A nanotechnology-based detection platform combining gold nanoparticle Surface-Enhanced Raman Spectroscopy (SERS) with a few-shot machine learning algorithm to identify and quantify acrylamide in wastewater in real time, down to low ppb levels, without requiring expert spectral interpretation.
This solution addresses the need for rapid, accurate detection of acrylamide in water, a molecule that at high dosages can cause nervous system damage. The platform pairs ultra-sensitive plasmonic nanostructures with an artificial intelligence algorithm to streamline acrylamide monitoring for environmental remediation and human exposure management. By automating spectral interpretation, the system removes the dependency on trained human experts and reduces the time and sample preparation required for traditional analysis.
The core innovation lies in coupling gold nanoparticle-based SERS substrates with a Gradient Based Meta Learning computational model. This combination is designed to deliver real-time, accurate detection of acrylamide at concentrations down to low parts-per-billion levels, even when only limited training data is available, a common challenge in deploying AI for chemical sensing.
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The platform is currently at the research and development stage. The proposed validation plan includes two aims: (1) designing and synthesizing gold nanoparticle SERS substrates functionalized for acrylamide capture, and (2) developing and validating the few-shot machine learning algorithm for automated spectral analysis and concentration determination in μg/mL. Existing SERS literature has demonstrated proof-of-concept for acrylamide detection but with significant limitations in sensitivity, accuracy, and reliance on expert interpretation, which this approach aims to overcome.
Rice University is a private research university in Houston recognized for small scale and intensive research. Industry engages through on-campus design and prototyping facilities and multi-tenant research space adjacent to the Texas Medical Center, enabling clinical collaboration and rapid validation. A university-backed innovation district in central Houston links corporate R&D with faculty labs, startups, and talent, and proximity to the Energy Corridor and NASA’s Johnson Space Center provides access to regional clusters. Research is supported by competitive federal funding from agencies such as NSF, NIH, DOE, NASA, and DoD. A dedicated technology transfer office supports IP strategy, licensing, startup formation, and streamlined sponsored research agreements.