Now You Can Submit High Hopes For The World With Twitter!

NOTE: This post was originally posted on the High Hopes Project Blog:

When we launch our balloons to 100,000 feet (30,000+ meters) this spring, the world’s high hopes will go with them. Now we’ve made it even easier to submit a “High Hope” using Twitter. Just “Tweet” your “High Hope” for the world, include the hashtag #hhpstem – and we’ll get it and include it in a payload that will take it to near space and then release it to spread around the world. So your “High Hope” will really go high!

We suggest however that having your students write their “High Hopes” for their school, community and the world might need more than 140 characters so then, as we shared in our last post:

“When we first designed the “High Hopes Project” years ago, we went about making sure it stressed not just the powerful content writing experiences about the science and engineering, but the creative writing we knew it would motivate students to engage in. We’ll share more of those along the way, but having students brainstorm, discuss, and share what their “high hopes” are for their school, community and the world turned out to be gold. Most students (maybe adults too) just don’t think about what can and could be.

Originally we had our students write those three “hopes” … school, community … world. We posted general steps, but we have no strict rules about how you submit your “Hopes.” They can be just be one “hope” per student … a “class” hope that the class develops … it is up to you. “Hopes” could also be written as a poem or short story. Once done, you submit them here.”

Either way is fine, you decide. But you just might want to send your own “High Hope” to us quickly through Twitter … and now you can! Remember the hashtag #HHPSTEM  – you can even send more than one!

Learning is messy!

Making and Taking Flight

When experienced using a truly integrated approach, STEM learning is, I believe, the most powerful language arts program there is. The reason so many still struggle with STEM is that they approach it as an “add-on” … something else they have to make time for instead of embracing it as a culture. Yes, it takes time to cultivate that culture where students have learned to work together to solve problems and make things. It also means changing how you run your classroom and you have to give up, at least some of the time, the siloing of subjects and your daily schedule.

Unfortunately, demonstrating and providing experiences for teachers that include even a smattering of the possibilities during a 75 – 90 minute presentation is quite possibly impossible. But we keep trying to do so because we keep being asked to. My boss wants me to set up some 16 hour classes next school year (I’m already overbooked for this year) that will provide more time to experience what that is like from the student point-of-view, so that is definitely on my radar for next year.

Yesterday we were asked again to do our best to make that connection between ELA and STEM at the local Reading Conference for teachers. Here is how we went about it:

We believe it is key to have teachers learn their ABC’s. Not as in the alphabet, but as in Activity Before Content. So we began with an activity. The science reading our students (actually the teachers in our session) would take on was about flight and specifically dealt with lift, drag, thrust and gravity. We did not front load the vocabulary as is common practice, instead we used the activity to give them schema.

We passed out a balsa wood prop plane to each group of 3 to 4 teachers and instructed them to put them together. We gave no other instructions.

We noted that every group actually read, discussed and followed the directions on the package! 🙂

Once finished, teachers were asked to discuss and write about the construction experience, then what ways their plane could be “adjusted” to achieve the longest flight possible. We had them share a few of their answers but made no comments on whether their ideas would truly make a difference. Then we found an empty hallway for the 50+ participants to fly the 18 planes we had passed out. We also gave them a 10 meter measuring tape and had then bring the science notebooks we had them make along, but again, did not tell them what to do with them if anything.

The groups staked out spots to fly and we observed intently.

Most groups decided to throw their planes after winding the propeller rubber band what seemed to be the “right number” of spins. One group launched their plane from the ground because they felt that throwing it wasn’t consistent and could skew the data they were collecting. Then we started to see groups were counting the number of turns of the propeller so that their data would be “more comparable.” Next some were making tweaks to the wing position and so on to achieve a straighter flight and more. So they were discovering things about flight and how their planes functioned through experience, NOT because we took class time to lecture and demonstrate the “right” way.

