Archive for the ‘Geology & Earth Sciences’ Category
If you’ve already signed up to participate in NASA’s Soil Moisture Active Passive research to ground-truth satellite data, great! (And thank you!) As soon as you input your data to the GLOBE site, you’ll receive an embroidered version of this patch.
Interested in joining SMAP? We are looking for teams in the following states: AK, AR, ME, NE, NV, NM, TN, UT, VT, WV
Track phenology events in Appalachian mountains and contribute to climate change research with Mountain Watch!
Want more spring citizen science? We’ve got you covered through April showers and May flowers.
There is nothing more rewarding than taking in the view from above tree-line. A challenging hike always seems like a distant memory after gazing upon the landscape below, especially if it’s the White Mountains of NH. Now, the Appalachian Mountain Club (AMC) is calling on visitors of these Northeastern peaks to help them observe plant life through the Mountain Watch program. This citizen science initiative aims to investigate how the life cycles of alpine plants are affected by climate change.
To do this, Mountain Watch asks participants to record plant phenology, which is the study of how plant life cycle events, such as flowering or producing fruit, are affected by changes in environmental conditions, including temperature and precipitation. Plant life cycles are very sensitive to small variations, so even subtle changes across seasons can be observed. For example, a dry summer might cause the leaves on trees to change color earlier in the fall. When recorded over many years, these phenology records can start to uncover long term trends in the climate and help scientists to model the effects of climate change in a certain region.
Since the AMC is based in the Northeastern portion of the Appalachian Mountains, the focus of Mountain Watch is on alpine plants that are found exclusively at high elevations in the north. The program is targeting these alpine species specifically because they have adapted to survive only in harsh, low temperature conditions and cannot thrive in warmer climates. As such, they are especially sensitive to climate change. Georgia Murray, a scientist a the AMC, describes that the Mountain Watch observations help to make up “really rich mountain data sets” that, paired with temperature observations from the Mt. Washington observatory, help to understand how climate change has affected the environment in the Northeast.
This year, the Mountain Watch program is joining an exciting new collaboration called A.T. Seasons (A.T. for Appalachian Trail), which is working to develop sites for citizen scientists to collect plant phenology data all along the Appalachian Trail. Mountain Watch joined this project to get more people involved, and as Georgia explains, to “utilize the A.T. as a north-south corridor in understanding phenology in climate change.” The goal of A.T. Seasons is to monitor the same type of plants along the whole Appalachian Trail to better understand the interplay of climate and phenology across geographical regions, as well as in relation to climate change. As alpine species only grow on the northern section of the A.T., they will not be included in this portion of the program; however, Georgia notes that Mountain Watch will still maintain the “alpine focus that is unique to the AMC and our region in the northeast” in addition to the A.T. Seasons plant list.
The incorporation of A.T. Seasons into the Mountain Watch program allows more citizen scientists to be involved, as the new initiative provides options for different levels of commitment – there is an Android app for easily making one-time measurements and more in-depth training courses for people who want to make long-term observations. The alpine flower portion of the Mountain Watch program does require more “dedicated volunteers,” as Georgia says, who can commit to regularly visiting the remote mountain sites, but there are many educational tools on the website for those who just want to learn more.
So grab those hiking boots and get outdoors! Spring and summer are the best times to observe plant phenology, and the sweeping views of the White Mountains await.
Top image: Sean O’Brien via Flickr
Bottom image: AMC Mountain Watch
Emily Lewis is a PhD candidate in chemistry at Tufts University, where she analyzes industrially important catalysts on the nanoscale. She received her BS and MS degrees from Northeastern University, and her thesis work examined fuel cell catalysts under real operating conditions. She loves learning about energy and the environment, exploring science communication, and investigating the intersection of these topics with the policy world. When she’s not writing or in the lab, you’ll probably spot Emily at the summit of one of the White Mountains in NH. Follow her: @lewisbase, emilyannelewis.com
Monitor the rates and sizes of meteoroids striking the moon with the Lunar Impact Monitoring project.
Citizen science after hours…here are some citizen science projects you can do at night.
By now you’ve probably seen Gravity, and maybe you figured real astronauts don’t have to worry about projectiles, flying debris, or explosions. After all, the stars seem so calm from Earth, and the only turbulence we see on the surface of the moon are the waves breaking its reflection over the river. But sometimes, if you look long enough (even with the naked eye), you can spot a meteorite hurtling into Earth’s atmosphere with a flash. Approximately 73,000 lbs, about two large truckloads, of rock streaks through the Earth’s atmosphere each day. Earth’s atmosphere causes the meteorites to burn out before they do any damage, but the Moon has no protection against meteorites and neither do spacecraft or astronauts who might be working on or near the Moon. Potential for catastrophe? Worthy of little globes of Sandra Bullock tears? I’d say so.
To understand what risk these meteorites pose to spacecraft and their crews working in the lunar environment, astronauts have to know how often meteorites impact the moon, what size, and with how much force. Astronomers have been able to see the meteorites hitting the Moon for years – it doesn’t take much. When a meteorite strikes the Moon, it explodes in a flash that can be caught with only an 8 to 14 inch telescope and a clear sky. Since 2006, NASA astronomers like Rob Suggs say they “point telescopes at the night portion of the moon and record video from sensitive cameras,” which they analyze later. Simple as that, the Lunar Impact Monitoring Project at NASA was born.
Suggs says NASA began seeking out the help of citizen scientists immediately: “Many amateur astronomers have equipment similar to what we use.” By having more eyes on the moon, NASA can greatly increase the likelihood of seeing a lunar impact flash. The scientists want to be able to see as much as possible but sometimes, Suggs says, “we are clouded out or the Moon has set at our observatories while the Moon may still be visible from an amateur astronomer’s backyard.”
