Article Synopsis

  • The FiLM-Scope is an innovative imaging device that merges Fourier Light Field Microscopy and Multi-view Stereo imaging to achieve high-resolution 3D video capture over large areas.
  • It features a multi-camera array with 48 micro-cameras that together produce 12.8 megapixel images, covering a 28 × 37 field-of-view with impressive height accuracy in 3D reconstruction.
  • The system has practical applications, demonstrated through tracking tools on rat skulls and visualizing skin deformation, making it valuable for micro-surgical procedures.

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Article Abstract

This work presents the Fourier Lightfield Multi-view Stereoscope (FiLM-Scope), a novel imaging device that combines concepts from Fourier Light Field Microscopy and Multi-view Stereo imaging to capture high-resolution 3D videos over large fields-of-view. The FiLM-Scope optical hardware consists of a multi-camera array, with 48 individual micro-cameras, placed behind a high-throughput primary lens. This allows the FiLM-Scope to simultaneously capture 48 unique 12.8 megapixel images of a 28 × 37 field-of-view, from unique angular perspectives over a 21° × 29° range, with down to 22 lateral resolution. We additionally describe a self-supervised algorithm to reconstruct 3D height maps from these images. Our approach demonstrates height accuracy down to 11 . To showcase the utility of our system, we perform tool tracking over the surface of an ex-vivo rat skull and visualize the 3D deformation in stretching human skin, with videos captured at up to 100 frames-per-second. The FiLM-Scope has the potential to improve 3D visualization in a range of micro-surgical settings.

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http://www.ncbi.nlm.nih.gov/pmc/articles/PMC12312786PMC
http://dx.doi.org/10.1117/1.apn.4.4.046008DOI Listing

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Article Synopsis
  • The FiLM-Scope is an innovative imaging device that merges Fourier Light Field Microscopy and Multi-view Stereo imaging to achieve high-resolution 3D video capture over large areas.
  • It features a multi-camera array with 48 micro-cameras that together produce 12.8 megapixel images, covering a 28 × 37 field-of-view with impressive height accuracy in 3D reconstruction.
  • The system has practical applications, demonstrated through tracking tools on rat skulls and visualizing skin deformation, making it valuable for micro-surgical procedures.
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