It was a 75 minute presentation, so that was all the time we had for flying. We returned to class and had them journal about their experience for 3 minutes or so and then did a quick debrief. During our discussion it was noted that these planes are not a perfect way to do inquiry science/engineering because there is no way to control all the variables. Even if you wind the propeller the same number of turns each time the way the rubber band winds up is different and could effect the flight. releasing the plane if you give it a toss is problematic because you can’t be sure you gave it the exact same toss and released it at the exact same angle. When it lands (usually crashes) the wings and tail get moved … did you put them back exactly where they were the last time? Launching from the ground is easier to control overall, but did you let go of the propeller and the plane at the same time and way each time …. and more … you get the idea. So this is a great and motivating way to teach the steps of doing inquiry, but just realize the data produced is slightly unreliable at best.

Note that if you did this activity in your classroom, what we did during the presentation would be how you would introduce the activity. You are just letting students have time to become familiar with how these things work. Next you would get into why this isn’t a perfect inquiry piece but ask them for ways to control the variables as best as possible so we can learn how to get the longest, straightest (or whatever you and they decide to learn about – maybe all of these and more). Perhaps you would agree to launch from the ground behind a line. Do you measure to where the plane ended up, or mark where it first hit the ground? All these decisions lead students to understand how inquiry is done … let them figure it out as much as possible with you playing the role of “reluctant guide” – only helping with advice or opinions when you judge you just have to to move things along. HAVE students take photos, video clips, take notes … even though they will balk at that to keep making flight after flight …. solid science and engineering require descriptive note taking and data collection.

 

Next we handed out some leveled science readers that had the same article about flight, with the same illustrations and charts, just written at different reading levels. Teachers were then instructed to read the article closest to their grade level (K-1, 2-3, 4-6, 6-9 or so) and take notes on the connections between their activity and what they learned from the reading. When they shared out teachers mentioned how the vocabulary was more interesting and meaningful to learn about because they had experienced them during the activity ( lift, drag, thrust and gravity). In addition because the article was about a flight around the world in a propeller powered plane they understood more of the issues the main character had experienced … and they were just more motivated to read it period because they had assembled and flown their own plane.


We quickly made the point that what they had just experienced in 40 minutes would easily be 1 to 2 weeks in the classroom with all the flights, data collection, journaling, creative writing possibilities, analyzing the data in math, re-enginnering to achieve longer or straighter or finding out what the “best” number of turns to put on the rubber band is and on and on. Imagine connecting with another class anywhere in the world doing the same inquiry and sharing data and discussing results and stories of the good, bad and ugly of what happened during all the flights. How could you bring art in? History? Guest speakers?

We next shared some of the connections to the Next generation Science Standards and shared some other resources and our time was up.

Learning is messy!!

 

Next Design Challenges For Students

Originally posted at the High Hopes Project Blog

Lots has happened since we last checked in with students at Sparks High School that are designing and engineering several of the payloads we will send up to 100,000 feet (33,000 meters). The students finished one design for releasing the world’s High Hopes. The plan is to solicit the world’s “Hopes” – (you can add your students’  “Hopes” here) print them out on small strips of paper that will biodegrade rapidly, release them at 100,000 feet or higher and then have them spread out over the world and become one with the Earth. The challenge is to make that happen under the severe conditions the payload will experience.

Above is the simple, lightweight design that includes a framework inside to mount a camera that will record the release of the “High Hopes,” as well as a latch to hold it closed. Next we will turn the payload over to Sparks Middle School students to design a way to open the payload at just the right time. The high school students are also working on a second release payload that will release some of the “Hopes” at a lower altitude – local elementary students are designing some of the “Hopes” so they will glide or helicopter down … but that has to happen at a different altitude for reasons we will leave to you and your students to figure out. 🙂

Next we shared the other engineering design problems the high school students will take on. One of our launches will be from Lake Tahoe. We were working out how to do that last year when we had this failure and this success, Now we plan to drop cameras over 100 feet deep in the lake and part of that camera package will include a water pressure gauge the students have to design and build (they will also need to become familiar with Noble Gas Law). One of the cameras will track the gauge to record the water pressure from it’s deepest point to the surface of the lake. An air pressure gauge will also be deployed on the payloads above the surface. We will share the data from those and other readings … your students can inquire to figure out what will happen to those readings during the flight as well as temperature and other readings.

