Archive for August, 2011
You know what is MBR?
MBR is the acronym of membrane bioreactor is a type of tool connected to the investigation of ceramic membranes.
Many fields of research on membranes, and many scholars engaged in research. Professor Pagilla is one of the leading exponents, will give some lectures in the CEIT (Centro de Estudios e Investigaciones de Guipuzcoa, Centre for Studies and Research of Gipuzkoa, in English).
Professor Pagilla is interested in physicochemical and biological methods of water pollution control. His current research is in developing sustainable technologies for nutrient control, aerobic and anaerobic membrane bioreactors for wastewater treatment, and improving bacteria for bioremediation of organic pollutants. Other work related to remediation of soil contaminated by organics and metals is also being pursued in his laboratory.
Professor Pagilla currently teaches courses in physicochemical and biochemical processes for water and wastewater treatment, design of treatment plants, and chemical and biological aspects of environmental engineering.
If you are interested in these technology issues do not hesitate to attend to “”Sustainable wastewater treatment in nutrient removal plants”. The WATERMATEX symposium specialises in general methods for solving problems related to water in an interdisciplinary framework that greatly relies on different types of models. Starting from this methodology, the symposium’s contributions can be extended to different areas of application without being limited to a particular discipline; the contributions deal with problems with water treatment and drainage systems, and surface and subterranean waters, among others.
WATERMATEX promotes the use of mathematic models for modelling and simulating, managing information and identifying systems within a wide spectrum, which brings together people from research, consulting firms, institutions and operators in order to think about ways to use models and computer tools to support the understanding, management and optimisation of water systems.Doctoral student Irene Castro was chosen to give a talk on the results of the ISIS project, which deals with the integration of intelligent safety systems and is financed by MEC. Her work focuses on the development of a sensor that is highly sensitive in low concentrations of formaldehyde.
More info / font: http://www.ceit.es/
Tags: membrane bioreactor, membrane bioreactors, organic pollutants, water and wastewater treatment, water pollution control
Restore Our Environment with Biosphere Technology
The destruction of our environment is just as devastating as today’s worldwide poverty. Effects of this ecological disaster are tragic floods in various places particularly in highly urbanized areas and extinction of our wildlife. The environment that serves as habitat is gradually ruined due to continuous industrialization, inefficient garbage disposal, conversion of forests to agricultural landmarks, and oil and coal exploitation. But, take a closer look of this situation, all the causes of environment deterioration are merely for human consumption. If we have the capacity to destroy the environment, so, too, we have the capacity to conserve and restore it.
We can restore the already deteriorating environment even in our own simple ways. If in our own house, we keep everything clean and safe so we could live comfortably, we can do the same with our planet. It is our home that we need to clean and protect. What is essential right now is that we find methods that could help in restoring our environment. Use of renewable energy and reforestation projects could mean a lot to resolve this environmental problem. We could rely on green technologies such as the biosphere technology which converts waste materials into clean green energy.
Biosphere Technology is a waste to energy system that efficiently and ecologically converts waste materials into green energy. It is a gasification process wherein waste materials undergo thermal decomposition at elevated temperature and oxygen starved environment. During this process a mixed gas is produced referred as synthesis gas which is used to fire the steam boiler for green energy generation. Moreover, in the entire biosphere process other marketable byproducts are produced such as inert ash, high alloy steel wire and carbon black. These by products can be used by other industries as raw materials.
Through biosphere technology, we could help clean up the environment by providing efficient and reliable solution for waste management and energy generation. This technology can significantly decrease our reliance on fossil fuels when it comes to energy production. We all know that energy is very important in global development and in sustaining our modes of livelihood. However if we continue to rely on fossil fuels particularly on oil, we are as well destroying our very own planet. Burning of fossil fuels emits greenhouse gases such as carbon dioxide that greatly contributes in global warming. Another problem with fossil fuels is it destroys our natural resources thus affecting ecosystems and wildlife. But with biosphere technology, it does need to exploit natural reserves since it uses waste materials to produce energy. This technology is even counted as renewable energy source based on American Energy Policy Act of 2005 and the Philippine Renewable Energy Law (RA 9513) of the Philippines which confirmed that energy from waste is renewable.
