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Research
| Incentives
of a Forest Landowner’s to Sequester and Trade Carbon
under Uncertainty: Impact of Hurricanes in Southeastern
United States : Paper
Presented at The 16th Global Warming International Conference
& Expo (GWXVI), New York City, April 19-21st, 2005.
Abstract:
Forests are a principal carbon 'sink' for sequestering carbon
from the atmosphere. The provision of trading emission rights
under the Kyoto Protocol will provide forest landowners
the opportunity to reap financial gains from sequestering
carbon and trading rights to emit carbon in carbon permit
markets. However, landowners may be liable for repaying
all or some of the proceeds received for sequestering carbon
if stored carbon is released during the contract period.
If forests are damaged by hurricanes, it may cause extensive
mortality and subsequent emission of carbon dioxide from
decomposing biomass. Such liabilities may reduce landowners'
incentives to sequester carbon. This research evaluates
incentives of an individual forest landowner for sequestering
and trading carbon, given the risk of carbon loss from hurricanes.
Results of our simulation model reveal that the effect of
hurricane risk on landowners' behavior depends on the variability
of returns from carbon and timber and the ability of landowners
to mitigate risk by diversifying forest holdings across
regions with different sequestration rates and different
hurricane strike probabilities.
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| Evaluating
Effects of Private Insurance on Forest Landowners’
Incentives to Sequester and Trade Carbon: Impact of Hurricanes
:
Spring 2005
Abstract:
There is a considerable gap between sequestering
an actual ton of carbon in forests, and having that ton
available to be used as an offset by a carbon emitter operating
under a regulated program, given the risk of that carbon
being lost or emitted as a result of natural disasters like
hurricanes. Included in the gap between “growing”
a ton and “selling” a ton is the risk that the
sequestered carbon may be emitted back into the atmosphere
as a result of natural disasters and the consequent costs
incurred by the carbon credit seller in terms of financial
losses and penalties. Without some form of risk management
or risk protection, landowners are not likely to be motivated
to participate in carbon sequestration trading even though
they recognize the potential of financial gains. . Buying
private insurance is gaining popularity as a tool to mitigate
the financial consequences for participating landowners
from carbon loss. I will utilize a stochastic stimulation
model to analyze the potential implications of buying private
insurance on landowners’ incentives to participate
in terrestrial carbon trading given the risk of carbon loss
from natural disasters like hurricanes. |
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Or 
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| Setting
up a Tradable Carbon Offsets System: Risk, Uncertainty and
Caveats
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Spring 2005
Abstract:
A large number of concepts related to offset policy are
currently being discussed in existing literature such as,
baseline, leakage, permanence, monitoring, verification,
enforcement, financial feasibility, and third party verification.
Cutting across these multitude of concepts are a variety
of risks and uncertainties. Perhaps due to the diverse and
wide ranging literature, a comprehensive framework for cataloging
and analyzing the variety of risks has not yet emerged.
These risks play a major role in developing effective market
designs that achieve aggregate emission caps while encouraging
market participation and investment in carbon reduction
activities. What are the risks associated with carbon offset
policy? Who bears these risks? A conceptual framework of
carbon trading risks is developed. Institutional/policy
risks relate to trading incentives and regulations, project
risks reflect traders’ physical and financial risks,
and measurement risks reflect the difficulty in measuring
carbon sequestration resulting from management practices. |
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Or 
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| Sampson,
R. Neil and Grover, Mansi. “National Carbon Offset
Coalition Handbook, 2004-2005”, Summer
2004.
Abstract:
The
handbook is designed for technical people, landowners, buyers,
and researchers who wish to understand how the National
Carbon Offset Coalition is organized to facilitate the creation
and marketing of carbon sequestration units (CSU’s).
In the handbook concepts and terms related to carbon sequestration
and trading are defined and explained. |
| A copy
of the handbook can be downloaded at http://www.ncoc.us |
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| No
Unit Root in GNP: An Implication of Statistical Adequacy
:
Fall 2003
Abstract:
Dickey and Fuller in the late 1970’s provided methods
by which the unit root hypothesis could be tested. Subsequent
to this, Nelson and Plosser made a landmark application
of these methods to macroeconomic time series, which has
produced numerous other enquiries of this nature. One such
application is Stock and Watson (1986). This study revisits
Stock and Watson’s results, with the main conclusion
being that real per capita GNP is trend rather than difference
stationary. This conclusion contradicts both, Stock and
Watson as well as Nelson and Plosser, but is due to its
application of the more robust method of ensuring statistical
adequacy. This paper shows that real per capita GNP is a
trend stationary rather than a difference stationary process.
This conclusion is yet another in the series of more recent
studies which have overturned the results of the seminal
investigation by Nelson and Plosser. The paper’s conclusion
is also inconsistent with the results of the metric against
which it is being measured; the results of Stock and Watson
(1986). This comes as no surprise as these results are consistent
with most studies which employ the more robust approach
of establishing statistical adequacy before attempting to
test for unit roots. The statistical adequacy approach is
deemed to be more robust because it ensures that a set of
internally consistent probabilistic assumptions is imposed
upon the model. Without this kind of consistency no inferences
should be drawn from a model’s results, because at
best such inferences are misleading, if not entirely false. |
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Or 
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| Assessing
the Impact of Uncertain Resolution on Forest Cover and the
Definition of a ‘Forest’
:
Fall 2003
Abstract:
The Kyoto Protocol has the provision of international carbon
offset trading as one of the flexibility mechanisms for
meeting carbon reduction goals. However, determining the
number of offsets generated by, say, a forest plantation
requires a measure of the amount of carbon sequestered by
the forestland, which in turn depends on how much area in
the plantation actually constitutes a ‘forest’.
This analysis addresses the uncertainty in the measurement
and representation of geographic phenomena, particularly
land cover. The uncertainty stems from the vagueness of
the labels that are assigned to different zones, which is
a result of absence of objective geographic individual units
(Longley, et al) and also from the lack of comparability
across spatial resolution in terms of land use and land
cover data. More precisely, the question that is addressed
is what absolute or relative incidence of trees in a tree-covered
zone qualifies it for the label of a ‘forest’
and how does the corresponding measure of tree cover behave
with varying spatial resolution of data. The measure of
‘forest cover’ increases as spatial resolution
of data falls. The increment in the measure of forest cover
is the largest for areas with a lower density of tree cover.
This analysis would be particularly useful for evaluating
CDM projects in developing countries which are not likely
to have very good data on land cover. And if these countries
acquire better data, the definitions of forest cover would
have be reevaluated and the results of this analysis would
have to be kept in mind in order to get a realistic estimate
of corresponding forest cover claims. |
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Or 
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| Reaves,
D. W., Stephenson, K., Grover M. “Perspectives
from accounting.” Essays on Leadership in Environmental
Management. Erchul, R.A., Bush, H. F., Maisano,
Marilyn, R. D., ed., pp. 93-103. Virginia Military Institute,
Lexington, Virginia, 2004. |
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| ©
2004 Mansi Grover. All rights reserved. VT is a trademark of Virginia
Polytechnic Institute and State University |
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