In addition, they have to reel the 100+ feet (33+ meters) of line the cameras and gauge are attached to back up to the other payloads so they aren’t dangling, possibly causing instability. So after they break the surface of the lake, those need to be retracted.

As a model STEM project, one of our goals is to set up collaborations not only between students at various schools, but also between students and engineers. The Mechanical Engineering and Materials Science departments at the University of Nevada, Reno, are experts in high altitude ballooning, and they have agreed to mentor our student participants. So on this visit we brought along Sierra Adibi,  a junior in the mechanical engineering department. Her minor is in unmanned autonomous systems … so we felt she just might be a good fit. 🙂

Above: Sierra answered their questions and gave them some background and ideas on how they might utilize the Noble Gas Law in their water pressure gauge design. She also noted materials they were utilizing and asked questions about what they needed to consider for the conditions their designs have to deal with. Such a great opportunity to have students connect with people really working in the field … to see what others are doing. We’re planning to have Sierra come back to talk to the students more about the note-taking and writing pieces required for this kind of work. Their teacher, Mr.Walsh mentioned that students were struggling somewhat with those skills and Sierra offered to return soon with examples.

Finally we also gave them a problem to start on we will share at a later date. However it does tie-in nicely with the paper airplane design project Mr. Walsh already has planned in the coming month. Needless to say, by the end of the discussion it was hard to tell who was more excited, the students or us! With all the challenges the high school students are given, they are turning over some of the design and building over to the middle school and elementary students as needed. The whole world can join in by learning about the characteristics of our atmosphere and water, drawing informed conclusions and then using the data and media we will share after our launches to see if their conclusions were correct.  We’ll share more about how anyone can be part of this project in future posts.

What are your “High Hopes!?”

Next we meet with the middle school and elementary students to inform them of their challenges.

Learning is messy!

Next Design Challenges for Students in Our High Hopes Project

I’ll probably repost this here in full later, but we just posted an update over on our High Hopes Project blog. Exciting stuff going on, read about it here: Next Design Challenges For Students.

 

 

The STEM Missile (really MSTL)

In my job as STEM Learning Facilitator I travel hundreds of miles each month around the 6 counties in my region, but at times all around our state. One of the toughest challenges we face is the technology integration piece.  Many (way too many) educators still possess minimal skills or knowledge in integrating technology, have limited access to technology, are blocked from most online collaboration enabling applications, are unaware of what is available (since it’s blocked) and misinterpret laws protecting students from online dangers. In addition, any use of technology (“We go to the computer lab for 30-45 minutes a week.”) is perceived as implementing the “T” in STEM effectively.

Furthermore, each school district has it’s own network, protected by their own security systems, and they tend to not relinquish access to those networks easily, even for someone coming in to train their educators.

So to enable us to do a much better job of delivering quality professional development (PD) we came up with the idea of a mobile lab to control for many more of the variables of access and hardware that have frustrated us and the participants in the PD sessions we offer.

I’m not going to spend time here explaining fully what led to the choices we made, but know there was thought that went into those choices. Cost was a big factor.

We chose to go with 21 Acer Chromebooks. The lab also contains 3 Verizon Mobile Hotspots so we have connectivity almost everywhere we take the lab that isn’t filtered, and 21 waterproof digital cameras so we can model integration and archive teachers’ learning to their own free Flickr accounts which we set up during trainings. The wireless hubs also enable showcasing and utilizing applications like blogs, wikis, Twitter and more during trainings and presentations so educators and administrators can perceive their education value. Thankfully, this also tends to foster discussion about safety and other issues that we can then deal with in an open way based on at least this initial experience.

MSTL Chromebooks

 

Right now the lab sits in plastic tubs, but part of our plan is to develop a cheap, light transportation system that will also keep the components of the lab in good shape. We already have some ideas for that that I plan to share later.

 

(Below right) 21 Fuji digital cameras being charged for the first time – we chose these because they have fewer moving parts (the lenses don’t open and shut like most point and shoot cameras do these days), they are waterproof to 10 meters deep and are purported to survive being dropped from 5 feet … so hopefully they will take a bit more rough handling and if the opportunity arises could be used underwater … we’ll see. MSTL Cameras

 

 

We’ve already had some success, even before obtaining the MSTL (Mobile STEM Technology Lab), in persuading one reluctant school district to open up blogs, wikis and Flickr on a trial basis to one school. We had discussions with teachers, administrators and school board members and demonstrated the educational value they were missing and explained that they would not be losing their E-Rate funding (a common misconception) if they allowed access to any social networking applications.