And sometimes amateur astronomers are the ones who end up seeing the impact. George Varros, a citizen scientist volunteer who has been involved with the Lunar Impact Monitoring Project since 2006, has already caught several impacts on camera. Varros first got involved with the project in part because of a lifelong love of astronomy, but he also says he recognized NASA was asking the amateur astronomy community to do “solid science, and it was not very difficult to do.” Even so, Varros says that the work “does take an effort and several hours, several nights, of imaging might elapse before you record [an impact],” but the wait is well worth it. Capturing an image, he says, is the best part. Already, the project has been able to catch the birth of a new crater and 300 flashes.
Once an image is caught on tape, NASA scientists can try to correlate the impact with a meteor shower they know about and use that information to learn the speed and size of the meteorite. Often, these meteorite can fly through space eighty times faster than the fastest jet on Earth. So far, meteorites haven’t been known to destroy any spacecraft, but some people say that some in-space anomalies – bumps and bruises – have been from meteorites.
Whatever violence the rocks are causing up in space, lunar monitoring is still a peaceful experience from Earth. Suggs says it’s been thrilling to see impacts from the project and “seeing the new crater that Lunar Reconnaissance Orbiter detected from our March 17, 2013, impact was extremely exciting and satisfying.” But his favorite part of the project is still sitting out and watching the sky. Suggs says, “I enjoy the observing: just me and the telescopes and the Moon in the middle of the night.”
Images: Wikimedia (top), courtesy of George Varros (GIF)
Angus Chen is the managing editor for the SciStarter Blog network which includes the Discover magazine “Citizen Science Salon” blog and the Public Library of Science’s Cit Sci blog. He’s also a freelance reporter and producer at WNYC Public Radio on “The Takeaway” with Public Radio International and the NY Times. You can also read his work with Science magazine. He was once a scientist studying geology and ecology, but now spends his days typing and scribbling and sketching furiously.
Using the Quake-Catcher Network Citizen Science Project to Meet Common Core and Next Generation Teaching Standards
Citizen Science in the Classroom: Quake-Catcher Network
Quake-Catcher Network Citizen Science Project Meeting Common Core and Next Generation Teaching Standards
Quake-Catcher Network (QCN) is a citizen science project that uses internet and sensors (subsidized or free for K-12 classrooms) to connect schools and other entities to an earthquake monitoring network. It is hosted through Stanford University (along with UC Berkeley) and is supported by the National Science Foundation, US Geological Survey, the Incorporated Research, UPS, and O Navi (a low cost sensor development company). The idea of this project is to create earthquake and seismology awareness, as well as recording data though a “distributed computing network.” This means that your classroom’s computer will be linked to a network of other computers relaying information back to the central hub monitoring for earthquakes.
For this project you need to be at least fairly tech savvy and able to understand how to download drivers and software, and able to install programs on your computer. The initial investment of time will be setting up everything so that it syncs with the BOINC seismology network. I would suggest at least a good solid hour or possibly two. You may also have to go through your IT department to be sure that there are no firewall issues and that you have permission to add the software required. However, the investment is well worth the hand-on science aspect of this project and the feeling of connection that students may gain by participating in a global program.
The nice thing about this project is that it provides teacher support, lesson plans, and multimedia materials to help get you started. This type of citizen science, and the lesson plans provided, tends to run towards middle to high school content but it can be used by elementary schools as well.
Materials You’ll Need:
I’m going to spend a bit more time on the materials section, because this project is more tech centered than others. The QCN has different way that your classroom can participate in this project, either through seismic software sensors that are already in your mobile device or laptop (many Macs have this) or by sending you a $5 subsidized sensor. There is an option for a free sensor, but you must be in what they deem a “high risk” area, which I take to mean on a fault line or high activity area. Otherwise, you can mail in a request form for up to 3 sensors for $5 each. The nice thing is that for low income schools you can get a “loan” sensor and there is a free sensor program for schools that are Title1.
Sensors require that you have a USB capable device and you can dedicate one USB port to the project. The software that you download comes in a variety of formats for Windows and Mac. You will also need a location on the floor that will not be disturbed by students. Your sensor will be connecting to the network using a software program called BOINC (Berkeley Open Infrastructure Networking Computing). It was originally used for the SETI program, but now it’s used for computer sourcing projects world-wide.
Some of the lesson plans on the QCN site also require that you have a mobile device or computer with an accelerometer. This is built into most smart phones though you may need to download an app. You may also borrow one from QCN. This is not required to participate in the program.
- Computer with internet access.
- QCN network sensor.
- USB Drive that can be dedicated to this project.
- Permission to download drivers and BOINC software to the computer.
- Duct Tape and glue
Why This Citizen Science Project is a Strong Candidate for the Classroom:
- Even though the program has some tech to it, it can be set up fairly easily.
- There are many strong lesson plans free online.
- Technology from this project supports STEM curriculum.
- Teachers can run simulations and scenarios for students in the classroom.
- This project incorporates maps, graphs, and technology.
The lessons and activities provided by QCN can be found on their website. These tell you exactly what grade they are for and there are variations of some activities for different grade levels, K-12.
Online Safety for Children
The set up for QCN is done by an adult, and students do not need to enter information or data. Teachers will need to create a BOINC account with an e-mail and password. There are options to provide data about where you sensor is located. The more specific (long/lat) the better because this helps with their data collection. However, the BOINC software allows you choose to provide very specific or very general location information if you’re worried about privacy.