Core Technology & Innovations
AeroPhotonix LLC develops next-generation intelligent photonic sensing platforms designed to overcome the fundamental limitations of conventional aerosol and particulate monitoring systems. Our technology integrates advanced optical physics, polarization-resolved scattering, and embedded artificial intelligence into a unified sensing architecture capable of delivering high-fidelity particle characterization in real time.
Unlike traditional instruments that rely on narrow-angle intensity measurements or bulk mass concentration estimates, AeroPhotonix systems retrieve full angular phase functions, polarization signatures, and morphology-sensitive optical parameters. This enables deeper insight into particle size, shape, refractive index, and composition transforming particulate monitoring from simple detection into intelligent classification.
Elastic Light Scattering Systems (Ultra-Wide Angular Coverage (0.32°–179°))
Our elastic light scattering architecture provides one of the broadest angular coverage ranges available, capturing both the forward scattering peak and near-backscatter region. This enables:
High-accuracy particle size retrieval
Improved morphology sensitivity
Enhanced refractive index estimation
Full phase-function (F11) reconstruction
By measuring nearly the complete scattering profile, AeroPhotonix overcomes the narrow-angle limitations of legacy nephelometers and PM sensors.
Advanced Polar Nephelometry (Phase Function (F11) + Linear Depolarization Ratio (LDR) + Degree of Linear Polarization (DoLP) + Machine Learning)
Our polarization-resolved nephelometry platform simultaneously measures:
Angular phase function (F11)
Linear depolarization ratio (LDR)
Degree of linear polarization (DoLP)
These parameters enable shape-sensitive particle classification, distinguishing:
Dust vs soot
Spherical droplets vs irregular particles
Biological vs non-biological aerosols
Integrated machine learning algorithms further enhance inversion accuracy and enable real-time intelligent interpretation.
AI-Driven Inversion & Intelligent Analytics
AeroPhotonix embeds advanced AI and machine learning directly into the sensing architecture, enabling:
Real-time particle size retrieval
Automated particle classification
Multi-modal data fusion
Adaptive noise suppression
Reduced calibration drift
Unlike traditional lookup-table approaches, our AI-enhanced inversion continuously improves performance across varying environmental conditions.
Ambient Aerosol & Bioaerosol Detection (Fluorescence (LIF) + Scattering + AI)
By integrating laser-induced fluorescence (LIF) with elastic scattering and polarization metrics, our systems enhance biological discrimination and reduce false positives. This enables applications in:
Public health monitoring
Biosecurity and defense
Environmental surveillance
Multi-Modal Optical Sensing Architecture
AeroPhotonix integrates multiple complementary optical techniques into a unified platform:
Static light scattering
Polarization-resolved detection
Digital holography
Fluorescence spectroscopy
AI-based data analytics
This vertically integrated ecosystem from particle generation and optical measurement to algorithmic inversion delivers a scalable, deployable, and future-ready sensing solution.
AeroPhotonix does not simply build sensors. We build intelligent optical systems capable of retrieving microphysical, morphological, and radiative properties of airborne particles in real time across laboratory, ground-based, airborne, and balloon-deployable platforms. By combining advanced photonics with embedded AI, we move beyond bulk PM concentration toward true optical intelligence.