Archive for the ‘water’ tag
This is a guest post by Monaca Noble, a biologist at the Smithsonian Environmental Research Center’s Marina Invasions Laboratory. For the last 10 years, Ms. Noble has worked on issues related to the transport of marine species in ballast water and the introduced parasite Loxothylacus panopaei.
This June, 49 enthusiastic volunteers came out to search for zombie crabs in Maryland’s Chesapeake Bay. Together they searched through shells from 52 crab collectors distributed throughout the Chesapeake Bay’s tributaries. Volunteers found thousands of White-fingered Mud Crabs (Rhithropanopeus harrisii), hundreds of fish (Naked Gobies, American Eels, and others), and several parasitized zombie crabs at our site on Broomes Island, MD.
What are zombie crabs? Zombie crabs are mud crabs that have been parasitized with the introduced parasitic barnacle, Loxothylacus panopaei (Loxo for short). Loxo is a parasite native to the Gulf of Mexico, the Caribbean, and parts of Florida. It parasitizes at least nine species of mud crabs (xanthid crabs) throughout this range. Read the rest of this entry »
The World Water Monitoring Challenge results are out!
Earlier this year, I found myself hanging over a concrete ledge by the Charles River. But not to worry – it was nothing dire. I was actually trying to collect a water sample for the World Water Monitoring Challenge.
Talk about diving headfirst into citizen science.
On September 18 of each year, the WWMC encourages people around the world to test the quality of the water near them, share their findings, and become inspired to protect one of the most important (if not the most important) resource on our planet. The entire program runs annually from March 22 (the United Nations World Water Day) until December 31.
The primary goal of the WWMC is to educate and engage citizens in the protection of the world’s water resources. Their philosophy is this: conducting simple monitoring tests teaches participants about common indicators of water health and encourages further participation in more formal citizen monitoring efforts.
It doesn’t just end with submitting your water sampling data. The WWMC make it a point to report the results back to participants each year in an annual report. The data for this year are now available online and open for all to see.
Citizen scientists across 6 continents and 51 countries participated. Taiwan alone reported 92,023 individual efforts. Within the U.S., Florida took the lead with 10,143 reported individual efforts. In all, 10,371 water test kits were distributed.
*The data in this graph represent the mean average results for regions listed in the map, spanning from 2009 to 2013. The results reported for WWMC do not constitute a completely thorough and accurate portrayal of the health of the world’s water. Accurate water quality monitoring requires the use of standard quality assurance protocols and is conducted by trained volunteer monitoring groups and professionals around the world.
WWMC participants sampled local lakes, streams, rivers, ponds, reservoirs, and other water bodies and ran simple tests for four key water quality indicators: dissolved oxygen, pH levels, temperature, and turbidity. (Learn more about why these things are important to measure when it comes to water quality monitoring.) Some groups even tested for the presence of macroinvertebrates such as dragonflies, mayflies, and scuds. Samples were taken in a range of settings – agricultural, commercial, residential, and industrial.
This project is ideal for anyone who lives near a water source, educators who want ideas to teach students about water chemistry, or citizen scientists hoping to get their feet wet with an increasingly important field of research.
Lily Bui is the Executive Editor of SciStarter and holds dual degrees in International Studies and Spanish from the University of California Irvine. She is also the STEM Story Project Associate for Public Radio Exchange (PRX) in Cambridge, MA. This fall, she’ll be a masters candidate in MIT’s Comparative Media Studies program. Previously, she helped produce the radio show Re:sound for the Third Coast International Audio Festival, out of WBEZ Chicago. In past lives, she has worked on Capitol Hill in Washington, D.C.; served in AmeriCorps in Montgomery County, Maryland; worked for a New York Times bestselling ghostwriter; and performed across the U.S. as a touring musician. In her spare time, she thinks of cheesy science puns. Follow @dangerbui.
