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	<title type="text">Suzanne Jacobs | Vox</title>
	<subtitle type="text">Our world has too much noise and too little context. Vox helps you understand what matters.</subtitle>

	<updated>2019-03-05T17:32:34+00:00</updated>

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		<entry>
			
			<author>
				<name>Suzanne Jacobs</name>
			</author>
			
			<title type="html"><![CDATA[Climate change will stress out plants. These scientists think they have a solution.]]></title>
			<link rel="alternate" type="text/html" href="https://www.vox.com/2015/11/17/9732912/climate-change-crops" />
			<id>https://www.vox.com/2015/11/17/9732912/climate-change-crops</id>
			<updated>2019-03-05T12:32:34-05:00</updated>
			<published>2015-11-17T08:00:01-05:00</published>
			<category scheme="https://www.vox.com" term="Climate" />
							<summary type="html"><![CDATA[Originally published on Grist. Just east of the University of Washington campus, along a busy thoroughfare, behind a rundown strip of retail space, up a flight of rusty stairs, there&#8217;s a glass door. Inside, past a cramped office overflowing with books, a couple of computers, and a bare-bones kitchen, there&#8217;s a lab. This, a hole [&#8230;]]]></summary>
			
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<img alt="" data-caption="Rusty Rodriguez and Regina Redman. | via Grist" data-portal-copyright="via Grist" data-has-syndication-rights="1" src="https://platform.vox.com/wp-content/uploads/sites/2/chorus/uploads/chorus_asset/file/15578476/regina-redman.0.1547423161.jpg?quality=90&#038;strip=all&#038;crop=0,0,100,100" />
	<figcaption>
	Rusty Rodriguez and Regina Redman. | via Grist	</figcaption>
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<p><em>Originally published on </em><a href="http://grist.org/science/climate-change-will-stress-plants-out-these-scientists-think-they-have-a-solution/?utm_source=syndication&amp;utm_medium=rss&amp;utm_campaign=feed"><em>Grist</em></a><em>.</em></p>

<p>Just east of the University of Washington campus, along a busy thoroughfare, behind a rundown strip of retail space, up a flight of rusty stairs, there&rsquo;s a glass door. Inside, past a cramped office overflowing with books, a couple of computers, and a bare-bones kitchen, there&rsquo;s a lab.</p>

<p>This, a hole in the wall on the north edge of Seattle, is where plants go to get superpowers.</p>

<p>And by superpowers, I mean a fungal infection. But trust me &mdash; this is like the radioactive spider bite of fungal infections.</p>

<p>It all started more than 15 years ago, when Rusty Rodriguez and Regina Redman, a husband-and-wife team of biologists, went to Yellowstone National Park to study the microbes living in hot geothermal soils. They wanted to understand how living things could survive such extreme temperatures &mdash; up to 145 degrees Fahrenheit, depending on the season.</p>

<p>But when they got there, something else surprised them. They found plants thriving in the very same geothermal soil, which geologists had always described as barren, Rodriguez says.</p>

<p>Curious, the couple took samples back to Washington, where they both worked for the US Geological Survey, for analysis. And what they found was a nature-made technology that could replace &mdash; or at least supplement &mdash; genetic modification in protecting crops from climate change.</p>
<hr class="wp-block-separator" />
<p>No plant is an island. That is, when you look at a plant, you&rsquo;re not looking at a single organism but rather a host organism full of bacteria, viruses, and fungi (plants &mdash; <a href="http://www.techinsider.io/human-microbiome-facts-bacteria-yeast-intestines-2015-11">they&rsquo;re just like us!</a>).</p>

<p>According to the fossil record, fungi have been living symbiotically with plants for more than 400 million years. In fact, the ole fungus among us may have actually helped the first land plants transition out of water.</p>

<p>If you&rsquo;ve ever taken an introductory biology class, then chances are you&rsquo;ve already heard of at least one of these fungal friends &mdash; the mycorrhizae. These fungi live in and around plant roots, helping those plants absorb water and nutrients from the soil. Mycorrhizae are kind of the poster children of <a href="http://www.eoearth.org/view/article/154736/">mutualistic symbiosis</a> (not to be confused with parasitic symbiosis, which is more like what went down between you and that one roommate who ate all your food and never cleaned the bathroom).</p>

<p>But there&rsquo;s a lesser-known type of fungus that actually grows <em>inside</em> the bodies of most, if not all, plants, inhabiting the empty spaces between cells. Fungi that do this are known as endophytes, and they&rsquo;re what Rodriguez and Redman found were the key to those plants surviving in Yellowstone.</p>

<p>Alone, neither the fungus nor the plants could survive temperatures higher than about 100 degrees Fahrenheit. But <a href="https://www.youtube.com/watch?v=WtUF1nEQ_2c">with their powers combined</a>, they could somehow tolerate the extreme heat of geothermal soils. What&rsquo;s more, the plants infected with these fungi seemed to require less water and nutrients to grow as much &mdash; if not more &mdash; biomass as those uninfected, while maintaining the same (or better) nutrient levels.</p>

