Introduction

European energy market undergoes rapid expansion due to environmental awareness, rising energy prices and environmental regulatory measures. This market offers many opportunities and services and independent energy service companies operating throughout the energy value chain and as B2B and B2C markets. Scope

* future benchmark for the relative attractiveness of the energy market across the EU-27, which then is the key to the structural energy meter.

* Energy and intensity forecasts, electricity prices, capacity margin forecasts and evaluating consumer appetite ‘green’ and references.

* Analysis of successful programs, and information about where the future opportunities in the market, the energy could be.

* Data from successful partnerships with energy service companies and utilities, and an explanation of why they acted.

highlights the relative attractiveness of the European energy market moves significantly in the coming years to their present location. In 2015, evaluate, Germany, Sweden, Italy and the Netherlands will provide opportunities for the initiation of the strongest overall energy efficiency of products and services.

Germany, Sweden, Italy and the Netherlands’s largest energy market potential for new market entrants over the next five years, while Germany, Italy and the Netherlands the largest gas efficiency of the market potential of new entrants in the same period.

Utility players in B2C market are based offerings either in disseminating information about services or improvement of products and services. In both cases, several functions to produce increasingly sophisticated and targeted, and try to differentiate their offerings and increase market share.

Reasons to buy * Discover which countries have the highest market attractiveness and competitiveness of the intensity of the results, the references in the annual spending power of the market .

* compare and contrast the energy efficiency of the services and successful strategies employed in both new and non-utility energy service companies.

* Benchmark competitors supply in order to determine where the possibilities of the future European energy markets are.

Contents:

“Revision 1 Catalyst 1 Summary 1

Analysis Resources 1 2
energy efficiency of the MAI, Spain, Slovenia and Germany are currently offering an attractive environment for access to the energy efficiency of products and services in two
Energy B2C and B2B will supply the energy services the utility departments and non-utility players will benefit from two
MOI has developed to assess the appetite for energy efficiency products and services in two
MOI shows how attractive environment, particularly newcomers three
MAI is based on a weighted average of the results of more than 10 key valuation parameters to produce the 100 4
energy efficiency of the MAI, Spain, Slovenia and Germany are currently an attractive environment for the introduction of the energy efficiency of products and services 5
Since the beginning of the century, energy efficiency and the EU27 countries has increased considerably in some cases, 5
past 10 years , the gas efficiency of the EU-27 countries increased, albeit to a lesser extent 6
Since the beginning of the century, the power consumption is growing in all EU27 Member States have led to efficiencies 7
growth in gas consumption has led to the growth of the gas efficiency of the whole European market, albeit in different degrees, 8
Energy efficiency can be replaced by a tight capacity margins in many markets and is inexpensive proxy for new production capacity 9
higher electricity prices to increase demand for energy efficiency measures 10
attitudes and behavior can influence appetite, energy-efficient products and services 11
Adoption of energy and measures to reduce water consumption exceeds the micro-generation and 12 green fees
consumers’ willingness to pay more for energy efficient products and services, an important factor in the successful entrants in 1913
review energy suggests that the Slovak Republic, Slovenia and Germany are the strongest policy environments in Spain in 1914
heads over to the MAI, when Romania
15 routes over the next five years, Germany, Sweden, Italy and the Netherlands the strongest potential for an overall energy efficiency of products and services 16
energy efficiency of the main economies of Europe will continue to grow, albeit at a slower pace than seen over the past decade 16
The average gas efficiency in all EU27 Member States, gradually slow down over the next six years 17
constant power increased in all EU-27 countries will continue to drive energy efficiency 18
gas efficiency of the sector to its upward trend, the back of continued strong demand for gas in Europe continue
19 Energy efficiency measures is likely to arise in those countries where future capacity margins are set to fall or turn negative in 1920
Estonia is the highest in the MAI 2010-1915, while Poland Routes 21
Germany, Sweden, Italy or the Netherlands has the most energy efficiency market potential for new entrants 21
Germany, Italy and the Netherlands again the largest gas efficiency of the market potential for new entrants to the market 23
Most of the tools for generic tools to confirm the introduction of energy efficiency measures between B2B and B2C clients to promote, although some employees more innovative approaches to 24
German utility E. ON offers a wide range of energy efficiency services, both B2B and B2C market in an effective 24
E. ON has impressive results in energy efficiency initiatives achieved due to a wide range products and services 25
EDF is not significant to the energy service delivery contributed in 2009, with its focus remaining campaigns 26
British Gas one of the most comprehensive portfolio of energy-efficient products and services to B2B and B2C market 27
British Gas, the scope of energy services through various acquisitions and joint ventures 28
Iberdrola has given the business opportunities that energy efficiency presents 29
Vattenfall Energy service delivery has varied by region, depending on the specialization of regional factors in web 30
ESB site is more energy-efficient tools in most other European utilities 31
The price is still the driving force energy efficiency investments in commercial construction strategies
32 ESCOs represent different groups, depending on what services they offer and what markets they are targeted at 33
building efficiency projects is the most popular strategy because ESCO they are easily accessible victory 33
Eaga is one of the few ESCO will focus on energy efficiency in the B2C market 34
HEP ESCO’s success shows the important role of supranational bodies forward in the energy services sector 35
operon advantage of British law so that the energy market in 1935
Dalkia – Energy services arm of Veolia Environment – serves the entire energy market to 37
partnerships, they can put their product and service offerings, and to infiltrate a new market in 1938 39 Annex

