In order to develop a system for a large scale coal solubilization and its bioconversion to utilizable fuel, we plan to clone the genes encoding Neurospora protein that facilitate depolymerization of coal. We also plan to use desulfurizing bacteria to remove the sulfur in situ and use other microorganisms to convert biosolubilized coal into utilizable energy following an approach utilizing several microorganisms. In addition the product of coal solubilized by fungus will be characterized to determine their chemical nature and the mechanism of reaction catalyzed by fungal product during in vivo and in vitro solubilization by the fungus or purified fungal protein
Biological solubilization and subsequent gasification of lignite samples from three of the largest r...
Due to the need of new strategies for improving the economical performance of coal technologies, eff...
The desulfurization of coal using biological methods is an emerging technology. The biodesulfurizati...
In order to develop a system for a large scale coal solubilization and its bioconversion to utilizab...
In order to develop a system for a large scale coal solubilization and its bioconversion to utilizab...
In order develop a system for a large scale coal solubilization and its bioconversion to utilizable ...
Neurospora has the capability to solubilize coal and the protein fraction accounting for this abilit...
The ability of Neurospora to solubilize and bioconvert coal was investigated. The coal solubilizing ...
A purification of the Neurospora protein with coal solubilization activity (CSA) using DEAE cellulos...
To test the hypothesis that coal (leonardite) Solubilization and the subsequent depolymerization of ...
This project addresses the solubilization of low-rank coal (leonardite) by lignin degrading fungi. D...
Progress is reported on the solubilization and depolymerization of coal by fungi. It is postulated t...
Since our last quarterly report our research activities have focused on characterization of coal mac...
The objective of this project is to produce one or more microorganisms capable of the organic and in...
In this paper, sulfur compounds in coal, microorganism for biodesulphurization and microbial action ...
Biological solubilization and subsequent gasification of lignite samples from three of the largest r...
Due to the need of new strategies for improving the economical performance of coal technologies, eff...
The desulfurization of coal using biological methods is an emerging technology. The biodesulfurizati...
In order to develop a system for a large scale coal solubilization and its bioconversion to utilizab...
In order to develop a system for a large scale coal solubilization and its bioconversion to utilizab...
In order develop a system for a large scale coal solubilization and its bioconversion to utilizable ...
Neurospora has the capability to solubilize coal and the protein fraction accounting for this abilit...
The ability of Neurospora to solubilize and bioconvert coal was investigated. The coal solubilizing ...
A purification of the Neurospora protein with coal solubilization activity (CSA) using DEAE cellulos...
To test the hypothesis that coal (leonardite) Solubilization and the subsequent depolymerization of ...
This project addresses the solubilization of low-rank coal (leonardite) by lignin degrading fungi. D...
Progress is reported on the solubilization and depolymerization of coal by fungi. It is postulated t...
Since our last quarterly report our research activities have focused on characterization of coal mac...
The objective of this project is to produce one or more microorganisms capable of the organic and in...
In this paper, sulfur compounds in coal, microorganism for biodesulphurization and microbial action ...
Biological solubilization and subsequent gasification of lignite samples from three of the largest r...
Due to the need of new strategies for improving the economical performance of coal technologies, eff...
The desulfurization of coal using biological methods is an emerging technology. The biodesulfurizati...