<p>When Rodriguez and Redman tried to infect tomato and watermelon plants with the fungus, they found that both developed the same extreme heat tolerance within just 24 hours.</p>

<p>&#8220;It changes your concept of the normal Darwinian process of slow adaptation,&#8221; Rodriguez says, sitting at a cluttered bench in the Seattle lab. &#8220;This is something very different, but it&rsquo;s also something that&rsquo;s just been hugely overlooked by the vast majority of evolutionary biologists and ecologists and plant physiologists. There are a lot of people who study symbiosis, but it&rsquo;s still a small subset of biological sciences.&#8221;</p>

<p>Soon after the Yellowstone discovery, Rodriguez and Redman traveled to other extreme environments in search of more miraculously thriving plants. And sure enough, inside every healthy plant growing where no sane plant should grow &mdash; whether in salty soil, drought-stricken soil, cold soil, even soil contaminated with heavy metals &mdash; they found endophytes.</p>

<p>&#8220;Pretty much now we know that if we go into habitats with native plants, and we can identify what the stresses are that those plants may be seeing,&#8221; Rodriguez says, &#8220;we know that there&rsquo;s like a 99.9 percent chance there&rsquo;s a fungus inside that plant that&rsquo;s conferring tolerance to this stress.&#8221;</p>
<div data-chorus-asset-id="4264643"> <img src="https://platform.vox.com/wp-content/uploads/sites/2/chorus/uploads/chorus_asset/file/4264643/wheatplants.jpg"><div class="caption">Wheat plants treated with endophytes (left) show more biomass growth than untreated plants (right).</div> </div>
<p>How exactly those fungi work their magic, however, is a different story. Rodriguez explains it like this: When humans experience stress, we tend to manifest that stress physically, in the form of giant zits or head colds. Similarly, when plants experience stress, their metabolisms tend to get all out of whack. But with endophytes, it&rsquo;s like they have a little voice inside saying: &#8220;Chill out. We&rsquo;re gonna get through this, and here&rsquo;s how.&#8221; Their environment is still harsh, but they just don&rsquo;t stress out.</p>

<p>In reality, the fungi are somehow dramatically altering the gene expression of their host plant. How or which genes they alter is unclear, Rodriguez says, but he and his collaborators are currently trying to tease out the details.</p>

<p>&#8220;It&rsquo;s unbelievable,&#8221; he says. &#8220;I mean, there&rsquo;s not that much fungus inside the plant, but it&rsquo;s a hell of a communicator. It&rsquo;s just really quite remarkable.&#8221;</p>

<p>The team also knows that the soil microbes around an infected plant are drastically different from the microbes around a non-infected plant, even if the two are only a few feet away.</p>

<p>&#8220;It makes a lot of sense in some ways, because microbes were the first things to develop on this planet. They never left the planet, so everything else had to develop and evolve within that construct. That&rsquo;s why you&rsquo;re full of bacteria. You have more bacteria than you even have human cells,&#8221; Rodriguez says. &#8220;Plants are exactly the same, except there we can do more detailed experiments. Nobody complains, nobody screams &mdash; you can ask much more probing questions.&#8221;</p>
<hr class="wp-block-separator" />
<p>By 2012, Rodriguez and Redman had done enough research on endophytes that it was time to either move on or go commercial, Rodriguez says. They opted for the latter, recognizing the potential boon endophytes could be for the agricultural industry in the face of climate change.</p>

<p>The following year, the couple moved their new company, Adaptive Symbiotic Technologies (AST), into its current space behind the retail strip near the University of Washington campus. This fall, AST will start selling Bioensure &mdash; a liquid spray that farmers can use to coat their seeds so that the fungi get into any emerging tissue.</p>

<p>Ultimately, Rodriguez hopes, this technology could be an alternative to genetically modified crops &mdash; many of which, he points out, work in the lab but fail in the field.</p>

<p>But Brian Murphy, a professor of botany at Trinity College Dublin, says that endophyte research has also experienced its fair share of troubles in the field.</p>

<p>&#8220;Many endophytes are tested in the lab and give very promising results, but they give inconsistent results in field situations,&#8221; he wrote in an email. &#8220;They may be beneficial to one crop in a certain environment but not to another in a different environment. This has led to many disappointing outcomes from commercialization efforts involving partnerships between academia/research and industry.&#8221;</p>

<p>All the same, AST &#8220;may prove the exception,&#8221; he said.</p>

<p>The company has already done successful field trials in Michigan, California, North Dakota, Louisiana, and Texas and has since expanded to hundreds of sites in an attempt to hit every soil type and climate zone in North America, except the Arctic. Most of AST&#8217;s early work focused on rice, corn, soy, and wheat, but it&#8217;s also begun testing other crops like sorghum and millet.</p>

