Cometary Tales All That Was Asked,Blog Ready . . . set . . . and . . .

Ready . . . set . . . and . . .

Pre-Orders Are Open

You can now pre-order my new book direct from Paper Angel Press or through your favorite bookseller:
Barnes & Noble (all editions)
Amazon
Smashwords
Apple Books
Kobo Books

This first-contact story explores the challenges of communication between species–when neither side has a universal translator to rely on, when the alien in question is so odd most people would consider it an animal, not a person, and when accidents and misunderstandings get in the way.

Ansegwe’s a tagalong, a wannabe poet, and the pampered offspring of a rich, powerful family. When faced with the choice of leaving an injured alien creature to fend for itself in the wilds of a strange world, he makes decisions that force him to contend with his own failings–but also help him discover his mission in life.

Available in hardcover, trade paperback, and digital editions on January 31st. Pre-order now! Free shipping for B&N members and on Amazon Prime.

You might also like to read:

Good News, Everyone!Good News, Everyone!

“Good news everyone! I’m sending you on an extremely controversial mission!”
―Professor Hugo Farnsworth, “The Birdbot of Ice-Catraz”, Futurama

It’s graduation season, and I’m in post-production now after playing the role of Audience Member in three recent productions of Commencement 2014. At UC Berkeley’s Department of Earth and Planetary Sciences, Professor Tanya Atwater of UC Santa Barbara provided the keynote address. She was excited to report on her experience as part of the team writing the new science standards.  For members of the EPS department, the “good news” is that the new standards specifically include Earth & Space Science as one of four core disciplines.  Advocates of coding-in-every-classroom will also be happy that one of the four is “Engineering, Technology, and Applications”, though they may be disappointed to find that coding is not all there is to technology.

However, as Professor Atwater pointed out, this is a creation devised by a committee, and a large one at that.  These standards are huge, complex, and demanding.  I won’t be surprised if primary teachers throw up their hands and say “Heck, the old Science Framework was complicated enough!  We’re going back to literature, thanks a lot.” I had a peek at a few pages–the new standard can be surveyed in an interactively, online.  For instance, if you select Grade 1 and Physical Sciences, you are taken to a page entitled Waves and Their Applications in Technologies for Information Transfer

If that’s not enough to send your primary-grade teacher screaming to the arts-and-crafts cupboard, he/she is then presented with a grid of expectations about what first-graders should be able to understand and demonstrate about waves, from sound waves to light waves.  I can tell by the “clarifying statements” and all the hyperlinks to definitions for everything from the requirement that students “Make observations to construct an evidence-based account” to explaining that you use “Cause and Effect” to show that when the lights are off you can’t see objects.  Well, says the gamer kid, what if I have my night-vision goggles on? 

Meanwhile, the teacher is supposed to be tracing all the Common-Core standards links and the cross-discipline values obtained.  As an engineer, I find that sort of thing daunting, while I suspect most trained teachers find those elements-links an easy yawn–it’s the demand they convey science skills to kids at what seems to be a very sophisticated level that presents a barrier.   Remember, it’s unusual for an elementary-school teacher to enter the field with more than a bare minimum of science or technology training.

Not good news?  Well, it may be good news for some students currently graduating in the sciences–the new standards create a market for teachers who have science toolkits ready to hand.   And if states are not too heavy-handed in adopting these standards, the NGSS provides tons of leeway in the actual curriculum developed and in both straight-up statements and in the subtext of the descriptive matter the NGSS strongly urges the use of hands-on, experiential learning techniques.  That’s good, especially in elementary school, because hands-on activities are the best, overall, at evoking those Aha! moments that make science exciting.  What the scientists working on that committee were most excited about was the prospect of bringing that thrill to more students, not only to attract some to actually becoming scientists or engineers but also to allow those following other paths to understand what motivates the ones who do follow the siren song of science.

For example, if you jumped to Professor Atwater’s page, you’d have read her non-committee-developed description of her motivations to teach and her love for science, “In lecture, I used to think I wasn’t a good scientist if I admitted my passion. No more. In the last few years I have adopted a style of expressing my delight along with sharing why I’m delighted – the intricate order and sense (and, sometimes, irony) of how things work – wonderful!”

One of my best experiences during Commencement Week was talking about education with a Kindergarten teacher who was struggling with making sure his (yeah, don’t go sexist on me–men can so teach kindergarten) students each got the attention they needed, despite a class size of more than thirty, in a year when he had no parent volunteers to help out.  And though he was looking forward to summer vacation, he was the most interested to hear about some of my “Messy Monday” science experiences.   As a result, I’m determined that the next couple of activities I put up here under the “Messy Monday” label will be ones targeted to the K-2 crowd.