With various green technologies we can indeed restore our environment. We just have to change the way we are treating it. Remember it is our responsibility to take good care of our environment…its forests…and wildlife. As far as we are concern, it is our mission to take action and get involved in this matter.
Tags: ecological disaster, reforestation projects, steam boiler, synthesis gas, thermal decomposition
ZERO EMISSION CARBON REFINERY: organic waste added value processing (pyrolysis-biochar-bonecharcoal-biooil-soil biotech)
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The preventive pre-treatment environmental actions are safer, faster, better and in all included less costly versus the “end-of-the-pipe” post treatment solutions.
The “3R” novel indirectly heated rotary kiln pyrolysis and torrefaction technology provides carbonization / pyrolysis added value of carboniferous materials.
The goal of the 3R technology is to provide cost efficient and for long term environmentally sustainable carbon refining solution for energetic, agricultural and environmental applications. The main component of the 3R is a specially designed, indirectly fired, patented rotary reactor in which organics in a reductive environment are carbonised. e.g. gas-out and decomposed, in low vacuum (0-50 Pascal) up to the material core temperature 850°C degrees Celsius (1,562°F, degrees Fahrenheit). The carbonization temperature selection is feed material specific and in most cases temperatures between 450°C to 550°C (842°F – 1022°F) is sufficient for high efficient thermal decomposition under vacuum. The flexible operation provides wide range of 25 % to 125 % of nominal capacities. The basic material with <15 w/w % moisture content is introduced directly into the 3R reactor, or optionally pre dried. By control of the carbonization process, different types of pre-defined carbon end products can be produced, as of commercial production demanded schedule. The volatile HAPs are safely removed in the reduced volume of gas-vapor stream and converted to syngas and turned into surplus electric power. The standard industrial scale is from 30,000 m3/year (4 m3/h) continuous throughput capacity and optional larger capacities are available up to 420,000 m3/year (56 m3/h). Both electric fired and gas fired versions are available in full scale industrial design.
3R PYROLYSIS APPLICATION AREAS:
AGROCARBON: plant and/or animal bone meal basic material biomass carbonization and integrated biotechnological processing for biochar soil applications,
ENERGY clean coal processing: organic Sulphur removal fro coal streams by pyrolysis pre treatment process; bio-oil refinery to transport fuel quality.
WASTE MANAGEMENT: treatment of solid hazardous and/or non hazardous waste streams for environmental purpose with energy recycling;
3R PYROLYSIS Advantages:
Feedstock Flexibility: application of pre-treated multi fuels from wider fuel selection and availability.
Technology Flexibility: The flexible operation provides wide range of 25 % to 125 % of nominal capacities.
Zero Emission: The 3R is closed system, all process streams are recycled and reused for economical production of added value products.
Cost Reduction: decrease of overall production costs when all true value costs are calculated, including the environmental costs as well.
Improved Safety: application of preventive measures and separated downsized treatment of HAPs.
Process limitation: at refined carbon production the high input moisture content of the raw feed material is limiting factor, for waste management there is no limiting factor.
The innovative 3R technology opens new technical, economical and environmental ways to economically convert and valorize organic and/or inorganic by-products and/or waste streams into added value usefully refined products, while zero emission performance achieved. . The 3R inventor is the Swedish environmental engineer Edward Someus. Although the advanced high tech performance of the 3R industrial scaled design, the comprehensive solution does not containing exotic technical solutions and/or construction materials. Available for licensing.