This Saturday June 21st, collect samples from bodies of water to catalog the ocean’s microbial biodiversity.
Want more marine-themed citizen science projects? We’ve got you covered!
This Saturday June 21st, citizen scientists will be able to take part in MyOSD (official site) the citizen science component to this year’s Ocean Sampling Day (OSD). The event is organized by Micro B3 (Microbial Biodiversity, Bioinformatics and Biotechnology) a European cross-disciplinary multi-institute collaborative aimed at developing large-scale research efforts to forward marine biodiversity research. On OSD, scientists around the world will collect water samples in an effort to catalog the ocean’s microbial biodiversity. On the same day, citizen scientists will gather environmental and contextual data. Organizers say that this ‘snap shot’ of the Earth’s waters might be the ‘biggest data set in marine research that has been taken on one single day.’
Scientists are interested in marine microbes because of the role they played and continue to play in shaping our global environment. Microbes were critical to the evolution of life on the Earth. “Microbes were the first organisms evolving on Earth. When microbes developed the ability to photosynthesize, they began producing oxygen. This transformed the Earth’s early environment, making it hospitable to life,” explains Julia Schnetzer a graduate student at the Jacobs University and Max Planck Institute and the MyOSD coordinator.
“Today, marine microbes still produce more than fifty percent of the oxygen we need to breathe and consume fifty percent of the world’s carbon dioxide. In addition they are involved in key biological processes in the ocean system such as nitrogen fixation and the carbon pump.” Nitrogen fixation increases the availability of biologically accessible nitrogen by transforming atmospheric nitrogen into ammonium. The ocean’s carbon pump is a biological cycle which removes atmospheric carbon and sequesters it into organic materials deep inside the ocean. Several gigatons of atmospheric carbon are cycled into the oceans each year. “Their participation in these processes make microbes critical in shaping the climate of the planet and thus are essential to the health of our environment.”
OSD will help scientists understand microbe biodiversity and how microbes affect the environment. On the 21st of June, teams of scientists will take water samples at various locations and identify microbial content via DNA sequencing. Marine microbes are particularly challenging to raise in culture, which has hindered their study in the laboratory. However advances in high through-put DNA sequencing technology have made it more practical and cost effective to study marine microbes directly from their natural habitat. In addition to analyzing microbe content, scientists will be taking environmental and contextual data such as water salinity, mineral content, air and water temperature.
“The results from OSD will produce two sets of data especially useful for marine scientists. The data about microbial biodiversity will help us understand which species are present and what they are doing. The environmental parameters will give us an idea on how the microbes influence their environment and how the environment influences them,” says Schnetzer. All the collected data will go into a publicly available open source repository. Researchers and citizens can visit the OSD map to see the locations and the genomic, environmental, and contextual data from the sampled sites. The website provides a helpful tutorial on farming the data.
More areas sampled mean better resolution of our ocean’s picture. OSD organizers need citizen scientists to help fill in the gaps. If you live near a body of water, you can help collect environmental information such as location, time, and temperature. Even if it is just a small nearby stream, OSD organizers still want your data. If you own water sampling devices, or are willing to build your own like a simple Secchi Disk, you will be able to provide additional useful information such as water pH or transparency. Download the free OSD app (Android and iPhone compatible) to make submitting your measurements easier. Don’t have a phone? Just save the data and submit it later online. Find out details about contributing to the project, data gathering instructions and analysis kits here.
Organizers hope that by engaging citizen scientists it will provide a better understanding of the value of our oceans and the need to protect them. “The more citizen scientists support there is for MyOSD the better the event will become and the more emphasis can be placed on the importance of education and outreach in marine science in future OSDs,” says Schnetzer.
So this Saturday, go out, get wet and get some data!