That promising experience actually helped us secure the funding for the MSTL.

We tried out the MSTL in a training last week in a classroom in the center of a high school with a very low, heavy metal ceiling and lots of suspended metal ductwork. We suspected in advance that that would slow connectivity, and it did, but we also know that most of the training sites we utilize don’t have that issue (and we’ve used the hubs in these locations and achieved good connectivity), so we are confident. I’ll keep you apprised of how things go!

Learning is messy!

High Hopes Project 1st Design Meeting

I posted this over on our “High Hopes Project” blog  and decided it fit well here too:

We refer to The High Hopes Project as a “model” STEM project. One aspect of that modeling is that we’ve designed it to include as many ways to participate as possible. To do so we have set up (so far) a project web site, this  blog, a Twitter account, a Flickr account, a YouTube Channel, a Wiki and a Gmail account so we have access to tools like Google Forms for archiving and analyzing data.

In addition, any class or person can participate in the experiments we will send up by researching and theorizing based on what should happen, and then analyzing the data we gather and share about the atmosphere including temperature and pressure and in sending up the world’s “High Hopes” – including yours (more explanation about those aspects will be shared along the way – we don’t launch balloons until April and May) .

However another characteristic of this project is we chose 3 local schools to participate in certain engineering designs for the project to act as surrogates for all of us (an elementary, middle and high school). We contemplated opening up the major engineering design portion of this project to the world, but realized quickly that receiving design ideas from potentially tens if not hundreds of classes from around the world would be beyond our time constraints and abilities to judge and implement.

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Doug Taylor who co-designed this project looks on as a student explains the mock-up of the High Hopes payload and release mechanism the class is engineering and building.

 

The first one of the engineering challenges the students in Mr. Walsh’s physics class at Sparks High School are tackling is how to release the “High Hopes” the world submits so they can be spread around the world – more than likely they will be printed on small strips of paper – the paper we use breaks down in the environment in a matter of weeks BTW, so our High Hopes will become one with the Earth. One batch of the High Hopes will be designed to helicopter or glide in the air (to be designed by the elementary students) and have to be released at a lower altitude, but the bulk of the High Hopes will be released as high as possible (around 100,000 feet or 33,000 meters). So that requires 2 payloads.

The students informed us a week ago that they had done some initial designing and had some mock-ups to show us, but more importantly had questions about requirements and conditions to deal with. We set up a time to meet with them and included Andy Smith who is a mechanical engineering graduate student at the University of Nevada, Reno. Andy is close to receiving his doctorate degree in engineering and has launched over 50 balloons himself, as well as designing payloads and the communications devices required to track them so they can be recovered. He has agreed to consult with students throughout the project.

IMG_2800The students showed us 2 designs – one basically a pyramid shape they envision being a bit more aerodynamic and stable, and another shaped more like a rectangular prism. The rectangle design also had a rudimentary release mechanism built in. They had chosen styrofoam sheets,  as the material … oh and the ever ubiquitous duct-tape.

One question they had was about payload size. They had no idea just how many “High Hopes” they had to transport, but they assumed about a ream of paper worth (500 sheets). In fact they had placed a ream of paper inside their initial designs and dropped them from their school building as an initial test and both survived intact. We explained we really had no firm idea just how many we might receive over the months before we launch, but that their test seemed like a good start.

 

Andy answered their questions about release mechanisms and how to release the High Hopes at the right moment. They discussed the possibility of using arduinos they could build and program, perhaps based on altitude readings. Andy also made them aware of some of the other design issues they would have to overcome including temperature, high and very low humidity, and high winds …  and that some glues and other materials don’t do well under certain conditions.

IMG_2801

Andy answering questions about engineering design.

We’ll keep you updated as designs progress. PLEASE SIGN-UP TO BE PART OF THIS PROJECT!

Learning is Messy!!

