Posts Tagged science

A triple Book Birthday for Mixed Up Files Author Michelle Houts

It’s always a treat to feature the book birthdays of Mixed Up Files members and especially today when we are celebrating a new series from our long time contributor Michelle Houts, the author of the novels The Beef Princess of Practical County, Practical County Drama Queen, and Winterfrost; the biography Kammie on First; and the picture book When Grandma Gatewood Took a Hike. Michelle has headed off into new territory again with a young middle grade series for 1-3rd grade readers. It’s called Lucy’s Lab and here are her first three covers. Nuts About Science and Solids, Liquids, Guess Who’s Got Gas, came out last fall and the newest title is The Colossal Fossil Fiasco. 

1) Were you a science loving kid? What inspired you to make science the focus of your series?

 

 

 

 

I wanted very much to be a science-minded girl in the 70s. In fact, I begged for a Chemistry Kit, and got one the likes of which would never be legally sold these days! It had all kinds of chemicals and glass beakers and tubes in it! The sad part is that I don’t remember doing a lot with it. It wasn’t that I lack interest. I lacked confidence. In recent years, I have seen how important it is to build girls’ confidence in Science, Technology, Engineering, and Math. So, initially, as a writer of middle-grade novels, I set out to write a middle-grade science girls series. I thought of it as: The Babysitter’s Club meets Bill Nye the Science Guy.

Okay, interrupting this interview to say–how is that not a thing? Please write this series! I know, you’re busy. I’ll write it with you! Or ask our fellow science writer extraordinaire Jennifer Swanson. We could do this!

Michelle here, jumping back in to say, NO WORRIES! My hope is that Lucy will grow into that series for which she was originally intended. I mean, she can’t stay in second grade forever, right? So, ideally, someday that amazing middle-grade series will exist – with Lucy at the center! Back to you, Rosanne!

And also I can’t resist sharing a picture of my science girls and their project on on fermentation that involved home-brewed rootbeer using champagne yeast.
And now back to our scheduled interview.

2) You’ve written stand alone titles before and for older readers. What prompted you to switch to series writing for a younger audience?

My idea for that middle-grade series was quickly derailed by my other job. In my non-writing life, I was a Speech-Language Pathologist.  As a school-based SLP, I worked with second graders. I heard their stories, listened to their interests, and quickly realized that girls identify as science-minded (or not!) long before the middle grades. By seven years old, many girls I met had already decided that math and science were “hard” or “for boys” or “gross.” I knew then that my science series needed to target grades 1 – 3. 

 (Did I mention that the art for this series is done by the truly fabulous Elizabeth Zetchel!)
3) Do you have a favorite research story?
So far, my favorite topic in the series to research has been fossils. Lucy’s Lab Book #1 is about Habitats and Book #2 is about States of Matter, both of which I felt I had a decent knowledge of.  But Book #3 is about Fossils, and I found myself fascinated by all the research, digging deeper (no pun intended!) than I needed to simply because it was so interesting. When I discovered that one of the most famous nearly-intact fossils every found was named “Lucy,” I couldn’t believe the coincidence! 
You know I had wondered when I first saw the series if she would be a paleontologist because of the Lucy fossil. I’ve also heard that a surprising number of great fossils finds have been made by children.
4) Do you have a fact checker at your publishing house?
There isn’t anyone whose sole job it is to check facts, but my amazing editor, Alison Weiss, is a master at asking questions and she’ll look up anything that seems not quite right. I feel a lot of responsibility to make sure I have my facts straight before I turn in a manuscript. 
Shout out to the wonderful Sky Pony Press who publishes your books, and from this bookseller’s perspective, is doing a great job of promoting it to indie bookstores.
5)How far ahead do you plan the series and do you have science topics picked out for future books? Do you have a larger character arc for Lucy across several books or do you take them one book at a time?
As of this moment, there are three books in the Lucy’s Lab series, but more are proposed, and, yes, each has a science topic I’ve hand-picked for the first – third grade reader.  I do have thoughts about how Lucy, her sidekick and cousin Cora, and her classmates grow over the course an entire series.  Stay tuned for more news on this subject! 🙂
The cousin relationship was the other thing I loved about this book. Most kids have cousins they love and very few books have a cousin relationship.
Congratulations on your beautiful series from all of us at The Mixed Up Files. I hope we see lots more of Lucy and her lab in the future.