 My OSD-OSD Citizen Science
 National Oceanography Centre – Biological Carbon Pump
Top Image: OSD-Micro B3
Bottom Image: megx
Dr. Carolyn Graybeal holds a PhD in neuroscience from Brown University. She is a former National Academies of Science Christine Mirzayan Science & Technology Policy Fellow during which time she worked with the Marian Koshland Science Museum. In addition the intricacies of the human brain, she is interested in the influence of education and mass media in society’s understanding of science.
Today is World Water Monitoring Day! Participate by ordering a test kit and submitting sample data through December of this year. Also, check out the ocean of other water citizen science projects on SciStarter.
Here at SciStarter, we spend a lot of time supporting citizen science, but we also happen to be citizen scientists ourselves. In the spirit of World Water Monitoring Day, I trekked to the Charles River in Boston to grab a water sample. Barring all potential parking and trespassing violations, it was a success! Still, you might wonder, why does this sample matter? Why care about water?
I’m glad you asked. But before I dive deeper (pun intended), here are some facts to consider. An adult human is made of ~60% water. About 70% of Earth is covered by water. We need water for our metabolic processes internally and for our day-to-day tasks externally. Water is there when you shower, brush your teeth, or guzzle down a drink after a run. Water is also essential for the productivity of farms, which, in turn, provide us food. You get the picture: we need water. Likewise, so do other animals and plants, especially those that live in or near aquatic environments.
Consequently, the sample data collected and submitted by millions of people on World Water Monitoring Day not only benefit us human beings. It also helps scientists better understand a multitude of aquatic environments around the globe.
Participating couldn’t be easier. World Water Monitoring Challenge, an education and outreach program, provides kits that you can purchase and use to sample the water in your area. Here are the main concepts behind what you can test and why it’s important to do so.
Turbidity, the measure of relative water clarity. This is important when producing drinking water for human consumption and for many manufacturing uses. Turbid water may be the result of soil erosion, urban runoff, algal blooms, and bottom sediment disturbances caused by boat traffic and bottom-feeding fish. (You can even make your own secchi disk to measure turbidity.)
pH, a measurement of the acidic or basic quality of water. Most aquatic animals are adapted to a specific range of pH level and could die, stop reproducing, or move away if the pH of the water varies beyond their range. Low pH levels can also allow toxic compounds to be exposed to aquatic plants and animals. pH can be affected by atmospheric deposition (acid rain), wastewater discharge, drainage from mines, or the type of rock in the surrounding area.
Dissolved oxygen levels. Natural water with consistently high dissolved oxygen levels is most likely to sustain stable and healthy environments. Changes to aquatic environments can affect the availability of oxygen in the water. High levels of bacteria or large amounts of rotting plants can cause the oxygen saturation to decrease, which affects the ability of plants and animals to survive in and around it.
Water temperature. If temperatures are outside an organism’s normal range, the organism could become stressed or potentially die. Temperature also affects the rate of photosynthesis in aquatic plants as well as their sensitivity to toxic wastes, parasites, and disease. Furthermore, water temperature can affect the amount of oxygen water can hold (cold water holds more oxygen than warm water).
This project is ideal for anyone who lives near a water source, educators who want ideas to teach students about water chemistry, or citizen scientists hoping to contribute to an increasingly important field of research.
It’s the perfect project to illustrate that when it comes to citizen science, you can dive right in.
“How Much Water is There On, In, and Above Earth?” USGS. Web. 9/18/13
“Importance of Turbidity.” Environmental Protection Agency. 9/18/13
“The Water in You.” USGS. Web. 9/18/13
World Water Monitoring Challenge booklet
“World Water Monitoring Day.” Wikipedia. Wikimedia Foundation, Inc. Web. 9/18/13
Images: Lily Bui
Lily Bui is the executive editor of SciStarter. She holds dual degrees in International Studies and Spanish from the University of California Irvine. She has worked on Capitol Hill in Washington, D.C.; served in AmeriCorps in Montgomery County, Maryland; worked for a New York Times bestselling ghostwriter; and performed across the U.S. as a touring musician. She currently works in public media at WGBH-TV and the Public Radio Exchange (PRX) in Boston, MA. In her spare time, she thinks of cheesy science puns. Follow @dangerbui.
