Wordless Wednesday: The secret life of scientists and engineers

NOVA put together a web series that gives viewers a peek into the real work of scientists and engineers. Forget about lab coats and beards and beakers. The look and life of science these days may not be what you think. Series tagline: “Where the lab coat comes off.” Know a charismatic scientist who lives outside the stereotypical scientist box? NOVA’s taking suggestions!


[Note: there have been technical difficulties with the promo video, so click here if it won't play for you in this window.]


 


Link courtesy of Annie Murphy Paul, from her Time piece, “America needs more geeks: How to make science cool.”

Biology Explainer: The big 4 building blocks of life–carbohydrates, fats, proteins, and nucleic acids

The short version
  • The four basic categories of molecules for building life are carbohydrates, lipids, proteins, and nucleic acids.
  • Carbohydrates serve many purposes, from energy to structure to chemical communication, as monomers or polymers.
  • Lipids, which are hydrophobic, also have different purposes, including energy storage, structure, and signaling.
  • Proteins, made of amino acids in up to four structural levels, are involved in just about every process of life.                                                                                                      
  • The nucleic acids DNA and RNA consist of four nucleotide building blocks, and each has different purposes.
The longer version
Life is so diverse and unwieldy, it may surprise you to learn that we can break it down into four basic categories of molecules. Possibly even more implausible is the fact that two of these categories of large molecules themselves break down into a surprisingly small number of building blocks. The proteins that make up all of the living things on this planet and ensure their appropriate structure and smooth function consist of only 20 different kinds of building blocks. Nucleic acids, specifically DNA, are even more basic: only four different kinds of molecules provide the materials to build the countless different genetic codes that translate into all the different walking, swimming, crawling, oozing, and/or photosynthesizing organisms that populate the third rock from the Sun.

                                                  

Big Molecules with Small Building Blocks

The functional groups, assembled into building blocks on backbones of carbon atoms, can be bonded together to yield large molecules that we classify into four basic categories. These molecules, in many different permutations, are the basis for the diversity that we see among living things. They can consist of thousands of atoms, but only a handful of different kinds of atoms form them. It’s like building apartment buildings using a small selection of different materials: bricks, mortar, iron, glass, and wood. Arranged in different ways, these few materials can yield a huge variety of structures.

We encountered functional groups and the SPHONC in Chapter 3. These components form the four categories of molecules of life. These Big Four biological molecules are carbohydrates, lipids, proteins, and nucleic acids. They can have many roles, from giving an organism structure to being involved in one of the millions of processes of living. Let’s meet each category individually and discover the basic roles of each in the structure and function of life.
Carbohydrates

You have met carbohydrates before, whether you know it or not. We refer to them casually as “sugars,” molecules made of carbon, hydrogen, and oxygen. A sugar molecule has a carbon backbone, usually five or six carbons in the ones we’ll discuss here, but it can be as few as three. Sugar molecules can link together in pairs or in chains or branching “trees,” either for structure or energy storage.

When you look on a nutrition label, you’ll see reference to “sugars.” That term includes carbohydrates that provide energy, which we get from breaking the chemical bonds in a sugar called glucose. The “sugars” on a nutrition label also include those that give structure to a plant, which we call fiber. Both are important nutrients for people.

Sugars serve many purposes. They give crunch to the cell walls of a plant or the exoskeleton of a beetle and chemical energy to the marathon runner. When attached to other molecules, like proteins or fats, they aid in communication between cells. But before we get any further into their uses, let’s talk structure.

The sugars we encounter most in basic biology have their five or six carbons linked together in a ring. There’s no need to dive deep into organic chemistry, but there are a couple of essential things to know to interpret the standard representations of these molecules.

Check out the sugars depicted in the figure. The top-left molecule, glucose, has six carbons, which have been numbered. The sugar to its right is the same glucose, with all but one “C” removed. The other five carbons are still there but are inferred using the conventions of organic chemistry: Anywhere there is a corner, there’s a carbon unless otherwise indicated. It might be a good exercise for you to add in a “C” over each corner so that you gain a good understanding of this convention. You should end up adding in five carbon symbols; the sixth is already given because that is conventionally included when it occurs outside of the ring.

On the left is a glucose with all of its carbons indicated. They’re also numbered, which is important to understand now for information that comes later. On the right is the same molecule, glucose, without the carbons indicated (except for the sixth one). Wherever there is a corner, there is a carbon, unless otherwise indicated (as with the oxygen). On the bottom left is ribose, the sugar found in RNA. The sugar on the bottom right is deoxyribose. Note that at carbon 2 (*), the ribose and deoxyribose differ by a single oxygen.

The lower left sugar in the figure is a ribose. In this depiction, the carbons, except the one outside of the ring, have not been drawn in, and they are not numbered. This is the standard way sugars are presented in texts. Can you tell how many carbons there are in this sugar? Count the corners and don’t forget the one that’s already indicated!

If you said “five,” you are right. Ribose is a pentose (pent = five) and happens to be the sugar present in ribonucleic acid, or RNA. Think to yourself what the sugar might be in deoxyribonucleic acid, or DNA. If you thought, deoxyribose, you’d be right.

The fourth sugar given in the figure is a deoxyribose. In organic chemistry, it’s not enough to know that corners indicate carbons. Each carbon also has a specific number, which becomes important in discussions of nucleic acids. Luckily, we get to keep our carbon counting pretty simple in basic biology. To count carbons, you start with the carbon to the right of the non-carbon corner of the molecule. The deoxyribose or ribose always looks to me like a little cupcake with a cherry on top. The “cherry” is an oxygen. To the right of that oxygen, we start counting carbons, so that corner to the right of the “cherry” is the first carbon. Now, keep counting. Here’s a little test: What is hanging down from carbon 2 of the deoxyribose?

If you said a hydrogen (H), you are right! Now, compare the deoxyribose to the ribose. Do you see the difference in what hangs off of the carbon 2 of each sugar? You’ll see that the carbon 2 of ribose has an –OH, rather than an H. The reason the deoxyribose is called that is because the O on the second carbon of the ribose has been removed, leaving a “deoxyed” ribose. This tiny distinction between the sugars used in DNA and RNA is significant enough in biology that we use it to distinguish the two nucleic acids.

In fact, these subtle differences in sugars mean big differences for many biological molecules. Below, you’ll find a couple of ways that apparently small changes in a sugar molecule can mean big changes in what it does. These little changes make the difference between a delicious sugar cookie and the crunchy exoskeleton of a dung beetle.

Sugar and Fuel

A marathon runner keeps fuel on hand in the form of “carbs,” or sugars. These fuels provide the marathoner’s straining body with the energy it needs to keep the muscles pumping. When we take in sugar like this, it often comes in the form of glucose molecules attached together in a polymer called starch. We are especially equipped to start breaking off individual glucose molecules the minute we start chewing on a starch.

Double X Extra: A monomer is a building block (mono = one) and a polymer is a chain of monomers. With a few dozen monomers or building blocks, we get millions of different polymers. That may sound nutty until you think of the infinity of values that can be built using only the numbers 0 through 9 as building blocks or the intricate programming that is done using only a binary code of zeros and ones in different combinations.

Our bodies then can rapidly take the single molecules, or monomers, into cells and crack open the chemical bonds to transform the energy for use. The bonds of a sugar are packed with chemical energy that we capture to build a different kind of energy-containing molecule that our muscles access easily. Most species rely on this process of capturing energy from sugars and transforming it for specific purposes.

Polysaccharides: Fuel and Form

Plants use the Sun’s energy to make their own glucose, and starch is actually a plant’s way of storing up that sugar. Potatoes, for example, are quite good at packing away tons of glucose molecules and are known to dieticians as a “starchy” vegetable. The glucose molecules in starch are packed fairly closely together. A string of sugar molecules bonded together through dehydration synthesis, as they are in starch, is a polymer called a polysaccharide (poly = many; saccharide = sugar). When the monomers of the polysaccharide are released, as when our bodies break them up, the reaction that releases them is called hydrolysis.

Double X Extra: The specific reaction that hooks one monomer to another in a covalent bond is called dehydration synthesis because in making the bond–synthesizing the larger molecule–a molecule of water is removed (dehydration). The reverse is hydrolysis (hydro = water; lysis = breaking), which breaks the covalent bond by the addition of a molecule of water.

Although plants make their own glucose and animals acquire it by eating the plants, animals can also package away the glucose they eat for later use. Animals, including humans, store glucose in a polysaccharide called glycogen, which is more branched than starch. In us, we build this energy reserve primarily in the liver and access it when our glucose levels drop.

Whether starch or glycogen, the glucose molecules that are stored are bonded together so that all of the molecules are oriented the same way. If you view the sixth carbon of the glucose to be a “carbon flag,” you’ll see in the figure that all of the glucose molecules in starch are oriented with their carbon flags on the upper left.

The orientation of monomers of glucose in polysaccharides can make a big difference in the use of the polymer. The glucoses in the molecule on the top are all oriented “up” and form starch. The glucoses in the molecule on the bottom alternate orientation to form cellulose, which is quite different in its function from starch.

Storing up sugars for fuel and using them as fuel isn’t the end of the uses of sugar. In fact, sugars serve as structural molecules in a huge variety of organisms, including fungi, bacteria, plants, and insects.

The primary structural role of a sugar is as a component of the cell wall, giving the organism support against gravity. In plants, the familiar old glucose molecule serves as one building block of the plant cell wall, but with a catch: The molecules are oriented in an alternating up-down fashion. The resulting structural sugar is called cellulose.

That simple difference in orientation means the difference between a polysaccharide as fuel for us and a polysaccharide as structure. Insects take it step further with the polysaccharide that makes up their exoskeleton, or outer shell. Once again, the building block is glucose, arranged as it is in cellulose, in an alternating conformation. But in insects, each glucose has a little extra added on, a chemical group called an N-acetyl group. This addition of a single functional group alters the use of cellulose and turns it into a structural molecule that gives bugs that special crunchy sound when you accidentally…ahem…step on them.

These variations on the simple theme of a basic carbon-ring-as-building-block occur again and again in biological systems. In addition to serving roles in structure and as fuel, sugars also play a role in function. The attachment of subtly different sugar molecules to a protein or a lipid is one way cells communicate chemically with one another in refined, regulated interactions. It’s as though the cells talk with each other using a specialized, sugar-based vocabulary. Typically, cells display these sugary messages to the outside world, making them available to other cells that can recognize the molecular language.

Lipids: The Fatty Trifecta

Starch makes for good, accessible fuel, something that we immediately attack chemically and break up for quick energy. But fats are energy that we are supposed to bank away for a good long time and break out in times of deprivation. Like sugars, fats serve several purposes, including as a dense source of energy and as a universal structural component of cell membranes everywhere.

Fats: the Good, the Bad, the Neutral

Turn again to a nutrition label, and you’ll see a few references to fats, also known as lipids. (Fats are slightly less confusing that sugars in that they have only two names.) The label may break down fats into categories, including trans fats, saturated fats, unsaturated fats, and cholesterol. You may have learned that trans fats are “bad” and that there is good cholesterol and bad cholesterol, but what does it all mean?

Let’s start with what we mean when we say saturated fat. The question is, saturated with what? There is a specific kind of dietary fat call the triglyceride. As its name implies, it has a structural motif in which something is repeated three times. That something is a chain of carbons and hydrogens, hanging off in triplicate from a head made of glycerol, as the figure shows.  Those three carbon-hydrogen chains, or fatty acids, are the “tri” in a triglyceride. Chains like this can be many carbons long.

Double X Extra: We call a fatty acid a fatty acid because it’s got a carboxylic acid attached to a fatty tail. A triglyceride consists of three of these fatty acids attached to a molecule called glycerol. Our dietary fat primarily consists of these triglycerides.

Triglycerides come in several forms. You may recall that carbon can form several different kinds of bonds, including single bonds, as with hydrogen, and double bonds, as with itself. A chain of carbon and hydrogens can have every single available carbon bond taken by a hydrogen in single covalent bond. This scenario of hydrogen saturation yields a saturated fat. The fat is saturated to its fullest with every covalent bond taken by hydrogens single bonded to the carbons.

Saturated fats have predictable characteristics. They lie flat easily and stick to each other, meaning that at room temperature, they form a dense solid. You will realize this if you find a little bit of fat on you to pinch. Does it feel pretty solid? That’s because animal fat is saturated fat. The fat on a steak is also solid at room temperature, and in fact, it takes a pretty high heat to loosen it up enough to become liquid. Animals are not the only organisms that produce saturated fat–avocados and coconuts also are known for their saturated fat content.

The top graphic above depicts a triglyceride with the glycerol, acid, and three hydrocarbon tails. The tails of this saturated fat, with every possible hydrogen space occupied, lie comparatively flat on one another, and this kind of fat is solid at room temperature. The fat on the bottom, however, is unsaturated, with bends or kinks wherever two carbons have double bonded, booting a couple of hydrogens and making this fat unsaturated, or lacking some hydrogens. Because of the space between the bumps, this fat is probably not solid at room temperature, but liquid.