Our Latest RECON Campaign

RECON-final-logos-4-for-web-v2 It’s been over a year since I last posted about RECON (Research and Education Collaborative Occultation Network). From the project web site:

“Have you ever wondered what’s found in the outer reaches of our solar system? It turns out many, many objects orbit the sun out past Neptune. Called trans-Neptunian objects (TNOs), these frozen bodies were formed at the same time as the rest of our solar system – making them close to four and a half billion years old. Determining the sizes of these objects will help us better understand their formation and composition, and could tell us a great deal about the origins of our solar system.”

And:

“To measure the size of a TNO, we use the shadow it casts on Earth as the TNO moves in front of a distant star – an event called an occultation.”

Tonight … well really very early Saturday morning, our network of 14 telescopes at 14 sites that stretch from south of Reno, Nevada, to the California border, will focus our telescopes on a star so faint we probably won’t be able to see it with our eyes … even with a powerful 11 inch wide reflecting telescope. So to even find it we zero in on a field of stars we know the target star will be in the middle of. Then we attach a camera, or in this case a laptop computer and record the image during the window of time that the event is supposed to take place (Early Saturday morning, November 15, from 2:10-2:30AM Pacific Time). Follow the link above to the project web site to learn more about how this works – it includes photos and a video of an occultation (think eclipse – that’s basically what an occultation is).

The project has been so successful that it was just funded to increase the number of sites and telescopes to reach from the Mexican border in the south, to the Canadian border in the north.

Students (mostly middle and high school students) are recruited to be part of the teams of citizen scientists (all of us volunteer) to make the observations, record the data and even help analyze and share the results. Most of the participants are teachers that recruit their own students and community members to be part of the research team.

Here’s a link to a post about tonight’s campaign including photos, maps and charts.

Learning is messy!

Close Reading? OK, How About Close Doing?

Reading

 

 

 

 

 

 “Reading” Sebastien Wiertz

Close reading is one of the “strategies du jour”.

From the Common Core State Standards in ELA:

1. Read closely to determine what the text says explicitly and to make logical inferences from it; cite specific textual evidence when writing or speaking to support conclusions drawn from the text.

In addition from the Harvard Writing Center:

The second step is interpreting your observations. What we’re basically talking about here is inductive reasoning: moving from the observation of particular facts and details to a conclusion, or interpretation, based on those observations. And, as with inductive reasoning, close reading requires careful gathering of data (your observations) and careful thinking about what these data add up to.

In pretty much all trainings and presentations I deliver about STEM learning, I stress how STEM is language intense. I go so far as to state that it is one of the most powerful language arts interventions available. But that is only true if you take advantage of the language learning (and loads of other learning possibilities) that STEM provides.

STEM learning is somewhat its own enemy because often the activity or experience involved is so interesting, intriguing or engaging (or all 3) that the students get excited and talk about it excitedly (and often parents voice how excited their child was when they came home) and teachers assume everything (or enough) important was learned. What is probably more often the case is that the lesson/learning experience was just about the STEM learning and integrating the language arts either isn’t part of the plan, the time to integrate isn’t perceived as important, or the usual issue of not feeling there is time rears its head.

This is a powerful learning opportunity missed. Really opportunities missed. Let’s focus on just one. Instead of “close reading,” we’ll refer to it for lack of a better name as “close doing” (but we could call it “close making” or “close observing” or other possibilities).

I point out repeatedly how too often field trips or major hands-on activities (doing or making activities) are planned to be experienced  as either stand alone experiences or end of unit experiences with little to no emphasis on how they tie to the overall learning plan. Will the learning be integrated into all subjects or are those connections just assumed to be made? What if instead these experiences were provided early on in the unit? Example: Students are learning about animals- adaptations, habitats, and so forth. After a bit of learning about what adaptations and habitats are, we take a trip to a zoo or wildlife park to observe and learn about animals. Students are required to take notes and ask questions about the animals habitats and adaptations and take digital photos and video clips of animals, but also information displays and more.

