Exclusive Gas Foresight Report

Inside a flat gas demand in Europe, the contribution of the power sector will keep growing

In its latest World Energy Outlook, the International Energy Agency announced an upcoming golden age for natural gas with the strong growth of gas demand expected in the coming years, especially in Asia and with the development of shale gas resources.
But the picture varies by region; in Europe, while gas consumption increased over the last 20 years, it has been stagnating since 2005, limited by a sluggish economic growth and stringent regulations promoting energy efficiency. We have seen during the last 5 years a real re-definition of sectoral demand for gas, with growing inputs in the power sector. Between 2000 and 2011, 100 GW of gas-fired capacities were installed in Europe; this trend will certainly continue with the expected commissioning of 50 GW of additional gas-fired plants by 2020 in our central scenario (Balance). However, the current high competitiveness of gas plants is more and more under threat. A weakening of CO2 policies in Europe would strengthen the position of coal as a fuel of choice in the power sector. In the same time, a strong commitment to a climate target would make necessary the development of very stringent energy efficiency policies and very strong CO2 taxation that would therefore lower gas demand over the long-term.


Interested in our exclusive Gas Forecast Report report?

As gas promises to gain ground in Europe in the next couple of decades, our newly published report analyses the current environment as well as emerging issues and uncertainties about the pace at which this will happen, with focus on:
  • Expected growth of gas demand in the power sector, compared to a flat trend in other sectors
  • Booming LNG infrastructures easing access to natural gas at a competitive price and shifting the origin of gas imports
  • Important opportunities for shale gas although geologically uncertain and subject to very contrasted legislations between member states
Our insightful analysis is based on outputs from the globally recognised POLES model.

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Global Canadian Crude Oil Trading & Markets Conference

22nd - 23rd of May: Global Canadian Crude Oil Trading & Markets Conference

Canadian Enerdata Ltd. is holding a conference on the opportunities and challenges facing Canadian crude oil from both a global and domestic standpoint. The forum is to take place from the 22nd - 23rd of May in Calgary, Canada.
> Register to conference

 
Meet our Key Speakers:


Joe Oliver

   Joe Oliver, P.C., M.P.
   (Minister of Natural Resources, Canada)

 


   Doug Horner, P.C., M.L.A.
   (Minister of Finance, Alberta)
   
  


Turkey - Natural Gas

Discover the latest developments in the Turkey Energy Market, with focus on natural gas. 



Turkey expected the natural gas demand to rise to 85 bcm in 2015, and planned to greatly develop the electricity production capacity from gas. To supply that demand, the country signed many gas supply contracts. However, the 2001 economic crisis and the postponement of the price deregulation led to a much lower demand, and the country found itself in a situation of surplus supply (the signed contracts were ¼ higher than the country's demand). However, Turkey took advantage of that situation and of its geographical position as a strategic player for the supply of gas to Europe, and in recent years its domestic consumption has increased sufficiently for it to seek new supply contracts.

There are three contracts signed with Russia. Under a first contract, 6 bcm/year was to be supplied between 1987 and the end of 2012, although in mid-2011 Botas gave Gazprom notice that it was ending the contract due to pricing disagreements. Under a second contract, signed in 1999, 8 bcm/year will be supplied until 2021. A third contract, signed with the Blue Stream gas pipeline, provides for the supply of 16 bcm/year between 2009 and 2028 (initial supply of 2 bcm/year in 2003, gradually increased to the plateau volume).


Algeria supplies Turkey under a long-term contract of 4 bcm/year over a 20-year period that will be extended of 10 years to 2024; a first contract signed in 1988 for the supply of 2 bcm/year from 1994 was extended in 1995 for the delivery of an additional 2 bcm/year.

Iran supplies Turkey within a contract for total amount of 228 bcm over 23 years starting in January 2003, following the commissioning of the 325 km-long gas pipeline connecting Iran to Ankara.

Nigeria supplies Turkey within one contract, signed in 1995, for a supply of 1.2 bcm/year from 1999 over 22 years.

Since the completion of a gas pipeline connecting Azerbaijan (field of Shah Deniz) to Turkey via Georgia (Baku-Tbilissi-Erzurum) in April 2007, Azerbaijan has grown into a significant exporter to Turkey. The pipe's initial capacity was 2.2 bcm/year, and has reach 6 bcm/year up to now.


