Presentation slides (ppt, 1045KB)
Transcript of Presentation slides (ppt, 1045KB)
Charles Nicholson
10th July 2001 - Amsterdam
Long Run Energy Demand
Long Run Energy Demand World Consumption 1999
Source: EIA International Energy Outlook 2001
Oil Gas Coal Nuclear Hydro/Renewables
Long Run Energy Demand World Consumption Trends
50
100
150
200
250
1990 1995 2000 2005 2010 2015 2020
Inde
xed
to 1
990
OilGas CoalNuclearHydro/Renewables
Source: EIA World Energy Outlook 2001
Long Run Energy Demand World Consumption by Region
0
50
100
150
200
250
300
1970 1980 1990 2000 2010 2020
Qua
drillio
n B
tu
ProjectionsHistory
EE/FSU
Developing
Industrialised
Source: EIA World Energy Outlook 2001
Long Run Energy DemandSummary
>Demand for energy will continue to grow, linked closely to population growth and economic activity
>Growth will be fastest in the developing world and weakest in Eastern Europe / FSU
>Policies will influence the distribution of energy demand and the rate of uptake of new technology
>A bias to low carbon, clean fuels will favour natural gas and renewables
Long Run Energy DemandWorld Carbon Emissions by Region
0
2
4
6
8
10
12
1990 1999 2010 2020
Mill
ion
Met
ric T
ons
Car
bon
Equi
vale
nt
Industrialised
Developing
EE/FSUWorld
Source: EIA World Energy Outlook 2001
What the Group has committed to deliver
Two commitments to the outside world 10% reduction in greenhouse gases from
1990 level by 2010 (on an equity share and direct basis)
Group wide trading by January 2000
“In our terms that target will now sit alongside our financial targets. That means it is a promise and, as with our financial targets, a promise is a personal commitment”
Sir John Browne Yale School of Management, 18 Sept 1998
GHG Reductions – Progress to date
50
55
60
65
70
75
80
85
90
95
100
1990
base
1998 1999 2000
CO
2 E
qu
iv (
MT
)
Currently 7% below 1990 adjusted baseline
US Western Gas - Conversion of well control systems
gas savings of over 430,000 metric tons
increase in the volume of natural gas available for sale
Texas City Complex - holistic approach to energy management efficiency gains equating to a 150,000 t/y saving in CO2
emissions
Grangemouth Complex - fast track programme of testing and repairs to steam traps
saved 2,800 tonnes of CO2 per year
Foinaven - flaring rates have been halved through an overhaul of instrumentation and monitoring equipment
saved 90,000 tonnes of CO2 per year
Examples of GHG reduction projects in 2000
Emissions Trading - Purpose
Tool to lower cost of delivering the 10% GHG emissions reduction target
Provide a suitable example for the development of regulatory emission trading initiatives (simple, transparent, equitable, effective and credible)
Learn through practical engagement
Trading System – Summary Jan-2000: Trading System Launched
2.7 M tn traded in 2000
Average price: $7.60/tn
Range 0.5-16.5 $/tn
2001 - +1 M tn traded
Range – 15-20 $/tn !!
ET - What we have learnt
Putting a value on greenhouse gases has:Raised awareness of the climate change issue -
Engaged a wider “audience” throughout the company
Created innovative business strategies to find cost effective solutions
Enabled us to quantify financially the GHG implications of investment decisions - “value” on the environment
The key:Keep things simple, Get started, Learn from practical experienceEngage stakeholders in the formative stages
Lower Carbon Energy
Our Energy & Emission Efficiency
Past Present Future
Decarbonisation of Fuels
Renewables
Fuel Cell Vehicles
Gas replacingCoal
Hydrogen Economy
Novel Low Energy ProcessesCO2 Capture
pv Solar Solar thermal
Energy Efficiency
DGI & Hybrids
Wind
Reduce Flaring& Venting
Global Oil Consumption 2000
Marine Fuel3%
Other4%Lubes
1%
Refinery fuels4%
Chemical feedstock8%
Heating13%
Aviation6%
Ground Mobility43%
Pow er Generation18%
Transport FuelsTotal Oil Demand Growth by Region 1999-2020
0
1
2
3
4
5
NorthAmerica
WesternEurope
OtherIndust.
EE/FSU Dev. Asia C. & S.America
OtherDev.
Gasoline
Diesel
J et-Fuel
Other
Mill
ion B
arr
els
per
Day
Source: EIA World Energy Outlook 2001
BPs Cleaner Fuels Commitment
• To lead the industry in introducing cleaner fuels wherever and whenever possible
• To introduce cleaner fuels into 40 cities worldwide by end 2000, and 90 cities by end 2001
• To remove lead from BP gasoline by Jan. 2002
• 40% of all BP products will be cleaner fuels by 2005
Impact of “Clean Fuels”BP’s ‘40 city Programme’
0
10
20
30
40
50
60
1Q99 2Q99 3Q99 4Q99 1Q00 2Q00 3Q00 4Q00
Num
ber o
f Citi
es
2000 20252020201520102005 2030
Gasoline/Diesel direct injection ICE’s
Hybrid equipped vehicles
Zero sulphur fuels:“super” ULSG / D
Designer Gasoline?Oxygenates?
FT/GTL?
Fue
l ena
ble
r
H2? Methanol?Mogas? FT/GTL?
Pow
er t
rain
tech
nolo
gy
Gas Oil
Anticipated Technology Developments
Daily oilproduction
Fuel Cell vehicles
Interactions between Key Issues
Climate Change
Biodiversity Water
….. Supplies, Operations, Products and Services.
DesertificationSpecies migrationHabitat destructionForestry projects
FloodsSea level riseDesertification
DeforestationWater Quality
FootprintResource use
Emissions/discharges
Eq
uit
y c
ap
ex
Equity, direct, GHG reduction (tonnes of CO2 equivalent)
Expectation Projection - existing technologies
New build standards, sequestration, innovative technology or flexible mechanisms are needed
Innovation
stretch
Innovation stretch
Potential Impacts of Kyoto
350
400
450
500
550
600
650
700
750
1990 2010 2030 2050 2070 2090
pp
m IS92aKyotoWRE550
Kyoto = Annex 1 Parties constant after 2010
Source T.M.L Wigley
Full Compliance to the Kyoto Protocol - 382 ppmNon Compliance - 385 ppm at 2010
Summary of Key Points
>The global demand for energy will continue to grow the foreseeable future
>There is no absolute shortage of hydro carbons
>Evolving attitudes to environment and climate change will alter the primary energy mix with an increasing demand for gas.
>Most incremental demand will be in the developing world, especially in Asia
Key Summary Points contd.
>The highest growth rates will be in transport fuels.
>The introduction of clean fuels is ahead of legislation, particularly in North West Europe.
> Industry is increasingly recognising that we are likely to work in a carbon constrained future and is facing up to this challenge.
>Many of us are building good experience of actions around the conservation and efficient use of energy.
Key Summary Points contd.
>There is good activity around the future options for reducing emissions, but more time and effort is needed to deliver these technically and economically.
>Proper motivation is a key to business success. It is important to work with the grain of the market, to mobilise support, and find the best answers on a global basis.
>There is no single answer; we need them all and the willingness to experiment and adapt.
Key Summary Points concluded
>We need the skills of the scientific community to help us develop the answers, and its understanding of climate science to help us plan.
>We need an international policy framework, and a global target for atmospheric concentration would provide a focus which is currently lacking.