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Stealth mode the new sweet spot for some biotechs

By Steve Dickman, CEO, CBT Advisors and Sultan Meghji*

*Sultan Meghji is an entrepreneur and advisor in life sciences, financial services and high tech. He is based in St. Louis, Missouri.

In biotech’s early days, telling a story to a wide audience used to be part of the path to success. Founders would share a compelling early narrative to potential investors, reporters and just about anyone else who would listen. Nature papers were the coin of the realm. Molecular biologists with big dreams even became something of a cliché, memorialized in a joke one of us heard in the early 1990s from one of the scientific founders of Biogen. In the joke, a molecular biologist on his wedding night fails to consummate his marriage. A shocked friend asks the bride what happened and she says, “Oh, he just stood at the end of the bed all night telling me how great it was GOING to be.”

But far from shouting to the rooftops, lately it seems that more and more biotechs are pursuing a different approach. Instead of keeping their technology under wraps until a first financing happens, these companies go into what we call “permanent stealth mode.” The principle here seems to be, “Say no more publicly than necessary and even then, keep it vague.” Meantime, let your actions speak for you: Raise money. Sign partnerships with pharmaceutical companies. And then seemingly out of nowhere, hand consumers and investors a finished product or service.

Lately, we’ve seen some tech companies choose this path. Notably, the company that developed Siri was spun out of SRI International in such a way that Apple acquired it barely three months after the company’s voice recognition app was first offered in the App Store. That route is relatively new in IT and still fairly rare. It seems to be related to the fact that the competitive advantage held by some startups involves algorithms, which can be hard to protect using patents. But such an approach has been even rarer for biotech companies that, until recently, had to fight like rain forest vines for the light and nourishment that publicity could bring.

In this post, we’ll share some examples of three “deep stealth” life sciences companies that chose to stay on the stealthy side well beyond the timeframe of a typical startup: Moderna, Kadmon and Theranos. The first two are developing novel therapeutics and the third is a consumer diagnostics company. We will share what little we can find out about them; offer some analysis about what has motivated the companies to stay stealthy; and ask whether they represent the beginning of a trend and, if so, what that implies for the industry.

Moderna Therapeutics

In less than four years, Moderna has raised over $400 million. It has built a platform around RNA to trigger the production of protein drugs inside the bodies of patients, thus turning the body into a protein factory. We noted back in 2012 that Moderna’s approach turns the traditional dogma of biotech on its head: instead of manipulating the DNA in the lab and then producing proteins in cells or bacteria, then selling these proteins to the patient, Moderna instead takes messenger RNA, does some fancy chemical tricks to it and puts it into the body as RNA, letting the body’s own protein production machinery do the rest. We also noted that the company had chosen not to publish anything, even in scientific journals, leaving open the question of how the RNA would be stabilized and delivered (RNA in its native form is notoriously unstable not to mention subject to destruction by ubiquitous enzymes) and leaving the rest of us to wonder what the platform could really do and how it does it.

Then came a news bulletin: In 2013, Moderna struck a validating deal with AstraZeneca that included an unusually rich up-front payment: $240 million plus an additional $180 million in potential milestone payments. Then in January, 2014, it announced a deal with Alexion for $100 million up front and a $25 million equity investment plus undisclosed milestone and royalty payments. Yet even as of today, the company has put out but a single publication. Recently, the company spun out a subsidiary called Onkaido to focus on oncology. At the same time, its business strategy seems to be shifting. CEO Stephane Bancel told Xconomy in mid-June that it will become a holding company that spins out drug development companies and that “Moderna will most probably never develop and sell a drug.”

Kadmon Corporation

Kadmon, founded by Sam Waksal in 2009, has grown much larger than a typical privately held company ever does. Waksal is known both for founding ImClone in 1984 and for being convicted of securities fraud in 2003. Waksal’s work with ImClone eventually led to the approval and marketing of Erbitux, an early and influential targeted oncology therapy. ImClone was acquired by Lilly in 2008 for $6.5 billion.

