layzell bio ghg conf
TRANSCRIPT
Biological Solutions to Climate Change:
An Energy Systems PerspectiveDavid B. Layzell, PhD, FRSC, Professor
Director, Canadian Energy Systems Analysis Research (CESAR) Initiative,University of Calgary, Calgary, Alberta
…special thanks to Chris Stone & Ralph Torrie for assistance with the Sankey Diagrams
Biological Systems: Managing Global Climate for over 500 M yrs
Albedo
Sun’s shortwave radiation
Infra-red long wave radiation (low heating)
Reflected shortwave radiation
Snow
Deserts
Clouds
Cloudless sky
Vegetation (esp conifers)
Sun’s shortwave radiation
Reflected shortwave radiation
Infra-red long wave radiation (more heating)
Vegetation
Ocean biology
High = cooling Low = warming
CO2
GHG management
Coal Oil Nat’l Gas
C held in Dead Biomass
CH4
N2O
(Absorbs long wave radiation)
Canada’s Green Advantage
Biological Solutions
Potential(Mt CO2e/yr)
1. N2O and CH4
emission reductionsN2O, CH4
Up to 40
Problem(Mt CO2e/yr)
Landfills: -22Crops/Soils: -30
Animals: -24Wetlands: -3
-79
Example Strategies
Improved landfill, manure, fertilizer, wetland & animal prod’n mgmt/technol.
2. Soil carbon sinks:
Up to 30+ ?
+8
Reduced tillage, New Crops Biochar Pasture mgmt
3. Forest carbon sinks
Up to 70+ ?
-99 to +88
Improved silvaculture, pest & fire control
New genotypes
Biological Solutions4. Heat and power
Potential(Mt CO2e/yr)
Problem(Mt CO2e/yr)
Power Gen: -101
Up to 70 ?
Example Strategies
Replace coal for power gen, or in cement making
5. Transportation fuels
Transportation: -199
Up to 50 ?
Supplement / replace gasoline or diesel with biofuels
6. Bio-Products
From
Pea
k oi
l Blo
g 20
08
5 ?
Metal: -17Cement: -9 -26
Replace steel and cement with wood in construction
Obama renews commitment to CC action
Melting arctic & severe weather
Fossil fuel recovery & pipeline projects lack ‘Public License’
Interest in Cdn energy strategy & systems level approaches
High cost for CCS ($150+/tCO2)
What do Canadian energy systems look like?What is the current role for bioenergy/biofuels?
Cycles of Interest & Investment in Biological
Solutions to Climate Change
KYOTO Protocol
1995 2000 2005 2010 2015
Forest & Agric’l C Sinks seen as central to Canada meeting its Kyoto commitment
Plans for Emission Trading
Many R,D&D initiatives funded
Forest fires & Mtn Pine Beetle make Canada’s forests a C source
Change in Fed. Gov’t CC policies
Canada Abandons Kyoto Protocol
Concerns about validity / verification of offset projects
Focus on geol. CCS research & deployment
Canada’s Energy Systems (2010)
Oil
Gas
Coal
Uranium
HydroBio
Export
Demand
Prim
ary
Ene
rgy
Sou
rces
Import NOTE: Net export:
~50+% of 1o energy supply
Biomass: 2.7% of 1o energy supply
GasolineDiesel
Wood, Ethanol, Biodiesel
Electricity
CANADA’S ENERGY
INDUSTRIES
Crude oil
Pipelined Natural Gas
Uranium oxide & Fuel pellets
Oil
Gas
Coal
Uranium
HydroBio
Export
Demand
Prim
ary
Ene
rgy
Sou
rces
Import
Canada exports ~50% of its
primary energy production
Prim
ary
Ene
rgy
Sou
rces
Ser
vice
D
eliv
eredOil
Gas
Coal
Uranium
Hydro
Bio
Demand
Con
vers
ion
Loss
Canada’s Energy Systems (2010)
Cdn Domestic Energy Systems (2010)
Prim
ary
Ene
rgy
Sou
rces
Ser
vice
D
eliv
eredOil
Gas
Coal
Uranium
Hydro
Bio
Demand
Con
vers
ion
Loss
Mobility
ResidencesSupply Chain
Buildings
Industry
Non-Energy
Cdn Domestic Energy Systems (2010)
Gasoline
Diesel
Wood, biofuels
Elect-ricity
CANADA’S ENERGY INDUSTRIES
Natural Gas
• 5.7% of domestic primary energy supply• Equivalent to ~39 Mt dry biomass/yr
Power
57 32 91 14 478 27Mobility
Residences
Supply Chain Industry (mostly forestry sector)
PJ/y
r
Biomass:(693 PJ/yr)
Conv. Loss
Prim
ary
Ene
rgy
Sou
rces
Ser
vice
D
eliv
eredOil
Gas
Coal
Uranium
Hydro
Bio
Demand
Con
vers
ion
Loss
Cdn Domestic Energy Systems (2010)
Ene
rgy
Dem
and:
336
101
(Pow
er)
5637
3424
Exp
ort
Exp
ort
0.3
1
1
Domestic GHG Emissions (Mt CO2e/yr)
To address climate change, Cdn GHG emissions must be reduced by
520 to 640 Mt CO2e/yrby mid century.