<p>Rodriguez says that he expects the company to start publishing results from the field trials next year, but so far the fungi seem to work their magic all over. During a particularly dry year in Michigan, for example, field trials for corn resulted in a staggering 85 percent increase in yield. The impact of the fungi decrease with improving conditions, but even under low-stress conditions across multiple states, the company reported an average of 7 percent yield increase in corn. Rodriguez says that the spray&rsquo;s success in multiple locations might have to do with the fact that the fungi live entirely inside the plant, rather than on its surface or in the soil.</p>
<div data-chorus-asset-id="4264647"> <img src="https://platform.vox.com/wp-content/uploads/sites/2/chorus/uploads/chorus_asset/file/4264647/cornplants.jpg"><div class="caption">Young corn plants treated with endophytes.</div> </div>
<p>One reason AST may be having so much success, Murphy said, is that the company has focused specifically on endophytes found in high-stress environments. Other researchers have tried testing endophytes from a variety of environments, he said, so it made sense that some of them failed in the field under high stress conditions. Murphy, who also researches high-stress endophytes, said that he hopes to eventually come up with a commercial product of his own.</p>

<p>Still, miraculous stress tolerance or no, these fungi-infused plants are bound to freak people out. Could they mess up local ecosystems? Could they hurt us if we eat them?</p>

<p>Murphy noted that some endophytes are related to known pathogens and that &#8220;it is very expensive and difficult &mdash; if not unethical &mdash; to conduct human toxicity tests with these microorganisms.&#8221; But Rodriguez says his company has done pathology and toxicity tests on the fungi they&rsquo;ve found, and the results show them to be perfectly safe for human consumption: &#8220;So far we have seen nothing that in any way, shape, or form puts hesitation in my head for moving forward in a massive way.&#8221;</p>

<p>Plus, Rodriguez says, the fungi have a convenient little quirk that prevents them from growing past the base of a plant&rsquo;s flower. That means they don&rsquo;t get into the parts of plants, say, tomato, rice, or corn, that we actually eat. &#8220;That&rsquo;s really sweet,&#8221; Rodriguez says. &#8220;We didn&rsquo;t design it that way; nature designed it that way.&#8221;</p>

<p>And for anyone who&rsquo;s still squeamish about eating fungi, Rodriguez has this to say: Every piece of produce that you put in your mouth is already crawling with microbes. So, like, get over it.</p>

<p>&#8220;We evolved in a world where we can&rsquo;t live without these microorganisms,&#8221; Rodriguez says. &#8220;We either live with them or get et by them. Those are pretty much the options here.&#8221;</p>

<p>So far, all <a href="http://www.sourcewatch.org/index.php/%22Big_6%22_Pesticide_and_GMO_Corporations">&#8220;big six multinationals&#8221;</a> in the ag industry have contacted AST about their technology, according to Rodriguez. So-called &#8220;biologicals&#8221; are big in the agriculture industry these days, he says, but most of the big companies have focused on microbes, especially bacteria, that act as pesticides, provide nutrients, or boost plant growth.</p>

<p>Murphy doesn&rsquo;t see endophytes replacing genetically modified crops but rather serving as a supplement &mdash; one that could potentially reduce the number of chemical treatments needed to protect plants from various environmental stressors.</p>

<p>Earlier this year, AST received a research grant from an international partnership called <a href="http://www.securingwaterforfood.org/">Securing Water for Food</a> to test Bioensure on crops in India, which regularly experiences what we in the US would consider drought conditions. Partnering with a small company in India, AST tested the fungi on okra, millet, wheat, cotton, and corn &mdash; and saw yield increases of between 20 and 40 percent.</p>

<p>Leading up to commercialization, Rodriguez has been traveling around the country, introducing Bioensure to farmers. And sometimes, he says, things can get weird in the middle of the country, where climate change is still a touchy subject.</p>

<p>&#8220;I&rsquo;m just not trying to push an agenda on anybody, so I don&rsquo;t go there with them. But when they start asking me questions, I&rsquo;ll tell them everything they want,&#8221; he says. &#8220;People are curious about climate change. They want to know about it. They wouldn&rsquo;t believe anything that Al Gore said, but what do I think about it? It&rsquo;s a trip. So I just give them the facts &mdash; basically tell them they&rsquo;re screwed, and, you know, we&rsquo;re trying to mitigate those impacts, but I don&rsquo;t know how long that&rsquo;s gonna work.&#8221;</p>

<p>The good news is nature is full of miraculous technologies that we don&rsquo;t understand and even more that we don&rsquo;t know about, Rodriguez says. He and Redman got lucky all those years ago at Yellowstone. If we embrace our ignorance and actively look for what&rsquo;s out there, we&rsquo;re bound to find more tools we can use.</p>

<p>&#8220;Why do we think we can do better than 3 1/2 billion years of evolution? Why do we think we can do better than that? That&rsquo;s how long bacteria have been here,&#8221; Rodriguez says. &#8220;If you think you can make a better plant or a better animal, you have to ask yourself how it&rsquo;s going to be better and why that doesn&rsquo;t exist out there.&#8221;</p>