Trips like these are usually exciting for students and even lead them to wonder and wanting to learn more. But often (as stated above) this also marks the end of the unit; “That was fun kids, next week we start learning about the planets!” Here’s where I propose “close doing” comes in. Using students memories, notes and photos (which I always archive somewhere like Flickr (free) so students, families and collaborators have access to them) we make close observations about each animal – what were some of the characteristics of each animal that helped them adapt (claws, fur, shells, eye size, … ) – colors, but more – not just white, but creamy white and white like a cloud or milk – even emphasize really what color white was it, cloud white? Pearl white? Cream white? Which is the best descriptive color, or texture, or simile to something man-made for example.

All the senses should come to bear: What did animals, their parts, their habitats, etc. look like, feel like (or look like they feel like if you couldn’t really touch them)) smell like, sound like … go deep! This takes time AND should probably happen during your language block, not just a science period (but could be both) because this is language study as much as it is science. Students should be taught and challenged to be close observers and inferrers. Just as close as they have to be when they are close reading.

The same is true for the hands-on activities- the doing and making experiences the students have. What did you observe during that experiment or construction/engineering piece? What were all the happenings, colors, actions, reactions and so on that you saw and explain what each one had to do or didn’t have to do with the overall result?  Thinking “close” about how you observe and do and problem solve and more, about any of these aspects of a project or unit. (NOTE: You wouldn’t do the super intense “close doing/observing” with every part of the project – that’s as stifling as overdoing close reading – I’m saying consider picking some part of the learning or doing and do it every once in a while – a couple/three times a year maybe – then you have built and practiced those essential skills and have those “close doing” schema experiences to relate to in other subjects as well).

Just like it takes many readings and lots of probing questions to facilitate “close reading” skills and thinking, the same is true of observing and noting all of what was observed and/or done in “close doing.” Getting students to note all the meaning is the goal here too.

The vocabulary that comes from these experiences is amazing … and because it is based on schema all the students build together, and have in common, it becomes a valuable reading instruction resource later; “Remember when we saw that bear at the zoo and he seemed both scary and cuddly at the same time? How does this character remind you of that? Or how is this character different than that?” OR “Remember how we noted that the bear’s fur was brown like the bark on a redwood tree?” Why do you think this author chooses the colors she uses to describe the buildings and streets in this chapter?”

Then, because students have thought and taken notes about not only facts, but color, texture, actions, behaviors, and much more, they are scaffolded to write incredible descriptive poetry, stories, captions for the photos they took, narrations for videos that share and assess their learning and so much more.

“The second step is interpreting your observations. What we’re basically talking about here is inductive reasoning: moving from the observation of particular facts and details to a conclusion, or interpretation, based on those observations. And, as with inductive reasoning, close reading requires careful gathering of data (your observations) and careful thinking about what these data add up to.”

Remember this quote about close reading above? Re-read it and note how it fits with STEM learning. Ingesting  that motivating, hands-on learning and taking the time to “interpret” it – then sharing through text or video, or podcast, or any number of other publishing portals … and preferably shared online to promote and obtain the benefits of connected and collaborative learning as well – emphasizing that “close” idea, just not only with text.

Let’s change out some of the words from the definition of close reading from above:

Think about and do closely to determine what the research, experience, investigation and inquiry says explicitly and to make logical inferences from it; cite specific _ evidence when writing or speaking to support conclusions drawn from the research, observation, collaboration, inquiry and experience.”

So what I am saying is, is that STEM or inquiry learning is just as important and valuable a language arts learning opportunity as reading text, if the vocabulary and writing and research are emphasized and connected to close thinking and inferencing skills. And it provides another avenue or method to connect students struggling to interpret text to thinking about and explaining meaning and learning. Not saying it takes the place of reading text, just that it is as important to do because students are just as weak at interpreting, citing and inferring from other inputs, and articulating from them is just as important.

And if you build students “close doing” skills, the next time you are doing “close reading” – you have built schema for being successful at that as well: “Remember how long it took us to come up with “redwood bark” as a great description of the bear’s fur? How frustrated we were for awhile? But then when we came up with that and saw how near perfect it was as a description … how excited and motivated we were? That’s what we have to do now as we think about this text passage.”

Also note – if you are trying to jam STEM learning into a crowded schedule (STEM is a culture, not a time of day or day of the week), here is your valid reason and method to truly integrate it.