THE “3R” PYROLYSIS TECHNOLOGY: Economical carbon refining of organic byproducts by low temperature carbonization pre-treatment process
The 3R (Recycle–Reduce–Reuse) Low Temperature Carbonization Process technology represents the original solution advanced new generation of solid feedstock-based carbon refining production system. By pre-treatment it breaks down any carbon-based feedstock into its basic constituents and removes contamination by preventive measure. This enables the preventive separation of HAP’s to produce refined carbon and clean syngas for efficient and improved electricity generation. The 3R technology may be applied as vital component for an integrated strategy towards near zero emission targets to combine technologies for environmentally sustainable and economical biochar processing and/or solid fuel power generation, including but not limited to the advantageous interlink to other cost efficient GHG management technologies to decrease or even removal of output green house gases, such as CO2.
The hearth of the 3R technology is the unique pyrolysis rotary kiln original and innovative solution design, which makes viable the reductive thermal decomposition – low temperature carbonization – of any organic feed material under stable conditions in reduced process streams.
The prime environmental aspects of the 3R technology are the safety, prevention and comprehensive treatment. The 3R technology meets the EU and the U.S. environmental norms and standards for long term, including the U.S. RCRA Miscellaneous Units 40 CFR 264 Subpart X with the following main characteristics for the 3R thermal treatment unit:
Thermal Desorption Chamber: indirect-fired heat source used for primary desorption chamber, relatively low operating temperature.
Air Pollution Control Devices “APCD”: non-destructive APCD used.
Waste Residual Management: treatment of residuals is separate from the desorber,
whereas the (1) primary desorption chamber, (2) condensation or burning of pyrolysis gas vapours and (3) non destructive APCD off gas scrubber are separate devices, whereas (a) treated solids, (b) condensate residuals, (c) APCD residuals, (d) organic air emission, (e) metal air emission, and the (f) acid gas emission treatment are according to all the relevant comprehensive U.S. regulatory requirements for Operational Control, Residuals and Air Emission Parameters. The environmental purpose of 3R thermal desorption is to volatilize contaminant streams in small process gas volumes and to remove them from the treatment chamber for subsequent treatment. From permit legislative point of view it should be noted that the treatment standards in the U.S. relevant legislation Sec. 268.45 for thermal destruction specifically exclude thermal desorbers.
3R pilot plant with industrial like performance has been built in Hungary under the EU FP5 NNNE5/363/2001 project (2001-2005). The pilot plant has a throughput capacity of up to 265 kg/h feed material and includes all vital components for the technology, such as indirectly heated rotary kiln, post burner, off gas scrubber, heat exchangers and process control electronics with software. Further agro industrial application has been developed under large scale European Union development programme EU FP6 514082 project (2005-2008), where comprehensive scientific and industrial scale up “biochar to soil” technology has been developed and tested in seven EU countries and Israel.
For pre-treatment a specific purpose designed, developed and patented pyrolysis technology used, “3R”, consisting of a horizontally arranged externally heated rotary kiln, where the contaminated feed material is carbonized and decomposed in true reductive environment under less than 850°C material temperature and vacuum. Specific pyrolysis gas-vapor post burner, multi venturi off-gas treatment scrubber and carbon heat exchanger used, which makes the 3R technology comprehensive and complete solutions. The flexible operation provides wide range of 25 % to 125 % of nominal capacities. The volatile HAPs are safely removed in the reduced volume of gas-vapor stream and converted to syngas, while the refined Clean Coal solid end product is utilized. “Product like” pilot plant has been built and successfully tested under semi industrial conditions in Hungary since 2005. Nine different types of feed materials (three types of brown coals with different S and ash content, hard coal, four types of biomass – straw, grain, wood chip, sawdust, animal bone meal), totally 111 tons, have been tested with up to 265 kg/h throughput capacity under 1779 hrs, incl. 594 hrs continuous run. The technical viability of the comprehensive 3R technology is demonstrated, including EU compatible industrial permitting from ten different Authorities and certification of ISO 9001 and 14001. Full scale application is designed with modular installation up to 420,000 m3/year solid fuel throughput.
The strategic aspect of the overall 3R technology development scientific/technological objectives is to develop highly flexible solid fuel pretreatment option to be developed and applied to achieve comprehensive benefits as follows:
Feedstock Flexibility: flexible choice by multi feed.
Technology Flexibility: The flexible operation provides wide range of 25 % to 125 % of nominal capacities.