+ Non-energy GHG
emissions
Land use, land use change & forestry
22
5654In
dust
ry
Agr
icul
ture
Was
te
~100
= Total GHG Emissions:
~800 Mt CO2e/yr
Mobility
ResidencesSupply Chain
Buildings
Industry
Non-Energy
Message #1:
Go big or go home.
We have a 500+ Mt/yr GHG problem…
…”solutions” that are less than 1Mt/yr are not climate change solutions.
Message #2:
We have the bio-resource potential
Potential for Bioenergy
Forest Harvest Residues
MSW0
100
200
300
400
500
600
Bio
ener
gy P
oten
tial -
Mt(d
ry) b
iom
ass/
yr
Manure
Biomass Crops
Crop ResiduesMill Residues
Unused AACFire ResiduePest/Disease ResidueSilviculture/ Forest Mgmt
Aggr-essive
Conser-vative
700Approx. equal to all 1o energy used domestically in Canada
BC
Que
WheatHay
Forestry
AgricultureCorn
Current Forestry & Agriculture Production(165 Mt/yr)
Estimate for biomass potential for energy
Existing bioenergy (~5.7% Ttl energy)
At 130 Mt(dry)/yr, bioenergy could provide:2000 PJ/yr (~1M
boe/d)Reduce GHG by
~130 Mt CO2e/yr
How much?
Message #3:
We need to enhance the value of our bio-resources.
$50-
200/
dry
t
$100
-300
/dry
t
Woo
d/S
traw
Cor
n
Forest Rd or Farm Gate
The Price of Energy$6
0-10
0/bo
e
$3-$
7/G
J
$0.5
0-3.
50 /G
J
0
10
20
30
40
2008
-13
Ene
rgy
Pric
e ($
/GJ)
Oil
Gas
Coa
l
Wellhead or Mine Face
The Price of Energy (2008-13)
Strategies for enhancing the Bio-
resource value?
The efficiency and cost of converting feedstocks to energy commodity;
The quality / ease of use of the energy commodity;
The life cycle ‘carbon benefit’ of the bioresource
Depends on carbon price
Typically <$3/GJ benefit
Also Consider…
Energy Commodity
$50-
100/
MW
h
$0.60-1.00/L
Ele
ctric
ity
Gas
olin
e
Die
sel
Bio
dies
el
Eth
anol
Strategies for Enhancing the Bio-Resource Value.
1. Price on Carbon
2. Regulation e.g. fuel standards
3. Enhance the Value Chain:
Examples: Biomass waste to
energy or C sinks Water treatment + C sink
/ energy resource ??
Spent AC
Biochar
• oil sands in situ production• oil sands mining (tailings)• tight oil / gas fracking water
Cleaner Water
Activated C Biochar (ACB)
Biomass
Energy C sink
Rec
ycle
Produced Water Containing OrganicsCO2
CO2
CO2
Adsorption
See Poster by Veksha et al. 2013
Strategies for Enhancing the Bio-Resource Value.
4. Partner rather than Compete
The existing energy industry has the resources, scale of operations and the need for cleaner technologies.
Rather than working to take market share away from the industry, find ways to help the industry reduce their C, water or biodiversity footprint.
The energy industry will pay more for GHG solutions that are “inside their fence” than for “offsets” to meet regulatory requirements.
Message #4:
Will the Atmosphere Notice?
Can you ‘PROVE’ that the Atmosphere Noticed?
Verification (with minimal transaction costs): a challenge for offsets from non-energy emission reductions or C sinks
Permanence:“…the risk that emission removals by sinks are reversed, because forests are cut down or destroyed by natural disaster”
Leakage:“…the increase in emissions outside the project boundary that occurs as a consequence of the implementation of the project”
What happens when neither the buyer
nor the seller are deeply invested
in whether the activity is real?
Buyer: regulatory complianceSeller: financial compensation.
Who in the transaction is looking out for the interests of the atmosphere?
Message #5:
Plan for Unintended Consequences
Unintended Consequences
For the Emerging Bioeconomy:1. Food Price / Availability2. Water 3. Land use / Biodiversity4. Albedo5. Byproduct streams
Investors and regulators need to foresee possible
problems and address them
early.
A common problem in the energy sector, given the scale of the industry and its expanding geographical distribution.
We need to learn from the past mistakes of other industry sectors, and get in front of problems before they undermine
the public license to operate.
See poster by Sara Goto
Summary of Key Messages
1. Go big or go home.
2. We have the bio-resource potential.
3. We need to enhance the value of our bio-resources.
4. Will the atmosphere notice?
5. Plan for unintended consequences.
Thank you