Ask the analyst 39 consulting 39 Disclaimer 39

List of Figures Figure 1: MAI shows how attractive environment, in particular three newcomers
Figure 2: The MAI is based on a weighted average of the scores on 10 key parameters for the classification to produce 100 4
Figure 3: In the past 10 years, the largest increase in energy efficiency are taken into the Eastern European countries
5 Figure 4: Portugal, Spain and Greece are happy that the gas-efficiency, especially high gas consumption growth of 6
Figure 5: The power consumption levels in most of the EU27 Member States have increased every year since July 2000
Figure 6: Growth in consumption of natural gas fluctuates between 27 and is the largest Greece and the Iberian countries
8 Figure 7: Energy efficiency can contribute by setting off a tight capacity margins in Finland, Latvia and Slovakia (average 2010 capacity margin data) 9
Figure 8: East European countries show a large spread between the local currency prices and the purchasing power of the normal price of 10
Figure 9: citizens of a handful of countries in the state of global warming to their greatest concern, and shows the willingness to act in accordance with 11
Figure 10: Products and services for energy and water reduction are the most popular, especially in Cyprus, Denmark and Germany, 12
Figure 11: Only nine of the EU27 countries would be willing to exceed the European average of greener energy sources in 1913
Figure 12 year: energy suggests that the Slovak Republic, Slovenia and Germany are the strongest policy environments
14 Figure 13: Spain has the highest Thanks to the results of the MAI an attractive and well-balanced market and strong consumer friendly “attitude, closely followed Germany and Slovenia in 1915
Figure 14: Waiting for 2015, Poland, Romania and Slovakia are expected to make big power efficiencies
16 Figure 15: It is expected <- next page -!> that Poland, Romania and the Slovak Republic will have the greatest efficiency in gas to drive 2015 1917
Figure 16 : In the next six years, electricity consumption expected to rise in all 27 Member States, albeit a very different pace
18 Figure 17: High growth of gas consumption in Estonia, Latvia, Lithuania and Romania gas efficiency opportunities in these countries
19 Figure 18: The projected capacity margin constraints to drive increased efficiency
20 Figure 19: By 2015, the attractiveness of the European energy market is expected to be significantly shifted from the current position of 21

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global energy consumption is high and rising, the traditional energy resources become scarce and expensive. Moreover, the emissions from the use of fossil fuels linked to global climate change and to grow in many countries are subject to regulation. Consequently, governments, businesses and consumers around the world looking for products and services to increase energy efficiency.

World Trade energy consumption was 462 quadrillion Btu in 2005. In the future world energy consumption expected to grow 19% from 2015 to 551 quadrillion Btu in 2005. Conventional fuels such as oil and other liquid petroleum products, natural gas and coal, the world’s largest sources of energy.

Together these sources to be approximately 85% of the energy in the world in 2010. Even considering technological advances and the share of renewables in the global supply of conventional fuels is expected to remain unchanged until 2015. If fossil fuels, these resources are limited, and current projections suggest that in a relatively short period of time. Moreover, the use of biofuel leads to the emission of greenhouse gases linked to global climate change. Together with the fact that the electricity used in the production of these sources is still expensive, the current energy consumption patterns are unsustainable.

Products and Services Information and Communication Technology (ICT) sector to enable the energy efficiency and emission reduction. ICT can be used to capture, analyze and explore the vast amounts of information, which may lead to optimizing the energy consumption in large, energy-dependent sectors such as energy, industry and logistics to respond. Moreover, ICT products and technologies to reduce energy consumption in various sectors to reduce through intelligent buildings, dematerialisation and reimbursement of travel expenses. Concurrently have many innovations and developments taking place in the ICT sector is expected the energy consumption of ICT products to reduce them.

continuous development and deployment of powerful computers and peripherals, servers and data center cooling technologies, telecommunications equipment and infrastructure is expected to energy efficiency in the ICT sector. Globally, these improvements are expected to use energy and information products to reduce 895 billion kWh in 2015.

Although the observed size of the savings is small compared to what effects these agents are expected to use ICT in all other areas of human enterprise. The global use of energy-efficient power of ICT, industrial and logistics sectors as well as through cross-sectoral impact on energy-efficient buildings possible, mobile substitution and dematerialization is expected to more than 6.463 trillion kWh in 2015.

total energy savings from improved energy efficiency of ICT products themselves and the effectiveness of the potential impact of these products to the rest of the energy sectors and activities as a result of an expected increase from 2.618 trillion kWh in 2010 and 7.358 trillion kWh in 2015. This same energy as the 4.5% of global energy consumption is expected in 2015.

help reduce global energy consumption of ICT products is also expected to significantly reduce global emissions. Global emission reductions through energy-smart ICT solutions are expected to 1.393 billion tons of carbon dioxide equivalent in 2010, 3.892 billion tons in 2015. This reflects a 8.7% decline in the expected share of global carbon dioxide emissions at the moment.

overall value created through energy efficiency, the use of energy-intelligent communications products and solutions for all industries is expected to grow 0000000000 in 2010 exceeded 8 billion euros in 2015. At the same time the overall value created by the possibility to earn one billion for emission reductions expected in 2015.

Total value created by the global energy and emissions savings are estimated at 5 billion euros in 2010 and is expected to grow to 8 billion by 2015. This represents a significant value creating effect of a gradual introduction of energy-smart ICT products and solutions for a number of energy-intensive sectors of energy efficiency compared to the reference year 2005 to improve.

