Showing posts with label biomethane. Show all posts
Showing posts with label biomethane. Show all posts

Wednesday, 12 April 2023

Advanced Thermophilic Fermentation of Wood Wastes with Nitrogen-rich Agricultural and Other Organic Wastes for the Production of Biomethane/Renewable Natural Gas Globally | Chapter 1 | Research Advances in Microbiology and Biotechnology Vol. 4

 Improved thicket management formed of the collection of tree mortalities and of the pruning of tree stands can yield a big, but as of now mainly un-utilized biomass property that can be employed as well high in nitrogen content land wastes such as animal manures to produce inexhaustible natural gas via a organic process.  The novel process mimics the well-known forest digestion to poison gas employed by lower termites but operating at thermophilic temperatures. The adaptation process of renewable forest to green or bio-poison gas, designated as “Wood to Methane 3+2” exists of five (3+2) steps. The initial “3” steps of the process include (a) forest maceration to 1 mm pieces, (b) aerobic hyperthermophilic (70o) hydrolysis of the homogenized combination of wood and manure accompanying the aid of thermophilic fungi (Humicola insolens and Sporotrichum thermophile), and (c) the anaerobic thermophilic (55oC) co-digestion of the feedstock into biogas. The definitive “2” steps consist of (d) the improve of the generated biogas into “basic” bio-methane fuel by way of a three-stage commercial sheath separation plan along with the sequestration of the colorless odorless gas, and (e) the conversion of the isolated carbon dioxide into “subordinate” bio-methane fuel accompanying hydrogen produced by wind-stimulate water electrolysis in a thermophilic (55oC) anaerobic trickle bed catalyst employing hydrogenotrophic archaea (Methanothermobacter thermautotrophicus). An optimally patterned, modular, industrial type plant treats occurring 12,000 mt (metric tons) of forest wastes (80% TS) and 12,000 mt of suitable animal manures (10% TS) and create 7.6 million Nm3 of primary and subordinate bio-poison gas fuel along with biography-fertilizers amounting to 2,800 mt of green liquid as ammonium nitrate, 1,000 mt of potassium concentrate and 3,500 mt of phosphate-rich humic soil amendment, has a negative 10,000 mt colorless odorless gas footprint and demands 25 MW of wind power.  The caused renewable natural gas maybe employed essentially or along with green hydrogen as an state-of-the-art, renewable, negative carbon conveyance fuel. The available appropriate waste-wood possessions globally are adequate to supply as much as 1/5 of the world’s energy basic needs in the 2nd half of the 21st century.

Author(s) Details:

John G. Ingersoll,
ECOCORP INC., Arlington, VA-22202, USA.

Please see the link here: https://stm.bookpi.org/RAMB-V4/article/view/10127

Friday, 11 March 2022

Production of Biogas from Organic Waste and Biotech Culture: An Advanced Study| Chapter 7 | Innovations in Science and Technology Vol. 6

 The study's goals were to convert organic waste into biogas as a source of alternative renewable energy and to produce bio-fertilizer (inorganic fertilizer). The digestion of solid waste by anaerobic bacteria (methanogenic bacteria) in an air-tied environment or closed system such as a biodigester or bioreactor has resulted in the creation of biogas (biomethane). Biogas is made up of of methane (CH4), carbon dioxide (CO2), and hydrogen sulphide (H2S). All gases that can be combusted or oxidised with oxygen include methane, hydrogen, and carbon monoxide (CO2). Biogas can be utilised as a fuel because of the energy emitted. The first biodigester is filled with cow dung and water (1dm3 + 1 dm3), the second is filled with solid waste and water (1,5 dm3 + 0,5 dm3), and the third is filled with cow dung and biotech culture (2dm3) and is dubbed Control-K. After a time of homogeneity and stabilisation (4-12 days), each biodigester's biogas production was recorded, and the slurry (liquid component) was collected and used as liquid fertiliser. To summarise, biogas (biomethane) and liquid fertiliser were created from organic waste (biofertilizer).

Author(s) Details:


B. A. Jinjiri,
Department of Science Laboratory Technology, Mai Idris Alooma polytechnic, Geidam, Yobe State, Nigeria.


R. Sabo,
Department of Science Laboratory Technology, Mai Idris Alooma polytechnic, Geidam, Yobe State, Nigeria.


M. M. Mahmud,
Department of Science Laboratory Technology, Mai Idris Alooma polytechnic, Geidam, Yobe State, Nigeria.


M. Grandawa,
Department of Science Laboratory Technology, Mai Idris Alooma polytechnic, Geidam, Yobe State, Nigeria.


A. Haruna,
Department of Science Laboratory Technology, Mai Idris Alooma polytechnic, Geidam, Yobe State, Nigeria.


A. U. Mustpha,
Department of Science Laboratory Technology, Mai Idris Alooma polytechnic, Geidam, Yobe State, Nigeria.

I. B. Gashu’a
Department of Science Laboratory Technology, Federal polytechnic, Damaturu, Yobe State, Nigeria.


Please see the link here: https://stm.bookpi.org/IST-V6/article/view/6037