Zero Pollutants: removed environmental impacts (HAP, GHG).The 3R is closed system, all process streams are recycled and reused for economical production of added value products.
Total Cost Reduction: ecrease of overall production costs when all true value costs are calculated, including the environmental costs as well.
Improved Safety: application of preventive measures and separated downsized treatment of HAPs.
Comprehensive Residual Utilization: more use of renewables.
Conclusion: The 3R pyrolysis technology is a clear solution to a complex environmental, economical and energy efficiency challenge for the first three decades of the 21st century:
All energy use affects the environment.
For any given resource, technology choices and management practices alter environmental consequences.
Reductive thermal processing (pyrolysis) technologies for renewable and pretreatment purposes are, in the vast majority of cases, preferable to conventional technologies.
Most conventional energy technologies are ultimately unsustainable.
Furthermore, the costs of large-scale carboniferous byproduct processing and valorization by 3R pyrolysis means provides sustainable environmental and economical benefits.
The “3R” Recycle-Reduce-Reuse technology provides reductive thermal processing valorization of low grade solid carboniferous byproduct and waste streams of plant, animal and/or low grade coal origin. The 3R technology may be applied as vital component for an integrated strategy towards near zero emission targets to combine technologies for environmentally sustainable and economical solid material processing for agricultural soil biochar use, clean coal for clean energy and/or waste processing, including but not limited to the decrease or even removal of output green house gases, such as CO2.
For reductive thermal processing valorization a specific purpose designed, developed and patented pyrolysis technology used, “3R”, consisting of a horizontally arranged externally heated rotary kiln with electric or gas fired options, where the diverse feed material is carbonized and decomposed in true reductive environment under less than 850°C material temperature and vacuum. Low process gas volume generated, which energy content is recycled by syngas processing or post burner options, and post treated by specific off-gas treatment scrubber. The flexible operation provides wide range of 25 % to 125 % of nominal capacities.
“Product like” pilot plant with <265 kg/h throughput capacity has been built and successfully tested and demonstrated in Hungary in 2005, thereafter in 2005-2008 industrial scale up with 4 m3/h throughput capacity is designed with up to 420,000 m3year throughput option. The 3R advantages are the feedstock and technology flexibility, zero emissions, cost reduction and cost decrease of overall production economy when all true costs are in-calculated and improved safety.
Acknowledgment: the past eight years scientific research works and construction of the 3R pilot plant has been co-financed by the European Commission DG Energy and Transport (EU FP5 contract no. NNE5/363/2001) and the European Commission DG Agriculture (EU FP6 514082) under European Science and Technology frame work cooperation programmes with scientific excellence center cooperations from eight countries. The 3R Environmental Technologies Ltd continuously developing its web sites http://www.3ragrocarbon.com and http://www.terrenum.net to provide information and consultation for public.
Tags: c degrees, flexible operation, rotary kiln, thermal decomposition, throughput capacity
Motor Homes And Green Choices
You will find many ways that you can transform motor homes to make them greener. You will also find motor homes on the market that are already green and sustainable. Some of the types of green options for motor homes are solar panels or environmentally friendly paint. Think about helping the environment and make your RV green. Or, if you are searching motor homes that are new or used for purchase, then think about buying one that is green and efficient.
Think seriously about purchasing one of the green motor homes that are on the market today. If you already own one of the many makes of motor homes available, then think seriously about transforming it to a green RV.
There are interior furnishings that are renewable for motor homes, as well as sustainable materials that make up the variety of makes and models of motor homes. These green options for motor homes will continuously increase as technology continues to advance. Green options will also continue to become more common and affordable.
1. RV solar panel power kits that recharge your batteries during the hours of daylight.
2. You can also purchase a photovoltaic panel, which is an alternative to a generator for recreational vehicles. These panels do not have to be plugged in. You only need to keep them clean.
3. On the roof of your RV, place solar panels as an energy producer.
4. Wind turbines can be installed, too. They are also energy savers for your towable travel trailer or recreational vehicle.
