Keywordsmicrocystin; microbial degradation; bioreactor; cyanobacteria; coliforms; chemical oxygen demand; hydrogen peroxide; lake management; Planktothrix agardhii; cyanobacteria; water temperature; Middle East; solar radiation; nutrients; cyanotoxin; eutrophication control; lake restoration; LC-MS/MS; microcystin profile; PCC 7820; microcystins; food web; microbial degradation; metabolism; glutathione metabolic pathway; toxicokinetics; blue-green algae; canine; cyanobacteria; cyanotoxin; dog; harmful algal bloom; hepatotoxin; microcystin; cyanotoxins; anatoxin-a; cylindrospermopsin; microcystin; saxitoxins; drinking water; recreational water; cyanobacterial bloom; microcystins; cyanotoxins; cyanobacterial biomass; sediments; spatial variability; temporal variability; cyanobacteria; harmful algae; blooms; disease surveillance; HAB; sUAS; cyanotoxins; cyanobacteria; blue-green algae; remote sensing; domoic acid amnesic shellfish poisoning; saxitoxin; paralytic shellfish poisoning; okadaic acid; diarrhetic shellfish poisoning; freshwater HABs; anatoxin-a; microcystins; ORHAB; SoundToxins; harmful algae; cyanobacteria; blue-green algae; human; animal; sentinel event; ecosystem; health; one health; biotoxin; cyanotoxin; harmful algae; cyanobacteria; ecological forecasting; Lake Erie; remote sensing; MODIS; MERIS; blue-green algae; cyanobacteria; microcystin; anatoxin-a; cylindrospermopsin; conventional drinking water treatment; n/a
