Abstract Coal fly ash originated from coal combustion has high concentrations of metals. If suitable leaching techniques are identified, then coal fly ash could serve as a useful source of valuable minerals including rare earth elements (REEs). In this study, three microbial strains, Candida bombicola, Phanerochaete chrysosporium and Cryptococcus curvatus were tested on their performance of leaching trace elements and REEs from fly ash. Through comparing mineral loss and leaching efficiencies resulting from indirect leaching or use of the culture supernatant, C. bombicola was identified to be the best leading to the highest mineral loss and extracting efficiencies of trace elements and REEs among the three strains. The highest mineral loss ...
A mixed culture of Acidithiobacillus ferrooxidans and Acidithiobacillus thiooxidans was used to leac...
Solid waste from sulfuric acid production may contain relatively high levels of metals such as Fe, Z...
Bio- and hydrometallurgical experimental setups at 2-l reactor scale for the processing of fly ash f...
Bioleaching of trace metals from coal ash using mixed culture of Acidithiobacillus albertensis and A...
Global production of coal ash, composed of fly ash and bottom coming from coal fired power plants, r...
Bioleaching of chromium, copper, manganese and zinc from coal ash were investigated using isolates f...
Bioleaching is a technique for reducing the heavy metal content of coal ash by using bacteria, fungi...
Bioleaching is an economical process to extract rare earth elements, which requires less energyand p...
The study's aims were to isolate and establish pure cultures of prevailing microorganisms from the a...
A bioleaching process developed in two separate steps was investigated for the recovery of base meta...
This paper presents a route for the treatment of MSWI fly (FA) and bottom ashes (BA) using microorga...
This is the final version. Available on open access from the Royal Society of Chemistry via the DOI ...
Three fungal strains were found to be capable of bioleaching rare earth elements from monazite, a ra...
A mixed culture of Acidithiobacillus ferrooxidans and Acidithiobacillus thiooxidans was used to leac...
Solid waste from sulfuric acid production may contain relatively high levels of metals such as Fe, Z...
Bio- and hydrometallurgical experimental setups at 2-l reactor scale for the processing of fly ash f...
Bioleaching of trace metals from coal ash using mixed culture of Acidithiobacillus albertensis and A...
Global production of coal ash, composed of fly ash and bottom coming from coal fired power plants, r...
Bioleaching of chromium, copper, manganese and zinc from coal ash were investigated using isolates f...
Bioleaching is a technique for reducing the heavy metal content of coal ash by using bacteria, fungi...
Bioleaching is an economical process to extract rare earth elements, which requires less energyand p...
The study's aims were to isolate and establish pure cultures of prevailing microorganisms from the a...
A bioleaching process developed in two separate steps was investigated for the recovery of base meta...
This paper presents a route for the treatment of MSWI fly (FA) and bottom ashes (BA) using microorga...
This is the final version. Available on open access from the Royal Society of Chemistry via the DOI ...
Three fungal strains were found to be capable of bioleaching rare earth elements from monazite, a ra...
A mixed culture of Acidithiobacillus ferrooxidans and Acidithiobacillus thiooxidans was used to leac...
Solid waste from sulfuric acid production may contain relatively high levels of metals such as Fe, Z...
Bio- and hydrometallurgical experimental setups at 2-l reactor scale for the processing of fly ash f...