5. try decorating with materials that are sustainable, such as bamboo, hemp, or organic cotton. These materials lessen the impact on the environment. Bamboo is one of the most popular materials that comes from stems growing one to two inches an hour; ending up as a silky, microbial material. Hemp is a bit rougher, but is more durable. Organic cotton is hand picked.
6. Try to find woods that use low formaldehyde.
7. A bio-diesel engine is a great green item. It is pricey to convert your current RV engine, but doable. Price around to see different costs. If it is out of your price range to convert your RV, then maybe purchase a new or gently used one.
8. A great green item is a LED fixture. LED fixture s can be used in recreational vehicles or travel trailers rather than using common light bulbs. Do this in your home, too.
9. If you are considering touching up the interior of your RV, try painting with paint that is non-toxic and environmentally friendly.
Being green in your recreational vehicle is easier than you think. Look for makes and models of RVs that are being sold new, but also think about transforming your own RV. You can lead the green movement with you RV.
Tags: bio diesel, microbial material, photovoltaic panel, rv place, wind turbines
Sustainability Reporting
Sustainability Reporting
Sustainable development implies development that meets the needs of the present generation without compromising the ability of future generations to meet their own needs.
Role of Business in Sustainable Development
The business and industry sector has a significant role in promoting sustainable development.
Business must make money; and staying in business and prospering is a fundamental value of any for-profit enterprise. At the same time, business is required to take into account the interests of all stakeholders that include customers, employees, investors, vendors, government and the society.
The late 1990s and early 2000s were turbulent periods for the global investment community, with vast amount of shareholder wealth being created and destroyed. Both the institutional and retail investors have learnt some painful lessons, re-examined their assumptions about what constitute tangible and intangible value, and broadened their scope to consider characteristics that could lead to long term financial success.
One area of corporate performance that has begun to capture the attention of investment professionals is sustainable development:a set of responsibilities that contributes directly to an organisation’s risk management profile and is sometimes also linked with corporate responsibility.
There is considerable evidence that sustainable development contributes to shareholder value in a variety of ways-not only through tangible contribution such as risk reduction and profitability improvement, but also through intangible asset creation such as brand equity, human capital, etc. Operating business by pursuing the sustainable development path strengthens an organisation’s intangible assets in a number of ways that in turn leads to tangible shareholder value creation.
It is now globally recognised that following sustainable development path makes good business sense. This entails various approaches. For example, eco-efficiency is based on a common sense proposition that reduces waste and inefficiency in production processes, saves money and protects the environment at the same time. Life Cycle Analysis (LCA) offers a framework for understanding material flaws and potential impacts involved with providing services or products in a closed loop. Sometimes referred to as ‘cradle to cradle’ or ‘cradle to grave’, LCA looks at an enterprise in terms of input, throughput and output. This helps to identify inefficiencies that drain profit and produce waste including pollutants.
Many of these approaches: e.g. eco-efficiency, LCA, full cost accounting, industrial ecology, systems – based pollution prevention, etc. are new to the business world. Businesses keen to benefit from transition to sustainable development path therefore need to prepare themselves and have a longer time horizon and a broader set of goals than traditional companies.
Realisation and recognition of the significane of sustainable developm
ent approach usually starts from the top management. However, best intentions are meaningless if these are only lodged in the minds of a few individuals. Values of sustainable development has to permeate throughout the organisation. Changing a company’s culture and outlook requires a contribution from everyone – starting from the chief executive officer and permeating through senior, middle, junior management and staff and all working as a team.
To make this change happen towards sustainable development approach, it is important to:
Prepare a mission statement Form in-house waste reduction and pollution prevention teams Inform employees about economic, environmental and social trends Maintain regular communication lines Have commitment for community development efforts Be committed to honest and accessible public relations Measure and report on progress and performance Prepare annual sustainability report
Corporate Social Responsibility
Drivers pushing business towards CSR:
Shrinking Role of Government. Demands for Greater Disclosure Increased Customer Interest Growing Investor Pressure Competitive Labour Markets Supplier Relations
Business must make money; and staying in business and prospering is a fundamental value of any for-profit enterprise. Companies therefore owe responsibility to their shareholders for improving profitability and enhancing shareholder value. At the same time, companies are required to take into account the interests of all their stakeholders that include customers, employees, investors, vendors, government and the society.