So, well, the new science standards, if you can get past the committee-style presentation, could be turned into good news.   Let’s get kids doing the kind of science that comes naturally to them:  trying things out, making mistakes, watching what happens.  Let’s help them break free of seeing what they expect to see–it’s those wow moments of unexpectedness that give doing science that endorphin rush.  It’s when the comet is chasing its tail on its way out of the inner Solar System or a water jet sprays farther than you guessed or you suddenly realize that a rainbow isn’t part of a prism or a raincloud or even a soap bubble–it’s the light itself that makes the rainbow.

 

Chasing Comets

Chasing Comets: Notes for Project Leaders #2Chasing Comets: Notes for Project Leaders #2

OK, we’re back for part 2.  Remember that our goal is to impart an intuitive, long-term understanding of how comet tails work.  I’ll give you an observation worksheet that students can use during the Comet Running game, but if time or attention-spans are too short for a worksheet, dispense with that element in favor of learning through movement and Socratic dialogue. (What? You think an engineer wouldn’t have read the Greek philosophers?)

If you have time and enough outdoor space for the “Game” version of this simulation, move right along to “Stage 2” now. The promise of a chance to make their own models is what will entice the students back to the classroom. Otherwise, save the great outdoor model for another time or place and move directly to “Stage 3,” building the individual models.

Stage 2: The Game

Chasing Comets

That’s One Big Comet

This is an outdoor game, and it works to best advantage with a nice BIG comet model. Four five-yard lengths of white fabric streamers attached to a single badminton shuttlecock (“birdie”) make our Comet Chase model. A playground ball or a soccer ball (around 8” in diameter) stands for the sun.   Sort the participants into groups of no more than five and no fewer than three, and move to the great outdoors. A grassy area is safest, because this game involves some complicated running; if you’re stuck with pavement, tone down the running to “jogging” and allow a little extra time.

Start by laying out the ground rules for the game. First, each group will get to play every role. There are three parts: being the sun, being the comet, and being observers back on Earth. Remind everyone of your local rules for behavior outside. It’s harder to listen to instructions out in the sunshine and fresh air!

Take a moment to review the lesson so far. Place the model Sun on the ground, at least ten yards away. Ask an adult helper or one of the students to stand about halfway between the class and the Sun and to hold the head of the comet

Chasing Comets

Large Comet Head With Coma

while you extend the tail’s long white streamers.   This model is much more evocative of the scale of a real comet, which has a tail tremendously longer than the diameter of its coma, or head—but it’s still not a scale model. Allow for some oohs and aahs, but move on to your query: which direction should the comet’s tail point? Don’t move yet; both you and your helper just stand in place.

Chasing Comets

Large Comet: Incoming or Outbound?

Don’t be concerned if it takes more than one answer to get the right one! Some may still want to know which way your comet is moving. But in a few moments, you should achieve the consensus that the tail should point towards the class and away from the sun.

Now, add the movement and ask everyone to call out which way for you to move. Ask your helper to start walking (slowly, please!) towards the sun and then to loop around the sun. You will need to move quickly to keep the comet’s tail pointing away from the sun. In fact, even if your helper cooperates by walking slowly, you will need to break into a run! As you run, if the students aren’t already hollering directions to you, tel them to keep reminding you which way to point the tail: away from the Sun!

Pause partway and while you catch your breath you can demo a technique for helping to align the tail while in motion. With your outside hand, hold the streamers. With your inside hand, point at the Sun. The tail-runners should always find that pointing at the Sun also means pointing at the comet’s head.

Now, it is finally the students’ turn. Run as many iterations as necessary to ensure that each group does each job at least once. For instance, for a class of 20, allow time to run the game at least four times.

The Comet Group: The comet group needs one Head and up to four Tail-Runners. Name the comet after the person who’s serving as the Head. Comets are always named according to the last name of the comet’s discoverer. So if you have Robin Williams as the comet’s head, then this will be Comet Williams. Getting the comet named after him/her may compensate for the fact that the “head” only gets to walk slowly around the sun.

Meanwhile, the tail-runners get to hold the ends of the tail streamers and run to keep the comet’s head between themselves and the Sun.  In the normal course, the “tail” group will tend to lag a little and spread out, but that actually serves to more-accurately represent the shape of the dust tail. If you’re working with a two-tails group, designate one especially determined runner to represent the ion tail by taking one ribbon and maintaining a straight line from the ribbon end through the comet head to the sun.