Kadmon, which has been built mostly around acquisitions of later stage technologies, is not completely in stealth mode. It does have a web site that lists its clinical pipeline in some detail. Initially focused on oncology, liver disease and metabolic and cardiovascular disease, it now sells the hepatitis drug ribavirin. All of these pipeline products have been brought in by acquisition, beginning with the acquisition of Three Rivers Pharmaceuticals for more than $100 million in 2010, according to the Wall Street Journal. That company had products on the market at the time of acquisition, especially in hepatitis C. Bloomberg reported that Kadmon had reached $25 million in annual revenue by 2012 and was targeting $40 million to $60 million in 2013. Interviewed by Maria Bartiromo on CNBC in January, 2011, Waksal described a new paradigm for building a biotech company with a commercial arm that could serve as a “cash generating machine” so that “we don’t have to go to the [financial] markets to constantly raise money for drug development.”

The corollary to that is that, if it is funded by revenues, the company’s very exciting research does not have to be disclosed, even to venture capitalists and especially not to the public, in the context of fund-raising. At investor conferences, the company has described some fascinating RNA targeting technology that could represent a new generation of gene therapy. Waksal told Bloomberg in 2013 that Kadmon was considering a spinout of a gene therapy company and an oncology company focused on the Chinese market.

In the meantime, there are not too many publications (none linked on the Kadmon web site) and the company has had to cope with multiple warnings from the FDA over its marketed products.

Theranos

Theranos has recently begun to emerge from stealth mode, although its technology is still secret. This June, 2014, Fortune cover story reported that the eleven-year-old company is valued at $9 billion and that, due to her share ownership, company founder Elizabeth Holmes, a Stanford dropout, is worth $4.5 billion on paper.

Theranos’ blood draw technology replaces traditional, slow, overpriced blood testing with pinprick-style small-volume blood tests. By working efficiently on tiny volumes, Theranos is both cutting prices by half or more as well as increasing efficiency by allowing for follow-up tests to be done right away, according to the Fortune article.

How Theranos does all this remains a secret. But this “black box” has not prevented the company from raising what Fortune reports to be more than $400 million nor from striking a distribution partnership with Walgreens, a partnership that extends beyond Walgreens’ 8200 US stores to its European pharmacy partner Alliance Boots. In parallel, the company is working with hospitals to offer its tests in what the CEO of UCSF Medical Center told Fortune is “the true transformation of healthcare.” (USA Today covered much of the same ground in its July 8, 2014, edition here.)

Theranos’ vast ambition, coupled with its lack of publications subjecting its methods to scientific scrutiny, has not gone unnoticed, especially by competitors. Fortune wrote:

‘The most frequent criticism is that Theranos is using purportedly breakthrough technology to perform tests that are relied on for life-and-death decisions without having first published any validation studies in peer-review journals. “I don’t know what they’re measuring, how they’re measuring it, and why they think they’re measuring it,” says Richard Bender, an oncologist who is also a medical affairs consultant for Quest Diagnostics, the largest independent diagnostic lab.’

Why advertise?

The clearest unifying attribute of Moderna, Kadmon and Theranos is “high confidence,” followed closely by “high ambition.” There is no other way to raise the billion-plus dollars these three have raised. There has to be some technical know-how to go along with the bravado. Otherwise multi-hundred-million-dollar partnerships with national pharmacy chains or big pharma companies just do not materialize. Activating a direct commercial channel (in the case of Theranos with Walgreens) or a high-credibility development partner such as Moderna’s partner AstraZeneca is at least a temporary substitute for a look under the hood.

But there is something else going on as well. Let’s call it “stealth as a business model.” All three of these companies seem to share the belief that they will be better off if no one knows what they really do or how they do it. Most notably, they depart significantly from the status quo of publishing and presenting the technologies in an open forum as the gold standard for credibility. This is so unusual in the history of biotech that it made us think about the question the other way around: why would you want to disclose anything about your new biotech company? Just raise the money, sign a partnership and get on with it!