You can probably now guess what an unsaturated fat is–one that has one or more hydrogens missing. Instead of single bonding with hydrogens at every available space, two or more carbons in an unsaturated fat chain will form a double bond with carbon, leaving no space for a hydrogen. Because some carbons in the chain share two pairs of electrons, they physically draw closer to one another than they do in a single bond. This tighter bonding result in a “kink” in the fatty acid chain.

In a fat with these kinks, the three fatty acids don’t lie as densely packed with each other as they do in a saturated fat. The kinks leave spaces between them. Thus, unsaturated fats are less dense than saturated fats and often will be liquid at room temperature. A good example of a liquid unsaturated fat at room temperature is canola oil.

A few decades ago, food scientists discovered that unsaturated fats could be resaturated or hydrogenated to behave more like saturated fats and have a longer shelf life. The process of hydrogenation–adding in hydrogens–yields trans fat. This kind of processed fat is now frowned upon and is being removed from many foods because of its associations with adverse health effects. If you check a food label and it lists among the ingredients “partially hydrogenated” oils, that can mean that the food contains trans fat.

Double X Extra: A triglyceride can have up to three different fatty acids attached to it. Canola oil, for example, consists primarily of oleic acid, linoleic acid, and linolenic acid, all of which are unsaturated fatty acids with 18 carbons in their chains.

Why do we take in fat anyway? Fat is a necessary nutrient for everything from our nervous systems to our circulatory health. It also, under appropriate conditions, is an excellent way to store up densely packaged energy for the times when stores are running low. We really can’t live very well without it.

Phospholipids: An Abundant Fat

You may have heard that oil and water don’t mix, and indeed, it is something you can observe for yourself. Drop a pat of butter–pure saturated fat–into a bowl of water and watch it just sit there. Even if you try mixing it with a spoon, it will just sit there. Now, drop a spoon of salt into the water and stir it a bit. The salt seems to vanish. You’ve just illustrated the difference between a water-fearing (hydrophobic) and a water-loving (hydrophilic) substance.

Generally speaking, compounds that have an unequal sharing of electrons (like ions or anything with a covalent bond between oxygen and hydrogen or nitrogen and hydrogen) will be hydrophilic. The reason is that a charge or an unequal electron sharing gives the molecule polarity that allows it to interact with water through hydrogen bonds. A fat, however, consists largely of hydrogen and carbon in those long chains. Carbon and hydrogen have roughly equivalent electronegativities, and their electron-sharing relationship is relatively nonpolar. Fat, lacking in polarity, doesn’t interact with water. As the butter demonstrated, it just sits there.

There is one exception to that little maxim about fat and water, and that exception is the phospholipid. This lipid has a special structure that makes it just right for the job it does: forming the membranes of cells. A phospholipid consists of a polar phosphate head–P and O don’t share equally–and a couple of nonpolar hydrocarbon tails, as the figure shows. If you look at the figure, you’ll see that one of the two tails has a little kick in it, thanks to a double bond between the two carbons there.

Phospholipids form a double layer and are the major structural components of cell membranes. Their bend, or kick, in one of the hydrocarbon tails helps ensure fluidity of the cell membrane. The molecules are bipolar, with hydrophilic heads for interacting with the internal and external watery environments of the cell and hydrophobic tails that help cell membranes behave as general security guards.

The kick and the bipolar (hydrophobic and hydrophilic) nature of the phospholipid make it the perfect molecule for building a cell membrane. A cell needs a watery outside to survive. It also needs a watery inside to survive. Thus, it must face the inside and outside worlds with something that interacts well with water. But it also must protect itself against unwanted intruders, providing a barrier that keeps unwanted things out and keeps necessary molecules in.

Phospholipids achieve it all. They assemble into a double layer around a cell but orient to allow interaction with the watery external and internal environments. On the layer facing the inside of the cell, the phospholipids orient their polar, hydrophilic heads to the watery inner environment and their tails away from it. On the layer to the outside of the cell, they do the same.
As the figure shows, the result is a double layer of phospholipids with each layer facing a polar, hydrophilic head to the watery environments. The tails of each layer face one another. They form a hydrophobic, fatty moat around a cell that serves as a general gatekeeper, much in the way that your skin does for you. Charged particles cannot simply slip across this fatty moat because they can’t interact with it. And to keep the fat fluid, one tail of each phospholipid has that little kick, giving the cell membrane a fluid, liquidy flow and keeping it from being solid and unforgiving at temperatures in which cells thrive.

Steroids: Here to Pump You Up?

Our final molecule in the lipid fatty trifecta is cholesterol. As you may have heard, there are a few different kinds of cholesterol, some of which we consider to be “good” and some of which is “bad.” The good cholesterol, high-density lipoprotein, or HDL, in part helps us out because it removes the bad cholesterol, low-density lipoprotein or LDL, from our blood. The presence of LDL is associated with inflammation of the lining of the blood vessels, which can lead to a variety of health problems.

But cholesterol has some other reasons for existing. One of its roles is in the maintenance of cell membrane fluidity. Cholesterol is inserted throughout the lipid bilayer and serves as a block to the fatty tails that might otherwise stick together and become a bit too solid.

Cholesterol’s other starring role as a lipid is as the starting molecule for a class of hormones we called steroids or steroid hormones. With a few snips here and additions there, cholesterol can be changed into the steroid hormones progesterone, testosterone, or estrogen. These molecules look quite similar, but they play very different roles in organisms. Testosterone, for example, generally masculinizes vertebrates (animals with backbones), while progesterone and estrogen play a role in regulating the ovulatory cycle.

Double X Extra: A hormone is a blood-borne signaling molecule. It can be lipid based, like testosterone, or short protein, like insulin.

Proteins

As you progress through learning biology, one thing will become more and more clear: Most cells function primarily as protein factories. It may surprise you to learn that proteins, which we often talk about in terms of food intake, are the fundamental molecule of many of life’s processes. Enzymes, for example, form a single broad category of proteins, but there are millions of them, each one governing a small step in the molecular pathways that are required for living.

Levels of Structure

Amino acids are the building blocks of proteins. A few amino acids strung together is called a peptide, while many many peptides linked together form a polypeptide. When many amino acids strung together interact with each other to form a properly folded molecule, we call that molecule a protein.

For a string of amino acids to ultimately fold up into an active protein, they must first be assembled in the correct order. The code for their assembly lies in the DNA, but once that code has been read and the amino acid chain built, we call that simple, unfolded chain the primary structure of the protein.

This chain can consist of hundreds of amino acids that interact all along the sequence. Some amino acids are hydrophobic and some are hydrophilic. In this context, like interacts best with like, so the hydrophobic amino acids will interact with one another, and the hydrophilic amino acids will interact together. As these contacts occur along the string of molecules, different conformations will arise in different parts of the chain. We call these different conformations along the amino acid chain the protein’s secondary structure.

Once those interactions have occurred, the protein can fold into its final, or tertiary structure and be ready to serve as an active participant in cellular processes. To achieve the tertiary structure, the amino acid chain’s secondary interactions must usually be ongoing, and the pH, temperature, and salt balance must be just right to facilitate the folding. This tertiary folding takes place through interactions of the secondary structures along the different parts of the amino acid chain.

The final product is a properly folded protein. If we could see it with the naked eye, it might look a lot like a wadded up string of pearls, but that “wadded up” look is misleading. Protein folding is a carefully regulated process that is determined at its core by the amino acids in the chain: their hydrophobicity and hydrophilicity and how they interact together.

In many instances, however, a complete protein consists of more than one amino acid chain, and the complete protein has two or more interacting strings of amino acids. A good example is hemoglobin in red blood cells. Its job is to grab oxygen and deliver it to the body’s tissues. A complete hemoglobin protein consists of four separate amino acid chains all properly folded into their tertiary structures and interacting as a single unit. In cases like this involving two or more interacting amino acid chains, we say that the final protein has a quaternary structure. Some proteins can consist of as many as a dozen interacting chains, behaving as a single protein unit.

A Plethora of Purposes

What does a protein do? Let us count the ways. Really, that’s almost impossible because proteins do just about everything. Some of them tag things. Some of them destroy things. Some of them protect. Some mark cells as “self.” Some serve as structural materials, while others are highways or motors. They aid in communication, they operate as signaling molecules, they transfer molecules and cut them up, they interact with each other in complex, interrelated pathways to build things up and break things down. They regulate genes and package DNA, and they regulate and package each other.

As described above, proteins are the final folded arrangement of a string of amino acids. One way we obtain these building blocks for the millions of proteins our bodies make is through our diet. You may hear about foods that are high in protein or people eating high-protein diets to build muscle. When we take in those proteins, we can break them apart and use the amino acids that make them up to build proteins of our own.

Nucleic Acids

How does a cell know which proteins to make? It has a code for building them, one that is especially guarded in a cellular vault in our cells called the nucleus. This code is deoxyribonucleic acid, or DNA. The cell makes a copy of this code and send it out to specialized structures that read it and build proteins based on what they read. As with any code, a typo–a mutation–can result in a message that doesn’t make as much sense. When the code gets changed, sometimes, the protein that the cell builds using that code will be changed, too.

Biohazard!The names associated with nucleic acids can be confusing because they all start with nucle-. It may seem obvious or easy now, but a brain freeze on a test could mix you up. You need to fix in your mind that the shorter term (10 letters, four syllables), nucleotide, refers to the smaller molecule, the three-part building block. The longer term (12 characters, including the space, and five syllables), nucleic acid, which is inherent in the names DNA and RNA, designates the big, long molecule.

DNA vs. RNA: A Matter of Structure

DNA and its nucleic acid cousin, ribonucleic acid, or RNA, are both made of the same kinds of building blocks. These building blocks are called nucleotides. Each nucleotide consists of three parts: a sugar (ribose for RNA and deoxyribose for DNA), a phosphate, and a nitrogenous base. In DNA, every nucleotide has identical sugars and phosphates, and in RNA, the sugar and phosphate are also the same for every nucleotide.

So what’s different? The nitrogenous bases. DNA has a set of four to use as its coding alphabet. These are the purines, adenine and guanine, and the pyrimidines, thymine and cytosine. The nucleotides are abbreviated by their initial letters as A, G, T, and C. From variations in the arrangement and number of these four molecules, all of the diversity of life arises. Just four different types of the nucleotide building blocks, and we have you, bacteria, wombats, and blue whales.

RNA is also basic at its core, consisting of only four different nucleotides. In fact, it uses three of the same nitrogenous bases as DNA–A, G, and C–but it substitutes a base called uracil (U) where DNA uses thymine. Uracil is a pyrimidine.

DNA vs. RNA: Function Wars

An interesting thing about the nitrogenous bases of the nucleotides is that they pair with each other, using hydrogen bonds, in a predictable way. An adenine will almost always bond with a thymine in DNA or a uracil in RNA, and cytosine and guanine will almost always bond with each other. This pairing capacity allows the cell to use a sequence of DNA and build either a new DNA sequence, using the old one as a template, or build an RNA sequence to make a copy of the DNA.

These two different uses of A-T/U and C-G base pairing serve two different purposes. DNA is copied into DNA usually when a cell is preparing to divide and needs two complete sets of DNA for the new cells. DNA is copied into RNA when the cell needs to send the code out of the vault so proteins can be built. The DNA stays safely where it belongs.

RNA is really a nucleic acid jack-of-all-trades. It not only serves as the copy of the DNA but also is the main component of the two types of cellular workers that read that copy and build proteins from it. At one point in this process, the three types of RNA come together in protein assembly to make sure the job is done right.


 By Emily Willingham, DXS managing editor 
This material originally appeared in similar form in Emily Willingham’s Complete Idiot’s Guide to College Biology

Double Xpression: Debbie Berebichez, PhD Physicist

Deborah is the first Mexican woman to graduate with a physics PhD from Stanford University. She is a physicist, author, and media personality whose initiatives to popularize science have impacted thousands of people around the world. Her passion is to popularize science and motivate young minds to think analytically about the world. This has led her to pioneer learning initiatives in schools and universities in Mexico, Africa, the US and Israel. She is a frequent public speaker and has been recognized by numerous media outlets such as Oprah, CNN, WSJ, TED, DLD, WIRED, Martha Stewart, City of Ideas, Dr. Oz Show, Celebrity Scientist and others. She regularly appears as a science expert on different international TV networks; currently she is the TV host of National Geographic’s “Humanly Impossible” show. And she will appear on the Discovery Channel’s upcoming show ‘You’ve Been Warned.’  You can find Deborah on Twitter, or on her blog, Science With Debbie.  You can also find Deborah telling her story for The Story Collider.



DXS: First, can you give me a quick overview of what your scientific background is and your current connection to science?