The Sun Group: The sun group stands in the middle of your running space. One or two group members hold the model sun overhead. This makes it easier for the Comet group to see if they have successfully aligned the comet head and the sun. If the tail-runners stray out of line, members of the sun group need to to shout out “Got you! Got you!” or “Solar Wind Coming!” to warn them that the solar forces are blasting the tail.

The Astronomer Group: The people who are not part of the sun-comet demonstration still have a critical role. They are not just watching other people play the game, but they are tracking the shape of the comet’s tail as it passes around the sun, as observers on Earth. Depending on their perspective at each point in the comet’s orbit, the tail will appear longer or shorter. For example, if the comet is roughly between Earth and the Sun, the tail may look short, because it is stretched towards us. If you have time for writing, ask the Observers to sketch the comet as they see it. (See the handout.) In an average class, each student will get to observe the comet at least twice, which is very helpful for catching the unexpected views.

When every group has had a chance to play every role, take a few minutes to review one more time. As a comet is orbiting around the sun, which way does its tail point? By now, everyone should be willing to state that the tail always points away from the sun.

Still, you may still have a few hold-outs who are not quite sure this can be true. If you are lucky and it’s a sunny day, you have a hole card to play. Invite the students to each imagine that they are comets. “Guess what? You can see exactly where your tail would be. Who can point at it? Where’s your tail, Comet Human?”

If you are not saved by the insight of a student who’s totally absorbed the lesson, it is OK to resort to hints. “Everyone has one. It’s easy to see. Yes, you can see your comet tail! Where is it? Which way does a comet’s tail point? Right: away from the sun. Where’s the sun right now? What do you have that’s pointing away from the sun? It’s not bright and shiny like a comet’s tail. It’s dark, because there are no sunbeams there.

“Yes! Your shadow is your comet tail. It points away from the sun, always, no matter what direction you run.”

Stage 3: The Reward

Finally, everyone needs a model comet of their own to take home and show off and share with family members everything about how comet tails work. This is not an art project; it’s an opportunity to review and experiment individually. If some students are fussy about carefully arranging their streamers to make a colorful pattern, that is all right, but the point is to assemble a working model.

Each participant needs 24 feet of curling ribbon and a birdie (remember what I told you earlier about calling it by its proper name—be prepared for lots of giggling and teasing if you insist on that) . Cut the ribbon into eight lengths of roughly 3 feet. It is perfectly all right—and in fact more realistic—if the streamers come out various lengths. And depending on the students’ social skills, it is also all right for them to exchange colors once the cutting is done. (There are always some who prefer to discover a multi-color comet and others who prefer monotone.)

Once each student has six streamers, have them tie one end of each streamer to the head of the birdie.

Chasing Comets

Detail–Attaching Ribbon For Comet Tail

Your meticulous planners will distribute them evenly around the netting; others will be clumped randomly. Either is fine. Every comet is unique and most are quite non-uniform.

Be real. This project is not done when it the comets have been only built. Everyone needs a chance to try them out. They will, of course, want to toss them around the classroom; if this is not acceptable, make some provision for them to try out that technique outdoors. More scientific, of course, as time permits, is to allow the participants to take turns trying out their comets in the pretend “solar wind” of the classroom fan. As long as they willing and able to mind safety rules about working around a fan, by all means have everyone try out the tail position approaching, passing, and retreating from the Fan Sun. But don’t get all hot under the collar if other comets are flying through the room while you monitor the fan users. Just imagine you’re in the Oort Cloud and you’ll be OK.

Up next:  Supplies You Need and Resources You Can Use

Chasing Comets

A Cluster of Comets, Incoming & Outbound

Groundhog Day at NASA-Ames: Episode 1, The State of NASAGroundhog Day at NASA-Ames: Episode 1, The State of NASA

NASASocial116

At Ames: “The Big White Dome”

This is my second “NASA Social”, part of a new(ish) PR program at NASA which is (successfully, I should add), linking the venerable government institution with this modern social-media-dominated universe. At Ames Research Center, which just celebrated its 75th birthday, I even qualify as “younger generation.” That alone is worth the price of admission. Last time, I stayed in the Facebook & Twitter world; this time I worked on my photos & videos for the blog.  While I may not tweet as rapidly as those youngsters sporting Google Glass, I hope I’m bringing a relatively-informed viewpoint to the show along with my fangirl attude.

Yeah, I know. I have my own engineering Ph.D., but I’m still a fangirl when it comes to space stuff, science stuff, and robot stuff.  And the best place to find all that stuff is still NASA.

