complexity while achieving high total capacitance.