<p><em>Grist is a nonprofit news site that uses humor to shine a light on big green issues. Get their email newsletter </em><a href="http://grist.org/subscribe/"><em>here</em></a><em>, and follow them on </em><a href="https://www.facebook.com/grist.org"><em>Facebook</em></a><em> and </em><a href="https://twitter.com/grist"><em>Twitter</em></a><em>.</em></p>
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					</entry>
			<entry>
			
			<author>
				<name>Suzanne Jacobs</name>
			</author>
			
			<title type="html"><![CDATA[Lab-grown meat could be the future — if we can figure out how to make it not gross]]></title>
			<link rel="alternate" type="text/html" href="https://www.vox.com/2015/8/15/9149725/laboratory-meat" />
			<id>https://www.vox.com/2015/8/15/9149725/laboratory-meat</id>
			<updated>2019-03-05T03:57:21-05:00</updated>
			<published>2015-08-15T10:00:02-04:00</published>
			<category scheme="https://www.vox.com" term="Climate" /><category scheme="https://www.vox.com" term="Culture" />
							<summary type="html"><![CDATA[Originally published on Grist. Quick question: Which of these images is less appealing to you? A few weeks ago, we were trying to decide which one to use in a story about animals genetically modified to grow extra muscle. In a non-unanimous decision, the full-bull glamour shot won out over the close-up. The latter, for [&#8230;]]]></summary>
			
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<img alt="" data-caption="A raw burger patty made from cultured beef. | &lt;a href=&quot;http://culturedbeef.net/resources/#photos&quot;&gt;David Parry/PA Wire&lt;/a&gt;" data-portal-copyright="&lt;a href=&quot;http://culturedbeef.net/resources/#photos&quot;&gt;David Parry/PA Wire&lt;/a&gt;" data-has-syndication-rights="1" src="https://platform.vox.com/wp-content/uploads/sites/2/chorus/uploads/chorus_asset/file/15464559/grist.Cultured-Beef-02.0.1507303478.jpg?quality=90&#038;strip=all&#038;crop=0,0,100,100" />
	<figcaption>
	A raw burger patty made from cultured beef. | <a href="http://culturedbeef.net/resources/#photos">David Parry/PA Wire</a>	</figcaption>
</figure>
<p><em>Originally published on </em> <a href="http://grist.org/food/with-lab-grown-meat-can-have-our-animals-and-eat-them-too/?utm_source=syndication&amp;utm_medium=rss&amp;utm_campaign=feed"><em>Grist</em></a><em>.</em></p>
<p>Quick question: Which of these images is less appealing to you?</p>
<img src="https://platform.vox.com/wp-content/uploads/sites/2/chorus/uploads/chorus_asset/file/3966818/Grist.cow-times-two.jpg?quality=90&#038;strip=all&#038;crop=0,0,100,100" alt="Full shot of a cow and a super closeup of a cow" title="Full shot of a cow and a super closeup of a cow" data-has-syndication-rights="1" data-caption="" data-portal-copyright="&lt;a href=&quot;https://www.flickr.com/photos/jaykrow&quot;&gt;J Ken Crozier&lt;/a&gt;/Grist" />
<p>A few weeks ago, we were trying to decide which one to use in a story about animals genetically modified to grow extra muscle. In a non-unanimous decision, the full-bull glamour shot won out over the close-up. The latter, for some reason, seemed off-putting, like it might force readers to think too hard about what meat actually <em>is</em>.</p>

<p>This exercise in denial, which you perform each time you&rsquo;re confronted with a late-night hot dog stand, has a name: &#8220;strategic ignorance,&#8221; according to Cor van der Weele, a bioethicist in the Department of Applied Philosophy at Wageningen University in the Netherlands. If we know too much about that juicy steak, she says, we might not want to eat it anymore &mdash; and that would be tragic, because juicy steaks are delicious. But the problem, van der Weele says, is that we end up with a lot of people who actually <em>do</em> feel uneasy about meat production, but just never do anything about it.</p>

<p>But for nearly 10 years, van der Weele has been studying something that she thinks could finally free us from our strategic ignorance: cultured meat. She first stumbled upon the stuff when she heard about a 2003 art exhibit in France called <a href="http://www.tca.uwa.edu.au/disembodied/dis.html">&#8220;Disembodied Cuisine.&#8221;</a> The artists, Oron Catts and Ionat Zurr, grew little pieces of frog meat in a lab and then fed the tiny &#8220;steaks&#8221; to diners in a gallery while the frog who supplied the starter cells looked on from a nearby terrarium. The frog, we presume, spent the rest of its life in therapy, while van der Weele became fascinated with cultured meat and has been studying it ever since.</p>

