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Multiband Imaging CMOS Image Sensor with Multi-Storied Photodiode Structure †.

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Summary

We created a new multiband imaging CMOS image sensor (CIS) that captures both visible (RGB) and near-infrared (NIR) light simultaneously using a unique stacked photodiode design, expanding imaging capabilities.

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3D stackedCMOS image sensormultiband imagingnear infrared

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Area of Science:

  • * Solid-state Imaging Technology
  • * Optoelectronics and Sensor Design

Background:

  • * Conventional CMOS image sensors (CIS) typically capture only visible light (RGB) using Bayer filters, limiting their application in near-infrared (NIR) spectrum analysis.
  • * Existing methods for multiband imaging often require multiple sensors or complex optical components, increasing system size and cost.

Purpose of the Study:

  • * To develop an integrated CIS with a multi-storied photodiode structure capable of simultaneous RGB and NIR image capture.
  • * To enhance the sensor's optical performance through optimized wiring layers and light filtering structures.

Main Methods:

  • * Designed a novel multi-storied photodiode structure with two stacked photodiode (PD) arrays.
  • * Integrated wiring layers between PD arrays, optimizing material and thickness for optical filtering effects.
  • * Leveraged the structure to control incident light angle and act as an optical filter for the bottom PD array.

Main Results:

  • * Successfully developed a CIS capable of capturing both visible RGB and invisible NIR images concurrently.
  • * Demonstrated that the integrated wiring layers and structure function as an effective optical filter.
  • * Achieved wide-range sensitivity enabling specific band imaging without dedicated IR pixels or external components.

Conclusions:

  • * The developed multiband imaging CIS overcomes the limitations of conventional sensors by enabling simultaneous RGB and NIR capture.
  • * The optimized optical filtering structure within the sensor enhances its versatility for diverse imaging applications.
  • * This innovation significantly advances the potential for capturing a wider spectrum of light information in a single sensor.