I grew up in Mexico City in a fairly conservative community, and as a child, I was discouraged from doing and studying science.  My parents, family, and peers would all ask, “oh, why don’t you study a more feminine career?” Although I was pretty good in school, I wasn’t exactly a math wizard.  I used to say that I loved philosophy and physics – because philosophy was a deep discipline of asking questions about the world.  And physics studied the world itself.   
It was clear when I was born that my personality was was quite different to the one of my mom.  When I was growing up, my mom was scared because she didn’t know what to do with this little girl that was smart and always asking questions.  She is not a naturally curious person, so she kept trying to tame down my curiosity and kept telling me not to tell boys that I was interested in math and science because I would never find a husband.  According to her, the life goal for a girl was to find a husband, have kids, and that’s it.  Women didn’t have to have a career.  (Not that there is anything wrong with not having a career.)  My high school teachers and counselors were not so different and encouraged me to go into philosophy or literature, not into math or physics.  And my friends in school told me I literally had to be an out of the world genius to be able to study physics.      
Given the circumstances, I started studying philosophy in Mexico.  There were some classes with logic, and some with a little bit more math, and those were the ones I just devoured!  And, at the same time – secretly – I was reading the biographies of scientists.  For some bizarre reason, I was hugely attracted to their life stories.  I didn’t have any family members, or anyone else for that matter, that had pursued a career in science, so I didn’t have a mentor or a role model.  I felt an extreme kinship with Tycho Brahe, who in the late 1500’s was locked in a tower, doing all of these calculations for years, hated by everyone in the town.  Go figure! I felt some kinship with these scientists.   But I didn’t have the courage nor the means to switch majors.  I did confess that I wanted to study another area (physics), but in Mexico one cannot study two majors. So, I studied philosophy for two years.

In the middle of it, I felt way too curious about science and I decided to apply to schools in the US.  It was hard at the time because college in Mexico was a lot cheaper than in the states.  At the private school where I was attending, my tuition was about $5,000 per year.  If I were to come to the US, I would be looking at costs exceeding $35,000 per year. I couldn’t really ask my dad to help me with that price tag so I started to apply everywhere and anywhere that had scholarship opportunities.

I ended up getting a letter from Brandeis 

University saying that they would let me take this advanced placement test and write an essay, which, if I did well, would give me a full scholarship.  I received a full Wien Scholarship and was to continue studying philosophy in the US.  This was probably the nicest thing that has ever happened to me because it opened the path of opportunity.

Brandeis transformed me as a person – I saw females doing science!  But, the bravado moment that changed my life was a very general course called Astronomy 101.  The teaching assistant, Roopesh, was a very sweet man from India and he saw that my eyes would just light up when I was in that class – I was much more curious than the random student that was just taking it to fulfill some requirement.   
At the end of that year, Roopesh and I 

were walking around Harvard Square and stopped to sit under a tree.  I started to tell him, with tears in my eyes, that I just don’t want to die without trying.  What I meant by that is I don’t want to die without trying to do physics.  Everyone’s questioning of my decision made me question my actual ability.  Everyone telling me ‘no’ hampered my development.  I mean, I was good at math, but I definitely didn’t have the same background as all the kids coming in with advanced math and physics courses. 
 

I told Roopesh that I don’t even remember how to solve the equation (a+b)2 – even my algebra was rusty!  But, he believed in me and went back to his professor and told him my story.  This professor decided to meet with me and ends up telling me about someone who had done this sort of thing in the past.  His name was Ed Witten and he went on to become the father of string theory.  

He said “Witten had switched from history to physics, and I will let you try too.”  With that, he handed me a book on vector calculus called ‘Div, Grad and Curl’ and told me that If I could master it in three months by the end of the summer, they would let me switch my major to physics and also let me bypass the first two years of course work.  This would allow me to graduate by the time my scholarship ran out.        
I have never in my life experienced the level of scientific passion condensed into such a short amount of time and I am jealous of the person I was that summer.  I had so much perseverance and focus.  I don’t think I can ever reproduce that intensity again.  From the moment I woke up to the moment I went to sleep, and even in my dreams, I only thought about physics. Roopesh, who became my mentor for the summer, taught me.  

I always wanted to pay Roopesh for his tutoring, but he would never accept any money.  He told me that when he was growing up in the mountains of Darjeeling in India, there was this old man who would climb up to his home and teach him and his sisters English, the musical instrument Tabla, and math.  Roopesh’s father always wanted to pay the old man for his tutoring, but the man always declined.  The man said that the only way he could ever pay him back was if Roopesh did the same thing with someone else in the world.  And by mentoring me, Roopesh fulfilled his payment to the old man.  
Out of that, that became a seed for my physics journey and purpose.  It is now my life’s mission to do the same for other people in the world – especially women – who feel attracted to science but feel trapped.  They for some reason, whether it is social, financial, etc., just can’t find the way toward science.  That is the motivation that dictates my actions.
I was able to pull it off and graduated Brandeis Summa Cum Laude with highest honors in physics and philosophy. I went back to Mexico afterwards to figure out what to do next and to spend some time with my family. At the same time, I did a master’s degree in physics at the largest university in Mexico UNAM.  My curiosity for physics didn’t diminish and in 1998, I randomly applied to two physics PhD programs in the US.  I applied very, very late, but, fortunately, I won a merit-based full scholarship from the Mexican government who provided me with funding, which made it easier for me.    


Because I loved biophysics, I did a search on who was doing this line of research.  I came across Steven Chu, who is currently the secretary of energy.  At the time I was applying, he was at Stanford and was one of the first to manipulate a single strand of DNA with his ‘optical tweezers.’  To me, his story was fascinating!  Without really knowing who he was other than what I found on the web, I wrote him an email asking him if I could work in his lab.  Had I known who he was – that he had just won the Nobel prize in 1997 – I would have been too intimidated.  


I was admitted to Stanford and was invited to work with Dr. Chu, but after two years I decided to switch labs.  As expected, it was a very challenging environment and having only studied two years of physics at Brandeis, I wasn’t as prepared as most of the other students.  I struggled for the first two years.  Everyone worked so extremely hard at Stanford and there I was, struggling to be the best, but, in the beginning, I couldn’t even be average.

Fast forward four years.  I had worked my butt off and ended up becoming the first Mexican woman to graduate with a PhD in physics from Stanford.  It was the best day of my life – I kept thinking that I was so blessed to have my parents live to see this!  It was so moving, I was crying so much and I couldn’t believe what had happened.  My friends had flown in from all over the world to be with me.  It was amazing. 

When people hear what I do, they – especially teenage girls – feel intimidated.  But, when they hear the whole story, their tune changes.  I tell them that I know what it is like to not understand something.  I was not the kind of person where comprehension of my science came naturally.  But I did it.  And if I can do it, anyone can do it!  My story can be inspirational to someone who comes from a background completely lacking in science because they, like me, can reach their goal. 
DXS: What ways do you express yourself creatively that may not have a single thing to do with science?

I was always a very curious girl growing up. I had a lot of interests, one of which being theatre.  I wanted to be an actress when I was young, but my father didn’t let me pursue that as a career, which was probably a good idea.  But, during high school, I went to an after school drama program.  I wrote my own plays – three of them – and performed one of them.  I was in heaven when I was on stage. 

In NY, I have tried to do a little bit of that.  Of course, I’ve never done any big roles, but I will be an extra in a film, or if there is a small production being made in Spanish, I will play a part.  It doesn’t matter how big the role is – I just love doing something creative and getting into a character. 

DXS: What types of productions and/or films have you done?

I don’t think I would come up in the credits as an extra, but I did a movie with Simon Pegg, Kirsten Dunst and Megan Fox in the movie “How to lose Friends and Alienate People.” It was a very, very fun film!  In theatre, Jean Genet, who is a French playwright, has a play called The Maids, and I was the madame.   

DXS: Do you find that your scientific background informs your creativity, even though what you do may not specifically be scientific?

Debbie talking to the TEDYouth audience about waves.

I have a concept that I call “physics glasses.”  And what I mean by that is, for me, physics is not a subject that you just teach in a complex way in a classroom.  Rather, physics is something that is related to everyday life.  From the moment you wake up, you can just put on your physics glasses.  It is a mode of thinking – it is a way where although reality can be very rich and diverse, physics goes very deep and it abstracts commonalities, general principles that apply to many things.  To give you an example, I asked the kids in the audience of my TEDYouth talk, “what do the sun, the ocean, and a symphony orchestra have in common?”  When just looking at them on the surface, there isn’t much in common.  I mean, they are all beautiful things but they are not obviously related.  But, to a physicist, they are all waves.   You have sound waves, light waves, and water waves and you can interchange many of the concepts in physics to explain all three.



Where most of us see the world with our eyes through light waves, other might see the world differently.  Take, for example, my friend Juan, who is blind.  He “sees” the world with sound waves – he senses sound as it bounces off the objects around him.  Through this, he can bike, play basketball, and do a load of activities using sound as a guide.  This is one of my favorite analogies because, really, physics “infects” the way I see the world. 

Deborah the Physicist model

To give you a more specific example in the creativity realm, when I got to NY, I felt really un-feminine.  When I was studying physics, I felt that if I was even slightly feminine, I wouldn’t be respected.  It didn’t help that some of the other women in the physics program at Stanford were more of a “guys girl,” always wearing a baseball cap and t-shirts.  Now, since I am Latin, I first showed up wearing a skirt to class, but I quickly learned to dress down.  Looking feminine would assure that no one would talk to me in class.



So, when I got to NY, I had an explosion.  I wanted to know what it was like to express myself as a woman and my friend suggested that I do some modeling.  So I did.  It was a brief, lasting about a year.  But during that time, my friend, who was a designer from Mexico, asked me to work with her and I wrote and did some videos about the physics of fashion, which also included the physics of high heels video.  


Some people could consider fashion to be superficial, but not me.  I love fashion and color.  But, other scientists generally looked down upon you for liking this sort of thing.   This fueled my desire to prove to everyone that there actually is science everywhere, including fashion, and that they shouldn’t be snobs about it.  There is complex science in how different materials work, how they interact with the environment and you can prove to the women, like my mother and friends back home who think that science has nothing to do with their everyday lives, that it has EVERYTHING to do with it.   So I talked about a Newtonian theory for color – how to pick the right color for you based on how much light the color would reflect on that day, etc.  

DXS: Like a more sophisticated version of colors based on your “season?”

DB: Exactly! 

I also did pieces on the materials, including some of the newest engineering accomplishments with fabric.  For example, I hooked up with a woman and helped her to design a fashionable and very scientific coat.  It ended up costing $11,000, but it was made up of nano fibers and it had a patch in it that could detect the temperature and the probability of rain.  Based on this probability, it could change permeability of the fabric.  It was a very light coat that was comfortable in nice weather, but when it would rain, it would become impermeable to water once it detected a high probability of rain, transforming into a raincoat.

DXS: That’s incredible!  I wish it wasn’t $11,000!

DB:  Yeah, that’s usually the problems with these technologies.  They are often so novel, but one day I’m sure we can figure out how to make things like this scalable.

Science is very much what guides my thinking when I am being creative and I wish I had more time to do creative things while being influenced by a scientific mindset.

DXS: It is so cool that physics has such an incredible overlap with everyday living.  Like, when we take a shower, I want to know “how is the water getting pumped from the ground or through pipes and make its way out of the showerhead?”  But, as a biochemist, I often find it hard to relate everyday things to biochemistry, but I would like to!

DB: Its funny that you say that.  When I try to teach girls that the worst thing they can do is memorize.  Critical thinking is so important and they shouldn’t take anything at face value, and they should even question teachers and authoritative figures in their lives.  Always ask: what goes into making this?  Why is this here?  Why is it this way and not another?  Constantly ask questions.  That s the gift that physics will give you. 

DXS: Have you encountered situations in which your expression of yourself outside the bounds of science has led to people viewing you differently–either more positively or more negatively?

Without saying I am a scientist, I can tell you that people have come up to me and told me that before they even hear me speak, they think I am dumb.  They are usually surprised that I am smart!  I think it is because I am bubbly and friendly and that often makes an impression as being unintelligent.  For them it seems that if a woman is intelligent, she is very cold and distant and serious.  


I’ve met a lot of physicists, and yes, some of them do tend to be that way, often as a reaction to how others treat them.  Or, people would say to me that, because I am Latin, my cultural identity comes across as being warm and the last thing they’d expect me to be into was something as cold as physics.  So yeah, I have definitely been judged so many times!  


It even happens in my current job on Wall Street, especially with my male peers.  When there are off site client meetings, I’m often accompanied by my male sales colleague.  Sales people are generally required to know less about the complexities behind our risk models compared to someone on a more research-oriented role, like me and he will bring me along to these sales meetings in case the potential client has more sophisticated questions that go beyond what he can comfortably answer.  Many times upon meeting the clients for the first time they think that I am the sales person, there to be the smiling face to sell them something, and that he is the risk modeler.  They always direct their mathematical questions to him. 
It came to a point where I became so annoyed that I decided to stop caring.  Now, my sales colleague goes out for drinks with the clients and I know that I am going to be invisible. So I don’t go anymore. I know that I am always going to struggle to get the full intellectual respect in that industry – it will always be a challenge.