We thought of a good five reasons why many companies share at least the basics of their technical approach. (One company whose chances we like, Heptares of London, UK, published a paper in Nature in 2008 more than a year before they raised their Series A round. That company published in Nature again in early July of this year, gaining credibility from Nature’s name and its peer review process – a more traditional pattern.)

A clue to understanding the trend is the presence or absence of venture capital (VC) money. Of the three companies we chose to examine, only Moderna has disclosed an investment by a traditional VC, Flagship Ventures. It’s fine to stay in stealth if you want to raise money from a single VC, or for that matter from a single VC syndicate. As long as you don’t need “buzz” in the form of news articles and conference hall chatter, you can just go achieve your objectives without sharing much about what you are doing. These days, most early-stage therapeutics investments are done by an initial syndicate that intends to fund the companies through major milestones such as Phase 2 data or partnerships. Therefore the need for buzz is less. Next stop, hedge funds, who couldn’t care less about buzz and whose analysts may in some cases be confident enough to make big-ticket investments decisions based on unpublished data.

So why publish and share at all? Let’s set out some reasons and see if we can shoot them down: 

  • Fund-raising. As described above, that point seems moot. Atlas Venture in Cambridge has a whole stable of early startups and they keep their technology under wraps for a while – maybe all the way to exit? Third Rock Ventures incubates companies for a year or more before hatching them nearly fully formed and typically not intending to raise more money until the IPO anyway. Why not go all the way in stealth?
  • Corporate partnerships. Roche will find out about you whether you publish or not. If your scientific founder is already known to the therapeutic area head, all the better. If not, maybe better to publish.
  • Clinical trial recruitment. This is usually handled by intermediaries such as clinical research organizations (CROs). Patients are usually tracked down actively. Companies don’t wait for the patients to be pulled in via news stories (though the stories don’t hurt).
  • Hiring. This would seem to be a big one, especially in hotly competitive geographies such as Cambridge or the Bay Area. But now that more and more “virtual drug development” companies are filing for IPO in Phase 2 with staffs of fewer than fifteen people – two of these have been CBT Advisors clients in 2014 and two more have been clients of our co-author – the point seems less relevant
  • Overcoming resistance in society to biotechnology. This may have been a factor at the dawn of the industry in the 1980s but now there seems to be much less resistance, even in traditionally conservative societies like Germany. A more nuanced understanding of advanced biotech seems to be emerging and there is strong demand globally for more biotech companies, not less.

When you think about it, publishing has some downsides too. Most threatening among these is that publishing what you are doing will arm your competition. Yes, your patents will be published anyway eighteen months after you file them. But competition has intensified in the era of the patent troll. Why advertise?

The strong implication of all of these arguments is that biotechs should stay stealthy whenever possible. If founding scientists are not required to publish in order to get tenure or to get the next grant, they should, like our examples here, take it to investors, take it to pharma, fund it to the hilt and don’t look back.

In one sense, this does hark back to the early days of biotech, when companies were able to raise considerably more money for technology platforms that were years away from generating tangible products. That model went away early in the last decade, in part because investors – both hedge funds and venture funds – began to apply financial analysis tools to product portfolios, sharply cutting the valuations and the ability to fund-raise for all but products that already existed. The shift into stealth mode seems to be going hand-in-hand with a shift in investor favor toward early funding of powerful platforms such as Moderna’s. Once again, a company able to raise significant amounts of capital can try out several different things and allow some of them to fail quietly without the market playing a role.

We just want to mention one tiny nagging doubt: much of the research that underpins these companies comes about under the auspices of US government funding, typically from the National Institutes of Health (NIH). But in the guidelines we found, there is no formal mechanism requiring disclosure once research is funded. It is not even required to be published. Nevertheless, it strikes us that sooner or later there may be a backlash to all this stealthiness.