ICT for Energy Efficiency: Commercial and industrial include a broad assessment of the global market for information and communication technology, which saves energy. The report examines the opportunities in the ICT sector to improve energy efficiency in the use of its products and the ability of the product sectors to energy efficiency in all other areas. Select the information and communication technologies, energy efficiency deals. These ICTs are classified as four areas: ICT, electricity, logistics and industry. Three different regions of the potential effectiveness of using ICT, buildings, dematerialization, and reimbursement of travel expenses, is also attached. Report Methodology

information on ICT for Energy Efficiency: Commercial and industrial based on the primary and secondary research. Primary research involved interviews with noted companies that manufacture, sale and distribution of ICT products, analysts and consultants in the energy industry information about products, technologies and market factors shaping the industry to obtain. Secondary research meant gathering relevant sources, including governments and industry publications, company literature and corporate annual reports.

you will report

ICT for energy efficiency gain: Commercial and Industrial provides important insights and predictions about the future of these markets around the world. No other market research report provides both a comprehensive analysis and information, that energy efficiency: commercial and industrial deals. Subscribers benefit from extensive data, presented in easy to read and practical charts, tables and graphs.

ICT for Energy Efficiency: Commercial and industrial include a broad assessment of the global ICT market, which is both energy efficient and energy independent and allows for different applications in the global economy. The report focuses on the need for energy efficiency and a number of important opportunities for energy efficiency in Information and Communication Technologies for 2015 to improve. Historical and projected global energy demand 2005-2015, and the factors affecting energy demand has been made.

Some of the major opportunities for improving energy efficiency of ICT to improve through 2015 to identify and represent the ICT products, technologies and standards are incorporated. Opportunities are presented by sector and communications, energy, industrial and logistics sectors. The scope for ICT to improve energy efficiency in all sectors, such as reducing energy consumption in buildings, replacement of hard goods and electronics, the travel reimbursement process.

Finally, the market for energy-efficient and effective, making the information belongs. Historical and forecast (2005-2015) energy consumption and carbon emissions in various sectors discussed in this report are presented. Energy and emissions savings for the use of ICT to the report and the value of these savings are offered to discuss. The report also contains profiles of market participants in energy-efficient and effective, and the data.

how you can benefit from the report

If your company is already in the business market, information and communication technologies that enable energy efficiency, or considering entering the market will find this report invaluable. It offers a wide range of information and insight not offered any other source. For a thorough understanding of current world energy-efficient and effective, making information and communication technology and the planned and market developments to 2015.

This report will help:
• Marketing managers understand the forces shaping the market in information and communication technologies that enable energy efficiency and identify market opportunities.
• Research and development professionals stay in competition initiatives and explore demand for efficiency, the use of ICT.
• Business development executives understand the dynamics of the market and potential partnerships.
• Information and research center librarians provide market researchers, product managers and other colleagues of the important information they need to perform their job efficiently.

Contents Chapter 1: Introduction to

Abstract Figure 1-1: World trade in energy use by fuel, 2005-2015 (in quadrillion Btu)
Figure 1-2: Global ICT for energy in 2015 (billion kWh)
Figure 1-3: Global ICT-supported energy and reductions in all sectors, 2006-2015 (in billion kWh, and one million tonnes CO2e)
Figure 1-4: Global Value of ICT-based energy efficiency in all sectors, 2006-2015 ($ billion)
demand drivers for energy-efficient ICT
Figure 1-5: World Energy Trade, 2005-2015 (in quadrillion BTU)
Figure 1-6: World population and gross domestic product, 2005-2015 (in million $ billion) Figure 1
– 7: The world oil market prices, 1995-2015 (in 2007 U.S. $ / barrel)
Table 1-1: Carbon dioxide emissions from the selected fuel type, 2010
role of ICT in energy efficiency in the Data

Sector Figure 1-8: Global ICT-supported energy and emission reductions, the ICT sector, 2006-2015 (in billion kWh, and one million tonnes CO2e)
energy production
Figure 1-9: Global ICT-supported energy and emission reductions, energy, 2006-2015 (in billion kWh, and one million tonnes CO2e)

logistic Figure 1-10: Global ICT supported energy and emission reductions, logistics sector, 2006-2015 (in billion kWh, and one million tonnes CO2e)

Industry Figure 1-11: Global ICT-supported energy and emission reductions, industry, 2006-2015 ( in billion kWh, and one million tonnes CO2e)

building Figure 1-12: Global ICT-supported energy and emission reductions, buildings, 2006-2015 (in billion kWh, and one million tonnes CO2e)

dematerialisation Figure 1-13: Global ICT-supported energy and emission reductions, dematerialization, 2006-2015 (in billion kWh, and one million tonnes CO2e)

travel allowance Figure 1-14: Global ICT use in energy and emission controls, replacement of Travel, 2006-2015 (in billion kWh and one million tonnes CO2e)

Conclusion report scope report format

Report Methods and Definitions Abbreviations
Table 1-2: Abbreviations Report

Chapter 2: Factors affecting demand for energy-efficient ICT

Introduction to the global energy demand
Figure 2-1: World energy consumption, 2005-2015 (in quadrillion Btu)
Table 2-1: Economic Cooperation and Development countries, 2010 Figure 2
-2: World energy use in commerce, 2005-2015 (in quadrillion Btu)
Figure 2-3: World Energy Trade of the Economic sub-region, 2005-2015 (in quadrillion Btu)
Drivers of energy demand, population growth

Figure 2-4: World Population economic region, 2005-2015 (in millions) Growth

Photo 2-5: the world’s gross domestic product economic region, 2005-2015 (U.S. $ billion) global energy

Figure 2-6: World trade in energy use by fuel, 2005-2015 (in quadrillion Btu) fuel

Table 2-2: World proven oil reserves in 2010
Figure 2-7: world oil prices, 1995-2015 (in 2007 U.S. $ / barrel)

carbon Table 2 – 3: the world’s top five largest producers of coal, Natural Gas 2010

Table 2-4: World’s natural resources, energy consumption and emissions 2010

Table 2-5: Carbon dioxide emissions by the selected fuel type, 2010 emission regulations

Table 2-6: Kyoto Protocol on greenhouse gas emissions targets (% change from 1990)
role of ICT in energy efficiency

