Keywords
Surface water treatment; Green sorption media; ZIPGEM; Nutrient removal; Seasonality effect
Abstract
Driven by excess nutrients in water bodies, eutrophication has long been an issue in water resources management. Harmful algal blooms (HABs) in a highly eutrophic water body lead to hypoxia, creating a “dead zone,” which renders the oxygen levels inadequate for the survival of marine life. This study examined the field-scale filtration performance of two specialty absorbents to improve watershed remediation within a Total Maximum Daily Load program. The goal was to simultaneously remove nutrients and biological pollutants along Canal 23 (C-23) in the St. Lucie River Basin, Florida. The filtration system installed in the C-23 river corridor was equipped with either clay– perlite with sand sorption media (CPS) or zero-valent iron and perlite green environmental media (ZIPGEM). Both media were formulated with varying combinations of sand, clay, perlite, and/or recycled iron based on distinct recipes. Seasonality effects were also evident in nutrient removal efficiencies while the decomposition of dissolved organic nitrogen played a pivotal role in nutrient removal, Overall, ZIPGEM demonstrated a more stable nutrient removal efficiency than CPS in the phase of seasonal changes while biological pollutants can be fully removed over seasons.
Completion Date
2024
Semester
Summer
Committee Chair
Ni-bin Chang
Degree
Master of Science in Environmental Engineering (M.S.Env.E.)
College
College of Engineering and Computer Science
Department
Civil, Environmental, and Construction Engineering
Degree Program
Environmental Engineering
Format
application/pdf
Identifier
DP0028591
URL
https://purls.library.ucf.edu/go/DP0028591
Language
English
Rights
In copyright
Release Date
August 2024
Length of Campus-only Access
None
Access Status
Masters Thesis (Open Access)
Campus Location
Orlando (Main) Campus
STARS Citation
Cheng, Jinxiang, "Exploring The Removal Potential of Multi-pollutants from Water Matrices with Innovative Speciality Adsorbents in A Field-scale Filtration System" (2024). Graduate Thesis and Dissertation 2023-2024. 388.
https://stars.library.ucf.edu/etd2023/388
Accessibility Status
Meets minimum standards for ETDs/HUTs
Accessibility Statement
This item was created or digitized prior to April 24, 2027, or is a reproduction of legacy media created before that date. It is preserved in its original, unmodified state specifically for research, reference, or historical recordkeeping. In accordance with the ADA Title II Final Rule, the University Libraries provides accessible versions of archival materials upon request. To request an accommodation for this item, please submit an accessibility request form.