<p>&#8220;Inevitably, when you think more about [cultured meat], it loses some of its initial strangeness,&#8221; van der Weele says, &#8220;and at the same time, meat as we know it becomes more strange.&#8221;</p>
<h2 class="wp-block-heading">Lab-grown meat might be more sustainable than the regular kind</h2><img src="https://platform.vox.com/wp-content/uploads/sites/2/chorus/uploads/chorus_asset/file/3967094/shutterstock_225249181.jpg?quality=90&#038;strip=all&#038;crop=0,0,100,100" alt="" title="" data-has-syndication-rights="1" data-caption="" data-portal-copyright="&lt;a href=&quot;http://www.shutterstock.com&quot;&gt;Shutterstock&lt;/a&gt;" /><p class="caption">A laboratory might be more environmentally friendly for growing meat than a cow is.</p>
<p>Cultured meat, otherwise known as lab-grown or in-vitro meat, hit the big time in 2013 when Maastricht University tissue engineer Mark Post held his (in)famous &#8220;Frankenburger&#8221; <a href="https://www.youtube.com/watch?v=jJrSdKk3YVY">taste test</a>. The cultured beef patty looked weird, reportedly tasted okay, and was in no way ready for mass production. But none of that mattered &mdash; the burger was a proof of concept, lab-grown chum for hungry investors.</p>
<p><q aria-hidden="true" class="right">The burger was a proof of concept, lab-grown chum for hungry investors</q></p>
<p>The basic <a href="https://www.youtube.com/watch?v=3LKsSEbSrUQ&amp;feature=youtu.be">process</a> behind Post&rsquo;s patties is this: Take a muscle biopsy from a cow, isolate the cells responsible for muscle repair (there can be a couple hundred in just a few muscle fibers), and then put those cells in a so-called bioreactor full of a nutrient-rich serum. There, the cells will multiply &mdash; if all goes well, each will turn into more than a trillion new muscle cells. Next, place those new cells onto some kind of temporary support surface so that they can connect into muscle fibers. (Post currently uses an animal-derived gel surface, but says he&rsquo;s experimenting with an algae-derived alternative.) Finally, knead the fibers &mdash; each about a millimeter in diameter and about two-and-a-half centimeters long &mdash; into a patty with salt, bread crumbs, and egg white, and voila! You&rsquo;re ready for the grill.</p>

<p>Back in 2011, researchers <a href="http://pubs.acs.org/doi/abs/10.1021/es200130u">assessed</a> the environmental impacts of culturing 2,200 pounds of meat using an algae-based feedstock for the cells. The study accounted for everything in the production process, with the exception of indirect land use for energy input materials and decommission of the production facility, and the results made for a pretty compelling case:</p>
<div data-chorus-asset-id="3966830"> <img src="https://platform.vox.com/wp-content/uploads/sites/2/chorus/uploads/chorus_asset/file/3966830/grist.life-cycle.jpg"><div class="caption"><p>&#8220;The results showed that production of 1000 kg cultured meat requires 26&ndash;33 GJ energy, 367&ndash;521 m3 water, 190&ndash;230 m2 land, and emits 1900&ndash;2240 kg CO2-eq GHG emissions. In comparison to conventionally produced European meat, cultured meat involves approximately 7&ndash;45 percent lower energy use (only poultry has lower energy use), 78&ndash;96 percent lower GHG emissions, 99 percent lower land use, and 82&ndash;96 percent lower water use depending on the product compared.&#8221;</p></div> </div>
<p>Since no one is actually mass-producing cultured meat yet, the assessment is entirely theoretical and contains many uncertainties. Still, the results suggest that growing meat in metal bioreactors could be much more sustainable than growing meat in the flesh bioreactors that we call cows.</p>

<p>What&rsquo;s more, proponents of cultured meat say it could finally free us from <a href="http://grist.org/food/whats-it-like-to-watch-a-slaughter/">the nasty business of killing animals</a> altogether &mdash; an unfortunate fate for even the happiest organically raised, grass-fed, antibiotic-free, local, cage-free, free-range animal. PETA, the world&rsquo;s largest collection of in-your-face vegans, got on the cultured meat bandwagon a few years ago, <a href="http://www.peta.org/features/vitro-meat-contest/">offering up</a> $1 million to the first researchers who could create commercially viable in-vitro chicken meat (the deadline has since come and gone).</p>
<p><q aria-hidden="true" class="center">Growing meat in metal bioreactors could be much more sustainable than growing meat in the flesh bioreactors that we call cows</q></p>
<p><a href="http://mit.academia.edu/BenWurgaft">Ben Wurgaft</a>, a historian interested in the culture and anthropology of food, has been researching cultured meat for the past two years. He says most of the people he&rsquo;s encountered in the field actually cite animal welfare as their primary motivation more so that environmental concerns. (Incidentally, he also says that most of the people working in the field seem to be very nice: &#8220;I rarely meet people in the cultured meat world I wouldn&rsquo;t want to hang out with.&#8221;)</p>
<h2 class="wp-block-heading">Some progress since 2013&#039;s Frankenburger taste test</h2><img src="https://platform.vox.com/wp-content/uploads/sites/2/chorus/uploads/chorus_asset/file/3967044/grist.Cultured-Beef-09.jpg?quality=90&#038;strip=all&#038;crop=0,0,100,100" alt="A cooked burger made from cultured beef" title="A cooked burger made from cultured beef" data-has-syndication-rights="1" data-caption="" data-portal-copyright="&lt;a href=&quot;http://culturedbeef.net/resources/#video&quot;&gt;David Parry/PA Wire&lt;/a&gt;" /><p class="caption">A cooked burger made from cultured beef.</p>
<p>But despite all its potential benefits, there&rsquo;s one big problem standing in the way of a cultured meat revolution: There just aren&rsquo;t that many people working on it. A group at Tel Aviv University is trying to engineer a <a href="http://futurefood2050.com/real-chicken-for-vegetarians/">cultured chicken breast</a>, and a Brooklyn-based startup called <a href="http://www.modernmeadow.com/">Modern Meadow</a> is culturing flat sheets of beef and leather, but by Wurgaft&rsquo;s count, there are no more than 10 research labs and (maybe) three companies working in the field, only one of which &mdash; Modern Meadow &mdash; is actually funded and working on a product, he says.</p>