ICT personal computers and peripherals
Datacenters Telecommunications

energy production logistics

Estate dematerialisation

Conclusion Chapter 3: The ICT sector opportunities

Introduction to the ICT sector
personal computers and peripherals
Figure 3-1: Global electricity consumption and carbon emissions, computer / peripherals, BAU, 2005-2015 (in billion kWh, and one million tonnes CO2e)
Figure 3-2: Global Power PC / peripherals, energy saving effect of ICT Technologies, 2005-2015 (in billion kWh)

Figure 3-3: World energy consumption and carbon dioxide emissions from data centers, BAU, 2005-2015 (in billion kWh, and one million tonnes CO2e)
Figure 3-4: Global electricity consumption in data centers, energy-saving effect of ICT technologies, 2005-2015 (in billion kWh)

Telecommunications Figure 3-5: the world electricity consumption and Telecommunications carbon emissions, BAU, 2005-2015 (in billion kWh, and one million tonnes CO2e)
Figure 3-6: Global consumption of electricity, telecommunications, energy saving effect of ICT technologies, 2005-2015 (in billion kWh) the production of energy

Figure 3-7: The world electricity generation and carbon dioxide emissions from energy production, BAU, 2005-2015 (in billion kWh, and one million tonnes CO2e)

Smart Grid Table 3-1: ICT parts of the Smart Grid, 2010

integrated communications detection and measurement of smart meters

smart sensors
IT Hardware and Software
Grid visualization technology

Demand Response Technology Figure 3-8: The world production of electricity and electricity, energy saving effect of ICT technologies, 2005-2015 ( in billion kWh)

logistic Figure 3-9: Global energy consumption and carbon emissions and logistics industry, BAU, 2005-2015 (in billion kWh, and one million tonnes CO2e)

optimizing distribution route optimization Eco Driving

Table 3-2: Opportunities for Information Technology Logistics
2010 Figure 3-10: Global Energy Travel related business and trade, energy saving effect of ICT technologies, 2005-2015 (in billion kWh), industry

Figure 3-11: the world of electricity consumption and carbon emissions in the industrial sector, BAU, 2005 – 2015 (in billion kWh, and one million tonnes CO2e)
Smart Power Integrated Energy Management Systems

Figure 3-12: Global electricity consumption in the industrial sector, energy-saving effects of ICT technologies, 2005-2015 (in billion kWh)

Buildings Figure 3-13: the world energy consumption and carbon emissions of the building, BAU, 2005-2015 (in billion kWh, and one million tonnes CO2e)

Smart Building Design Table 3-3: Energy modeling software product comparison Smart Building Design, 2010

Smart Building Management Table 3-4: Access to Information Building Management Systems, 2010
Figure 3-14: The global energy impact of buildings energy-ICT technologies, 2005-2015 (in billion kWh)

dematerialisation Figure 3-15: the world energy consumption and CO emissions from the production of physical media, BAU, 2005-2015 (in billion kWh, and one million tonnes CO2e)
Figure 3-16: Global energy consumption in the production of physical media, impact on energy savings of ICT technologies, 2005-2015 (in billion kWh) travel allowance

Figure 3-17: the world energy consumption and carbon emissions associated with business travel and trade, BAU, 2005-2015 (in billion kWh, and one million tonnes CO2e)
Figure 3-18: Global Energy Travel related business and trade, energy-saving effect of ICT technologies, 2005-2015 (in billion kWh)


Chapter 4: Market size and growth

Introduction Figure 4-1: World Energy Trade, 2005-2015 (in quadrillion Btu)
Figure 4-2: Global Energy and Emissions footprint, the ICT sector, 2006-2015 (in billion kWh, and one million tonnes CO2e)
Figure 4-3 energy saving measures compared to 2005 baseline consumption of the ICT sector, from 2005 to 2015 (billion kWh) ICT

Figure 4-4: Global ICT-supported energy and emission reductions, the ICT sector, 2006-2015 (in billion kWh, and one million tonnes CO2e)
Figure 4-5 : Global Value lost during the energy efficiency of ICT sector, 2006-2015 ($ billion), energy production

Figure 4-6: Global ICT-supported energy and emission controls, production Energy, 2006-2015 (in billion kWh, and one million tonnes CO2e)
Photo 4-7: Global value of ICT-enabled energy efficiency, electricity, 2006-2015 ($ billion)

logistic Figure 4-8: Global ICT-supported energy and emission reductions, logistics industry, from 2006 to 2015 (billion kWh, and one million tonnes CO2e)
Figure 4-9: Global Value of ICT-based energy efficiency, the logistics sector, 2006-2015 ($ billion) industry

Figure 4-10: Global IT-supported energy and emission reductions, industry, 2006-2015 (in billion kWh, and one million tonnes of CO2e )
Figure 4-11: Global Value of ICT-based energy, industry, 2006-2015 ($ billion) building

Figure 4-12: Global Value of ICT-based energy efficiency in buildings, 2006-2015 (in billion kWh, and one million tonnes CO2e)
Figure 4-13: Global Value of ICT-based energy efficiency of buildings, from 2006 to 2015 ($ billion)

dematerialization Figure 4 -14: The Global ICT-supported energy and emission reductions, dematerialization, 2006-2015 (in billion kWh, and one million tonnes CO2e)
Figure 4-15: Global Value of ICT-based energy efficiency, dematerialization, 2006-2015 ($ billion), travel allowance

Figure 4-16: Global ICT-supported energy and emission reductions, replacement of Travel, 2006-2015 (in billion kWh and one million tonnes of CO2e )
Figure 4-17: Global Value of ICT-based energy-efficiency, replacement of Travel, 2006-2015 ($ billion)