It is in this context that Corporate Social Responsibility (CSR) assumes a significant role. CSR is underpinned by the idea that companies can no longer act as isolated economic entities in detachment from broader society. Traditional views about competitiveness, survival and profitability are undergoing a paradigm shift.
Sixteen principles of Business Charter for Sustainable Development prepared by ICC.
Corporate Priority Integrated Management Process of Improvement Employee Education Prior Assessment Products and Services Customer Advice Facilities and Operations Research Precautionary Approach Contractors and Suppliers Emergency Preparedness Transfer of Technology Contributing to the Common Effort Openness to Concerns Compliance and Reporting
Sustainability Reporting
As a result of the global upsurge of interest in sustainable development, sustainability reporting system has emerged. “Sustainability Reporting” means reporting on the economic, environmental and social aspects of organisational performance (also known as “triple bottom line”). It may be clarified that the term “sustainability” does not mean that a company is sustainable or that it will continue in existence for any specified period of time. On the other hand, sustainability reporting is designed to provide information on a company’s environmental, social and economic performance and impacts and the initiatives for improving performance in these areas. The World Business Council for Sustainable Development (WBCSB), a coalition of about 175 international companies united by a shared commitment to sustainable development, defines sustainability report as ‘public reports by companies to provide internal and external stakeholders with a picture of corporate position on activities on economic, environmental and social dimensions.”
In view of the objectives of sustainability reporting and the audience it targets, the GRI Guidelines provide eleven principles for reporting grouped in four clusters. These are:
Cluster 1: Framework of the Report
Transparency Inclusiveness Auditability Cluster 2 : Decision on What Information to Report Completeness Relevance Sustainability Context
Cluster 3 : Quality and Reliability of Reported Information
Accuracy Neutrality Comparability
Cluster 4 : Accessibility of Reported Information
Clarity Timeliness
Contents of an Ideal Sustainability Report as per GRI Guidelines
1.CEO Statement
A statement of the CEO or equivalent senior management person describing key elements of the report. It is suggested that the CEO’s statement should include:
highlights of the report content and commitment to targets; commitment of the company’s leadership to economic, environmental and social goals; statement of successes and failures; performance against benchmarks; the company’s approach to stakeholder engagement major challenges in integrating responsibilities for financial performance with those for economic, environmental and social performance and the implications for future business strategy.
2. Profile of the Reporting Company
An overview of the reporting company and the scope of the report to provide a context for understanding and evaluating information in subsequent sections.
This section of the report should include:
organisation profile scope of the report profile of the report
3.Executive Summary and Key Indicators
A succient overview of the report
4.Vision and Strategy
Provide the vision of the reporting company for the future and discussion on how that vision integrates economic, environmental and social performance.
It should especially address:
what are the main issues for the company relating to the major themes of sustainable development? how are stakeholders included in identifying these issues? for each issue, which stakeholders are most affected by the company? how are these issues reflected in the company’s values and integrated into its
business strategies?
what are the company’s objectives and actions on these issues?
5.Policies, Organisation and Management Systems
An overview of the governance structure and the management systems that are in place to implement the vision. Central to this section of the report is a discussion of stakeholder engagement.
6. Performance
Performance should be addressed across social, economic and environmental areas of impact and activity as well as on an integrated/cross-cutting basis, if possible
7. GRI Content Index
A table identifying location of each element of the report content by section and indicator.
Relationship Between Sustainability and Financial Reporting.
Sustainability reporting communicates a wide range of subject matter about environmental, social and economic impacts arising from a company’s activities, products and services. Economic impacts include but are not limited to financial performance in meeting the expectations of investors and lenders. On the other hand, financial reporting communicates about a company’s performance in creating value for investors and its accountability for monetary resources invested in it. Sustainability reporting and financial reporting both communicate about risks and intangibles, but do so in ways that are different and partially complementary.