<p>&#8220;The thing that will make me think that cultured meat is approaching fast on the horizon is when there are a bunch of labs doing this work,&#8221; he says. &#8220;It&rsquo;s hard to believe that a breakthrough product like [cultured meat] is going to emerge out of a singular facility and that it will then create massive change in the food system.&#8221;</p>

<p>Isha Datar, the executive director of New Harvest, a nonprofit that supports early-stage biotech researchers developing sustainable ways to make animal products, agrees: &#8220;It is something that is very worth pursuing, but that pursuit is not taking place,&#8221; she says.</p>

<p>Datar, who has tried Modern Meadow&rsquo;s &#8220;steak chips&#8221; (which she describes as tasting like beef broth with the mouthfeel of potato chips) says there are a variety of different techniques for culturing meat that scientists still need to try: different starter cells, serums, surfaces for tissue growth. What if you want a whole steak instead of a quarter-pounder? The odds of finding a complete process that works at scale go way up as more researchers get in the game, Datar says, and who knows? Maybe cultured meat turns out to be just too hard or expensive to mass-produce, but &#8220;we&rsquo;ll only find that if we start investigating.&#8221;</p>
<p><q aria-hidden="true" class="left">At that scale &#8230; the meat would cost about $30 per pound</q></p>
<p>In the meantime, Post is at least willing to try. He and his team have already made a few improvements to their method since the 2013 tasting. For one, they&rsquo;ve started culturing fat tissue (the original burger was all muscle). They&rsquo;ve also improved the proteins in their meat to avoid having to add things like beet juice and saffron for coloring, which they did back in 2013. And perhaps most importantly, they&rsquo;ve started using a synthetic serum that can almost entirely replace the bovine serum they originally used to feed the cells.</p>

<p>Bovine serum is not ideal because it comes from the blood of fetal calves and therefore has all kinds of animal welfare and quality control issues associated with it, Post says. Plus, he says, it would be in short supply in a world where cultured meat drastically reduces the number of cows we have on the planet.</p>

<p>The synthetic serum that the lab now uses comes from a commercial proprietor, but the researchers do eventually want to try an algae-based serum like the one used in the environmental impact study. Growing large quantities of algae, however, could come with issues of its own, like keeping the plants alive while they fight off disease and compete for nutrients, as synthetic biologist Christina Agapakis pointed out in a 2012 Discover Magazine<em> </em><a href="http://blogs.discovermagazine.com/crux/2012/04/24/steak-of-the-art-the-fatal-flaws-of-in-vitro-meat/#.Val3dCpVikr">article</a>.</p>
<p><q aria-hidden="true" class="right">Cultured meat is a long-term, high-risk investment</q></p>
<p>As for scaling, Post says, the group wants to gradually work its way up from the half-liter bioreactors that it currently uses to 25,000-liter vats. A reactor of that size, he estimates, could feed about 10,000 people for one year, assuming people eat just under 90 pounds of meat annually &mdash; a considerably <a href="http://blogs.wsj.com/numbers/how-much-meat-do-americans-eat-then-and-now-1792/">low estimate</a> for the US, where the average person ate about 70 pounds of red meat and about 55 pounds of poultry in 2012.</p>

<p>At that scale, Post estimates, the meat would cost about $30 per pound. That&rsquo;s pretty high compared to the bargain prices you&rsquo;ll find on those <a href="http://www.polymersolutions.com/blog/wp-content/uploads/2015/04/Meat_packages_in_a_Roman_supermarket.jpg">plastic-wrapped trays of meat</a> at your local supermarket, but it&rsquo;s not bad considering how many people (including <a href="http://grist.org/list/test-tube-burger-will-cost-more-than-331000-to-produce/">Grist</a>) <a href="http://www.fastcoexist.com/1682045/the-worlds-first-test-tube-hamburger-costs-325000-will-be-eaten-in-london">freaked</a> <a href="http://www.inquisitr.com/659986/scientists-grown-hamburger-in-a-lab-costs-325000/">out</a> over the $325,000 price tag on the original 2013 burger &mdash; a freakout that was kind of unfair. That whopping figure was the budget for an entire tissue engineering lab, not the cost of a consumer product.</p>