OK, so, I’m expecting this one to be relatively dull, as the thrilling event of the day is The State of NASA (insert non-martial fanfare here) address being livestreamed from Kennedy on the big screen at the Ames Exploration Center. The last-minute info email the Ames team sent out last night hints at more than that: a “preview” of the ATV-5 re-entry, a “tour” of the Roverscape (a dirt lot with rocks in it), and (oh, joy) all about the new budget proposal.

Waiting for the livestream from Kennedy Center to get under way, it becomes clear we’re really just watching NASA TV, only without access to the DirecTV remote. There’s a very brief, flashy video of inspiring fun NASA images: think ooh! ahh! all accompanied by the voice of the lovely Peter Cullen (aka Optimus Prime). But then NASA TV switches to their familiar old-style rolling globe image with a static “coming next” title. No sound, just a slide. Not something that would get a channel-skipper to pause and watch. A teasing view of the crowd jostling for seating and the Director finding his spot in front of Orion would be more engaging. Maybe they could bring in an intern from a college media studies program to keep viewer interest up when there’s a little delay in an event startup.

Meanwhile, here’s a party game: What did you recognize in that rapid-fire video with Optimus Prime narrating? Here’s my list:

Orion completes first EDL (Courtesy of NASA)

Orion bobbing in the sea

Curiosity exploring Mars

Entry!Descent!Landing!

 

 

NASASocial115

Scott Kelly with SPHERES on the ISS (Courtesy of NASA)

Astronaut Scott Kelly elated for a yearlong mission

ISS’rs playing with SPHERES and R2 the Robonaut

SpaceX and Saturday’s Launch of SMAP

 

 

The View from Ames

The View from Ames

Well, you can watch the State O’ NASA message yourself on YouTube, to get the full effect. It’s only a half-hour, plus that four-minute preview video featuring brief glimpses of the work NASA is doing, with Real Scientists and Engineers. And robots. And Astronauts. Run it in the background while you’re updating your Facebook. Make the kids watch the preview, maybe inspire them to consider training to work at NASA someday.

What you get here is a few my own off-the-cuff reactions and observations.

No surprise, The Journey To Mars is still a core theme. If you’re down on manned spaceflight, one thing I’m noticing is that there is a heck of a lot of science being packed into these projects. It’s almost as if the popularity of the notion of sending human beings to Mars is being leveraged to get more actual discovery accomplished. Hmmmm. As always, at least since Apollo ended, NASA’s a shoestring operation, and it’s rather astonishing just how many things are going on under that big umbrella.

If you haven’t been paying attention, you might not know that our current NASA Fearless Leader is a former astronaut, Charles Bolden. He flew on four Shuttle missions between 1986 and 1994, so he was part of NASA for Reagan, G.H.W. Bush, and Clinton. Ten years after Bolden had left the astronaut business to go back to his first career (the U.S. Marine Corps), G.(noH.)W. Bush got so inspired by the success of the Spirit and Opportunity Mars rovers that he decided NASA’s new mission should be to get people back to the moon and on to Mars. And just five years after that, Obama put Bolden in charge of that mission, as well as the rest of the tasks NASA manages with a budget equal to about 3% the size of the defense budget.

The fun part of the State of NASA speech was not the words, because they were pretty much what you’d expect: upbeat, replete with “Reach for New Heights” inspirational affirmations. The fun part was the setting: they talked the engineers who’d been happily disassembling the Orion capsule to put it back together, and Bolden gave his talk in front of the blackened shell of the successful first trial of NASA’s new system designed to carry humans into space…even to Mars. To add flavor to the show, the organizers commandeered a space large enough for not one but three future human vehicles. There was a SpaceX Dragon C2+ capsule

Dragon Hangs Out

Dragon Hangs Out

—said to be the actual capsule used for the first successful ISS resupply mission flown by SpaceX—and, for fair balance, a Boeing CST-100 capsule

CST-100 Shows Off Innovative Structure

CST-100 Shows Off Innovative Structure

showing off its innovative weld-free design structure.

Oh, and there were lots more people at Kennedy than we had at Ames. But at Ames, front-row seats were very accessible and anyone wanting to spread out over several seats was just fine.

Just as I notice a poster peering out from the edge of the Orion capsule, with logos and addresses for all NASA’s social-media connections, the feed goes down. The smartphones rotate 90 degrees and are all searching for the livestream. OK, it’s not just Ames, it’s NASA TV. But, really. Hire that intern, guys.

Well, it’s up again within a few minutes, though the audio is sketchy for a bit. What do interns get paid? Like, minimum wage, right?