Sustainability Reporting has the potential to provide critical information for business analysis that is normally absent from financial reports. These information facilitate financial reports with forward-looking information that could enhance the report users’ understanding of such key value drivers as human capital formation in the company, corporate governance, management of environmental risks and liabilities and the capacity to innovate. It provides insight to support business analysis and has relevance within the framework of traditional financial reports.
By consistently measuring sustainability performance, companies could strengthen both their internal business practices and their external communication. The succeeding paragraphs briefly outline how the advantages of sustainability reporting could strengthen translating sustainability information into the language of financial analysis.
Increased process efficiency is an example of a proven sustainability strategy for decreasing cost and improving profitability. Opportunities to reduce costs or create revenues through increased yield and sale of waste streams exist throughout the value chain of a business and could offer significant benefits.
Cost analysis could be greatly enhanced by a holistic approach to assessing risks and uncertainty, which have strong links to environmental and social concerns.
Sustainability initiatives and strategies also provide opportunities for product differentiation – a key component of competitive advantage. Companies could reposition their products and services as part of their attempt to reduce their environmental or social impacts. In the process, this would help differentiating their products and services in a manner that would enhance their competitive position.
Other intangible assets such as intellectual capital, ability to innovate, investment in research and development and networks and alliances are integral to analysing a company’s financial prospects. These assets are influenced by the company’s commitment to training, skill development, employee relations and employee turnover – a foci of social performance indicators in sustainability reporting.
Innovative partnership with stakeholders around environmental or social aspects of products or markets could lead to product differentiation and brand enhancement.
In other words, ample opportunity exists to translate sustainability information into a form that speaks to the needs of the financial analysts. Sustainability reporting offers real value to those whose business is to assess the current financial health of companies and anticipate future performance. At present, the content of sustainability reports tend to appear in forms and units that are not readily convertible into financial terms; but rapid advances in areas such as environmental management accounting, valuation of intangible assets and value reporting promise to make sustainability information useful to the financial community.
Sustainability Assurance
Companies value the overall contribution that assurance makes to the sustainability reporting process. Organisations in the forefront of sustainability reporting assurance also recognise the key role that they have in ensuring the credibility and usefulness of information flows within the organisation, especially from non-traditional and non-commercial sources.
Currently, there are only two recognised professional standards for carrying out sustainability reporting assurance. These are: AA 1000 – assurance standard developed by the Institute for Social and Ethical Accountability; and ISAE 3000 provided by the International Audit and Assurance Standard Board which is a part of the International Federation of Accountants.
Trends in Sustainability Reporting
Sustainability reporting has become a common practice in a number of countries like
the USA, Europe, Japan and Australia. Sustainability reporting is yet at an emerging stage in Asia, Latin, America, Africa and Russia.
Though sustainability reporting is not mandatory in India, a small but a sizeable number of both subsidiaries of multinational and local companies are preparing sustainability reports mostly based on GRI guidelines. However, majority of these companies are focused on community initiatives rather than governance risk and disclosure.
With globalisation, Indian companies are increasingly realising that they have much to lose by not following sustainability reporting norms. Indian companies now see sustainability reporting as central to corporate social responsibility with “passive philanthropy” no longer a sufficient response to rising expectations.
Conclusion
The goal of sustainable development requires that the businesses take responsibility for their social, environmental and economic impacts. Sustainable development can provide business with an opportunity to innovate and a means to grow at each level and step of business operation. Making the right choices within a company, whether it is newly exposed to the concept of sustainable development or is already advancing its sustainability agenda, contributes to the company’s long term success.
It is a matter of making the right choices and setting the right priorities. This underlies the need for a positive mind set towards sustainable development. Wider the spread of sustainability, greater the chances of its success. In order to attain this, rising awareness and hence education, is key.
Tags: global investment community, profitability improvement, promoting sustainable development, shareholder value creation, shareholder wealth