<p>And besides, that burger was just a demonstration of what was possible. When the Wright brothers flew at Kitty Hawk for the first time, no one gave <em>them</em> a hard time for not offering competitively priced airfares that could compete with the railroads.</p>

<p>But all that &mdash; the 25,000-liter bioreactor, the $30-per-pound price tag, the 10,000 people who will be fed &mdash; only happens assuming that everything goes smoothly. And it won&rsquo;t, because turning a lab experiment into a commercial process never does. Post will almost surely have to tweak his process along the way.</p>

<p>Funding, too, will be a big obstacle, Post says. The 2013 tasting did attract investors, he says &mdash; but without a company, he doesn&rsquo;t really have anything for them to invest <em>in</em> yet. That&rsquo;ll be a problem as each step up in bioreactor size comes with high equipment costs.</p>

<p>Money is actually a major issue throughout the field, Datar says, partly because cultured meat is a long-term, high-risk investment and partly because the research lies in a kind of no-man&rsquo;s land between the medical world, where there&rsquo;s plenty of tissue engineering research going on, and the food science world, where there isn&rsquo;t.</p>
<p><q aria-hidden="true" class="center">[H]e thinks he can have a commercial product ready in five or six years</q></p>
<p>Post himself is actually a physician who got his start in tissue engineering making human blood vessels. He says that the methods for human tissue engineering and other types of tissue engineering are pretty much the same, but that researchers in the medical world don&rsquo;t have to worry about scale and cost the same way that people trying to engineer a competitively priced Happy Meal do.</p>

<p>Still, Post says he thinks he can have a commercial product ready in five or six years. It won&rsquo;t be a $3.79 Cultured Quarter Pounder with Cheese, but Post is confident that people will want it.</p>

<p>&#8220;If this gets accepted, and you can do this in an efficient and animal-friendly and environmentally friendly way, it has to at some point take over the market,&#8221; he says, &#8220;or at least create a new market for itself. We are not targeting vegetarians; we are targeting all the meat eaters.&#8221;</p>
<h2 class="wp-block-heading">Getting over the ick factor</h2><img src="https://platform.vox.com/wp-content/uploads/sites/2/chorus/uploads/chorus_asset/file/3967028/shutterstock_201129569.jpg?quality=90&#038;strip=all&#038;crop=0,0,100,100" alt="A little girl with a little pig" title="A little girl with a little pig" data-has-syndication-rights="1" data-caption="" data-portal-copyright="&lt;a href=&quot;http://www.shutterstock.com&quot;&gt;Shutterstock&lt;/a&gt;" /><p class="caption">A pig in the backyard.</p>
<p>Shortly after she first heard about cultured meat, van der Weele, the bioethicist, held a series of workshops in which she asked participants how they felt about the strange new meat.</p>

<p>&#8220;When I first started to talk about cultured meat with people, first there were some responses of disgust &mdash; not as many as you might expect, but some &mdash; and people then said, &lsquo;Well, this is not something I want to think about.&rsquo;&#8221;</p>

<p>But then van der Weele observed something interesting. After just a brief conversation &mdash; sometimes only a few minutes &mdash; many who reacted negatively at first started to reconsider, van der Weele says. It seemed that just thinking about cultured meat forced people to confront the way we currently produce meat, she says. That, in turn, brought out all the uneasy feelings that strategic ignorance so conveniently keeps at bay.</p>

<p>&#8220;All of a sudden, it&rsquo;s no longer a threat to think about meat as something that may be morally very satisfactory,&#8221; she says.</p>

<p>Many of van der Weele&rsquo;s workshop participants were especially taken with what she calls the &#8220;pig-in-the-backyard scenario.&#8221; She and a colleague explained the scenario and how people reacted to it in a <a href="http://edepot.wur.nl/279360">paper</a> published back in 2013:</p>
<blockquote class="wp-block-quote has-text-align-none is-layout-flow wp-block-quote-is-layout-flow">
<p>In the future we might all have a pig in our backyard or in our local community, from which some stem cells are taken every few weeks in order to grow our own meat, either in a machine on our kitchen sink or in a local factory. It is an idea that in some form or another often turns up in conversations on cultured meat. It typically takes the form of pigs or cows in urban farms or backyards, held as pets and serving as donors of muscle stem cells &hellip;</p>

