Researchers have developed an intelligent detection method for quaternary blended oil using near-infrared spectroscopy (NIRS) technology.
A new detection method for quaternary blended oil was recently used in a new study published in the Journal of Chemometrics (1). This study attempts to solve a critical problem in the oil industry, which is how to accurately detect quaternary blended oil (1).The researchers used near-infrared spectroscopy (NIRS) in this study, comparing the prediction performance of different models and their preprocessing combinations (1).
Oil pumps. | Image Credit: © Ded Pixto - stock.adobe.com
Establishing a workable prediction performance required implementing several preprocessing steps to the NIRS data (1). As an example, the researchers used the random forest (RF) model for soybean oil content. The RF model proved to be effective after second derivative optimization (1).
The researchers also had to worry about feature selection. Establishing an effective method to realize this was integral in extracting the most informative wavelengths (1). In the study, the researchers used a two-step feature selection method, using an elastic net (EN) to examine the wavelengths (1).
Based on the 20 effective wavelengths selected by EN + CARS, the researchers established a quantitative detection model (1). A test set was used to evaluate model performance, and it produced encouraging results (1). According to the results the researchers published in their paper, the correlation coefficient of determination (R2), root-mean-square error of prediction (RMSEP), and relative percent difference (RPD) values for the 2D + EN + CARS + RF model were 0.97953, 1.34306, and 7.08875, respectively (1).
As a result of this study, a two-step feature selection method in extracting the most informative wavelengths for quaternary blended oil detection proved to be effective (1). The researchers also showed in this study how NIRS technology can have great detection capabilities and accurately determine the components of blended oil (1).
The food and chemical sectors would benefit from the application of this detection method. By utilizing NIRS technology and advanced data analysis techniques, manufacturers can ensure the quality and integrity of their products, streamline production processes, and enhance overall efficiency (1).
The research conducted by the team at Heilongjiang University opens new avenues for detecting quaternary blended oil and its analysis, which should positively affect quality control (QC) and product authentication in various important industries (1).
(1) Zhao, Z.; Sun, L.; Bai, H.; Zhang, H.; Tian, Y. Intelligent component detection of quaternary blended oil based on near infrared spectroscopy technology. J. Chemom. 2023, ASAP. DOI: 10.1002/cem.3476
Exoplanet Discovery Using Spectroscopy
March 26th 2025Recent advancements in exoplanet detection, including high-resolution spectroscopy, adaptive optics, and artificial intelligence (AI)-driven data analysis, are significantly improving our ability to identify and study distant planets. These developments mark a turning point in the search for habitable worlds beyond our solar system.
Using Spectroscopy to Reveal the Secrets of Space
March 25th 2025Scientists are using advanced spectroscopic techniques to probe the universe, uncovering vital insights about celestial objects. A new study by Diriba Gonfa Tolasa of Assosa University, Ethiopia, highlights how atomic and molecular physics contribute to astrophysical discoveries, shaping our understanding of stars, galaxies, and even the possibility of extraterrestrial life.
New Telescope Technique Expands Exoplanet Atmosphere Spectroscopic Studies
March 24th 2025Astronomers have made a significant leap in the study of exoplanet atmospheres with a new ground-based spectroscopic technique that rivals space-based observations in precision. Using the Exoplanet Transmission Spectroscopy Imager (ETSI) at McDonald Observatory in Texas, researchers have analyzed 21 exoplanet atmospheres, demonstrating that ground-based telescopes can now provide cost-effective reconnaissance for future high-precision studies with facilities like the James Webb Space Telescope (JWST) (1-3).