My map is a link. Hope that’s okay.
My drawing machine is called “Water Matrix”
Here are the screenshots from my drawing machine:
The .zip for my program is here.
Threats to water quality and quantity are gaining increasing attention worldwide, as climate change and other major environmental concerns have led to detrimental water shortages in drier areas, such as California and the American southwest, as well as impending shortages in areas of relative abundance, such as the Great Lakes region. Although the Great Lake represent a massive transboundary water system that contains 20% of the world’s fresh water supply, scientists have predicted that major Great Lakes cities like Chicago could face water shortages as early as 2050. For the 26 million people in the United States and Canada who obtain their drinking water from the Great Lakes, the preservation and protection of this precious natural resource is essential for their survival.
However, citizens of the Great Lakes basin are often either unaware of potential threats to their water supply, or immobile in terms of civic action that could protect it. To this point, a notable issue facing the Great Lakes in recent years is the possibility of contamination by oil spills, as associated with existing and proposed refineries, pipelines, and transport routes that operate on and around the lakes. Although citizens of the Great Lakes basin have both the right and the ability to participate in discussions and decisions regarding the operation of oil companies in the Great Lakes region, many citizens remain unaware of the issue or uninvolved in it. While it is possible that the citizens are simply apathetic, it is also possible that they are entirely unaware of the issue or lacking information that would empower them to formulate an opinion upon which to act. If citizens understood the rising significance the Great Lakes as a fresh water resource—as well as the risks it faces by the operations of oil companies, relative the benefits of the oil—perhaps protection and stewardship of the lakes would seem more relevant.
Are people aware of oil spills in the Great Lakes basin? How do they understand and explain the potential threats posed by these spills, if they perceive there to be a threat at all?
How, if at all, do people feel they can participate in the management of their fresh water resources? Do they understand how water in the Great Lakes is governed, and where citizens can become involved?
What do people see as the value of oil operations in the Great Lakes? How do they feel about the benefits or risks of proposed pipelines and transport routes in the Great Lakes area? Do they see these developments in a positive, negative, or ambivalent way?
Over the weekend, I saw an interesting water-related data visualization / light installation, so I thought I’d share it with the class, in case anyone is interested.
On Friday night, I went downtown to see a light installation that was operating in the “green alleyway” known as Couch Place. (Apparently, the alley is considered “green” because the pavement is permeable.) The installation was called “FLOW/Im Fluss,” and it was created by a German artist (now living in Chicago) who is affiliated with the Goethe Institut. Here is a description of the project: “Inspired by the element of water and its all-encompassing connectivity, Luftwerk’s FLOW/Im Fluss visualizes the characteristics of the Chicago River and Hamburg’s River Elbe through video compositions projected on water screens.”
From what I could gather, the artist used light to visualize various datasets related to the health of the Elbe River (which flows through Hamburg, Germany). Datasets included measurements of oxygen levels, nitrates, and pollutants such as e coli. Each dataset was represented with a different pattern of light (oxygen levels = circles, e coli levels = chaotic swirls, etc.), which were projected onto the many water droplets that were being sprayed into the alley from above. The artist also created a comparative visualization for the Chicago river, which was projected onto another set of water droplets at the opposite end of the alley.
Viewers were able to look at the visualized chemical structure of the two rivers simultaneously and to see their similarities and differences.
Here is a picture of the light installation in action:
In addition to the visualization, the artist also sonified the data. She correlated each chemical compound to a sound (examples included a trumpet, a radio playing, and various objects in motion). A live musician was playing the artist’s composition while the light installation was active. Here is a picture of the musician:
When I spoke to the artist, she pointed out that she was surprised at how difficult it was to obtain open data regarding traces of chemicals in the Chicago River. She said that data regarding the Elbe River is readily available (open to the public) and is constantly updated, so she was disappointed to discover that Chicago did not have a similar offering. She said the Chicago River data was all historical, from records she collected from a group called “Friends of the Chicago River.”
In “Critical Visualization, Peter Hall acknowledges the rising importance of information exchange in modern life, and he discusses the increasingly significant task of rendering complex datasets meaningful and helpful to society. Although Hall recognizes that this issue is becoming rapidly more important, he also acknowledges that the need to make otherwise “bland” information more useful, meaningful, and aesthetically pleasing is not a new one. Consequently, Hall traces a short history of “visualization” as a concept, highlighting a spectrum of perspectives that variously define “visualization” as a technology, an art, or a science.
Ultimately, Hall concludes that each of these definitions is limited in its own way. For example, a purely scientific approach to visualization often fails to understand that the metaphors by which human beings symbolically represent natural phenomena are actually arbitrary (for example, the notion that the color red could indicate a hot temperature). The purely scientific perspective thus has a tendency to neglect cultural context, and, on a separate note, it has been criticized for placing too little value on the aesthetic quality of visualization.
Comparatively, according to Hall, the technological perspective on visualization has often aligned too closely with the concept of technological determinism—the idea that a given piece of technology (in this case, a given visualization) can be understood as the definitive “cause” of changes in society. To believe that any given visualization has such a power is to ignore the fact that the visualization itself was informed and influenced by a cultural context that led its creator to interpret the relevant dataset in a specific way. The data was not “already meaningful” before the artist made it so; rather, datasets come to “mean something” when people use them to tell stories.
The preceding analysis brings Hall around to the notion of visualization as a critical art form. Visualization, he argues, is concerned not only with technology and science, or even aesthetics, but also with a process of interpretation. The critical visualization artist is “sizing up and reformulating a terrain of knowledge as well as experimenting with new and alternative forms.” Critical visualization has the power to bring social issues into conversation in a way that makes information “readable” in new and powerful ways.
