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BEST Pyrolysis, Inc. | Slow Pyrolysis - Biomass - Clean Energy ... - [ Traduzir esta página ] BEST Energies' Slow Pyrolysis technologies allow the concurrent production of multiple energy streams including syngas for electrical generation, ... www.bestenergies.com/companies/bestpyrolysis.html - 35k - Em cache - Páginas Semelhantes - Anotar isso BEST Energies, Inc. | Clean Energy from Biomass Waste Resources ... - [ Traduzir esta página ] BEST Energies, Inc. - BEST BioDiesel - BEST Pyrolysis - BEST BioDiesel Cashton, Wisconsin - BEST Energies Australia. BEST Energies, Inc. is a leader in the ... www.bestenergies.com/ - 35k - Em cache - Páginas Semelhantes - Anotar isso Mais resultados de www.bestenergies.com »

The pyrolysis of biomass is a thermal treatment that results in the production of charcoal, liquid, and gaseous products. Among the liquid products, methanol is one of the most valuable products. Methanol can be used as one possible gasoline replacement for conventional gasoline and diesel fuel. Methanol can be produced by pyrolysis of biomass. Methanol mainly arises from methoxyl groups of uronic acid and from the breakdown of methyl esters and/or ethers from decomposition of pectin-like plant materials. The maximum methanol yields (12.19% at 825 K) for hazelnut shell was obtained from a Na2CO3 (30% of dried sample) catalytic flash pyrolysis run. The yields of liquid products from the samples increased with an increasing of the amount of Na2CO3 from 10% to 30%. The maximum liquid yield from yellow pine was 51.2% at 875 K. The yields of liquid products from the samples depended on the amount of K2CO3 and the temperature. The maximum liquid yield from yellow pine was 49.5% from a 30% K2CO3 catalytic run at 875 K. The catalytic effect of Na2CO3 was slightly higher than that of K2CO3 for hazelnut shell, tea waste, and yellow pine samples.

Mass Balance projects Mass Balance Study into thermal methods of waste treatment Organisation C-Tech Environmental Group Project Aim The aim of the project is to critically evaluate a range of techniques from published data on gasification, pyrolysis, plasma gasification, microwave pyrolysis, hydrolysis and encapsulation, to provide a reference document for the waste management industry, government and other stakeholders. Project Report 1826-00237.pdfThermal Methods of Municipal Waste Treatment Return to list

Economical CO2, SOx, and NOx capture from fossil-fuel utilization with combined renewable hydrogen production and large-scale carbon sequestration Danny Daya, Corresponding Author Contact Information, E-mail The Corresponding Author, Robert J. Evansb, James W. Leec and Don Reicoskyd aEprida, Inc., 6300 Powers Ferry Road, Suite 307, Atlanta, GA 30339, USA bNational Renewable Energy Laboratory, 1617 Cole Blvd, Golden, CO 80401, USA cOak Ridge National Laboratory, 4500N, A16, MS-6194, Oak Ridge, TN 37831, USA dUSDA-Agricultural Research Service, 803 Iowa Avenue, Morris, MN 56267, USA Available online 17 November 2004. Purchase the full-text article References and further reading may be available for this article. To view references and further reading you must purchase this article. Abstract The objective of this project was to investigate and demonstrate production methods at a continuous, bench-scale level and generate sufficient material for an initial evaluation of a potentially profitable method of producing bioenergy and sequestering carbon. The novel process uses agricultural, forestry, and waste biomass to produce hydrogen using pyrolysis and reforming technologies conducted in a 50 kg/h pilot demonstration. The test runs produced a novel, nitrogen-enriched, slow-release, carbon-sequestering fertilizer. Seven kilograms of the material were produced for further plant growth response testing. A pyrolysis temperature profile was discovered that results in a carbon char with an affinity for capturing CO2 through gas phase reaction with mixed nitrogen-carrying nutrient compounds within the pore structures of the carbon char. A bench-scale project demonstrated a continuous process fluidized-bed agglomerating process. The total amount of CO2 sequestration was managed by controlling particle discharge rates based on density. The patent-pending process is particularly applicable to fossil-fuel power plants as it also removes SOx and NOx, does not require ene

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