STEM Tuesday Field Work — In the Classroom

Exploring “In the Field”

When you think of scientists working in the field, what do you imagine? I imagine them venturing to remote, possibly dangerous sites. Then again, some field work is closer to home, less rugged. And, as this month’s books reveal, modern field work can sometime mean anxiously awaiting data and video feeds while a specially equipped drone or other remote sensing device ventures far from home. No matter what the exact circumstances may be, this month’s titles transport readers to many places and offer exciting tales of passionate scientists eager to answer their questions. Let’s begin diving into this theme with a look at underwater archaeology.

Support Independent Bookstores - Visit IndieBound.orgSubmerge Yourself in a Science Mystery

Secrets of a Civil War Submarine is packed with possible science learning connections. Especially relevant to this month’s theme is the archaeological practice of studying objects in situ, carefully documenting and noting the physical relationships among the artifacts at a site. Readers witness  this practice as author Sally M. Walker takes them to the murky, underwater field where the 150-year-lost historic H.L. Hunley was discovered. Here scientists meticulously record the locations and orientations of the objects on the site before removing anything from the site. Later, scientists carefully record the sub’s interior objects’ spatial relationships before extracting them for study. The importance of preserving these details becomes clear when the data later prove important in answering scientists’ questions.

You can enhance students’ appreciation of the value of this information with a simple lesson involving different arrangements of a set of objects undergoing different events.

For example, imagine a site that includes a computer mouse, piece of paper, computer, glass, chair, desk. Ask students to sketch or create 3D scenes of these artifacts’ positions and orientations based on each of the following scenarios:

Scenario A: A left-handed person seated in front of a computer spilled a glass of water on a computer keyboard. Then the person jumped away from the desk, knocking over the chair.

Scenario B: A right-handed person seated in front of a computer fainted and fell out of the chair, knocking over a glass of water.

Scenario C: A left-handed person carrying a glass of water walked toward the desk, approaching it from the right, when a dog ran through the room from left to right, first toppling the chair, then bumping the person, which made the glass of water fall out of his/her hands.

Discuss how (and why) the layout of the artifacts varies in each of the representations, providing unique clues to each event. If you are feeling more adventurous, you might try either of these variations:

  • Before the activity, prepare secret assignment cards. On each card, print only one scenario but make sure A, B, and C are all represented in the class pile of cards. Randomly distribute the cards to student pairs, who must then sketch or use model artifacts to show the event. Next, each team can examine another team’s scene, making careful observations and beginning to make inferences about what happened to result in the objects’ arrangements.  After revealing the three scenarios, challenge students to infer which of the scenarios each student representation seems to match (and why). Discuss the observations and inferences that are related to the spatial relationships among the artifacts, and how they provide clues to a prior event.

 

  • For a more open-ended challenge, ask student pairs interpret other sketches as much as possible, without telling them what the three scenarios are. Support student thinking with questions such as:
    • What’s similar/different between the scene you are looking at and the one you just created? Do you think the scenario implied here is the same or different from the scenario that informed the scene you created? Why?
    • If different, what details about the event can you infer from the scene? What evidence supports your ideas? What is unexplained?

Looking at the entire set of scenes in the classroom, students might infer how many different scenarios are represented, using evidence to make arguments that support their claims. You might decline to tell students the answer, as archaeologists can never go back to the original witnesses and check their ideas.

 

Support Independent Bookstores - Visit IndieBound.orgStudy Primates in the Field

As a biography of a groundbreaking field scientist, Anita Silvey’s Untamed, the Wild Life of Jane Goodall covers a lot of territory, including an exciting glimpse into this pioneer’s experiences as a field scientist.