Learning is messy!

Student Tissue Paper Balloon and High Altitude Launches At The Great Reno Balloon Races

DSC02939In an earlier post I quoted a press release that stated that 900+ students and teachers would participate in the Great Reno Balloon Race, Tissue Paper Balloon Launch Day. A last minute surge of participants put the number closer to 1100. And note that teachers can only bring their classes if they have attended one of our trainings on how to construct a tissue paper balloon. These trainings have been going on for years, so there was a greater number of teachers that could participate than we thought would register.

With the help of the University of Nevada, Reno, Swim and Dive Team we ran 10 of our 14 launchers non-stop to not only launch every balloon, but also numerous re-launches after students re-engineered their balloons after their first launch, making changes to get the most out of their balloon. Usually this involved cutting the weight and patching holes. We had tables set up with tape and scissors and glue sticks to encourage just such re-engineering.

The Great Reno Balloon Races contacts all teachers that have been trained, makes them aware of the date of this year’s launch, pays for their materials to construct their class balloons, transportation to the Great Reno Balloon Race site, provides volunteers and then feeds all participants a barbecue lunch. Some participants have an 80 mile round trip … all paid for … a fantastic resource to get teachers and students involved in STEM learning. The Great Reno Balloon Race staff are totally supportive of the entire endeavor. And now we are talking about expanding the program to include even more students and teachers! DSC02952

 

 

 

 

 

The wind decided to change directions late in the morning. This led to some “Charlie Brown Kite-In-The-Tree” kind of experiences … about 3 out of hundreds. We’ve already planned to make that less likely next year.

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Besides the Tissue Paper launches, we also launched 3 high altitude balloons, one about every 45 minutes or so. These were part of making students and teachers aware of this years expanded “High Hopes Project.” During the spring of 2015 we are planning to launch probably several balloons up to 100,000 feet (30,000+ meters). We collected “High Hopes” – from students, stuffed them in the balloons and sent them up to 60,000 feet – so their “High Hopes” went up high. We will share much more about this school year long project soon.

There’s no reason we should have all the fun and learning though. So I just posted about how to construct a tissue paper balloon, and also the launchers we used. Try this incredible STEM learning experience yourself!

Here are links to more photos and videos of launches:

Here

and Here.

Learning is messy!

Send Your Students’ (and anyone else’s) High Hopes Up High

Note: If after reading this post you decide to participate leave your “High Hopes” Here.

IMG_4969 Doug Taylor and I started the High Hopes Project back in 2010, when we were both teaching 4th grade. Doug had seen this article about MIT students sending a styrofoam cooler attached to a balloon with a camera inside to near space and thought it would be a great way to study the layers of the atmosphere and other topics we were supposed to teach. Besides the science, language arts and other curriculum the project uncovered, we hit on the idea of having the students write their “High Hopes” for their school, community and the world. We shared the idea on this blog HERE, on our class blog, and I spent much of my TEDx Talk in Denver that summer describing the project.

We are planning our biggest launch yet during the spring of 2015. To kick off this project, which will be explained in more detail in future posts, we are launching 3 high altitude balloons this Friday from the Great Reno Balloon Race while 900 students are there to launch their own tissue paper balloons (see previous post). The balloons will make it to about 60,000 feet ( 18,000 meters) and will carry the “High Hopes” of anyone that sends us their “Hopes” by this Thursday night (9/4/14). In addition we will send them up this spring during the larger project.

To participate either write a “class high hope” or have students submit their individual high hopes in the format: “I live in (Optional), and my “High Hopes: for my school, my community and the world are …”

Here are some actual examples written by our fourth graders in 2010:

I live in Sparks, Nevada, and My “High Hopes” for school include graduating high school and working hard to improve my grades. But my Highest Hope for school is to graduate college and get a good job that I like.

I live in Sparks, Nevada, and my “High Hopes” for my community include police because they keep us safe, hospitals because they can heal and fix the injuried and schools so we can graduate school.

I live in Sparks, Nevada and my High Hope for the world is ending homelessness because it’s kind of sad that someone has no roof over their head.

Learning is messy!