6. 1927 – Carbon emissions 1 billion tonnes per year 1989 – Carbon emissions 6 billion tonnes per year 2006 – Carbon emissions 8 billion tonnes per year Source: BBC News Source: An Inconvenient Truth
18. Where this fits into FORS benchmarking Silver and gold membership – fuel use/ CO2 and emissions What it is? Calculations based on per million vehicle km for each type of vehicle Fleet size/ type x Fuel Consumption What to do? Manage Reduce
19. FORS: The Bigger Picture Definition of sustainable freight distribution: ‘The balanced management and control of the economic, social and environmental issues affecting freight transport that: Complies with or exceeds environmental standards, regulations or targets aimed at reducing emissions of climate change gases, improving air quality and minimising impacts from accidents, spillages or wastes Ensures freight is run efficiently, reduces unnecessary journeys, minimises journey distances and maximises loads with effective planning Complies with labour, transport and human rights standards and regulations ensuring that employees and communities affected by freight can function in a healthy and safe environment Minimises the negative impacts of freight activities on local communities’
20. FORS: The Bigger Picture - Congestion Between 1980 and 2006, average journey speeds decreased by an approximately 14 % - more in rush hours TfL estimates that up to £17 is lost for every hour a vehicle is stuck in traffic. Estimates for the total cost of congestion to London range from £2 to £4 billion Freight, which makes up 17 per cent of all road traffic, is expected to grow by 25 per cent in 2031 Based on 2006 data, the estimated contribution from freight transport in London is 2.2m tonnes of GHG emissions, equalling 5.1 per cent of the Capital’s GHG production and energy use
23. How to use sustainability to save money “ [M&S] said it had generated £50m in additional profits against its expectation that the plan would cost it £200m over five years.” (The Telegraph, June 2010)
25. Drivers for Sustainability Case study research has calculated that for every employee fully engaged in their organisation’s sustainability policies, the organisation can save £1,000 in operational costs each year Improved sustainability practise within large corporations can increase profits by 38% when the benefits are aggregated, similar savings in expenditure can be achieved in the public and not-for profit sector
26. Some of the problems Each transport user/ provider has different challenges, but are all negatively affected by inefficiencies
27. Some of the Problems Needless doubling up of vehicles Managing expenditure/ Acquitting receipts Congestion Stakeholder/ Reputation Management Lack of easy access to supply chain Carbon Emissions Pollutants Stove-piped transport modes Under-utilised transport assets Costs Regulatory Requirements Sustainability should be about efficiency, and thus equate to savings
33. Drivers for Change Cost Carbon Health Individual Behaviour Drivers against Change Opportunity Cost Convenience Unattractive or no incentives Trust Knowledge/ information
34. Drivers for Change Cost Carbon Health Individual Behaviour: Drivers for and against change Drivers against Change Opportunity Cost Convenience Unattractive or no incentives Trust Knowledge/ information Opportunities to affect change Information Trust - system Trust - other sharers Management Incentives
35. Generating efficiencies internally is good Generating efficiencies through the value chain is better Opening up collaboration opportunities is best Collaborative Consumption
Editor's Notes
Natural reasons such as fractional changes in solar radiation, volcanic eruptions, and natural fluctuations in the climate system itself. Human activities like the burning of fossil fuels for transportation, agriculture, industrial processes, and waste. When people talk about ‘climate change’ today, they mean the changes in temperature over the last 100 years caused by human activity. Most climate scientists agree that temperatures will rise more but by how much depends on future emissions of greenhouse gases and other human activities.
1896 – Svante Arrhenius concludes that industrial-age coal burning will enhance the natural greenhouse effect. He suggests this might be beneficial for future generations. His conclusions on the likely size of the “man-made greenhouse” are in the same ballpark – a few degrees C for a doubling of CO2 – as modern-day climate models 1958 – using equipment he developed himself, Dave Keeling begins systematic measurements of atmospheric CO2 in Hawaii and in Antarctica. Within four years the project provides the first proof that CO2 concentrations are rising. Keelings project still continues today 1988 – the IPCC is formed to collate and assess evidence on climate change 1997 – Kyoto Protocol agreed. Developed nations pledge to reduce emissions by an average of 5% by the period 2008-2012
1900 – Angstrom discovers that even at the tiny concentrations found in the atmosphere, CO2 strongly absorbs parts of the infrared spectrum. He has shown that a trace gas can produce greenhouse warming 1955 – Using new equipment including early computers, US researcher Gilbert Plass analyses in detail the infrared absorption of various gases. He concludes that doubling CO2 concentrations would increase temperatures by 3-4 degrees C 1957 – US Oceanographer Roger Revelle shows that seawater will not absorb all the additional CO2 entering the atmosphere, as many had assumed he says, “human beings are now carrying out a large scale geophysical experiment…” 1989 – Margaret Thatcher warns the UN that there is an increase in the amount of carbon dioxide reaching the atmosphere… the result is that change in future is likely to be more fundamental and more widespread than anything we have known. And she calls for a global treaty on climate change