Chikitscope

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Medical

Chikitscope: Democratizing Diagnostics through Pocket-Sized Edge AI

Nearly half the world lacks access to essential diagnostics, and the global healthcare system faces a projected shortage of 10 million workers by 2030. While routine diagnostic tools like thermometers have successfully transitioned to the home, the microscope has remained stubbornly tied to the lab bench. This forces patients in resource-limited environments to wait days for samples to travel and be processed. Chikitscope addresses this critical bottleneck by providing lab-grade readings directly at the point of need.

Form Factor and Workflow:

Chikitscope is an ultra-compact, offline AI microscope. Measuring just 10 x 14 x 3 cm when folded flat, it is a fully battery-powered device designed for ultimate portability. Crucially, it requires no external internet access to function; instead, it generates a localized Wi-Fi hotspot to connect directly to a standard smartphone or laptop. The intuitive four-step workflow—unfold, place the sample, connect a device, and receive a local AI result—empowers non-specialists to perform diagnostics in remote areas or mobile clinics.

Core Technology and Edge AI Analysis:

At the core of the system is a highly precise optical framework featuring a variable size baffle that allows for adjustable magnification, with a current max of 18.3x optical zoom. Driven by the computational power of a Raspberry Pi 5, this architecture enables the device to process high-resolution live views and execute advanced convolutional neural network (CNN) models directly on the edge. Through a web-based interface, operators capture images, apply CLAHE (Contrast Limited Adaptive Histogram Equalization) adjustments, and run immediate on-device assays.

Current validated capabilities demonstrate powerful versatility. For healthcare, the system performs automated Red Blood Cell analysis, calculating median cell size (e.g., 7.78 µm) and size variation (e.g., 8.8%). A lower red blood cell size can detect microcytic anemia (commonly caused by iron deficiency), while a high standard deviation flags underlying conditions like vitamin B12 or folate deficiencies. In agriculture, Chikitscope evaluates specimens like Bengal gram leaves directly. This completely bypasses the traditional nail polish peel method—a time-consuming, destructive process often plagued by air bubbles. By observing the leaf directly, the device rapidly calculates stomata density (e.g., 364 stomata/mm²) to accurately assess plant hydration and health. Comprehensive diagnostic PDF reports are generated locally and downloaded instantly.

Manufacturability and Market Potential:

To ensure affordability and rapid scalability, Chikitscope utilizes accessible, off-the-shelf electronic components for its core processing and optical hardware. This foundation is housed within a robust chassis developed via advanced computational design. By leveraging 3D printing techniques, the physical architecture achieves complex, lightweight geometric precision while eliminating the massive overhead costs and lead times associated with traditional injection molding. This geometry-agnostic fabrication pipeline ensures the device can be easily manufactured and deployed globally. By merging offline edge AI, compact optics, and 3D-printed manufacturing, Chikitscope targets a massive Total Addressable Market ($60B+) across point-of-care diagnostics, agriculture, and life sciences. 

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  • About the Entrant

  • Name:
    Arnab Chatterjee
  • Type of entry:
    individual
  • Profession:
    Engineer/Designer
  • Software used for this entry:
    Rhino3D, Grasshopper, Blender, PrusaSlicer, BambuStudio, Python
  • Patent status:
    none