Conclusion Figure 4-18: Global ICT for energy saving 2015 (billion kWh)
Figure 4-19: Global ICT-supported energy and reductions in all sectors, 2006-2015 (in billion kWh, and one million tonnes CO2e)
Figure 4-20: Global Value of ICT-based energy efficiency, all industries, 2006 -2015 ($ billion)
Figure 4-21: Global Value of ICT in energy conservation and emissions sector, 2015 (in $ billion)

Chapter 5: participant profiles

Introduction Table 5-1: Description of the companies profiled
Table 5-2: Energy Improvement/CO2 reduction commitments of the companies profiled

Table 5-3 Alstom: Alstom profile
background of the company

Range Energy Efficient Innovation

Performance Figure 5-1: Alstom Power sector revenues, 2005-2009 (€ m)
Acquisitions and divestments Staff Changes

Cooper Power Systems, Inc.
Table 5-4: Cooper Power Systems, Incorporated Company Profile

Range Background Table 5-5: Cooper Power Systems, Incorporated brand and product portfolio
Table 5-6: Cooper Power Systems, Inc. EAS solutions portfolio
Energy Group High Performance Innovation

Figure 5-2: Cooper Industries, Revenue, 2005-2009 (million dollars)
acquisitions and divestments

Personnel Changes Ericsson
Table 5-7: Ericsson
Profile Company Background Assortment

The company’s core business is to give
Figure 5-3: Sales Sales by product, 2009 (% of total revenues) Energy-efficient innovation

Performance Figure 5-4: Sales, 2005-2009 (SEK million)
acquisitions and divestments
Personnel Changes

included Johnson Controls Table 5-8: Johnson Controls, Incorporated Company background

Range Figure 5-5: Johnson Controls sales by product group, 2009 (% of total revenues)
Energy-efficient innovation
Table 5-9: Johnson Controls Environmental Scorecard

Performance Figure 5-6: Johnson Controls, Incorporated, income, 2005-2009 (million dollars)
acquisitions and sales personnel changes

Hewlett-Packard Company Table 5-10: Hewlett-Packard Company Profile Company Background
Range

Services Enterprise Storage and Servers (ESS)

Software HP Personal Systems Group (PSG)
Imaging and Printing Group (IPG)
HP Financial Services (HPFS)

Corporate Investments Energy-efficient innovation

Performance Figure 5-7: Hewlett-Packard Company revenue, 2005-2009 (million dollars)
acquisitions and divestments

Personnel Changes
Table 5-11 Manhattan Associates Manhattan Associates Company background

Product Portfolio Table 5-12: Manhattan Associates’ solutions and technology portfolio Manhattan SCOPET Energy Efficient Innovation

Performance Figure 5-8: Manhattan Associates, income, 2005-2009 ($ thousand)
acquisitions and divestments

Personnel Changes Appendix: Selected Addresses Corporate

Introduction

The main reason for pollution in the world is a result of the continuing massive industrialization release wastewater to reduce emissions of various chemicals and hazardous wastes creates units of undermining the quality of life and indifferent to the future social and economic consequences of their managerial decisions. This requires a global movement for environmental protection in the beginning, that can be recycled to the Stockholm Declaration in 1972, after the Vienna Convention for the protection layer 1985 and the Montreal Protocol was signed in 1987 to reduce ozone depleting substances (ODS ) from the atmosphere.

movement really gathered momentum after the very successful first international Earth Summit in 1992 in Rio de Janeiro, where more than one hundred heads of the people to participate and to the United Nations Framework Convention on Climate Change (UNFCCC) and the Convention on Biological Diversity (CBD) to sign. The goal was the density of greenhouse gases, particularly carbon dioxide, the growth of global warming and related climate change caused fixed. Sustainable development has since become a topic of discussion in the world. buzzword nowadays is the Kyoto Protocol in 1997, the signatories agreed to in pollution Accounting (EDA), whose job is to act to adopt. As of November 2007, 175 countries, including Brazil, China and India have ratified the Kyoto Protocol means that the EDA has become an integral part of the environmental policy of most governments of the world.

ACCOUNTABILITY:

At the moment the statement of corporate environmental responsibility (CER), such as corporate social responsibility (CSR) has acquired ethical undercurrent opinions johtajia.suurempaa industrial exploitation of natural resources for raw thing, but unfortunately also brings the curse of pollution, whether developed or developing country. It is the responsibility of business, “the users and the” polluter “of the environment and pollute the air, water and soil unsightly landscape, disturbance of the conditions and bases in water in the process. Apparently, they must be responsible for sins of the Commission and omission.

damage to the environment seriously affect people’s lives this way air pollution lead to serious health problems that the work efficiency of people, the cost of medical care and result increases the loss of Water pollution and income -. affect surface and ground water – due to the discharge of raw sewage can cause health problems .. river and sea pollution caused by oil leakage may affect the fish harvesting and production of other seas. Deforestation and stone extraction lead to soil erosion and the destruction of the ecological balance. Degradation issues like global warming, the destruction of rain forests, acid rain, floods and cyclones, irrevocable depletion of natural resources and all types of pollution caused by the need to be seen in relation to their social and economic costs. obligation is also to strengthen the moral responsibility of controlling and reducing environmental damage.