And of course the longer term question remains: does having strong financing and a strong commercial channel replace independent peer review of the underlying technology?

In the meantime, we sincerely hope that all of these companies are successful. It would be an amazing day in healthcare if they were. And should that day come, we are imagining a moment when Hollywood decides to make the movie, akin to the way screenwriter Aaron Sorkin imagined the beginnings of Facebook in “The Social Network.” The big difference here is that the script writer will have an awful lot of liberty in shaping a story that no one has ever heard.

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Moderna Therapeutics as the next Genentech? Not so fast

By Steve Dickman, CEO, CBT Advisors

December 10, 2012 (slightly shorter version originally published on TechnologyReview.com)

Quick biotech PR tip: When exiting stealth mode, heralding your company as the next Genentech is one way to get above the noise. That was the approach of Moderna Therapeutics, a Cambridge, MA-based startup that announced itself last Thursday, revealing that it had raised more than $40 million and attracted an all-star set of board members and scientific advisers.

Announcing that you just might be on the way to becoming Genentech II raises the bar a wee bit. And, at first blush, Moderna looks like it might even get over that very high bar.

Central Dogma of Molecular BiologyThe concept is intriguing, to say the least. Biology’s central dogma is “DNA to RNA to protein.” Although Nobel Prizes have been won for discoveries that expand upon that central dogma (the discovery of reverse transcriptase, for example), the core approach underlies the first several generations of biotech products. Think EPO, Neupogen or the grandfather of them all, human insulin. You manipulate the DNA in the lab and then express the protein in the production facility. Then you put it in a vial and sell it to the patient, who gets an injection or an infusion. The main role for the dogma’s middleman, messenger RNA (mRNA), is a passive one: get transcribed from the DNA then, in turn, get translated into protein.

Moderna turns the dogma on its head: go straight to the RNA, do some fancy chemical tricks to it and deliver it directly into the body. This makes the patient herself into the production facility. All of us carry around cellular protein factories, known as ribosomes, and if properly activated, those can be harnessed (at a much lower cost) to produce proteins in which we have deficiencies.

One report on Moderna, published on Xconomy, quoted venture investor Noubar Afeyan of Flagship Ventures as saying that the company “builds on lots of things that have been tried before.” One of those things is gene therapy, providing genes (that is, DNA) via viruses or other delivery vehicles and trying to get cells to express those genes. Those approaches, too, tried to use the body as a manufacturing facility. Unfortunately, with some recent intriguing exceptions, most of them have failed.

Aside from this novelty, three things make Moderna so interesting:

Breadth of application

Since the mechanism is potentially so universal, proteins could be produced that address any number of diseases. The company said it will focus first on areas where protein therapeutics are already well-established: oncology supportive care, inherited genetic disorders, hemophilia and diabetes. But the company also claimed that it can also induce production of intracellular proteins that could never be given exogenously due to efficacy or immunogenicity concerns. Should this approach work, and it’s a bit of a long shot, it opens up new areas of application to the pharmaceutical industry.

Repeat dosing

Unlike many gene therapies, which could potentially be curative, in Moderna’s case the patient will need to be dosed with the mRNA over and over again. Think “recurring revenue stream.”

Intellectual property

When Genentech and Amgen were founded, neither one had a monopoly on the production of all human proteins in bacteria. When monoclonal antibodies were invented in Cesar Milstein’s laboratory in Cambridge, UK, Milstein was discouraged from patenting the concept. But in Moderna’s case, filing broad and deep intellectual property was the company’s central focus and a big reason why the company remained in stealth mode for the past two years. This means that even if other companies manage to enable the use of mRNA-based techniques in areas not yet explored by Moderna, the company could still demand royalties.

