This innovative imaging theory originates from solving the "inverse problem of wave scattering," a challenging issue in applied mathematics.

IGS focuses on developing theories and methods to analyze an object's internal structure. The core methodology involves detecting waves emitted from within an object and using these observations to visualize its internal composition. The critical question addressed is determining the appropriate equations and solutions to reconstruct an object’s 3D structure from surface observations.

In scenarios where an object comprises a medium and regions with differing physical properties, and these properties are known, the observed signals can be predicted using fundamental physics equations. However, if the object’s properties are unknown, the process involves reversing the typical causal relationships in physics to infer these properties from the observed data.

Key Considerations in Reverse Causal Analysis in Physics

When tracing causal relationships in physics in reverse, the following three aspects are crucial:

1.  The establishment of a robust mathematical foundation, akin to that used in the corresponding forward problem.
2. The electrical and mechanical setup of the observation system must be adaptable yet stable across varying measurement conditions.
3. The availability of an efficient algorithm capable of performing computations within a reasonable timeframe on standard commercial computers.

Under these conditions, we achieved a global first by analytically solving the inverse problem of wave scattering—a longstanding challenge in applied mathematics. This breakthrough, known as the "Scattering Field Theory/Inverse Analysis Theory of Wave Scattering," involves using wave irradiation and observation of the scattered waves to theoretically ascertain an object's internal structure. We derive and solve multidimensional partial differential equations representing the scattering field, using observed results as boundary conditions to expose the object’s internal architecture through temporal and spatial limit operations.

IGS Solutions and Analytical Theories for Inverse Problems

IGS technology is underpinned by more than just the "Scattering Field Theory/Inverse Analysis Theory of Wave Scattering." Recognizing the necessity for innovative fundamental theories to develop new solutions, we are committed to continuous research in this area.

IGS features advanced, ultra-sensitive sensor technology tailored for detecting electromagnetic fields from various objects.

This includes our state-of-the-art high-definition radar technology, equipped with a multistatic array antenna system consisting of multiple ultra-wideband (UWB) active antenna elements. Capable of UWB measurements spanning from DC to several dozen GHz, this technology also boasts exceptional noise resistance, enabling precise biometric measurements even with weak radio waves. IGS's technology is pivotal in applications such as quality control failure analysis for rechargeable batteries and sophisticated security systems.