DXS: Have you found that your non-science expression of creativity/activity/etc. has in any way informed your understanding of science or how you may talk about it or present it to others?

Yes, absolutely.  For example in Mexico, unlike the US, you absolutely have to do an honors thesis project as an undergrad in science.  Because I had already studied philosophy for four years, I wanted to do a thesis project in philosophy.  But I also wanted to do one in physics.  I recall that back in 1997, when you presented a dissertation in front of the physics community, if you had any power point, forget it.  You would be immediately be called dumb or not a good physicist.  Because, who takes the time to do something fancy!  If you had any color in your presentation, forget it!  


So, literally, the smartest students in physics were people who didn’t really communicate that well, or didn’t really speak English that well, or just didn’t really make an effort.  Their slides were on those overhead projector things with those rolls of plastic sheets, and most of their talks were so confusing and couldn’t be interpreted!  But they were respected!  It was just assumed that if the formula looked complex, they were probably right. 
So what I did was completely different.  I infused my talk with my spiciness and color.  I did an artwork of liquid crystals, which was my research at Brandeis.  Liquid crystals are little cigar-shaped molecules that actually make up the screen of your laptop.  If you pass an electric field through them, they all orient themselves and that is how we can use them for displays in our laptops and TVs. 

I colored these cigar-shaped molecules with purples and reds and greens, and I tried to explain it at the most basic level. This is because of one my philosophy professors in Mexico, who told me that if you cannot explain what you do to your grandmother or 6 year old niece, you don’t understand what you are doing – I loved it!  


And I said to myself that I shouldn’t care what they think.  I pretty much expected to not gain a lot of respect from the physics department, but it had the opposite effect!  I actually had one of the professors from that department come up to me and tell me that he had never really understood what a liquid crystal looked like or what it really was!  He said that “finally I understand [liquid crystals] because of your drawing.  Thank you!”  It was incredible!  


To see the effect on people and from then on, I bounced up in down, I made jokes, I put in creativity.  It doesn’t always have a great effect on very serious audiences, but the younger generation is definitely appreciative.  When it keeps going well, you gain confidence.  And, for me, I even started wearing high heels to the next talk.  When someone commented about my attire, I would counter, hey I have a PhD!

DXS: How comfortable are you expressing your femininity and in what ways? How does this expression influence people’s perception of you in, say, a scientifically oriented context?

This question is deep and a little bit of a struggle at the moment.  This is because I still have that fear – when I arrived in NY, I did that short stint in modeling and I expressed myself and I would dress very creatively – just like my other girlfriends who were not scientists.  But I did feel a little bit of a backlash.  By that I mean that I would post a photo of myself on Facebook or something like that.  They were pretty pictures, not at all seductive or provocative, and my high school mates, usually male, would write me saying: “I always knew you as a serious person and you have achieved so many things – I am just telling you for your own good that this can really damage your image.”  That made me reply with “so you’re telling me that being smart is actually kind of a bummer?”  That actually means that I have to dress very differently from what other women wear for the rest of my life? 

I remember feeling very upset about all of that.  I think that not being taken seriously is still a little bit of a fear of and I think my website has damaged my serious image a little bit.  As a scientist, I was very secluded from the outside world.  I didn’t have a lot of friends when I moved here, but I did know an amazing and powerful woman who happened to be the CEO of Blip TV.  She was insisting that I do videos!  So she invited me to her place and showed me how to do video.  Being the quick woman that she was, she asked me to make up a name for myself on the spot.  When I didn’t answer, she instantly coined “The Science Babe” for me.  I was like, sure, what a cool idea! 

It was kind of a cute name, but because English is not my first language, I don’t always understand some of the cultural connotations associated with some English words.  A few months later, I started to get a few emails from mothers who were upset that I was using my looks.  They would say things like “Are you saying that women have to be in the kitchen or wear short skirts  to be scientists?”  I would answer that no, that was not it at all.  I would further explain that I was trying to change the definition of “babe.”  If you are smart, if you are empowered, you will be a babe no matter how you look.  I am trying to shift what people think of when they think “scientist.”

I don’t feel quite successful with The Science Babe.  It seems like there are quite a few people, especially some from the older generation, who say that they’d love to introduce me to fancy science organizations but are worried that the name “the science babe” will make it difficult.  Also, I had the BBC wanted to talk to me about doing a TV show in NY, and then they said but there’s so much bad stuff out there about you!  And I was like, what do you mean?  They answered “All these things with the “science babe” brand…”

It doesn’t happen all the time, but some people are really critical about the science babe theme, citing that its way too feminine.  Other female scientists that haven’t gone that route have perhaps discounted my seriousness about science.  They assume that what I am doing is not really that important because I do focus on the science everyday life, which is simpler, and it is too much color and too much vivaciousness for our field.  I feel like my femininity has decreased over the last few years because I’ve been too nervous about not being taken seriously.  It s almost like the balance tipped the other way. I feel like perhaps I’ve feminized things to a fault and now I want to appear more serious.  So, I am changing my website to “Science With Debbie” because I really felt the backlash.

It is a struggle to find the balance between being able to express my femininity and presenting myself in a way that people will take me seriously.  In a way, I wish I had a little more courage to not care that much about what people have to say about the science babe but, unfortunately, agents have told me that if I don’t go to the “dumbed down version of femininity” I would get better speaking engagements.  Being feminine has literally affected my career, and it’s because of other people’s perceptions.  I’m never going to be bland, but I will try to change things so I am more serious

DXS: Do you think that the combination of your non-science creativity and scientific-related activity shifts people’s perspectives or ideas about what a scientist or science communicator is? If you’re aware of such an influence, in what way, if any, do you use it to (for example) reach a different corner of your audience or present science in a different sort of way?

The fact that I am approachable and pretty down to earth has allowed me to reach corners of society that more distant and fancy scientists would never even consider. For instance, I am going to a small university to give a talk.  Some of my friends ask why I even bother, especially considering that this insitution is not the most renowned university.  But, I feel the opposite – it is these corners that need the influence the most!  Similarly, when I go to Hispanic high schools, many of the mothers have never seen a scientist.  And there I am, a scientist from Mexico, speaking to them and their kids.  It is that powerful combination of being a smart and warm female that can be shocking, which is cool.

In line with this, there was an experiment where women were asked to draw a female scientist.  Most drew a plain, relatively unattractive woman.  Immediately when you break that mold, it has an incredible effect.  People say, “Hey! She kind of looks like me and she dresses like me.  Maybe I can do science too!”  Some girls are afraid that by being smart, boys won’t talk to them.  My femininity allows me to be a voice in a field that has tended to isolate themselves from the public, which is bad. Some of my colleagues have become a little snobbish.  The fact that I have serious credentials (PhD and 2 postdocs) shows that I had to work like crazy – looks and personality can only go so far.  It s hard work that gets you there! Serious science communication has a lot of math and problem solving in order to explain things accurately to the public. So I still feel like I am doing science!

   

   

Double Xpression: Darlene Cavalier of Science Cheerleader and SciStarter

Darlene Cavalier (source)

Darlene Cavalier (Twitter) is the hard-working and seemingly tireless founder of Science Cheerleader and SciStarter. She has held executive positions at Walt Disney Publishing and worked at Discover Magazine for more than 10 years. Darlene incorporated her experience and knowledge in serving as the prinicple investigator of a $1.5 million grant from the National Science Foundation to promote basic research through partnerships with Disney and ABC TV and also has collaborated with the NSF, NBC Sports, and the NFL to produce the Science of NFL Football series. She holds a master’s degree from the University of Pennsylvania where she studied the role of the citizen in science and is herself a former Philadelphia 76ers cheerleader. In addition, she is a writer and senior adviser to Discover Magazine. You can find her full biography here.


On top of all of that, she is also mother to four children. You might be able to blame them for the two-day stomach flu Darlene was just getting over when she talked with Double X Science Managing Editor Emily Willingham about why women pursue professional cheerleading (hint: it’s much more about passion than pay), why cheerleader stereotypes are “bunk,” and why even if Science Cheerleader doesn’t lead all little girls into science, it leaves them with a message about being secure in who they are.

DXS: First, can you give me a quick overview of what your scientific background is and your current connection to science?

A: So I have no formal science degree. My connection to science is that I work and continue to work at Discover magazine. I worked there as business development coordinator, and that’s how I became reintroduced to science. I became a fan of science later in life. After working at Discover for a couple of years and having some children [Cavalier is the mother of four children], I wondered if there was a more significant role for someone like me without a formal science degree. My role at Discover had become curating science on behalf of the magazine. How do we get average public to move in the direction of science literacy?

I went to grad school at the University of Pennsylvania to look at those issues. When I met with an advisor (there), he recommended that I go for a masters in liberal arts, which made sense to me at the time. They created a curriculum for me. Most was in the history and sociology of science and some was in school of education. Piecing all of this together was a turning point for me in my life both prof and personally, I started to learn about these citizen scientists to engage nonscientific members of the public in real scientific research.

I saw huge gaps in getting people to move in that direction. Other countries were enabling citizens to take part in conversations about science policy on national levels. The U.S. didn’t have mechanism for that. That was one gap I saw. Another was people weren’t getting involved in citizen science projects…(they were) hard to find and scattered all over websites. It was a mechanism problem, not philosophical or societal. In grad school, I created a matchmaking site of all citizen science projects I was coming across. I decided to make that database public for people to add their projects, and made it searchable. There were no cheerleaders involved in science cheerleaders when I started the blog…it was about the citizen science projects and reopening this agency for public input. (It was not about) cheerleaders specifically.

                                            

DXS: So how did you end up incorporating the cheerleader aspect?

A: That was basically a fun way of using my background–it is surprising to people that I was a (Philadelphia) 76ers cheerleader. I kept it secret for long time at Discover, fearing I wouldn’t be taken seriously. I wish I hadn’t attempted (to keep it) secret; when it was “exposed” at Discover people were great about it. They thought it was pretty neat. So I became more comfortable in that role. I wanted to do a tongue-in-cheek look at this when I was starting the blog that this site really is for everyone. Citizen science projects are for everyone; it doesn’t matter if even a quote–unquote “ditzy blonde cheerleader” can do it, surely the scientists could figure it out, and the politicians.


(When the concept of Science Cheerleader really took off), we thought, “We’re on to something.” Most people loved it. Criticism came from feminist science bloggers, which I totally understand…I learned something there, too… (this idea of), “these women aren’t scientists, what are they doing?” Then I started getting emails from actual NFL NBA cheerleaders, (telling me) “I’m getting PhD in chemistry,” (and saw it as) a great way to merge two parts of my life. I could hardly believe it. I never even had thought to ask cheerleaders if they were studying any of the STEM fields.

It became cyclical. The founder of the U.S. Science and Engineering Festival called and asked Science Cheerleader to come to that festival and perform. I had to tell him I’d never met them. We got a grant from the Burroughs Wellcome fund to cover travel for 11 science cheerleaders to come to Washington and perform. They had awesome outfits, speaking roles. It was more or less an experiment. Amazing performers against a science theme routine and incredible public spokespeople.  Applying their talents of being enthusiastic about their team to science and tech careers. They were a huge hit at the festival. 

We left each one speak their own language. They’re very diverse. It helped to have that diverse makeup and watching them talk to little kids. Little girls would come up to them, almost like when you see Cinderella, would want their autographs, to touch their uniforms, feel their pompoms. It was a great opportunity to say, “We love cheerleading, but in the daytime I make cars, I’m what you call an engineer.” Some of the dads and the moms were more attracted to the team (the cheerleaders) represented, and they learned that no cheerleader makes a living on 35 bucks a game…they have professions.

We started to realize we were challenging stereotypes of scientists, cheerleaders, engineers. We have so many science cheerleaders in the database, working now with the NFL and NBA, (that) when a local event is happening, I can contact science cheerleaders in the Boston area tell them, and they can go if they want. They don’t have talking points … they say what they want to say. A Patriots cheerleader says cheerleading was great for her professional career, standards were super high for her in college. (You have to maintain) a GPA to be cheerleader and athlete, (and that) was helpful.

DXS: And you’ve encountered some criticism from feminists or women in science. How do you handle that?

A: You can’t be a science cheerleader unless you have science connection. I’m the only fraud in the group. That’s the criterion. What is different, there was so much media play…NPR, CNN, TODAY Show, you can only get across so much in a video. A couple of people took a video where someone says “go science” and assumed we’re just dressing people up as cheerleaders and sending them around to yell that. (But) there’s a lot of depth with what they do.