Although the following visualization does not necessarily involve a complex dataset, it is an example of how a creative graphical rendering can bring two concepts together in a moment of critical social commentary. Given the fact that an alarming amount of plastic bag waste finds its way into the environment—particularly, into the ocean—this public awareness campaign was meant to visualize the harmful consequences that consumer can choices have on wildlife. Importantly, consumers are reminded of the consequences of their actions at the very moment the action occurs, and they are forced to live with the criticism they presumably get from passersby, all of which hopefully contribute to a change in behavior:
I just thought I’d share a link to this event called “Chicago School of Data Days,” which is happening in Chicago (at the Willis Tower) on Friday, September 19 and Saturday, September 20th.
The event is free, and there are 42 tickets left. The topic seems absolutely applicable to our class, so perhaps some of us would be interested in attending and letting the others know what kinds of cool things were discussed.
Here’s the link to read about the “Chicago School of Data” (affiliated with “Smart Chicago”), and here is a link to sign up for the event.
Topic One: Oil Spills in the Great Lakes Basin
Source: Lambert, S. (2010, July 30). Oil spill area evacuation due to air quality. Battle Creek Enquirer. Battle Creek. Retrieved from http://www.battlecreekenquirer.com/article/20100730/OILSPILL/7300328/Leak+forces+evacuations+
Thesis: After an Enbridge, Inc. pipeline issue resulted in a significant leak on the Kalamazoo River, elevated levels of a toxic chemical (benzene) were present in the air and water, resulting in heightened public health awareness and the recommended evacuation of many households.
- 30-50 households asked to evacuate
- 100+ households told not to drink their water
- EPA estimated that 1 million gallons of oil spilled, Enbridge estimated 819,000
Source: Gray, H., Schornack, D., Gourd, R., Brooks, I., Blaney, J., & Olson, A. (2006). Report on Spills in the Great Lakes Basin. Retrieved from http://www.ijc.org/files/publications/ID1594.pdf
Thesis: By examining the history of spill incidents on the St. Clair – Detroit River, this report was designed to assess whether or not chemical spill incidents are increasing in the region. However, the report’s actual conclusions are focused on the lack of standardized monitoring, data collection, and reporting practices, all of which have prevented activists, policymakers, and advocates from gaining the comprehensive knowledge necessary to enforce spill prevention measures and to evaluate responsibilities for cleanup and costs.
- Cleaning up the Rouge River oil spill cost more than $10 million (US funds), and the cost of the U.S. Environmental Protection Agency investigation alone was $2 million.
- The Rouge River oil spill involved an estimated 100,00 to 255,000 gallons of lube oil and diesel fuel. It was the largest oil spill in 20 years to the Great Lakes basin.
Topic Two: Water Loss, Water Shortage
Source: Flesher, J. (2011, February 9). Officials Warn of Great Lakes Water Shortage. CBS Chicago. Traverse City. Retrieved from http://chicago.cbslocal.com/2011/02/09/officials-warn-of-great-lakes-water-shortage/
Thesis: This article summarizes the findings of a U.S. Geological Survey, which reported that groundwater levels in the Chicago and Milwaukee metro areas have dropped 1,000 feet due to climate change, increasing demand, and ongoing water loss. The decline in water levels and the increase in water extraction from the Great Lakes has led some experts to suggest that Chicago may face a water shortage by 2050.
- The Great Lakes contain 6 quadrillion gallons of water—enough to spread a foot-deep layer across North America, South America, and Africa.
- Chicago diverts 2.1 billion gallons from Lake Michigan on a daily basis, which has lowered Lakes Michigan and Huron by about 2.5 inches.
Source: Chicago Metropolitan Agency for Planning. (2010). Water 2050. Chicago. Retrieved from http://www.cmap.illinois.gov/documents/10180/14452/NE+IL+Regional+Water+Supply+Demand+Plan.pdf/26911cec-866e-4253-8d99-ef39c5653757
Thesis: This report assess water supply and demand in the Chicago area in order to facilitate discussions of water policy and to make recommendations regarding ongoing management of surface and groundwater resources. The report outlines possible water conservation efforts in the form of water-saving strategies, new infrastructure developments, wastewater reuse, and storm water collection.
- The population of Cook County is currently about 9 million, but it is expected to reach 12.1 million by 2050.
- One strategy to reduce water loss is to raise prices. The price elasticity of demand for NE Illinois is estimated to be -0.15, that is, for a 10% increase in price, quantity demanded falls by 1.5%. However, it is estimated that 36% of water customers in NE Illinois don’t know their water bill frequency, and 47% don’t know their water willing unit.
- By 2050, climate change predictions suggest that the annual average temperature may raise up to 6 degrees (F) above normal.
This project (specifically, 0:15 – about 1:30) visualizes the amount of water pollution produced by different countries by displaying a stream of light (I think?) into a water basin. It seems that the size of the spreading light within the water corresponds to the amount of pollution produced. There is no narrative explanation, so it’s hard to tell.
Q1: Is there a summary available somewhere of the devices that the city uses to collect various types of data? I am asking because I wonder if Chicagoans are able to suggest additional uses for existing data collection methods (for example, if there are sensors detecting water level and temperature on Chicagoland beaches, could they also detect water quality?), or for suggesting new data collection technologies altogether.
Q2: How, if at all, does the city work with non-governmental entities to collect data in Chicago? I am struggling to think of an example, but I wonder if the city has partnerships in place with companies or organizations that maybe already have certain infrastructure in place for their own purposes, but they are willing to work with the city to make data available to the public.