METHODS environmental accounting

Its function is to monitor monitor the activities that affect the environment, constantly gathering relevant data and information about the company on environment-related assets and liabilities.

difficulties to allocate the monetary value of the loss of welfare associated with air, water, soil or sunlight. specializes in the valuation methods developed for this purpose, even though they have their own limitations. most of the cost-benefit analysis of shadow pricing method to be followed where the values ??for items that do not. no market shadow technique is certainly adopted to monetary policy, the names for items of environmental pollution to enhance

Environmental records are produced in three stages: .. (i) understanding the business environment, (ii) information about the effects of industrial activities on the environment, and (iii) the environmental costs and expenses in the financial statements

Environmental Reporting

One of the main tools of environmental management system is company report contains and displays all activities affecting the environment. The report is intended to publish and distribute the company for all stakeholders to communicate and provide them with information about the pollution impact on the operations of the company and various measures to mitigate adverse effects. The report will also outline the company’s policy on the environment and the specific areas where it has failed to compensate. It is to provide information on compliance with the law of the State shall use clean technologies, trademark and discharge of wastewater, waste, ventilation, light and air protection, noise – in short, all measures relating to safety and health of workers and the welfare of the community

Report must quantitative data on the total expenditure by the point WAY PROTECTION or improving the environment both within the site and its surroundings. as well as assessing the costs and benefits of the environment budget. fine, the company should indicate in its report both positive and negative impacts of their activities on the environment

framework

India increased public outrage and legal action, attitude towards compliance with environmental, health and safety company is a positive change in recent times. the provisions laid down in legislation, such as the factories Act (1948), Water (prevention and Control of Pollution) Act (1974), Air (Prevention and Control of Pollution) Act (1981) and the Environment (Protection) Act (1986), hazardous waste (management and handling) Regulations (1989/2000), manufacturing, storage and import of dangerous chemicals in the Rules of Procedure (1989), liability insurance (1991) , Bio-medical waste (management and handling) Rules (1998), noise (regulation and control) Rules (2000) Ozone-Depleting Substances (Regulation and Control) Regulations (2000), chemical accidents (Emergency Planning, Preparedness and Response) Regulations (1996), and other rules relating to explosives, petroleum, electricity, hot water boilers, diesel emissions, etc. are all from time to time in accordance with international standards.

Board of Directors has determined the tasks and responsibilities of businesses, reduction of pollutants, interior design information for the agencies allow the entry of officials and sampling inspection, the provision of awards and to obtain advance clearance for new projects or modernization and expansion projects. The government also contributes to the design and installation is also used as an anticipatory compliance-related instruments such as voluntary agreements and charters, corporate environmental responsibility

In 1994 the Government of India had issued a notification, requiring the industry to environmental impact assessment (EIA). It’s also got a list of 29 categories of polluting industries that need special attention. to illustrate here is intended to alleviate the environmental impact of the two industries, ie. steel and cement, which are included in the category of pollutants.

INDIAN STEEL

The steel industry today is nice to private and public entities, a larger amount of sales, improved occupancy and revenue growth and profit margins received. The global market conditions are conducive to large increase in steel consumption in sectors such as construction, real estate, infrastructure and transport.

National Steel Price policy announced in India, 3 November 2005, aims to modernize the steel industry, global standards, improve efficiency and productivity in all areas, including environmental management. It should be noted that the official rules for the period since 1991, the private sector significantly faster than increased public sector capacity building and today accounts for 59 percent of the total production of crude steel and 71 percent of the finished steel production. At present, India is the largest producer of sponge iron in the world thanks to the rapid expansion of small coal-based units.

Since the industrial area of ??concern is often raised little research and development of our steel industry due to a non-essential technologies such natural resources endowment and that damage to the environment would minimize the priority areas where R & D efforts are a waste-water monitoring in coke ovens and focused technology development, very little carbon, recycling and recovery, reduce power consumption, and so did National Workgroup of the steel industry environment, which includes the Government of India in 1989, took some critical areas of R & D to optimize resource use, to the generation of pollution and energy consumption to a minimum. The idea was to make the whole process of steel making to be more environmentally friendly.

steel industry is mainly energy. Indian plants use energy from 6.45 to 8.5 Giga. CALs against the raw steel, while global consumption norm 4 , 5 to 5 Giga cal. We must therefore develop energy saving and conservation technologies and put them into use quickly. Reuse of internally generated from the combustion gases or the recovery of waste gas can help reduce energy consumption.

greenhouse gas (GHG) emissions are a major concern in the industry, the third largest contributor of greenhouse gases in India. Our steel plant emissions on average 2.7 tonnes of carbon dioxide a crude steel in Japan and Germany, the factory an average of less than 1.5 to 1 , 8 tons. sulfur dioxide and nitrogen oxide emissions are considerably higher in India and the sulfur in the fuel gas and efficient combustion system to reduce.

steel is an imaginative use of resources and waste reduction are. Generation Accounts slag from blast furnace and steel melting operations is further reduced. Ways and means must be found to the recycled waste such as sludge and dust from the import technologies from other countries. By the end of the eleventh five year plan estimated dust emissions steel in total production is feared to more than 500 tonne increase per day. This is overthrown by installing an effective fabric filters.

Report team statistics on steel for the eleventh five-year assessment plan states that the recycled steel is environmentally friendly and because the sample is 100% recyclable and its characteristics by successive product cycles without loss of quality, are maintaining an unlimited number of times. Recycling can also help reduce the pollution involved in iron ore mining to avoid recycling. Of course, recycling is highly dependent on the availability of the use of steel.

Progressive manufacturers of steel in India is now trying to get their environmental performance, followed by yet available in improving the Integrated Management Systems such as quality (ISO 9001), environment (ISO 14001), health and safety (OHSAS 1800) and Social Accounting (SA 8000). The government has in recent years introduced a number of laws regarding the handling of hazardous waste emissions and Corporate Responsibility for Environmental Protection Act (CREP)

According to Task Force report, technology initiatives, Indian steel industry: Environmental Accounting, Carbon Accounting, Life Cycle Analysis (LCA), Eco-restoration of degraded land by the gradual ozone depleting substances (ODS), the clean technology development Greenery development etc.

costs installation of measures for pollution, energy conservation, safety and health inspection is generally high, and they have to pay interest in the industry, the social good. the right strategy has been developed for controlling various physical hazards in the form noise, vibration, heat, dust, stress and radiation, chemical burns inhaled gases, vapors, gases, asbestos, etc. electrical safety, mechanical or pneumatic energy and an accident caused by cranes, hoists, the weights, etc., help and expert advice and in harmony with the laws and regulations of central government administration.