Many are very accomplished in their fields, going on to do research. One is getting her PhD in chemistry, working on gold nanoparticles to treat pancreatic cancer. That criticism that’s ill informed is the worst type. Putting them in a bad light and they don’t deserve it. They volunteer to do this. They do it because they really believe in it. There are an estimated 3 to 4 million cheerleaders in the US. They want to reach that group, let them know it’s OK to love math and science, (to say) here’s my experience, here’s how I learned what an engineer is, here’s what my day is like. They’re all available to be pen-pal partners. As much as we preach “don’t let other people bother you or criticism bother you,” I don’t like to see ill-informed or misinformed statements.

Q: Have you encountered situations in which your expression of yourself outside the bounds of science has led to people viewing you differently–either more positively or more negatively?

A: Yes. (What) we have is mostly anecdotal…have a number for people coming to site, watching video, we try to save emails and letters that come in from moms of little girls who just want to be cheerleaders but also are talented, and the moms feel they’re talented in math and science and grow concerned about their daughters losing that for their love of cheerleading and dance and are happy to see these role models on the site.

In terms of other positive impacts, if we just look at it from public outreach, it’s been incredible because of the media’s interest. Media interest in this, the teams themselves…it’s not easy to reach Baltimore Ravens fans w positive messages about science and tech or women and science and tech, so when the Ravens repost the interviews and tweet it to their fan base, that’s very positive.

Lines at live events are pretty long with kids lining up to get autographs from the Science Cheerleaders. We always look for local or regional citizen science activity to capitalize on that attention to get those people to do something. For example in South Texas a science and engineering festival. We did our routine, a bunch of people line up for autographs, our choreographer is the reigning Miss United States. That attracts people as I talk about a local researcher who needs their help for citizen science project. (It’s) super simple to use that attention to say “hey, by the way, you’re needed. When you see this crayfish–hold up a picture–it’s considered invasive. Here’s Dr. Zen!” He (Dr. Zen) came out and talked, while they’re waiting inline, a captive audience, and we give the Website where they can get involved.

Our sister site, is now a full-size website called SciStarter, a startup company. That was named one of Philly’s top-10 tech startups last year! It aggregates all of the citizen science projects out there. We rely on that at all of the Science Cheerleader appearances.

I can do what I know how to do, but I would love some grad student or organization that does evaluations or measures outcomes and help me learn more about the metrics, direct outcomes that can be measured, and how do I do that.

DXS: Have you found that your non-science expression of creativity/activity/etc. has in any way informed your understanding of science or how you may talk about it or present it to others?

A: It’s a great question. It’s interesting because that Science Cheerleader blog that I started with and still have–it’s a very diverse audience. There are people who came because they’re reading about their favorite teams’ cheerleaders doing cool things and that ‘s great. I’d have a lot of those types coming to the site, and they’d learn, “hmm that’s interesting I didn’t realize that’s what a chemical engineer does,” then look to their right and see, “hmmm this is happening in Boston”… and take next step from passive reader to getting involved in a citizen science project. The goal is to move them to being actively engaged citizens getting them prepared aware involved in the science policy conversation. I know that sounds so farfetched but not nearly as much as a couple of years ago.

It is not easy to talk to different audiences. I used to preach “know your audience,” but I’ve learned more from my audience than they may have from me. I consider some of the science bloggers, and they’re a part of the audience. I learned they don’t like 76ers involved without science degrees, and we responded to that. What one group likes another won’t. There’s no “one size fits all.” We try to (appeal) to a wide variety of audiences coming to site….from those interested in science policy to people who come because they want more about citizen science efforts. We can point them to these things through SciStarter.

DXS: How comfortable are you expressing your femininity and in what ways? How does this expression influence people’s perception of you in, say, a scientifically oriented context? And does that impression evolve at all?

The initial impression, even through me–and I think the Science Cheerleaders would say this too, even when I was of the Sixers…(pauses)… let’s talk motivation for a minute, why most of these women choose to become professional cheerleaders, why would you do that? The bottom line is that there are very few opportunities to continue dancing and performing once you’re out of college. My personal experience–and you’ll see this in interviews–your options are so limited, and we wanted to continue performing, usually it’s dancing. We see an audition in paper, and they’re looking for people who know how to do triple pirouettes, and the opportunity to continue to perform is there.

I wish we didn’t have to wear those uniforms when I was on the Sixers. I loved every single thing about it except for some of the uniforms. I would love for the NFL and NBA to look and say, “We didn’t realize cheerleaders felt that way and tone it down,” (but) it’s not going to happen. I encourage people to read interviews to see what motivated some of the cheerleaders. I wasn’t a gung-ho Sixers fan who wanted to do this for the team, but some people almost their whole lives dreamed of being a cheerleader for their team.

In terms of embracing being feminine, I don’t know anyone who is that 100% of the time. My hair looked decent, I wore OK clothes, but I don’t walk around like that all the time. I think that the reality of the situation is there’s no one walking around looking like a professional cheerleader all the time. I doubt that the Science Cheerleaders look like that when they go into the lab, not because they want to be taken seriously but for convenience. It s a lot of work to look like that.

I wish that the people who pave the way for these Science Cheerleaders to be exploring the careers they have now–lots are supportive and embrace them but that also happens to be where the toughest critics are embedded. They know better than anyone what it feels like to have somebody work against you. I wish they’d ease up on Science Cheerleaders and let them be all that they can be. They can relate to an audience it’s not easy for us to reach. I can’t reach those little cheerleaders out there myself, but they can, maybe through pom-poms or uniforms or a connection with the moms. It does evolve

Some teams require you to be in school full time or have a full-time job. They want smart cheerleaders because you have to be out doing public speaking so if you’re not articulate or bright…pretty girls and good dancers are a dime a dozen…your success comes down to your interview.

These Science Cheerleaders are by far way more secure in their dual roles than I was. I’m not sure why or how, but when you see them at appearances, they’re looking for ways to embrace these two roles. They’ll say in their interview, I don’t care what people in my lab think about my wearing makeup and so on, and they mean it. These women walk the walk.

DXS: If you had something you could say to the younger you, back when you weren’t so comfortable with yourself about the role of expression and creativity in your chosen career path, what would you say?

A: If I had read one of these interviews when I was, say, in fifth grade, and I read one of those Science Cheerleader interviews, it would resonate w me in a different way. It might not have an impact on me personally when I was a kid…the cheerleaders on our team, we were athletes. Most cheerleaders are leaders in their schools, involved in leadership and academics, student government. The stereotype is total bunk. 

I can tell you that in some point in my life, I can think back to times, like my first big job at Discover, had I read these interviews as a kid, I may have felt more comfortable about being authentic about every aspect of me. 

To use the Pop Warner example, we set a world record with them, 1300 little cheerleaders cheering for science for five minutes. I have a sneaking suspicion that fast forward 10 years from now, they might be interviewed, by you maybe, about how they got interested in science, and they might say, when I as in 8th grade, I got called in to do this science cheer thing, and it opened my eyes to science as a valid career. If it doesn’t happen at a young age for some of these girls, they might reflect back to something they experienced science cheerleading and feel entitled to embrace all that they are and feel good about that.
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See the Science Cheerleaders in action at the Science and Engineering Festival:

By Emily Willingham, DXS managing editor 

Double Xpressions: Jennifer Canale, the self-proclaimed "Flamboyant Scientist"

Jennifer Canale is a Senior Microbiologist for the United States Food and Drug Administration (FDA) in Queens, NY, as well as an adjunct microbiology lecturer for City University of NY (York College and College of Staten Island).  Jennifer is also passionate about promoting women in science and leads an annual women in science event at the FDA as a means to promote awareness about gender discrimination in the workplace.

[DXS] First, can you give me a quick overview of what your scientific background is and your current connection to science?

 

[JC] I have always been interested in science, and since most of my family worked in Bellvue Hospital, I was very comfortable around people in lab coats.  In the early seventies, at the age of 5, I announced to my grandfather, the X-ray technician, and his brothers (my great uncles) that I wanted to become a doctor, specifically a doctor that delivers babies.
My grandfather was proud and my uncles were dismayed. My uncle Joe said to me, “Jennifer, you mean a nurse like your cousin Joanie, right?” My cousin Joan applied to Medical School in the sixties and the same group of uncles convinced her that her fiancé, Warren, wouldn’t wait 4 years to get married and it was more lady-like to be a nurse. Today she is a retired left-handed OR nurse that specializes in cracking open chests for cardiac surgery, not so lady-like after all. So in an attempt to not have a repeat of Joanie, my grandfather jumped to my defense against his brothers and said that ‘she can be a doctor if she wanted to be’, and, furthermore, his niece Joanie was smarter and more capable than most of the doctors he worked with and shouldn’t have had to take orders from them.
My uncles agreed that there was no question of the intellectual prowess possessed by both Joanie and myself, and their reluctance came out of concern for me.  They worked in the hospital, too, and saw how male doctors would abuse the female ones and make their lives more difficult because they didn’t want to allow girls in the all-boys club. “Do you want our baby – our most precious blood – to have to fight her whole life for this? What about the family – how will she find a husband and bring us more children if she sticks her nose in a book the rest of her life?”  These arguments sounded a lot better when they were stated in Sicilian. Back then, the concept of ‘women can have it all’ – work and family – was not the norm like it is today.
My grandfather came back with his final answers to them. I was his granddaughter, I looked just like him, I was a fighter just like him, and this is America and she will be what she wants to be, ‘End of Story’. My uncles agreed that I was his granddaughter, I looked just like him, and I was a stubborn mule just like him, so he was probably right and they would pray for me and secretly hope I would change my mind.
Now this all transpired in front of me in a combination of English and Sicilian while I stood there in my denim overalls with a Tweety Bird patch. I was listening, and since I was only beginning to learn Sicilian, I only caught a couple of words: blood, children, book, change, and I misunderstood the word for fighter as “afraid.” I added to my grandfather’s “end of story” remark that I was not afraid of blood, I can learn how to deliver children from a book, and questioned why they wanted me to change- those overalls were my favorite!
My family was supportive to a point, but when I asked for an erector set for Christmas, I got a Barbie town house. When I wanted to go camping with the Girl Scouts, I was sent to dance school (but, much to my amazement, I enjoyed that until I was 17).  My parents started giving in around 3rdgrade, and I got the panda bear-shaped calculator I wanted, as well as the robot toy 2XL featuring the 8-track tape. My mom would beg me to watch Little House On the Prairie, but I preferred Star Trek (the original Kirk version), Lost in Space (Danger Will Robinson), and Land of the Lost. Of course this was all my dad’s fault according to mom – he was the sci-fi guy, but he always said, “Jen was born this way!”
My parents eventually gave up, and my uncles kept praying for that change of mind, but I spent the late seventies and early eighties winning science fairs with experiments my Uncle Ben, the electrician, rigged for me. They thought there was hope for me to be more “lady-like” in 1984 when I started high school and wanted to try out for the cheerleading squad, but the teachers advised me that “the cheer squad” was no place for an “honor student” like me. So it was off to advanced placement Biology and Chemistry, and by graduation in 1988, I was accepted to the pre-med program at NYU. 
I graduated from NYU with honors, and my parents got me two presents: my name in diamonds and a stethoscope. My grandfather bought me a set of crisp white lab coats and gloated to his brothers with a cigar in his mouth. Apparently a bet was made amongst them and from hence forward they had to call me “doctoressa,” the hybrid feminized version of doctor in Italian.
The NYU pre-med was highly competitive – a constant process of elimination from 500 students (1:3, female:male) down to only 109 of  us actually completing the program. The men thought it was strategic to flirt with the girls and convince us that we shouldn’t become doctors but instead should marry them. The guy that told me that got a punch in the stomach – in the name of the other women that worked. It was also apparent that many were planting the seeds of doubt in the pre-med females, stating that if we became doctors, then we wouldn’t be able to have a family.  In essence, we were being told that we would be giving up the chance to have children. You had to go against your “true female nature” to breed and nurture and (instead) become a selfish and testosterone-like human to make it in this field. That was the nail in the coffin for a lot of the women in my program. The most brutal tactic and final blow to confidence was when I heard someone say that “only the ugly girls become doctors because no man would want them.” 
In the nineties – halfway through college – I did change my mind, and my uncles were dancing in the streets. They thought I met a nice boy in college and I was going to settle down, give them more kids, and make sauce and meatballs on a Sunday like the good Paesana I was supposed to be. I announced I didn’t want to be an MD anymore, I wanted to be a PhD, instead. I wanted to be a SCIENTIST, do research, and maybe teach in a university.  A “Scientista”-“Professoressa” “Aiuta Dio” (which means help us god)! Back to church and the rosary beads. When I got my master’s degree in microbiology, the family was just convinced I liked to collect graduation hats.
There was a feeling among my family members that science was a “boy thing,” and my cousins teased me as a result.  They considered me a nerd and less feminine than my other girl cousins. I was told that I would never get married and have kids because I am a bookworm. Even in the mid-’90s, I had friends that told me not to tell guys that I was a scientist because they wouldn’t ask me out. I was kind of cute and only told a guy the truth about my profession if we got serious. As an experiment, I told one guy I met that I was a scientist and he said I looked too sexy to be that smart – and then he walked away.
I met discrimination on both sides of the stereotypical coin, in academia and in the work force. I was told when I was interviewing for graduate schools (and then for science jobs) that I had several strikes against me. First, strike one, my thick Staten Island/ Brooklyn accent supposedly made me sound less intelligent. My mentor in graduate school, Dr. Mark Albano, said to tell people to kiss your  “you know what” because as long as I could discuss topics like “molecular genetics” who cares how it sounds. Besides he found my accent endearing, especially because it made boring topics sound more interesting.