<p>The degree of shared enthusiasm in response to this idea was remarkable; it was so large that the preferred future of cultured meat was completely clear, as far as the participants of this workshop were concerned. A combination of joy, inspiration and amazement characterized the atmosphere.</p>
</blockquote><h2 class="wp-block-heading">The future beef industry might look a lot like the beer industry today</h2><img src="https://platform.vox.com/wp-content/uploads/sites/2/chorus/uploads/chorus_asset/file/3967082/GettyImages-176458449.jpg?quality=90&#038;strip=all&#038;crop=0,0,100,100" alt="A person wearing glasses shaped like beer mugs." title="A person wearing glasses shaped like beer mugs." data-has-syndication-rights="1" data-caption="" data-portal-copyright="Oli Scarff/Getty Images" /><p class="caption">Looking into the future of meat.</p>
<p>For Datar, the future of cultured meat looks something like the current beer industry (they&rsquo;re both, after all, just examples of biotechnology in big metal vats, she says). There could, for example, be giant meat factories &mdash; or <a href="http://www.nextnature.net/2014/11/the-carnery-a-cultured-future-with-in-vitro-meat/">&#8220;carneries&#8221;</a> &mdash; out in rural areas, small artisanal ones in cities, and everything in between, she says. Since there&rsquo;s no clear way to patent the cell division process like there is with, say, GMOs, she says, this beer-like trajectory seems more probable than a future where just a few giant corporations churn out cultured meat for the masses.</p>

<p>Another crucial difference between cultured meat and GMOs, Datar says, is the fact that we&rsquo;re already talking about cultured meat.</p>

<p>&#8220;The first GMO was for sale in &#8217;93, and the first <a href="http://www.righttoknow-gmo.org/">Right to Know</a> campaign was 2003, so there was a real feeling of betrayal that the public didn&rsquo;t know what was going on. Whereas with cultured meat, we&rsquo;re having this conversation way in advance of it being ready for market,&#8221; she says.</p>

<p>But that&rsquo;s <em>if </em>it&rsquo;s ever ready for market. For now, the rest of what Wurgaft calls the &#8220;post-animal bioeconomy&#8221; seems to be taking off. Companies are already making animal-free <a href="http://signup.pembient.com/">rhino horns</a>, <a href="http://boltthreads.com/">spider silk</a>, <a href="http://www.clarafoods.com/">eggs</a>, and <a href="http://www.muufri.com/">milk</a>. (The latter two started as New Harvest ventures and recently closed on $1.75 and 2 million in seed funding, respectively.) Culturing these kinds of products is easier than meat, Datar says, because it involves genetically engineering microbes to produce the necessary proteins &mdash; something that we&rsquo;ve been doing for a long time to make things like insulin.</p>

<p>Wurgaft, who&rsquo;s writing a book about cultured meat, says that for him, the interesting questions aren&rsquo;t when or if or how lab-grown meat is going to take over the market. He prefers instead to think like an anthropologist, focusing on the culture and philosophy of cultured meat: Who are these people trying to grow meat in a lab? What are their motivations? Do they prefer to call their product cultured meat or just meat? What would a lab-grown meat industry mean for society?</p>

<p>Any predictions about the future of cultured meat would just add to the all the <a href="http://www.cnn.com/2015/07/24/world/edible-insect-food-business/">other</a> <a href="http://www.foodbusinessnews.net/articles/news_home/Business_News/2015/07/The_future_of_food_Print_and_e.aspx?ID=%7B0C688CB7-083F-431E-9F69-C5A14906BB26%7D&amp;cck=1">clickbaity</a> <a href="http://grist.org/list/is-this-plankton-based-feast-the-future-of-food/">claims</a> about the elusive &#8220;future of food,&#8221; Wurgaft says.</p>

<p>&#8220;That narrative stops being interesting after three seconds,&#8221; he says. &#8220;We don&rsquo;t know what the future of food is, and we&rsquo;re not gonna know by continuing to read the story.&#8221;</p>

<p>And yet, many in the cultured meat world <em>are</em> selling us visions of the future. They, like practically every early-stage technologist since Gutenberg, have had to do so in order to attract investors.</p>

<p>Of course, we don&rsquo;t know what our cyborg progeny will be eating decades from now: Insects? <a href="http://grist.org/food/we-drank-a-pitcher-of-green-sludge-so-you-dont-have-to/">Soylent</a>? <a href="http://grist.org/food/hello-humans-id-like-to-tell-you-about-plant-blood/">Plant blood</a>? Maybe cultured meat will revolutionize the meat industry, or maybe it&rsquo;ll turn out to be just another overhyped fantasy. Either way, perhaps the most constructive thing we can do now is simply consider the possibility and face up to our strategic ignorance in the process. And we&rsquo;re sorry, but that means you may just have to walk away from the hot dog stand.</p>

<p><em>Grist is a nonprofit news site that uses humor to shine a light on big green issues. Get their email newsletter </em><a href="http://grist.org/subscribe/"><em>here</em></a><em>, and follow them on </em><a href="https://www.facebook.com/grist.org"><em>Facebook</em></a><em> and </em><a href="https://twitter.com/grist"><em>Twitter</em></a><em>.</em></p>
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