The gas pipeline connecting Greece to Turkey, which is part of the ITGI project, was commissioned in December 2007. The strategic purpose of this 296 km-long pipeline is to diversify the EU's supply sources by transporting gas from Caucasus countries to Europe. It has a capacity of 11.5 bcm/year. This gas pipeline cost Turkey approximately €250m and Greece between €30m and €40m. There are plans for an extension of this pipeline from Greece to Italy (IGI project). That subsea line, which will be 800 km long, will supply 8 bcm/year to Italy in 2015; this section is being developed by Depa and Edison.

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The Future lies in Smart Grids but...

An analysis of the Challenges ahead for Smart Grids

Smart grids are seen by many as an effective solution to address some of the toughest challenges the electricity industry has faced so far; the integration of renewables on a very large scale, the promised rise in number of electric vehicles, the necessity of energy efficiency, the improved security of supply or the arrival of the ‘prosumer’. Equipment manufacturers and IT solution providers are eagerly awaiting the hundreds of billions of euros to be invested over the next decades.

In this article, we advocate that smart grid technologies have the potential to transform the electricity markets given they are for the most part readily available, but, the correct regulatory framework first needs to be put in place. Failure to recognise the need for a regulatory overhaul can only hamper and delay the deployment of smart grids and their expected benefits.


From vertical integration to network unbundling

The present European electricity system is the result of a process that started shortly after World War II. National or regional vertically integrated monopolies rapidly became the dominant business model in the electricity industry. This model proved highly efficient in developing the numerous European electricity networks in times of vigorous growth.

To this day, the European electricity system has been characterised by a high degree of centralisation with mostly unidirectional electricity flows. In the current configuration, large-scale power plants generate electricity that is transported over long distances through a high voltage grid and distributed locally to end-customers through medium and low voltage distribution grids.

Following the market liberalisation experience initiated in the UK and the US in the 80’s and 90’s, continental European electricity markets have been progressively liberalised. The European Commission itself has pushed the European electricity supply industry towards unbundling through a series of Directives, the last of which - the so-called “third energy package” - came into effect in March 2011. As a result, European electricity systems now comprise a mix of regulated and competitive elements. Power generation, wholesale supply and retail supply have become competitive segments of the value chain while transmission and distribution have remained regulated businesses because of their natural monopoly characteristics.

Evolution of network regulation objectives

Evolution of network regulation objectives
Source: Enerdata

The primary objective of market liberalisation was to lower costs for users. Accordingly, the first regulatory phase that followed unbundling was geared towards a cost-efficient management of existing grids through the minimisation of operational expenditure (OPEX) and the rationalisation of investments. This economic objective was to be achieved without endangering the quality of power and the security of supply.

For regulators, the main challenge is how to introduce new objectives such as the integration of renewables on a large scale, the enabling of demand side response (DSR) and energy efficiency.

Read the entire article: http://goo.gl/BUftu

Free webinar on Smart Grids

Tuesday, 22nd of January, 15.00 - 16.00 GMT: Online Training on Smart Grids

Smart GridsEnerdata has partnered with The Clean Energy Solutions Center to offer you free online training on key regulatory issues associated with the deployment of smart grids. Drawing on case studies from Europe, this training will delve into the regulatory regimes, anticipated costs and benefits of smart grids, best practices that foster grid integration, and regulatory frameworks that support (or hinder) smart grids.
> Register to webinar
Meet our Panelists:

Bruno Lapillone (Enerdata Senior Expert of International Policy & Regulation)
Bruno Lapillonne
(Enerdata Senior Expert of International Policy & Regulation)
Bruno is the co-founder of Enerdata. With over 30 years of experience in the analysis of energy markets for governmental bodies and international organisations, he is a recognised expert of energy policies and regulatory frameworks. Amongst others Bruno has been the for two decades the technical coordinator of the EU's Odyssee project on energy efficiency indicators. In addition he wrote numerous articles on energy prospective. Bruno graduated from a major Electrical Engineering School and holds a PhD in Energy Economics.