This post is part of this week’s featured projects about water quality monitoring. Take a look!
Despite over 70% of the Earth’s surface being covered in water, one in nine people do not have access to an improved water source.(1) Contaminated water kills more people than all wars, crimes and terrorism combined yet more people have a mobile phone than a toilet.(1,2,3) Every day, on our way to work or school or play, we encounter local water supplies, subconsciously noting their health. Could improving water quality be as simple as snapping a photo on your smart phone?
Creek Watch was developed by IBM research – Almaden, in consultation with the California Water Resources Control Board’s Clean Water Team, to empower citizen scientists to observe and monitor the health of their local watersheds. According to Christine Robson, an IBM computer scientist who helped develop Creek Watch, “Creek Watch lets the average citizen contribute to the health of their water supply – without PhDs, chemistry kits and a lot of time.”
Watersheds, land where all the water in creeks and streams drain into the same aquifer, river, lake, estuary or ocean, surround us. Conservation biologist Erick Burres of California’s Citizen Monitoring Program: The Clean Water Team explains, “Creek Watch as a learning tool introduces people to their streams and water quality concepts.”
Once the free iPhone application is downloaded, citizen scientists are asked to take a photo of their local waterway and answer three simple questions: What is the water level? (Dry? Some? Full?) What is its rate of flow? (Still? Slow? Fast?) And, how much trash is there? (None? Some? A lot?) The photo, GPS tag, and answers are then uploaded in real-time to a central database accessible to water experts around the world. Water resource managers track pollution, develop sound management strategies for one of our most valuable resources, and implement effective environmental stewardship programs.
Since its launch in November 2010, over 4000 citizen scientists in 25 countries have monitored creeks and streams, providing invaluable information to over-extended water resource managers; water quality data that would otherwise be unavailable. Watershed biologist Carol Boland is using this data to prioritize pollution cleanup efforts in San Jose, California. Similarly, local citizen scientists are comparing their observations to previous years as well as data collected around the world on the Creek Watch map to help inform local voluntary stewardship programs.
Creek Watch is increasing global awareness about watersheds and environmental protection. This is just the beginning. Future applications will allow citizens to monitor every aspect of their surroundings – from urban services to wildlife distribution, noise pollution to air quality and even global warming; in order to solve some of the biggest challenges of our day.
Join thousands of citizen scientists monitoring our planet’s water supply as you head to work, school, and play this week. Could your picture save a thousand streams?
Photo : IBM Research
1. Estimated with data from WHO/UNICEF Joint Monitoring Programme (JMP) for Water Supply and Sanitation. (2012). Progress on Sanitation and Drinking-Water, 2012 Update.
2. International Telecommunication Union (ITU). (2011). The World in 2011 ICT Facts and Figures.
3. United Nations Population Fund (UNFPA). (2011). State of World Population 2011, People and possibilities in a world of 7 billion.
Dr. Melinda T. Hough is a freelance science advocate and writer. Her previous work has included a Mirzayan Science and Technology Graduate Policy Fellowship at the National Academy of Sciences (2012), co-development of several of the final science policy questions with ScienceDebate.org (2012), consulting on the development of the Seattle Science Festival EXPO day (2012), contributing photographer for JF Derry’s book “Darwin in Scotland” (2010) and outreach projects to numerous to count. Not content to stay stateside, Melinda received a B.S in Microbiology from the University of Washington (2001) before moving to Edinburgh, Scotland where she received a MSc (2002) and PhD (2008) from the University of Edinburgh trying to understand how antibiotics kill bacteria. Naturally curious, it is hard to tear Melinda away from science; but if you can, she might be found exploring, often behind the lens of her Nikon D80, training for two half-marathons, or plotting her next epic adventure.