Preserving Lake George with a cyberphysical system
Editor’s note: This article is by Distinguished Engineer
Harry Kolar from IBM Research.
New York’s Lake George is threatened by salt, algae, Eurasian
watermilfoil, Asian clams, and zebra mussels. And they’re affecting the fish
and vegetation that earned it the moniker “The Queen of the American Lakes.”
This encroachment of runoff and invasive species prompted IBM, Rensselaer
Polytechnic Institute (RPI) and the Fund for Lake George to form the Jefferson
Project and defend the lake.
“Lake George is without comparison, the most beautiful
water I ever saw,” U.S. President Thomas Jefferson said in 1791.
About Lake George
Formed
10,000 years ago by melting glaciers, it is:
- 4 miles wide
- 32 miles long
- 200 feet deep
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Tucked into the southeastern corner of the Adirondack
Mountains, Lake George’s oligotrophic state – one of low nutrients that would
otherwise feed algae and other invasive species – keeps its waters clear and its
fish healthy. But according to the Rensselaer Darrin Fresh Water Institute’s 30 year
study, “the renowned water quality of Lake George is ‘slowly [and] steadily’
declining … exhibiting ‘ominous downward trends and significant deterioration’
that will require bold commitment to avert an inexorable slide toward permanent
degradation.”
The Jefferson Project partners are investing several years
and several million dollars into solutions that not only improve the health of
the lake, but as the Fund stated in its announcement of the project, “guide
investment decisions … inform and, indeed, empower the constituency committed
to protecting Lake George.”
Predicting the lake’s (pristine) future
Jefferson has several moving parts. Initially, we (the
partners in aggregate) will utilize existing data from
Rensselaer to develop a
circulation model of the lake. In parallel, we’ll deploy a complement of
sensors in and around the lake to monitor its physical, chemical, and
biological characteristics, just as we have done in similar projects at
Galway Bay
(Ireland) and the
Hudson River.
These sensors will not only support research and development
of a circulation model that describes how water moves within the lake. We will
also couple this with our
Deep
Thunder weather modeling, as well as hydrological modeling, to help us
understand the impact of external events (rainstorms and roadway salting in the
winter, for example). These components make up a “cyberphysical system” – a
computational and visualization platform to collect data from sensors and to support
advanced modeling approaches for Lake George.
An advanced
mesocosm facility will float
on the water. It will be full of sensors and experimental equipment, including
robotic
technologies to conduct experiments. We’ll
operate and gather data from the facility at
Rensselaer’s
Darrin Fresh Water Institute at Bolton
Landing. Using a
Blue
Gene/Q and other computing platforms, we’ll be able to research important
questions such as “what was Lake George’s ‘pristine state’ before human
settlement?” As well as forecast changes in the lake, and decide what
preservation actions to take.
The Gulf of Mexico could suffer an 8,500 square mile dead
zone this summer. Toxic algae have bloomed across 2,000 square miles of Lake
Erie. And scientists in Sweden want to pump oxygen into the Baltic Sea to
revive its dying
ecosystem.
What if we knew the “pristine state” of every gulf, lake,
and sea? And through predictive modeling, understand how to return them to that
state? Over the next three years, the Jefferson Project will deliver this
knowledge, and plan of action to preserve one of New York’s natural
wonders. And we want to apply these techniques
toward helping solve the problems of contaminants, dead zones and invasive
species in bodies of water, world wide.
Labels: bluegene, deepthunder, lakegeorge, New York, Project Jefferson, Rensselaer Polytechnic Institute, smarterwater