Nicolas Brizard (Enerdata Associate Consultant)
Nicolas Brizard
(Enerdata Associate Consultant)
Nicolas is an experienced consultant and project manager with close to 20 years of experience in strategic analysis and market research. He has progressively specialised in energy markets in particular electricity, natural gas and renewables and has worked both as a manager in the power and gas industry (Essent, Netherlands) and as a senior consultant at various research and advisory firms including Enerdata (France) and IHS Global Insight (UK). He is now an independent energy consultant and runs his own consulting firm.

The webinar will take place on Tuesday the 22nd of January 2013 from 15.00 to 16.00 GMT.

Can't make it to the webinar? Enerdata can answer your energy policy queries for free through The Clean Energy Solutions Center; a clearinghouse of global policy best practices, data reports and analysis tools.To benefit connect to the CESC website and Ask an Expert.

Upcoming Oil & Gas Industry Event

OSEA Conference & Exhibition in Singapore

Enerdata, a global leader in energy research, solutions and forecasting models, will be holding a stand (Hall D, no. BG4-08) at the upcoming internal oil & gas industry event in Marina Bay Sands from the 27th to the 30th of November 2012.

The Offshore South East Asia Conference & Exhibition (OSEA 2012) saw over 25,000 attendees in 2010 alone and this year's promises to be just as popular. Use this opportunity to meet and greet industry professionals from more than 1000 companies worldwide. Attendance is free, you can pre-register here.

To make the most of your time there, book a meeting slot with Enerdata, to discuss how we support your oil & gas business and strategic planning. With 25 years of experience in the energy sector, Enerdata specialising in the analysis of market drivers, trends, players and assets as well as supply & demand forecasting (see Oil & Gas Perspectives Report). Enerdata will be present in Hall D, stand BG4-08.

It is with pleasure that we look forward to meeting you at our stand. Save the date!

Retrofitting of building

A cost-efficiency analysis

Retrofitting of BuildingIn 2010, the French Ministry of Research funded a three-year study to analyze possible solutions leading to a reduction in CO2 emissions that could be feasibly implemented across a large city. This study sought to construct cost-effectiveness indicators in various sectors (building, transport, non-carbon energy production).Cost-effectiveness ratios measure the effort required to implement a solution and the impact in terms of CO2 savings. The results for the buildings are summarized below.

Diagnosis of the housing stock in Grenoble

The housing stock in Grenoble can be depicted in 40 segments; 5 construction ages x 4 technologies used in heating apartments and identical for single houses. The energy consumption and CO2 emissions for each segment were estimated for 2010 and summarized in the table below.


Energy consumption and CO2 emissions
for space heating in Grenoble in 2010

Energy consumption and CO<sub>2</sub> emissions for space heating in Grenoble in 2010
Source: Enerdata


A great deal of heterogeneity exists within the building stock. For example, individual houses consume significantly more energy than apartments. Similarly, housing built before 1974 accounts for 65% of the total area but 82% of CO2 emissions.

Three strategies to reduce CO2 emissions in space heating

There are three ways to reduce CO2 emissions in space heating: insulation, upgrading heating equipment and the reduction of CO2 content of electricity and district heating.

Insulating the building is the solution that comes first to mind. This work includes the insulation of facades, roofs, floors and the replacement of old windows with new less emitting ones. The impact of renovation operations differs from one situation to another. The insulation of old buildings obviously generates more CO2 savings than an operation undertaken on a more recent construction submitted to insulation standards when built.

The second solution is to consider upgrading the heating systems. The installation of a modern boiler can save about 25% in energy consumption - and therefore CO2 - against the initial boiler. When considering this replacement, it may be appropriate to plan an energy switch. For example, it could make sense to replace a collective gas boiler with district heating or to replace individual gas boilers with heat pumps.

The third solution consists of a CO2 content reduction of electricity and district heating. In terms of district heating, the heat can be produced from coal, gas, municipal waste, biomass, etc. Increasing the share of biomass aids in the reducing CO2 content of this energy carrier. For electricity, it is also possible to influence the relative share of energy inputs and thus promote non-carbon electricity. In most developed countries, the CO2 content of electricity is between 400 and 500 grams per kWh. France this figure is much less (80 gCO2/kWh) because of the importance of nuclear. In Switzerland and Finland, it is even lower and electricity is almost carbon free. For the last 30 years, the CO2 content of electricity has declined in many developed countries. But past trends do not necessarily reflect those of the future and making accurate predictions on this subject is a notoriously difficult exercise.

Read the entire article