Indian Cement Industry

Indian cement industry comprises 125 large and 300 small installations a capacity of 165 million tons, the second largest market, next to China. Even if the dominant has led to consolidation services industry is still relatively. fragmented industry was released from the price and distribution regulations in 1989 and subsequently approved in 1991

Cement Production takes place in five phases. (i) mining, (ii) preparation of the crude mixture of limestone silo, (iii) the furnace processing (iv) grinding and clinker silo flash ash and slag as supplementary material, and (v) packaging and transportation of cement to the end user or consumer.

energy nature of the cement industry and let the heat and large amounts of carbon dioxide is a serious global warming impacts. The manufacturing process releases nitrogen oxides (NO and NO2), particulate matter, such as PM10, mercury, cadmium and carbon monoxide, sulfur dioxide and greenhouse gases such as carbon dioxide and nitrogen dioxide. environmental degradation caused by these contaminants have a significant impact on air quality, soil quality, habitats, biodiversity and human health. transportation of cement in bulk or bag packages – the latter a normal delivery in developing countries – even lead without the cost of pollution in the form of dust addition, noise and vibrations caused while operating heavy machinery and explosives in quarries, in fact all of the production of cement .. – raw materials acquisition, site preparation and distribution of the end user – the ability to put pressure on the environment.

It is time for India to learn from the events in China, where the study of air quality in highly industrialized countries of the Pearl River Delta region in southern China showed that the cement plants have caused choking pollution blankets the entire region. building materials like cement are strongly influenced by the ratio of sulfur dioxide, nitrogen dioxide, ozone and soot in the air. Similar exposure to hazardous substances, our country can cause untold damage to health by a permanent, not only our factory workers, but also the community surrounding areas.

environmental damage in the cement industry can be overcome by the use of new equipment for dust reduction in quarrying and manufacturing, modern technology trap and separate exhaust closed quarries nature or re-growing them. concentrations of CO2 and SO2 can be periodically measured by tests for emissions and monitoring by government regulations.

CO2 emissions, the main culprit of global warming, need special attention .. They belong to three group (i) they are derived from the -carbonization of limestone, (ii) the kiln fuels, and (iii) produced by vehicles, plant and beyond, as part of the distribution. The typical value of global CO2 category (i) 0.50 kg of CO2 per kg of cement, the class (ii) it is 0.24 kg CO2 per kg of cement in the event of an efficient plant, and the class (iii) it is insignificant in 0002-0005. All three will be around 0.80 kg CO2 per kg finished cement. The typical energy consumption for cement production is approximately 90-150 kWh / tonne of cement. The use of hydro or nuclear energy and the introduction of efficient production, can reduce power to be at a sufficiently low level.

The available data for the years 1991, 1992 and 1993, CO2 emissions in India versus Best Practice some insight into the relative. Position As can be seen, the CO2 emissions of at least 1991 to 1993 higher than the Best Practice

Carbon dioxide emissions from cement production:. India vs Best Practice

tonnes of CO2 per tonne of cement

1991 1992 1993

India 0.86 0.91 0.89

Best Practice 0.63 0.63 0.63

Source: Katja Schumacher and Jayant Sathaye EOLAN Laboratory, Berkeley, USA (1999)

Fortunately, the Indian cement industry today seized a problem. As the wet process consumes too much energy, 96.3 percent of the cement kilns have now switched to using energy-efficient dry process for clinker production and the wet process is becoming gradually. the transition to low carbon fuels, the use of alternative fuels from waste such as lignite, pet coke, tires, rice husks, will be peanut shells replace coal in cement kilns are a number of issues of risk management measures, now being adopted by industry today.

Indian cement industry is an active policy to improve productivity and energy efficiency. The technology is improving every aspect of plants, such as quarrying, manufacturing, equipment and machinery. packing and shipping Detailed diagnostic investigations of production processes and energy audits carried out by the central and state pollution control boards have standards for CO2 emissions that are at various stages of production and industrial cooperation pure. . selfishness

by summing UP

There are two ways in which pollution can be dealt with: either the companies or the government must try to prevent before it happens, or to translate it after it has occurred, this is what is meant by prevention and recovery, however, the management decisions .. circumvention measures and restoration of the need for reliable information on the company’s environmental pollution accounts. heart of the matter is,, faithfully carry out assessment of the environmental impact of the company and its proper control perspective, pragmatically appropriate laws and regulations of government business.

Mandatory corporate environmental statements alone are not reflected in the losses, expenses and liabilities of the company and will promote investments in order to save the situation. It is time for governments, regulators and accounting organizations together to develop foolproof system is quite aware of environmental accounts are based on well-formulated guidelines for measuring, costing and evaluation ..

The first thing to do in establishing guidelines to clarify how the environment can be identified and then measured and reported for investigation. The second is to explain how the hidden environmental sharing. It is also imperative that a comprehensive overview of the costs related products such as liquid waste, waste gas, solid waste, recycling, safety , preventive equipment, staff training, environmental awareness, has R & D costs of innovation in environmentally friendly processes and products are completed. In a parallel phase of the environmental benefits of the new processes or products, and other tax benefits, etc. should also be quantified to the accounts used.

Fine, corporate environmental statements to fill the quality of openness, inclusiveness, objectivity, accuracy and ability to control them a decisive and meaningful

Recommendations:.