Yet another reason to pay attention to Moderna: unlike many other biotech companies, Moderna was not based on work published soon after its founding. The original publication that drew interest from Afeyan didn’t involve using patients as protein factories at all. The paper, published by company founder Derrick Rossi in 2010, involved using injected mRNA to produce cells that resemble embryonic stem cells. According to the Xconomy article, Afeyan did not want to invest in a stem cell company, which he perceived as too risky. Instead, he suggested that Rossi use the mRNA as a way to induce protein production in patients. That led to the key experiments, as yet unpublished, that were the basis of the company’s intellectual property and its initial financing. According to Moderna’s triumphant press release, the publications are supposed to come in 2013.

At the same time, there are three big questions:

Delivery

Isn’t Moderna facing a double hurdle, first in selectively getting into the right kind of cell and then in achieving the right therapeutic dose level? The first of these hurdles represents the same kind of delivery problem that has presented such an enormous challenge to RNA interference (RNAi) companies like Alnylam. For all its promise, RNAi was born amid a hail of questions expressing doubt about delivery. How to use systemic delivery to propel nucleic acid molecules with strong negative charges and potentially vulnerable to ribonucleases into the right cell types in the right organs at high enough concentrations to have a biological effect? That was the question. (The early results, as I viewed them in a cramped biochemical laboratory in Kulmbach, Germany, in 2002, looked blotchy at best.) More than ten long years later, despite some powerful efforts that cleverly take advantage of biological reality, for example, the “leakiness” of tumors, those questions have still not been completely laid to rest.

The other part of the delivery challenge has to do with what happens to the mRNA once it is inside the right kind of cells. How many cells exactly has it penetrated? What are the expression levels over time of the desired proteins on a per-cell or per-tissue basis? Will the levels in one patient be the same as in the next one? Achieving appropriate dosing without setting off alarm bells at the Food and Drug Administration will be tough.

Where are the other investors?

The only institutional investor named in the press release was Flagship Ventures. If other VC firms were involved, one would expect to find them sharing the limelight. So either Flagship decided that what it had in Moderna was so good, it did not want or need to share or other VC funds were approached and said no. It will be interesting to learn over the coming weeks which of these explanations, or which combination of them, pertains.

What’s the value in its first applications?

Let’s assume that the Moderna approach works. Suddenly EPO, Factor VIII and beta-globin can all be produced in patients deficient in these proteins simply by dosing them regularly with mRNA. But so what? There are already therapies on the market that will be doing this. In fact, some of those will be going generic and will be joined on the market by “biosimilars” that will presumably cost less than the existing (expensive) drugs. Furthermore, many of today’s most successful protein therapeutics have been modified (e.g. pegylated) to improve their half-lives. Where would be the advantage of an injection of mRNA over one of protein, especially a second-generation, long-acting protein such as Amgen’s Neulasta®?

Perhaps the advantage would come in proteins that cannot be injected as such because they elicit unwanted immune reactions from patients. But there are not too many examples that come to mind (thrombopoietin is one). That might be one reason why Moderna CEO Stéphane Bancel said that the company would be partnering the largest-market indication areas, like cancer, while retaining only rare diseases (in which intracellular protein production might make sense) for itself.

In summary, Moderna reflects a novel approach. For that, its founders and visionary investors deserve their well-earned day in the spotlight. It is especially commendable that a venture investor in the current no-whip, Splenda-only funding environment would create a good old-fashioned full-fat latte of a biotech company. Funding it exuberantly, vigorously protecting the IP and keeping the shares to yourself are all probably wise moves. But for the rest of us to see Moderna as a new Genentech, Moderna will have to publish in a peer-reviewed journal, partner with a pharmaceutical company or at least explain how it addresses basic questions like delivery and consistent dosing across tissues and patients.