Strike two was my long hair.  I was told that my long hair was not practical in a scientific environment, and if I looked too glamorous on interviews I would not be taken seriously. I put my hair in a bun and toned down my make-up, but I didn’t cut it.  Apparently, I looked too feminine, especially given my major curves, and even my power suits could not hide that. Women at the time were dressing very masculine (think early Miranda on Sex in the City) to compete with men for jobs. When I got the interview for my first job with Dr. Moretti in the Reproductive Immunology Lab at St. Vincent’s Medical Center in Staten Island, I remember wearing a black and white houndstooth print sheath dress with a matching short suit jacket, accessorized with pearls.  Dr. Moretti said I was like Rosalind Franklin and Jackie Kennedy all rolled up into one, with a side order of cannoli.  

 

The early 2000s arrived, and attitudes toward science changed. Shows like CSI became wildly popular. Science fiction movies about transforming robots became blockbusters. People began to use technology in their everyday lives, such as smart phones, tablets, and car navigation systems, and it suddenly became “cool.”  I met my husband in 1999, and since I really was into him, I told him the truth about being a “microbiologist” from the start.  He said, and I quote, “Wow, your smart, sexy, and Sicilian – it’s like I hit the Lotto!”
My wedding was the most joyful event in our family’s history because most of them thought that would never happen.  I still get teased by my family when I give a long, drawn out scientific explanation of something or when I bake and make exact measurements of ingredients with my Pyrex bakeware with both the ounces and metric conversions. My husband responds for me and says “he learns something new everyday and hopes that our son becomes a nerd just like his mommy.” 
So now I have it all: I am a female scientist, a wife, and a mother, even though others didn’t think that would be possible.  But I always knew it would happen. I understood and forgave my uncles because I knew that they wanted to protect me, not hinder me. As for all my doubters I regularly take Dr. Albano’s advise and tell them to kiss my “you know what!”


Even my current supervisor, Maureen Coakley, recently told me in an interview that I am an “anomaly,” meaning that I am a flamboyant scientist. That was one of the best compliments I ever received. I am who I am, and that is why my playlist on my iPhone has the “Big Bang Theory Theme Song” followed by “I’m sexy and I know it!”
Times have changed. Perceptions have altered in a good way, but not entirely. Lesson learned from both academia and the school of life is that some people will get you and some people won’t. If they don’t, don’t take it personally because it is their loss and their ignorance. Some people see the person, and some see the stereotype. All you can do is try to educate them in an attempt to bust the stereotype. The only perception that matters is how you perceive yourself and use that perception as a means to become the woman that you were meant to be.
[DXS] What ways do you express yourself creatively that may not have a single thing to do with science?   
[JC]Ever since planning my wedding in 2004, I have been interested in event planning.  I have a knack at coordinating events, which I do as part of my collateral duties at FDA, where I have served as the Women’s Program Coordinator for the past 9 years.  People call me the ”Fun Fairy” because I can be very creative and take any topic, put a different and interesting spin on it, and present it to a group in very entertaining ways. My creativity is driven by my intellectualism, and I incorporate that into something fun and memorable. I always make little inexpensive favors – buy them to give out to my audience – that are”theme oriented,” and they keep them as a reminder of the event.
The people I work with have whole collections of these favors, and they remember what each one stands for. For instance, the Women’s History Month theme for one year was “Our History is Our Strength.”  Before planning this event, I had attended at NYU the Satellite Summit of National Women’s Conference hosted by Maria Shriver (then 1st Lady of California) and the First Lady, Michelle Obama. So I thought I would highlight the contributions of the First Ladies to US history. I found an educational video on the history of the First Ladies, did a presentation on the Satellite Summit, and even had a fashion show featuring of reproductions of Jacqueline Kennedy jewelry collection (my favorite first lady). I used the symbol of a “Cameo” to represent the first ladies, and so I made a huge paper one with beads on tulle on my bulletin board with pictures of the first ladies around it and gave out cameo bracelets that I made from gluing plastic cameo buttons on ribbon. Everyone still has a cameo on their desk at work, occasionally conjuring up memories of my First Ladies event.
[DXS] Do you find that your scientific background informs your creativity, even though what you do may not specifically be scientific? 

[JC]My entire life is influenced by, or even revolves around, “Science.”  I love science fiction movies, books, comic books, etc.  Any inspiration I get for any of my creative projects always has some root in something “science-related.” I also think that my background in science helps make my visions come to life. Even the smallest details like the stemware I chose for my wedding was a Mikasa pattern that resembled a DNA double helix, or a hexagonal candleholder that looked like a benzene ring (at least it did to me!).  Another example comes from my Women’s Program, when the theme was “Writing Women Back Into History.” So I found a book called The Women of Apollo, which gave the untold story of the women engineers who had critical contributions to the Apollo Space programs.  For me, all roads lead back to science.  

 

[DXS] Have you encountered situations in which your expression of yourself outside the bounds of science has led to people viewing you differently–either more positively or more negatively?  
[JC]I have experienced both negative and positive views by others when I am expressing my self creatively. On one hand, there were people that associate planning events with a negative stereotype of being a “party-girl” or “bimbo” type that cares more about the “girly fun” stuff than the serious business of science. On the other hand, there have been people who constantly praise me for presenting science-related topics in entertaining ways. The latter view me as a “flamboyant scientist” who shares her knowledge in an interesting manner.  In this life you will never please everyone; only seek to please yourself and your loved ones because those are the only opinions that matter.
[DXS] Have you found that your non-science expression of creativity/activity/etc. has in any way informed your understanding of science or how you may talk about it or present it to others?   
[JC]In planning these events, I have come up with a formula of sorts to create a successful soirée.  Of course, this formula is an entire science in itself. I have to consider things like timing, lighting, printed materials (programs, table cards, menus, etc.) and a gamut of other things that involve an understanding of science. I am a biologist with a minor in chemistry, but the more I do these events, the more I get into things like astronomy (for a celestial-themed wedding, for instance).  I mention lighting, which seems so simple, because it is actually quite complicated – getting the right reflections and materials to use (i.e.- LEDs, wax candles vs. battery operated, the limitations of pyrotechnics in party venues) is critical. Even in doing crafts for favors and printed materials, like event programs, I’ve learned different scientific techniques, such the right kind of bonding agent to use to attach ribbons, charms, or vinyl decorations, or even the use of edible ink in printers to make fondant or wafer decorations to put on cupcakes or cakes. It is a continuous learning experience.
[DXS] How comfortable are you expressing your femininity and in what ways? How does this expression influence people’s perception of you in, say, a scientifically oriented context?   
[JC]I am comfortable with expressing my femininity in the way I dress and conduct myself in any setting.  Although, many years ago, I was advised to dress in suits and tailored shirts similar to a man and wear neutral make-up or none at all if I wanted to be taken seriously in the scientific world, I went against the grain. I am a curvy girl, and there is no hiding my femininity. So I embrace it. I wore suits, but nothing drab – always something like a red or purple skirt suit with heels. I adhere to work environment rules like no open toe shoes in the lab, which is a safety concern, but I do not downplay my female attributes to fit in, or to present a more palatable image to my scientific peers. I do not concern myself with people’s perceptions of me based on my looks because once I “speak” and “communicate” scientific concepts, there is no question of my prowess. I am what I am, and that is a female scientist, and I pride myself in being a “stereotype buster.” 
[DXS] Do you think that the combination of your non-science creativity and scientific-related activity shifts people’s perspectives or ideas about what a scientist or science communicator is? If you’re aware of such an influence, in what way, if any, do you use it to (for example) reach a different corner of your audience or present science in a different sort of way?  

[JC]I think that being the “flamboyant scientist” works in my favor, and as a science communicator, it is effective all aspects of my life. As an adjunct professor, my students often thank me for making science fun and understandable. As a scientist, my colleagues and interns find my training methods to be memorable and actually increase their understanding of the job. As the Women’s Program Coordinator at the FDA, I create unforgettable events that people look forward to and learn a lot from. As a wife, mother, daughter, aunt, cousin, and friend, I am the “Fun Fairy” (pictured with wings and a lab coat), and their lovable nerdy girl. 
I feel my true gift is being able to communicate science.  My mentor in graduate school always told me I had the talent of taking complicated scientific ideas and expressing them in a way that anyone could understand. I have some ideas brewing involving science books for children and teens, and I would like to explore these avenues in order to share this gift with others. I would also like to get involved in maybe writing for popular science publications, if given the opportunity.
[DXS] If you had something you could say to the younger you about the role of expression and creativity in your chosen career path, what would you say?  
[JC]I would say be true to yourself. Whatever path you take career-wise, always remember that is could be something you will be doing the rest of your life. Yes, there are financial considerations to make, but if you do not have that creative outlet incorporated into your career, then you will be miserable. I am the happiest at work when I am planning a Women’s Program alongside doing experiments or going to my second job as a professor at York College. You need the creativity to keep the blood flowing. Where would science be without creativity? Find what your talent is and what makes you happy, and then apply it to your career.  That is the secret to success.

Double Xpression: Liz Neeley, Science Communicator Extraordinaire

Liz Neeley: Science communicator extraordinaire
and lover of fine fashion… and bread.

Liz Neeley is the assistant director at COMPASS where she helps develop and lead the communications trainings for scientists, and specializes in the social media and multimedia components of their workshops and outreach efforts. Before joining COMPASS, Liz studied the evolution and visual systems of tropical reef fishes at Boston University. After grad school, she helped communities and researchers in Fiji and Papua New Guinea connect their knowledge of local coral reefs ecosystems to the media. She also dabbled in international science policy while working on trade in deep-sea corals. Liz is currently based in Seattle, at the University of Washington.  You can find Liz on Twitter (@LizNeeley) and on Google+.  Also check our her passion projects, ScienceOnline Seattle and her SciLingual hangout series.  






DXS: First, can you give us a quick overview of what your scientific background is and your current connection to science?
I was one of those kids who knew from a really young age what they wanted to be, and that was a fish biologist.  Sea turtles, dolphins – no way – I wanted to study fish. My mom actually found an old picture I drew when I was in third grade about what I wanted to be when I grew up: it was me in a lab coat, holding a clipboard, and tanks of aquaria behind me. 

You combine this with the fact that I am also a really stubborn person, and I just wanted to do science straight through all my schooling.  Not just the coursework either – I did an NSF young scholars program in high school, was the captain of the engineering team, and, of course, was a mathlete. 

I did my undergraduate work in marine biology at the University of Maryland.  I did three years of research there on oyster reef restoration, and then went straight into my PhD at Boston University, where I studied the evolution of color patterns and visual systems in wrasses and parrotfish.

I actually did not finish my PhD.  Life sort of knocked me sideways, and instead of finishing my PhD, I ended up taking a masters, and then going into the non-profit world.  At first, I mostly worked on coral conservation in Fiji and Papua New Guinea, and I did a big project on deep sea corals. 

After I left grad school, I started a 20-hour per week internship at an NGO called SeaWeb.  Vikki Spruill, who was the founder and president, has killer instincts and a passion for women’s high fashion that I share. She had noticed coral jewelry coming down the runway in Milan, Paris, and NY. People just didn’t have any idea that these pieces of jewelry were actually animals, much less that they were deep sea corals. 

So we launched a campaign called “Too Precious to Wear,” which partnered with high-end fashion and luxury designer to create alternatives to these deep sea corals – celebrating coral but not actually using it.  The Tiffany & Co. Foundation was our major partner, and we got to throw a breakfast at Tiffany’s that brought in fashion editors from Mademoiselle and Vogue.  

Everyone always dismisses women’s fashions as shallow and meaningless, but this ended up being this huge lever that got a lot of attention for deep sea coral conservation, and my piece was the science that pinned it all together. I got a taste of the international policy component of that as well, and headed to the Netherlands for CITES (the Convention on International Trade in Endangered Species) as part of the work.  I knew the science, but certainly helped that I knew how to pronounce the names of the designers too – opportunities like that to bridge cultures that seem foreign to each other are tremendously powerful. 

I currently work at COMPASS, which is an organization that works at the intersection of science, policy, and communication/media.  Our tagline is “helping scientists find their voices and bringing science into the conversation.” For my part, this means, I teach science communications trainings around the country, helping researchers understand how social media works, how reporters find their stories, and how to overcome some of the obstacles that scientists often put in their own way when they talk about their work. 