Dr. Bhabhatosh Banerjee, 2006, Corporate Environmental Accounting and Reporting, Public Accountant. April 2006 Dr Bhaskar Bora, Environmental Accounting for Sustainable Development: Case Study The proposed seismic survey of oil in Assam in northeastern India ,

http://ne-cord.org/

Environment Agency, November 2005, Measuring Environmental Performance. Steel Industry Report, Bristol, Global Reporting Initiative (GRI), Jonathan Reuvid June 2000 (Ed), 2007, Sustainability – will benefit from Best Practice, Simmons and Simmons, London Katja Schumacher and Jayant Sathaye, July 1999, India: Cement Industry: Productivity, Energy efficiency and carbon emissions, EOLBN Laboratory, Berkelay, USA Planning Commission, India, 2007 , Task Force report statistics on steel eleventh Five Year Plan (2006-2011) Quality Council of India, Seminar on Auditing and EHS legislation Santimoy Patra. Accounting and Reporting Environment – A Case Study TISCO Siddhartha Mitra “accounting for environmental degradation: Try to fill slots in the EKC literature “Swapna www.ssrn.com Mujumdar, 2005:? heard of green accounting” Women’s Feature Service, http://www.infochangeindia.org Wikipedia, the free encyclopedia, Portland Cement Crisil report IAEF ( India Brand Intelligence Foundation)

I’m talking about a graduate student who lived their since March, I will try by all means energy efficiency in order to save our planet and help my wallet! On this day, it seems the energy is a fad or a trend, but it should be seen as a way of life that is here to stay. There are many resources for people to be trained and aware of the problems going on and looks for ways to correct them. It is our practice to environmental and energy efficiency to save money when we protect it.

when choosing a place to live in college if they wish to have a place mostly on campus or on campus. Allows you to walk or bicycle instead of driving class at school. My university is a residential school and the fact that they are the stimulus, where students are grouped based on where they live and better parking if they choose to carpool “green ride.” Although not preferred, more and more students are turning into. Even with my cohort of students can be found on the bulletin board, if anyone wants to carpool. This is something that has not fully developed, but it is coming.

community where I live, I know that we can free an air filter once a month. When replacing the filter every month does not lead to additional waste, the air conditioner is able to work more efficiently without the filter. Ideally, the purchase of the air filter should be replaced once a month is the best solution, but the houses or apartment complexes that are not free air filters, air conditioner works more efficiently if the filter is replaced.

Since my days as a graduate student to go to class and then studying and reading, I tend to go home for a few days, lunch or just to work in my apartment instead of campus. I learned to open the blinds and let the sun shine in. never going to be outside in the sun and light in my apartment, unless a storm or when it is dark. The lights just go out when the sun goes down. Reading and writing can be done near a window or even outside it is impossible to you. In this way, I end up saving half of what I would probably use the electricity.

If you live in a dormitory roommate and a separate TV and / or refrigerators, and try to combine into a single refrigerator. Label each of the items so that they do not mix and place in a common space for both of you to get. The same goes for the TV. From what I remember from high school, I hardly watch television, and was certainly good enough for me, so no TV in all rooms. Again, depending on the use of TV and place it in a common area so that both you and your companion can enjoy, and all guests may be over.

One of the things a bit annoying going out to college and live in the apartment is that you usually only for a few semesters in the year. Some students choose to stay during the summer back home. Fortunately, Texas has a plan for providing electricity, Bounce and energy, known as Nifty 9, giving the customer a fixed interest rate of 9 months to lock. This is ideal for those who also lives in the apartment while away at school 9 months of the year. If Nifty September, Bounce Energy also that you also plan to reward its customers. When you pay bills on time you get benefits such as bill credits, movie tickets, companion tickets, and free electricity bill!

Whether through the bounce of energy or any other company, the plans and contracts offered to see what is most effective for you and your situation to investigate. This study is certainly the homework that will benefit from the future!

Green Living makes us a healthier life. It saves money and the environment. It is important to live Green Earth global warming save. It is our responsibility to save the planet and it is in our hands to save the earth. But we do not know what are the ideas that follow to live green. Some ideas follow live green.

main ideas for living green to reduce dust, we reject our home. Now that so many companies have also done much to reduce the packages. This is a great track live green. Another idea we need to re-use of sustainable container and products to follow. It’s a good way to use those products. If we do not these products, if necessary, at least we have given to others who need it. Recycle is also one of the best ideas for green living.

Other great ideas for living green

First, a love for the planet is one of the key ideas for living green. Using organic products and cosmetics are also a good idea to live green. Use hormone-free dairy products and try to get these products in glass bottles now. Since these are reusable.

2.Try growing crops or trees, which provide more oxygen. Avoid using plastic covers, because they are not reusable. And the last 1000 years to solve the country.

3 There are some simple ways to live green. Easy Green Living is a living green without much effort. Here are some simple ways and ideas for green living. Little difference to live green.

4 Water Protection is an easy way to live green. It is an important source, because we can not live with out it. Protection of water also saves money. But we tend to waste so much water in so many ways. Try using water level will make life more green reduction. Simple ways to save water is used in a small outflow of showerheads use less water when washing clothes or dishes, to see that there are no leaks in faucets and sprinklers to try to use for March. Here are some ways to save water.

5 Other green lifestyle eat local food. Farmers market for the best local cuisine. It provides not only energy but also saves money. Food that is a farmer in the market is farmed by hand, no fuel. And try to grow vegetables and leafy vegetables in the house. Since farmers can use pesticides, but we never use this in our house. We use water to crops, which is one of the growing green materials.

6 always another way to live green recycling. Recycling is derived from a number of years. Now there are so many recycling centers for our goods to drop. We should not be used for goods so that we can, at least to those who need it.

It is our duty to live green and make the world green.