So here are the highlights picked up in between tweets:

  • The Asteroid Redirect Mission (ARM) gets first mention in the context of pathway to Mars—though we still haven’t decided if the plan is to capture a whole small asteroid or to extract a chunk from a larger asteroid.
  • A glimpse of the budget comes next…there’s a bump-up of $500 million for fiscal 2016, though who knows what Congress will do with the budget request. Keep in mind that NASA’s proposed $18.5 billion is about 3% of the proposed defense budget and about 0.04% of the overall budget. How NASA can do this much with peanuts is amazing. Oh, wait. Suddenly I understand the peanuts ritual at JPL launch & landing events.
  • There’s a return to the Mars topic with shout-outs to all our Mars explorer robots, including a total brag on the U.S. having the first and (so far) only Mars landers. (OK, yes, we still love our friends at ESA, who landed on a comet.)
  • Then we get a reminder of the brilliant science from our telescope projects

    Hubble Reveals the Butterfly Nebula

    Hubble Reveals the Butterfly Nebula (Courtesy of NASA)

    from Hubble (which Bolden helped launch) to Kepler to James Webb. Even Chandra, which does superb work in the X-Ray spectrum, gets a mention this time. And the Solar Dynamics Observatory scores a slot in the closing segment.

    Chandra X-Rays the Universe

    Chandra X-Rays the Universe (Courtesy of NASA)

     

  • The Shuttle program is over, but it still makes it into the talk. Keep in mind Bolden is a shuttle veteran but also remember that, like his boss, he’s the first African-American to hold his job. Bolden flags the Shuttle program as the one that brought diversity to NASA, since it finally opened up space to women, minorities, and others who previously “wouldn’t have a chance to fly”. That is the thing he tells us to view as the crucial long-term legacy of the shuttle program. (Side note: Bolden’s Deputy Administrator for 2009-2013 was the first woman to hold that position, Lori Garver.)
  • There’s a reminder that the money spent on space is money spent in the U.S., from small business to large ones, from textile mills to welding shops. And the cash gets shared out, with 37 states having a stake in the commercial crew mission.
  • Education gets a nod, though to be honest I’m a little disappointed that what gets the splash are the student science program at ISS and the flight of a student project on the Orion test flight. Those big projects still tend to end up at private and/or privileged schools, since it takes resources to play. I might have gone for a specific shout-out to one of the schools for which participation was a big leap, like Oakland’s Urban Promise Academy Still, if there’s a kid doing a science report who hasn’t logged into a NASA website, then that kid doesn’t have internet access.
  • All right, then we get a round of teasers on upcoming technological developments: “green” (less-polluting) propellants, advanced autonomous robotics, high-power solar electric propulsion, aviation advancements.
  • NASA’s moving forward in its ongoing role in earth and climate science. We’ve got that successful launch of the SMAP climate science satellite (http://smap.jpl.nasa.gov/), just a week ago, which has both direct practical applications for agriculture. And the Airborne Snow Observatory has already produced data to help with the drought in the West, especially California, where snowpack is key to water supplies.
  • True to the core message, the closing draws focus back to Mars, promising a geophysics mission with the InSight lander scheduled to launch in March of next year.   And a taste of special features planned for the Mars 2020  successor to Curiosity, including a way to shoot a sample back home to Earth.

The Core Message

The Core Message

 

One last item in the dark hall of the Exploration Center: we get to watch a video from the re-entry of ESA’s ATV-1.  Kinda cool, but old-school, dating back to 2008. But this is just a teaser, for the upcoming re-entry of ATV-5. Here we’re working at the opposite end of the scale from Orion and Dragon, where the concern is careful braking and heat-shield materials and safe landings. These re-entries are in the realm of Design for Demise, in which hardware at the end of its life is sent down to burn up in Earth’s atmosphere. It’s not as simple as it might seem, when your goal is to NOT have bits of debris landing on the surface. I snipped together my video of their video to make a one-minute infomercial for ATV-5. Well, one does what one can:

There are two instrument packages onboard ready to monitor descent. ESA’s contribution is a video camera (wow!) while NASA’s package records acoustic data, temperatures, deceleration info and more. ESA's Camera Setup for ATV-5Both will “phone in” their results using the Iridium satellite network. Yep, ESA and NASA will be totally outclassing everyone else’s phone video uploads that day.  (ESA’s page is complete with a countdown clock. The twitter tag will be #bigdive.)

 

Next up:  At the Roverscape

© 2012-2026 Vanessa MacLaren-Wray All Rights Reserved