Abstracts: CMOS
Ottawa, 2019-2020
(in
language
given)
Béchard:
The Canadian Hydrographic Service (CHS) is Canada's agency for charting
Canadian waters. Canada has the longest coastline of any country in the
world, with more than a third of its territory under water. As a
maritime nation, global maritime transport traffic is significant.
Hydrography supports safe navigation and shipping through the
production of nautical charts and other publications including water
levels. With opportunities provided by emerging technologies and the
move to e-navigation and autonomous shipping, hydrography is becoming
digital. This presentation will provide an overview of international
developments and how CHS is preparing to make the move to a
data-centric organization, moving from static to dynamic products and
services.
Vogel: The
Lima-Paris Action Agenda of the Paris Agreement has formalized a role
for sub-national entities such as cities (large urban source regions)
as leaders in greenhouse gas mitigation and climate adaptation.
Currently, over half of the world's population lives in metropolitan
areas globally and urban regions also account for 82% of Canada's
population in 2016 [World Bank]. Future population growth is also
predicted to occur mostly in these urban centers, both globally and
domestically. Therefore, the Integrated Global Greenhouse Gas
Information System (IG3IS) of WMO/UNEP has identified urban GHG
emission as a core action area where scientific information can be
expected to respond to stakeholder needs in the near future. IG3IS
activities aim to help create the framework to provide diagnosis of
urban emissions at scales relevant to urban decision making and enable
identification of low-carbon or carbon mitigation opportunities. After
an introduction on IG3IS, results from research groups on data-driven,
observational and (inverse) modelling techniques for city-scale GHG
studies are presented, with a specific focus of previous work of the
Climate Research Division of ECCC and its collaborators in the GTA. The
strategy of how the GTA testbed can be efficiently completed to help
support local decision makers and how ECCC can provide support to the
wider IG3IS community is presented.
Hamzawi: This
presentation will highlight key findings of Canada's Changing Climate
Report and provide a broad overview of Canada's agenda on climate
change action. The presentation will outline the importance of aligning
science with policy and action. In doing so, Environment and Climate
Change Canada is developing a National Climate Change Science and
Knowledge Plan. The objectives of the Plan, including the critical role
of partnerships, will be discussed.
Desjardins:
The
development and evolution of Agricultural Meteorology in Canada in the
50s, 60s and 70s will be briefly reviewed and examples of some of the
research done by some of the pioneers will be presented. Like in many
areas of research, in the 80s and 90s, the research approach by small
groups of agricultural meteorologists was eventually replaced by a
multidisciplinary research approach. Examples from some of the large
scale research projects that ensued, as well as some of the important
findings, will be presented. These studies gave rise to a better
understanding of the role of the major terrestrial ecosystems in the
world on climate as well as the role of climate on these ecosystems.
The 2000s and 2010s brought a further shift away from Agricultural
Meteorology to research on Climate Change with emphasis on
Environmental Sustainability. I will present the findings by our
research team of the estimates of the carbon footprint of agricultural
products in Canada. Hopefully, this information will help producers and
consumers make decisions that minimize the impact of the agriculture
sector on climate change.
Laroche:
The Global
Deterministic Prediction System (GDPS) plays a central role in
Environment and Climate Change Canada (ECCC) for the production of
operational weather forecasts. This system provides medium-range
forecasts and lateral boundary conditions to the Regional Deterministic
Prediction System (RDPS) for short-range forecasts. The GDPS also
supplies initial conditions for experimental prediction systems such as
the Canadian Arctic Prediction System (CAPS), which provides km-scale
forecasts over the Arctic for the Year of Polar Prediction (YOPP)
campaigns. Both the GDPS and RDPS use a 4D-EnVar data assimilation
system to produce the initial conditions. Near 13 million observations
from space-based and terrestrial networks are assimilated daily. 88% of
these observations are from 17 satellites. The remaining observations
are from terrestrial networks such aircraft, radiosondes, surface
stations, ships and buoys. The impact of satellite and terrestrial
observations on short to medium-range forecasts is not homogeneous over
the globe, as revealed by recent Observing System Experiments (OSEs) as
well as with Forecast Sensitivity to Observation Impact (FSOI) tools
use for assessing the relative importance of observations on
short-range forecast skill. These tools are very useful for providing
objective guidance on future implementation and rationalization of
meteorological observing networks.
Gilmore:
Estimates of the economic benefits of avoiding climate impacts by
reducing greenhouse gases (GHGs) are essential for identifying
opportunities to mitigate and adapt to climate change. Here, I review
approaches for monetizing the physical damages from climate change and
how these values are employed for sound policy analysis. I then focus
on two examples of advances in modeling these benefits: First, I
discuss the co-benefits of GHG mitigation for the improvement of air
quality and reductions in human health effects, especially premature
deaths. Second, I examine the interactions of sea-level rise and human
displacement and the implications for managing retreat from the coasts.
These analyses show that taking action on climate change will benefit
Canadians and people around the world by avoiding economic damages and
saving lives.
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