Biogas Upgrading Technologies Markets Analysed - for the Asia Pacific Region

Summary of a new report on Biogas Upgrading: Technologies and Global Markets with a Focus on Asia-Pacific :

We hope you like the following article. Please visit their website for the full article. The link is provided at the end of this article:

An overview – with a focus on Asia-Pacific – of biogas upgrading with discussion of the advantages of biogas compared to other forms of renewable energy, global greenhouse emissions, and the barriers to large-scale biogas plant deployment Analyses of market trends, with data from 2010, estimates for 2011, and projections of compound annual growth rates (CAGRs) through 2016 Coverage of the market by upgrading technology type, including pressure swing adsorption, water scrubbing, membrane technology, cryogenic upgrading, and in situ methane enrichment, with a breakdown of market values by technology type Evaluations of feed sources, including sewage sludge, biowaste, landfill gas, and energy crops Examination of the industry structure, with comprehensive company profiles.
Explore comprehensive Table of Contents of this report @ http://www.reportsnreports.com/reports/135858-biogas-upgrading-technologies-and-global-markets-focus-on-asia-pacific.html

STUDY GOALS AND OBJECTIVES

Renewable, sustainable energy generation will be the fastest-growing energy sector over the next two decades.  From 2010 to 2016, the market is projected to rise from $124 billion in 2010 to $217 billion in 2016.  Price volatility, supply concerns, and the environmental aspects of fossil fuels are expected to accelerate the pace of all non-fossil fuel development.

At this writing, the price of oil has hit highs of more than $100 per barrel on the world market, while U.S. drivers are paying nearly $4 per gallon of gasoline.  Renewable domestic energy supplies are seen as a means of overcoming these problems.  Biogas, a clean fuel derived primarily from waste materials, is an important alternative to conventional fossil energy.

This Biogas upgrading report provides an in-depth analysis of the world market for the biogas upgrading equipment used to transform crude biogas from waste materials and energy crops into sustainable energy.  Six types of upgrading systems are reviewed: water scrubbers, pressure swing adsorption systems, physical absorption and chemical absorption units, membrane systems, and units based on cryogenic technology

Four categories of materials are evaluated as feed sources for biomethane production: municipal wastewater (sewage sludge), agricultural wastes and energy crops (manure, agricultural residuals, and purpose-grown crops), biowaste (industrial organic wastes and the organic fraction of municipal solid waste), and landfill gas.  Two different end uses for the gas are also examined, injection to the natural gas grid and transportation fuel.

The biogas production and biogas upgrading markets are far better developed in Europe than in North America, so it is the main focus of this study.  Germany has, by far, the largest number of upgrading plants, most of which feed into the grid.  Sweden ranks second, with the bulk of its facilities purifying biogas for use as vehicle fuel.

So far, North America’s upgrading capacity is primarily based at landfills; little new capacity has been built over the past decade.  Although Asia has the largest number of biogas generating systems, the vast majority of these are small-scale plants that serve single dwellings or small communities.  In the rest of the world, biogas production is at different stages of development; however, gas upgrading is only just emerging.

REASONS FOR DOING THE STUDY

The need to responsibly dispose of mounting volumes of waste and the requirement to procure sustainable, secure energy supplies are two of the most important issues facing governments and industries around the globe.  The production of energy from a number of waste streams (i.e., municipal and domestic sewage, industrial wastewater, landfills, livestock manure, and agricultural residues) is a process that addresses both of these challenges.

In the current waste-to-energy market, anaerobic digestion offers a sustainable conversion process.  With the addition of a biogas refining step, the waste-derived gas can be used in all applications where conventional natural gas is used.  In this context, it is important to have an overview of the market and the drivers that support adoption of the best strategies by governments responsible for sustainable waste handling and energy supply solutions.  It is also important for industry players and technology developers to understand current as well as future trends in order to strategize their investments.

INTENDED AUDIENCE

This study intended to be useful to a broad audience.  Because they stand to see the greatest profit from expansion of the biogas industry, manufacturers and suppliers of biogas upgrading equipment and providers of upgrading technology would likely benefit the most from the data contained in this study.  Companies with plant components, ancillary equipment, and related products also might profit from the information collected here.