Help students envision a primate scientist’s field work by comparing their own daily routines to their understandings (based on the text) of Jane’s early work in the field. Students might log where they eat, what they have to do to get their food and water, and where and when they sleep. They can break the day down into an hour-by-hour log of activities. For comparison, they can read about Jane’s early field activities on pages 28-33. Pages 71 and 73-77 address some ways that chimpanzee scientists’ field work has changed. They won’t be able to make exact correlations between their days and details about the scientists’ experiences, but they’ll get a flavor of the differences. Ask students to reflect on what aspects of being a field-based primatologist might be most exciting and challenging.

An engaging way to convey the lure of primatologists’ field work is watching videos of primates in their habitats. Show students one or more of these clips (with or without the narration) and discuss their observations (what they see and hear) and inferences (what sense they or the narrator/scientists make of what is observed). You might use some of the ideas in December’s STEM Tuesday In the Classroom installment, which focused on zoology.

Individual animals’ “personalities” and their relationships with other group members are important.  Field scientists often learn to identify individuals by sight. Your students might enjoy trying to learn the names and details about the chimps pictured on pages 84-87, perhaps by creating flash cards with copies of their pictures on the front.

 

Support Independent Bookstores - Visit IndieBound.orgJourney into Meteorology and the Eye of the Storm

Of course, field studies extend beyond the bounds of biology, as you will see in Eye of the Storm: NASA, Drones, and the Race to Crack the Hurricane Code, by Amy Cherrix. While you might appreciate the extensive teacher’s guide  that offers many ideas for discussions and classroom activities, you might want to focus specifically on field work. If so, you might show NASA videos featuring drone missions to hurricanes, such as NASA Hurricane and Severe Storm Sentinel (HSE) – Studying Storms with the Global Hawk UAV. You can also sign up to connect your classroom to NASA’s airborne missions. If you do, you will gain access to the same video that NASA scientists see when they run the drone flights, and receive additional support.

As you might imagine, classic field-based weather observations make a great connection to this book. For example:

  • Your class might commit to participating in a citizen scientist group of weather watchers, (which may require modest investments in standard equipment), such as the CoCoRaHS Network.
  • For independent observing, students might build and use their own weather stations. Build Your Own Weather Station, published by the National Oceanic and Atmospheric Administration, offers instructions.
  • If you prefer, challenge students to engineer their own instruments (based on designs that they research), as described in a free Integrated STEM Lesson Plan by R. Bruno.

 

The books on this month’s list offer many opportunities to jump into field work. How might you involve your students in actual or simulated field studies? What suggestions do you have to expand upon the ideas in this post? Please share your comments and questions!


portrait of author Carolyn Cinami DeCristofanoSTEM author Carolyn Cinami DeCristofano is also a STEM education consultant who supports teachers, librarians, schools, and organizations by providing curriculum development and professional development services. Find out about her books at http://carolyndecristofano.com and her consulting at http://bhstemed.us.

STEM Tuesday Wild and Wacky Science — Writing Craft and Resources

Wild and Wacky (and Weird) Science

Wild & wacky science is all around us. One of the best examples I’ve ever personally encountered is the Titan arum, or corpse flower, that went full bloom last summer at the university where I work. Beautiful in its perfect weirdness. And, if you’ve never had the pleasure of a blooming corpse flower experience, its smell is just as wonderfully horrific as the name suggests. Think one hundred dead mice in a 90°F humidity chamber and you’re getting really close…

Sometimes in the STEM world, great discoveries are made through observations that, at first glance, are considered “wild” and/or “wacky”. And for argument’s sake, I’m going to add “weird” as the third “W”. Science is basically built on things which appear odd at first glance. Imagine the first person who ever looked at the four-legged ruminant chewing cud in the meadow next to the village and said, “Hey, I bet whatever’s inside that hangy-down, bag thing would go great with my PB&J sandwich.”

The wild, weird and wacky often leads to open doors in both thought and discovery. One notices a little thing like how annoying it is to pick the cockleburrs off the dog after every single trip to the field. And while struggling to pull the little !@#$s out of the dog’s fur as she sits so, so patiently, you notice the weird design details of the burr. The hooked barbs jutting out at the perfect angles to cover the maximum surface area. You notice how those hooks grab and hold tight. You also notice that for the umpteenth time today your preschool-aged offspring asks you to tie his or her shoes. BINGO! The observation of the weird natural design of the burr serves as a template for the invention of something awesome like Velcro; one of the greatest and most practical inventions of the 20th-century.