What I love about this work so much is that it keeps me in the science community – around people who are pursuing tough questions. That is how my brain works, it is how my soul works, and I want to be a part of it.  The power of this for me is to be able to take in all of this knowledge that is generated by these scientists and help connect it to the broader world.  I feel like this is the best contribution I can make.     

DXS: What ways do you express yourself creatively that may not have a single thing to do with science?

I am a pretty artistic person – or at least I think of myself as a pretty artistic person!  My creative outlets usually involve some kind of graphic design.  I am always giving presentations for my work, and I constantly ask “what do my slides look like, and am I telling a good story?” I so lucky that I get to spend a lot of time thinking about imagery, visual storytelling, and how people react to art or data visualization. 

I also paint and draw (though I wouldn’t really share those) and I cook.  I am actually doing a bread baking experiment this year where I am trying out a different type of bread recipe every weekend. 

It can be really funny because sometimes, if it has been a really stressful week, I will look for a recipe that really needs to be punched down or kneaded for a long time. It’s a good workout too! And then we have this amazing bread every weekend.  It is all about the aesthetics for me – I host dinner parties, bake, have a great garden – all of that is sort of my own creative outlet.

Some experimental results from Liz’s bread project.  
DXS: What is your favorite bread?
The delicious baguette
LN: Oh, the baguette. I made my own for the first time last weekend and it was really fantastic! I realize that baking is one of these things that, if you want to do it properly, you have to be very precise. You should weigh the ingredients. But I’m precise in the rest of my life. When it is the weekend and I am having fun, I kind of love it when the flour is just flying everywhere.  As a result, my loaves are a little bit mutated, or just not quite right, but they are delicious!  Some of my other favorites also includes a great focaccia (the recipe for it is below!).
DXS: Do you find that your scientific background informs your creativity, even though what you do may not specifically be scientific?

Yes, absolutely.  It’s funny because when you asked the question about my creative outlets that have nothing to do with science, it was not entirely easy to answer.  You know, science is who I am – it permeates everything I do.  When I am baking the bread, I am thinking about the yeast and fermentation.  When I am painting, I am thinking about color theory and visual perception – after all that would have been what my PhD was in! 

Speaking of color theory, Joanne Manaster recently shared a “how good is your color vision?” quiz. I took that test immediately to see how I would do. That lead me on this interesting exploration around the literature, and I read one theory that Van Gogh might have had a certain type of color blindness.  I love this question of how our brains interact with the world. In animal behavior the concept is called “umwelt” – each species has a unique sensory experience of the environment. I like to think about how that applies to individual people to a smaller degree.

I think about this all the time – science, creativity, art, aesthetics – it is all one beautiful and amazing thing to me.

DXS: Have you encountered situations in which your expression of yourself outside the bounds of science has led to people viewing you differently–either more positively or more negatively?

I accept the fact that, especially when it comes to strangers, we make up stories based on what we see – clothes, hair, etc.  I know that this happens to me as well.  When we talk about femininity, it’s no secret that I am a girly girl.  I wear makeup and heels. That’s how I feel most like myself, how I feel best. I know that this doesn’t sit well with everybody, but that’s ok. I like to think that I hold my own. Give me enough time to speak my piece and I can back it up. I’ve got an interesting career, I am a geek, and it is not hard for me to connect with people once we start talking.

In science we say that we don’t have a dress code, but the reality is that we do. Maybe it’s unspoken, and sure it is not the same as you see in the business world, but when you look different from how everyone else looks, people do want comment on it. I don’t feel like it is particularly negative in my case, and I feel that it doesn’t impede me. What is most exciting is that it often opens up conversation – mostly with other women who say “oh I really like your dress, I’ve been wearing more dresses lately!” 

When I was an undergrad, I was kind of oblivious to the whole dress code thing.  One day, when I was in the lab, I was wearing this pink, strappy sundress, tied up the back, and these stupid platform sandals that were really tall (clearly not appropriate lab gear).  I was scrubbing out this 100-gallon oyster tank and my advisor happened to walk by and he sees me doing this. I remember freezing – all of the sudden I was afraid he was going to mock me or lecture me, but he just said, “Oh, Liz… Keep on.”

My graduate advisor was the same way – he acknowledged who I am and didn’t bother about how I dress. We didn’t avoid the topic.  It just wasn’t an issue. I hope that other women can have that same experience. It doesn’t matter if you are a tomboy or a girly-girl.  I don’t care – I am not judging you. You don’t have to look like me because I am in a dress.   

This is why I love this #IAmSciencememe, and the whole “be yourself” mentality. And that is what I am going to do. I’ve decided to be myself. I accept the fact that not everyone will like the look of me.  But, I think that we will eventually get to the point where we understand that science can be presented in lots of different ways.


DXS: Have you found that your non-science expression of creativity/activity/etc. has in any way informed your understanding of science or how you may talk about it or present it to others?

For me, my job with COMPASS really is sitting at this nexus of asking how we share science with people who aren’t intrinsically fascinated by it or connected to it.  This is very much a ripe field for thinking about creative expression.  Mostly, we come at it in terms of verbal presentations, storytelling and written materials, but then I specialize in the social media and multimedia components.  I am always thinking about everything I am reading and seeing – news, art, music, fiction – and how we can apply what resonates with others in these non-science realms.  It is very much a two-way thing; my science informs my creativity and my creativity informs my science.  That makes it really fulfilling and exciting for me.

I see this in terms of the ability to make connections.  When I am standing up in front of a group of researchers doing a social media training, I am making pop-culture references, alluding to literary works, quoting song lyrics.  When you get it right, you can see someone’s eyes light up.  It’s just another way to connect – people sit up and pay attention if you can make a meaningful reference to the artist they love or the book they just read.

One of the questions we always use in our trainings is “so what?” So you are telling me about your science, but why should I care?  Miles Davis has a famous song “So What?” and we play that in the background. It makes people smile. It makes it memorable. I love that. I really like this idea that we should be using the fullness of who we are and our creative selves, including all of the sensory modalities, to talk about the very abstract and difficult scientific topics we care about so much.


(DXS editor’s side note: A portion of the previous paragraph was delivered to me in song. What’s not to smile about?!?!)
DXS: How comfortable are you expressing your femininity and in what ways? How does this expression influence people’s perception of you in, say, a scientifically oriented context?

I feel very comfortable in my own skin, and who I am and where I come from does tend to be a classically feminine look (at least in terms of clothing choices and how I wear my hair).  I am never quite certain the exact definition of “femininity”, but I don’t think how I look so much influences people’s perception of me as much as it opens up opportunities for us to discuss gender and personality and science. 

 
Part of what I do for my work is to help scientists understand that in journalism, we need characters.  So, I have the obligation to walk my talk – we are all the main characters in our own lives and we have to live with that and be true to that.

It brings up interesting questions of personality and privacy. I feel pretty comfortable talking about my clothes and my art and my dogs and my bread baking – but I also know that a lot of people don’t want that type of stuff out there. I like the challenge of helping them tell their own science stories and shine through as interesting people in a way that is authentic and represents who they are in a way that works for them. 

DXS: Do you think that the combination of your non-science creativity and scientific-related activity shifts people’s perspectives or ideas about what a scientist or science communicator is? If you’re aware of such an influence, in what way, if any, do you use it to (for example) reach a different corner of your audience or present science in a different sort of way?

Sure, I think that I sometimes surprise people.  For example, in the world of communications and journalism, we are seeing more and more that coding and programming has great value. To just look at me, you might not believe that I geek out over altmetrics and that I miss using MatLab.

It suprises people when they find this out, and I sort of like that. I know what it feels like to walk into a room and to be dismissed. I relish these opportunities because I consider them a challenge. Instead of feeling offended (though it can get tiring), my approach is thinking, “Guess what! I have something interesting to say, and you and I are actually going to connect, even though you don’t see it yet.” 

I think that this sort of willingness to interact is something I try to help the scientists that I work with to understand.  Maybe you think that you are going to be met with great opposition toward some subject like climate change, but if you have the willingness to approach it without assuming the worst, it opens new opportunties. I’m no Pollyanna, but I think relentless optimism and a commitment to finding common ground with others is very effective.    

When I introduce social media to scientists, it has changed a lot over the last three years, but there is still a lot of skepticism and some outright scorn for “all those people online.” I like to encourage taking a step back from that in order to reveal all of the awesome things going on online and the ways you might engage.  I truly enjoy the process of turning skeptics into something other than skeptics – I might not change them into believers, but they will at least be surprised and interested onlookers. 


Liz Neeley’s Favorite Focaccia

INGREDIENTS:

Scant 4 cups white bread flour

1 tablespoon salt

Scant 1/2 cup olive oil

1 packet of active dry yeast

1 1/4 cups warm water

Favorite olives, roughly chopped if you prefer

Handful of fresh basil

TIME:

Start this mid-afternoon (between 3 and 4 hours before you want to eat it, depending on how fast you are in the kitchen)

RECIPE:

1.      In a large bowl, combine the flour and salt with 1Ž4 cup of the olive oil, the yeast & the water. Mix with your hands for about 3 minutes.

2.     Lightly dust your countertop with flour and knead your dough for 6 minutes. Enjoy your arm workout and stress relief exercise! 

3.     The dough will be pretty sticky. Put it back in the bowl, cover it with a damp cloth, and let stand at room temperature for 2 hours.

4.     Mix 1Ž2 or more of your olives and all the basil into the dough, and try to get them evenly distributed. It won’t be perfect, but it will be delicious.

5.     Dump the dough onto a lined baking sheet. Flatten it with your hands until it’s a big rectangle about 1″/2.5cm thick. Slather with olive oil. Let rise for 1 hour.

6.     Preheat your oven to 425°F/220°C

7.     Sprinkle with flaky sea salt and drizzle with more olive oil if you want. Bake for 25 minutes or until golden.

8.     Make your neighbors jealous with the amazing smell of baked bread wafting from your house.

9.     Enjoy!

Historical Physicists

Featured today are 10 more women who broke boundaries by their presence in physics. They lived from 1711 to 2000. While I again limited information to one paragraph, I tried to highlight how they got their start, what universities, family members, and scientists were supportive of them. For these women, without the support of fathers, mothers, husbands, and mentors (all male with one exception) their life in science would not have happened. While barriers are not as difficult today as they were at the times these women made their way, it is a testament to what can be done when families and scientists support each other. These women are an inspiration and I hope you look up more information for them. In addition, I’d love to hear who your favorite women in science are in the comments.

Laura Bassi by Carlo Vandi 
Laura Bassi (1711-78) lectured on science until a few hoursbefore her death. An Italian scientist of international fame and one of the first women physicists in western history, Dr. Bassi earned her doctorate in philosophy and science through public debate from the University of Bologna. The University of Bologna offered Dr. Bassi a position in an effort to be known as a leader in women’s education. Unfortunately, this forward step was not acceptable to much of the rest of the world’s academic community and required stipulations to Dr. Bassi teaching. However, she countered these limitations with determination and passion. Her appointment to full membership in the Bendettini Academics also deterred some naysayers of Dr. Bassi’s involvement in research and teaching. In order to further her career, she married. A married woman could achieve more than a single woman at that time. Her death in 1778 was unexpected, especially as she had participated in an Academy of Sciences lecture on a few hours before.



If you can access the full article, I highly recommend The Desire to Contribute: AnEighteenth-Century Italian Woman of Science by Gabriella Berti Logan for more information on Laura Bassi.
Margaret Eliza Maltby (1860-1944) was a recognized scientistand advocate for women in science. She overcame the education offered to women by taking extra courses in order to attend Oberlin College and receive a B.A. She studied with the Art Students’ League in New York City to explore her interest in art and then taught high school before enrolling as a “special student” at the Massachusetts Institute of Technology (MIT), receiving her B.S. Oberlin recognized this extra effort by awarding Dr. Maltby an M.S. She became a physics instructor at Wellesley College. She was encouraged in her graduate students by an AAUW fellowship to attend Göttingen University, which culminated in Dr. Maltby being the first American woman to receive a Ph.D. in physics from any German university. Dr. Maltby worked as an instructor, a researcher, and administrator in many universities and colleges in the U.S. and abroad. Her stature as a scientist was acknowledged with her entry in the first edition of AmericanMen of Science. She also was active in the AAUW, advocating for women to gain education and enter scientific fields. After her retirement from university life, she maintained her interest in the arts.