These include manufacturers and suppliers of anaerobic digesters and digester technology, biogas distributors, water and power
engineering firms, suppliers of power plants and electricity generating equipment, environmental management firms, companies specializing in anaerobic digestion equipment and other water and wastewater treatment equipment, companies developing additives (chemicals, enzymes, etc.) to enhance gas production yields and process efficiencies.

Other beneficiaries of biogas upgrading that might find this study of value are farmers, participants in the food industry, waste processors, transportation sector players, and project developers and investors.

SCOPE OF REPORT

The scope of this report is the global market for biogas upgrading equipment.  Market value and growth is evaluated for six different types of upgrading systems: water scrubbing, pressure swing adsorption, physical absorption, chemical absorption, membrane separation, and cryogenic technology.

The market is broken down by four different feed sources: municipal and domestic sewage, industrial wastewater, landfill gas, and agricultural wastes, a category that includes animal manures and crop residues.  Additionally, the market is examined according to end use, injection into the gas grid and transportation fuel.

A discussion of the market by world region includes overviews of North America, Europe, Asia, and the rest of the world, with individual profiles for countries most active in each region.  Present market status, biogas upgrading plant installations, and policies and incentives that support the industry are given for each country.  All market valuations and projections cover the years from 2000 to 2016.

Market figures are based on the revenues derived from equipment sales and are projected in 2011 constant dollars (i.e., inflation is not computed into the projection figures).  The revenue figures are derived from estimated revenues of the key players in a particular year.

A technology overview, a discussion on the structure of the industry, and brief profiles for major participating companies are included.  The machinery used to transform the gas to electricity: reciprocating and other types of gas engines, turbine and microturbines, and fuel cells, is not included in the analysis.

Inquire before buying or Request a Sample of the report 'Biogas Upgrading: Technologies and Global Markets (Focus on Asia-Pacific)' @ http://www.reportsnreports.com/reports/135858-biogas-upgrading
-technologies-and-global-markets-focus-on-asia-pacific.html

View the original article here

The New Waste Technologies: Recycling and Creating Energy From Waste

Many governments, towns and communities throughout the Western world are making new rules concerning the treatment of Municipal Solid waste (MSW). New concepts of waste management are needed in which the idea of recycling is of major importance.

Incineration will be used for the easily burnable fraction of what cannot be recycled, and for some kinds of hazardous wastes such as hospital waste, while the left over will be disposed of in sanitary MSW landfills.

The recycling of products is best done at source by the public when they put their waste out for collection and this is called source separation. However, if the waste is mixed up when collected it can still be separated again by mechanical separation plants or by hand picking using human labour and a conveyor.

The plants in which the separation of mixed wastes is carried out are usually called Mechanical Bioligical Treatment Plants, or MBTs. These plants cost a lot to build, are expensive to run. They also use a lot of power which reduces the value of recycling by expending non-renewable energy in the process.

The last decade has seen source separation introduced in many countries, especially in Scandinavia, Germany, the Netherlands, Switzerland, Austria and Canada. Now, more recently source separation is being implemented in the United Kingdom and the rest of Europe now that European Waste Regulations require so much of the MSW produced not to be landfilled.

The most important reasons to separate waste at the source are:

- The difficulty to find sites for new landfills and the negative attitude of the public towards landfilling and incinerating.

- Source separation improves the quality of the products which will have to be recycled. The fact that the organic fraction is separated from the inorganic fraction means that the organic fraction will have a low concentration of heavy metals and will be free of metals, glass and stones, while the inorganic fraction will be drier and less dirty.

The degree of recycling which can be achieved depends of the system used for source separation but it is the highest if the separated waste is picked up at the houses in separate containers.

A high percentage of recycling can only be achieved though by recycling the organic fraction of MSW whereby anaerobic techniques such as the anaerobic digestion process are very promising since they not only produce a humus-like residue, comparable to the compost produced in aerobic conversion techniques, but also a form of energy, biogas, which can be easily upgraded to several forms of valuable energy.

So, by source separating your waste you can make a difference - especially if there is an Anaerobic digestor in your area.

Why not find out more about waste technologies, and encourage your friends to recycle. Your children and later generations will benefit - don't they deserve the same opportunities you had?

Steve Last is a regular contributor of waste management related articles. Visit http://www.waste-technology.co.uk, the Waste Technology Web Site to find out more.

He also maintains a dog breed and many others at The Dog Breeds Compendium Tibetan Terrier page.