Odd triggers inquiry in our brain. We, as humans, are innately curious. We see something wild, weird, and/or wacky and, after our initial shock, begin to ask, “Why?”. “Why?” is the switch which fires the STEM mind. Once switched on, these STEM neural connections in the brain process the input observations and begin formulating the next question, “How?”.

The wild, the wacky, and the weird can lead to the WONDERFUL. Answering the “why” and the “how” questions unlocks the door to discovery. And this is the same in the laboratory as it is in the classroom, the library, or in the writing bunker. Wild and wacky things we observe in our universe spark inquiry. Inquiry leads to discovery. Discovery leads to more discovery and more creativity

An interest in certain wild and wacky and wonderful aspects of our universe also lends itself to social connection. People with like interests can bond over these seemingly off-the-wall interests.   

What halfway reputable STEM wild & wacky science blog post would omit a list of random wild and wacky science facts? Not this halfway reputable STEM blogger! So, for your STEM entertainment, here’s an eye-opening list of wild, wacky, weird, and wonderful science facts.

  • The human brain processes around 11 million bits of information every second but is aware of only 40.
  • 42 minutes and 12 seconds? That’s how long it would take to jump to the other side of the earth through a hole drilled straight through the center of our wonderful planet.
  • A light particle, called a photon takes only 8 minutes to travel from the Sun’s surface to Earth.
  • But it takes 40,000 years for that same light particle to travel from its origins in the Sun’s core to its surface.
  • A mid-sized, run-of-the-mill cumulus cloud weighs as much as 80 elephants.
  • A single bolt of lightning contains enough energy to cook 100,000 pieces of toast.
  • After removing all the empty spaces in all the atoms in every person on Planet Earth, the entire human race would fit into an apple.
  • Over the course of an average human lifespan, the skin completely replaces itself 900 times.
  • The air in an average-sized room weighs about 100 pounds.
  • In 20 seconds, a red blood cell can make a complete circuit through the body.
  • Tyrannosaurus rex lived closer in time to us than to Stegosaurus.

Dear student, teacher, writer, and/or librarian readers, your STEM Tuesday Wild and Wacky Mission for the week is to observe and record something odd in your everyday world. Be it animal, vegetable, mineral, or mechanical, write it down and then think about it.

  • The size.
  • The shape.
  • The function or niche.

Whatever you see, document it. Use the information to formulate the “why” and then the “how” questions. Finally, let your imagination and logic run loose in the spirit of discovery and invention to formulate an alternate use, function, or future for your odd observation. Repeat daily for one week to find out how much fun, and how functional, the wild, the wacky, and the weird science in your world can be.

I bet it’s wonderful!

Have a wild and wacky month!


THE O.O.L.F. FILES

My biggest question for this month was whether we even need the O.O.L.F. files in the month of Wild and Wacky Science since The O.O.L.F. File section is basically wild, wacky, and weird by design. After much deep thought and soul-searching, the issue was decided. Of course, we need an O.O.L.F. Files! One can never have too much wild, wacky, and weird STEM information, am I right?

  • Titan arum, the corpse flower, blooms!
  • Mitochondria run hot!
    • Our cellular power plants can operate at what temp? Is that even possible? I honestly can’t feel a thing in any of my 37 trillion cells. Can you?
  • What Baby Poop Says About Brain Development.
    • Can the composition of an infant’s intestinal microbiota have an effect on future cognitive abilities? 
  • A Virus With Black Widow DNA
    •  In order to find a new host Wolbachia bacterial cell, the WO bacteriophage must punch its way back into another insect cell and another Wolbachia. Viruses are masters of escape and infiltration, but WO can uniquely get through two sets of barriers—one bacterial, and one animal—by using genes picked up from the black widow venom’s toxin.  Think that’s freaky? So do I!
  • Keeping Cool With Drool
    • By drooling and then slurping up the drop of saliva, a blowfly keeps a cool head despite not having the ability to sweat. (This makes my inner middle school boy smile with joy.)

Mike Hays, O.O.L.F. Master