Frederic and Irene Joliot-Cure by By James Lebenthal
Irène Joliot-Curie (1897-1956) was a Nobel Prize Laureate for “artificial radioactivity.”  Born to  the woman every person thinks of as the epitome of a woman in science, Marie Curie, Irène had an extremely close relationship with her paternal grandfather. Her schooling was outside of the standard schooling type, her first years at home and her latter years in a science and math heavy co-operative school of Madame Curie’s colleagues. She received her Bachelor’s degree from the Collège Sévigné and went on to study at the Sorbonne. She received her doctorate in 1925 based on work with her mother at the Radium Institute of the Sorbonne. She married Frédéric Joliot, another research assistant of Madame Curie’s. Dr. Joliot-Curie continued her research, interrupted by a stint as Undersecretary of State for Scientific Research, one of the first high government posts to be offered to a woman. She worked as a professor for the Sorbonne and director of the Radium Institute, but was not admitted to the Academy of Sciences due to discrimination despite her work. She died, like her mother, of acute leukemia. Her scientific work was complemented by her love of physical activity and motherhood.
Katharine Burr Blodgett By Smithsonian Institution, U.S.
Katharine Burr Blodgett (1898-1979) was a woman with an amazing number of firsts.  Born to a widow, she was a world citizen in her formative years, attended high school at a private school in New York City, won a scholarship to attend Bryn Mawr, and graduated second in her class there. She received her Master’s degree from the University of Chicago, then headed off to work with Nobel Laureate Irving Langmuir at General Electric (GE) and becoming the first woman research scientist there. She was able to work with Nobel Laureate Sir Ernest Rutherford and earn her Ph.D. from Cambridge University as the first woman to earn a doctorate from Cambridge. She returned to GE. During her career, she invented many applications and is credited with six patents. She achieved much when many women did not, but her work was de-valued in the media. She did earn recognition from her peers, including the ACS Garvan Medal, the Photographic Society of America Progress Medal, and a day named after her in her hometown of Schenectady, NY. In addition to her scientific life, she enjoyed gardening, civic engagement, acting, and “dart[ing] about Lake George in a fast motor boat.”
Astrophysicist Charlotte Emma Moore Sitterly (1898-1990) was an authority on sun composition. She started her career as an excellent student with extracurricular interests, attending Swarthmore College to earn her B.A. Upon graduation, she accepted a position as a mathematics computer at Princeton University Observatory, one of the few employment opportunities available to science inclined women at the time. A stint at the Mount Wilson Observatory led to results published a 1928 monograph which was considered the authoritative work on the solar spectrum for four decades. She received her Ph.D. from the University of California, Berkeley in 1931. Her work earned her the Annie J. Cannon Prize, Silver and Gold Medals from the Department of Commerce, and several honorary doctorates in the U.S. and abroad. She was the first woman elected foreign associate by the Royal Astronomical Society of London. Her enthusiasm for her work continued until her death.

Maria Goeppert-Mayer By Nobel Foundation
Nuclear Physicist Maria Goeppert-Mayer (1906-1972)  was the second woman to win the  physics NobelHer early education was public education for girls followed by a private school founded by suffragettes. Circumstances led Dr. Goeppert-Mayer to take her exiting exams a year early, passing them she attended the University of Göttingen for her college education in mathematics. She continued to study physics at the University of Göttingen, earning her Ph.D. in 1930. She also married that year. The couple moved to America in hopes of better career trajectory for Dr. Goeppert-Mayer. Finding a position was difficult. When she had her first child, she stayed home with her for one year, then returned to research. While her positions were always part-time and not well recognized, she grew a well-respected network of collaborators. This network led to work with Hans Jensen which won her the Nobel Prize, shared with Jensen. Her network also eventually led to a full professorship position after 20 years of volunteer work. During this time, her health began to fail. She persevered with her work, publishing her last paper in 1965. The American Physical Society established an award in her honor in1985
Gertrude Scharff Goldhaber (1911-1998) was a respected researcher. She grew up in a time in Germany where girls were expected to become schoolteachers. She had a fascination with numbers, and eventually studied physics at the University of Munich, receiving her PhD in 1935. She fled Germany during the rise of the Nazis due to being Jewish, arriving in the United States and becoming a citizen in 1944. She had a wide involvement in the various National Laboratories studying nuclear physics. She also maintained several committee positions in the science community. She was also a strong advocate for women in the science community, forming a Women in Science group at Brookhaven National Lab and supporting other similar groups elsewhere. After her retirement from research, she continued interests in the history of science, outdoor activities, and art.
The Chicago Pile One Team 
Physicist, Molecular Spectroscopist Leona Woods MarshallLibby (1919-1986) Leona Woods grew up on a farm and was known for her inexhaustible energy. She attained her B.S. in chemistry from the University of Chicago when she was only 19 years old, and earned her PhD 5 years later. She worked as the only woman and youngest member of the Chicago Metallurgical Laboratory, a secret war group led by Enrico Fermi who built the world’s first nuclear fission reactor during her graduate work. Dr. Woods’ expertise was essential to the undertaking. She married another member of her team. She hid her first pregnancy until 2 days before her son’s birth. She took one week off before returning to work. Childcare was provided by her mother and sometimes Fermi’s bodyguard, John Baudino. Dr. Marshall was encouraged by Fermi as a female physicist. In the late 1950s, Dr. Marshall was divorced from her husband, pursuing her own career. In the early 1960s, Dr. Marshall moved to Colorado to work and married Willard Libby. Her mind was always considering any number of problems from many angles. She worked up until her death and was honored posthumously for her work, along with Lise Meitner, Marie Curie, and Irene Joliot-Curie.
Chien-Shiung Wu 
Chien-Shiung Wu (1912-1997) was a foremost experimental physicist of modern eraShe was encouraged as a girl to pursue her schooling as far as possible. This led her to teaching training, which lacked science so she taught herself physics, chemistry, and mathematics. She graduated high school with the highest grades in her class, earning her a place at the National Central University in Nanjing. She taught and did research upon graduation, then moved to the United States to pursue graduate studies. She earned her Ph.D. from the University of California – Berkeley in 1940, four years after leaving China. She was known for her expertise in nuclear fission and was consulted by top scientists. Despite this, her gender and nationality hindered her finding appropriate employment due to discrimination on both accounts. She married and started a teaching career, although she missed research. Upon the recommendation of Ernest Lawrence, she received offers from several Ivy League schools who were not accepting female students at the time. She became Princeton’s first woman instructor at that time. She was offered several positions, including back in China, but chose to remain in the U.S. to raise her son. She was unable to return to China until 1973. She worked at Columbia for many decades and earned accolades for her work.

Xide Xie (1921-2000) is a woman in China who needs no introductionHer early life involved much moving due to war and ill health, during which she taught herself English, calculus, and physics. She graduated in 1942 with a degree from Xiamen University. She moved to the United States to receive her master’s degree from Smith College in 1949 and her Ph.D. in physics from M.I.T. in 1951. She married in England and returned to China, despite the political climate. She taught and did research at the prestigious Fudan University. During the Cultural Revolution of 1966-76, she was detained, publicly humiliated, and endured breast cancer. After this upheaval, she returned to Fudan University, growing the physics department and achieving more esteemed positions in the University and government. She had also remained connected to her family, caring for her husband through lengthy illness. Her achievements were internationally recognized.

Awards Mentioned

Benedettini Academics were a select group of scholars from the Academy of Sciences created and named for Pope Benedict XIV to conduct research and present it annually at Academy meetings. This appointment escalated the prestige of the scientist above that given by being a member of the Academy of Sciences.

American Association for University Women (AAUW): Margaret Maltby received the European Fellowship from the Association of Collegiate Alumnae, which became the AAUW. This fellowship was specifically intended to help American women pursue graduate studies to circumvent rules that did not allow women to enroll in coeducational universities or earn graduate degrees.

The Nobel Prize is an international award given in several fields. It is one of the most prestigious awards for scientists in the eyes of the public.

The Garvan Medal is an award from the American Chemical Society to recognize distinguished service to chemistry by women chemists.
The Photographic Society of AmericaProgress Medal recognized a person who has made an outstanding contribution to the progress of photography or an allied subject. 
Annie Jump Cannon Prize is given to a North American female astronomer in the early stages of her career for her distinguished contribution to the field.
Department of Commerce Silver Medal, Gold Medal are the highest honors granted by the department for distinguished and exceptional performance.


Much of the information for this post came from the book Notable Women in the Physical Sciences: A Biographical Dictionary edited by Benjamin F. Shearer and Barbara S. Shearer.
Images for this post came from Wikimedia Commons

Adrienne M Roehrich, Double X Science Chemistry Editor


Friday Roundup: Land-walking octopus, he’s having a baby, defining veggies, & lots for the ladies

Post-Thanksgiving links: All about food…or sorta food

  • You made it through Thanksgiving even though you ran out of vanilla extract? Let science help you out the next time you fall short of that one important ingredient. Scientists have compiled a list of suitable substitutes for cooks everywhere. 
  • Did you wake up this morning with fingers twice their normal size? Find out where the salt was in that Thanksgiving meal. 
  • Is pepper spray a vegetable? Oh, for the days when pizza sauce and ketchup were the only faux veggies. Here’s more on pepper spray from this week’s Double X Science blog of the week author, Deborah Blum. 

Speaking of pepper spray, science answers your burning questions

  • Plants flirt, play hard to get, embrace. Yes, that said “plants.” 
  • He’s having a baby! Carin Bondar tells us all about the world of seahorse paternal birth.
  • Chilean desert coughs up fossil whale family, puzzles scientists. Tiny scientist, huge whale fossil at link
  • Oh, those mysterious cows. Why do they come home? More important, why do they (maybe) line up along the Earth’s magnetic field, and why do scientists argue about it?
  • Asking, “Are you improbable or inevitable?”, Robert Krulwich tells us that the math determines that we are improbable. But we’re here, so aren’t we…inevitable?
  • Have you read about “the gene” for ADHD or the “drinking gene”? Stop reading that bad writing! There’s a difference between a trait that a gene confers and the many, many ways someone can manifest that trait. Read more from David Dobbs over at Neuron Culture in “Enough with the ‘slut gene’ already: Behaviors ain’t traits.” 
  • Science: It’s not all glamour and heels. Here’s a day in the life of a scientist in Australia for those who are wondering what a scientist might do all day.
  • Speaking of how scientists might spend their days, how about spending them watching 400 YouTube videos of dogs chasing their tails? Via DiscoBlog at Discover Science.
Geek o’rama
  • Use this app to follow live cameras trained on the wild places animals live in Sri Lanka, Kenya, the UK, and other places. When you spot an animal, identify it for science. Via GeekDad at Wired, Citizen science from Instant Wild! The featured Webcam as we posted these links had captured a porcupine in action. 
  • Maybe you’ve never been in a lab in your life and wouldn’t know PCR from a VCR. That doesn’t matter when you watch this video of stop-motion animation using thousands and thousands of the tiny tubes scientists use when they conduct PCR (polymerase chain reaction). The video is actually a promotional video from vendors of equipment for this kind of lab test.

  • Conditions in Antarctica are almost unimaginable inhospitable for humans, yet scientists visit there yearly to conduct valuable research. Valuable, dangerous research, but the scenery? Stunning. Via BoingBoing. 


Hey, ladies!

  • The brain is encased in a skull for protection, with a nice fluid surrounding it for extra cushioning. But the human brain was never meant to endure years of the Newtonian physical pounding that comes with playing football. Now, researchers are beginning a brain study to test the brains of 100 former National Football League players to see what harm has been done and how to identify it early. Watch the video below. Imagine the brains inside those skulls. Recall that for every action, there is an equal and opposite reaction. Yikes.

  • Most parents find letting go difficult, whether it’s when their child leaves for a week-long school trip or takes off for college. Add an autism spectrum condition to the mix, and what you get is a heartbreaking but heartfelt connection between mother and son that they both find difficult to stretch. 
  • Have you banked cord blood? Here’s why cord blood banking may not have the payoff you expect
  • You’ve done it. We’ve done it. You walk from one room to another on a mission and when you get into the other room…you forget why you’re there. Now, instead of blaming age, you can blame the door
  • Look around: Do you a see a lot of stuff you just can’t bring yourself to throw away? Read this.
  • When it comes to sex–studies of it, studies of how it develops–males get a lot of the attention, and the female sex has even (gasp) been referred to as the “default” sex, as in, if there aren’t signals to become male, then females develop by default. That ain’t true, and as it turns out, females have a pathway dedicated to developing and maintaining them just as males do. So there, scientists. 
  • Is it hard for women to self promote? This one is about academe, but it applies across many work places.
  • Speaking of workplaces, apparently the women of Generation Y are still facing discrimination there [PDF]. 
  • People (in UK, at least) still think antibiotics work against colds. They don’t. 
  • You may have read about this person’s efforts to perform a butt injection on a woman using “Fix a Flat.” It’s probably best to just love your butt for what it is, which isn’t Fix a Flat.
  • In smarter news, NASA is rolling out Aspire 2 Inspire, targeting girls interested in science. Know a girl who’s interested in science? You can start with the Aspire 2 Inspire video below about women in science:

“Yet more must be done to address the projected shortfall of 280,000 math and science teachers that our nation will face by 2015. We need public and private investments in math and science education and we need a commitment to making a difference on a national scale.”

She couldn’t be more right.