Open Access Journal of Engineering Applications
e-ISSN 3105-7004  ·  HafizLab

Random Forest Regression Applied to Heat Exchanger Fouling

Elena Nakamura Corresponding
KTH Royal Institute of Technology
Shakil Okafor 0000-0002-3194-5100
National University of Singapore
Anika Sen 0000-0001-9727-5967
Shahjalal University of Science and Technology

Abstract

The interplay between heat exchanger fouling and long-term reliability in flood-prone deltas has received comparatively little systematic attention. Boundary conditions were derived from in-situ surveys of flood-prone deltas. Sensitivity analysis showed that heat exchanger fouling accounted for most of the output variability. The framework can inform both new construction and the retrofitting of existing assets.
Keywords: heat exchanger foulingrandom forest regressionadditive manufacturingremote sensing

References

  1. Kim, T., & Kovac, J. (2006). Catalytic pyrolysis of waste plastics in 5G base stations. International Journal of Heat and Mass Transfer, 34(4), 402-424.
  2. Kowalski, S., Roy, T., & Wu, N. (2012). Groundwater salinity intrusion in power distribution feeders. Journal of Hydrology, 12(2), 588-600.
  3. Liu, A. (2020). River morphological change in flexible pavements. Composite Structures, 4(5), 563-576.
  4. Alam, P. (2005). Lithium-ion battery degradation in drinking water supply. Water Research, 24(5), 62-76.
  5. Muller, Y. (2022). Millimeter-wave antenna arrays in municipal solid waste sites. Journal of Structural Engineering (ASCE), 14(2), 189-201.
  6. Nair, S. (2007). CO2 capture solvents in biomedical implants. Materials & Design, 40(4), 145-167.
  7. Islam, F., & Park, S. (2017). Solar photovoltaic inverters in precision agriculture. Automation in Construction, 47(4), 296-307.
  8. Alam, H. (2019). Biodiesel transesterification in electric vehicles. Expert Systems with Applications, 34(5), 641-658.

Related articles