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Venter Builds a Bacterium – and a Bio+Technology Company

By Steve Dickman, CEO, CBT Advisors

For a glimpse at the future of biotechnology, we recommend this week’s Economist cover story on Craig Venter and his Science paper describing the creation of a bacterium with a synthetic genome. The accomplishment, which made front pages around the world on Thursday*, reflects a high-profile step along the winding path to a new industry. The new bio+technology will practice true genetic engineering on genomes and organisms, yielding predictable and practical results including – one hopes – cheap and environmentally friendly biofuels.

The Economist story along with an accompanying editorial is available without charge here. The Science paper is similarly free here.

The Economist has done its usual thorough job in this piece. The science and technology editor of many years, Geoff Carr, demanded and got the cover for the story, not to mention three full pages inside. That’s unusual treatment for a science piece. The piece, unattributed, lays out the case for why Venter’s creation is so remarkable: “the first creature since the beginning of creatures that has no ancestor.” As you see from this example, the treatment is somewhat breathless (cue the Frankenstein metaphor) but also persuasive:

• We learn the limitations of Venter’s organism, cobbled together as it was from the carcass of an enucleated bacterium in which the new genome hijacked the cadaver’s protein synthesis machinery.
• We learn the status of Boston-based academic projects like the RNA-based self-replicating life forms that Harvard’s (Nobel laureate) Jack Szostak hopes to create that can mimic what early life may have looked like in a primordial “RNA world.”
• And we learn of next-stage projects like that of another Harvard professor, George Church http://arep.med.harvard.edu/gmc/, who is attempting to engineer a protein-synthesizing ribosome from scratch.
• Finally, we learn the magazine’s view that although technology, which until now been mostly of academic interest, is perhaps still nothing more than a parlor trick (the magazine calls it a “stunt”), there is one big reason to believe that re-engineering of microorganisms is the next big step toward true bio+technology.

That reason derives largely from two diverging exponential curves: the rising productivity of efforts to synthesize DNA; and the cost of said synthesis, which is plummeting. This application of “Moore’s law” leads directly to the conclusion that ever-fancier tricks will lead to ever-more practical and powerful end products, which might include carbon-dioxide-eating, gasoline-producing bacteria. At least this is what Venter wants investors in his company Synthetic Genomics to believe. The case is strengthened by this publication, although in July, 2009, presumably even before the paper was even submitted to Science, Exxon Mobil had promised to invest as much as $600 million in Synthetic Genomics.

Moore's Law of Biology: declining cost, increasing productivity of DNA synthesis

Figure 1: Exponential improvement in the availability of (some of) the stuff of life (Courtesy The Economist)

And therein lies an interesting twist not covered in the article: how the race for a new organism is playing out on the commercial side. It is just thirteen months since the Boston Globe (in April, 2009) announced the demise of the Boston area’s entry to the gene synthesis race, a now-defunct, then five-year-old biotech company called Codon Devices. Codon Devices, a CBT Advisors client, went to market with a strategy of selling synthetic DNA. The company had high-profile advisors, including Church and then-MIT professor Drew Endy, also quoted here. Codon did not lack for high-profile investors, who included Kleiner Perkins, Alloy Ventures and the Boston area’s own Flagship Ventures and Highland Capital. Its corporate slides, presented at BIO 2006 in Chicago, even mentioned “Moore’s law in biology” as a selling point. But the assumption that “if you build it they will come” did not work for a DNA factory. There was a lack of demand for DNA, even long stretches of it, at premium prices.

Codon’s problems included the main one mentioned by the Globe: lack of ability to raise additional venture money during a financial crisis and an IPO drought. But in retrospect it also seems like the company did not forward integrate quickly enough into lucrative end markets, preferring instead to try to supply them all and try thereby to capitalize on its technology advantages. Other gene synthesis companies have recently moved beyond selling genes (e.g. California-based DNA 2.0, which just signed a strategic alliance with a protein expression company) or been sold off (GeneArt in Germany, bought by Life Technologies last month).

Venter’s firm was never content to stop at DNA synthesis alone. It forward-integrated all the way to a new and interesting form of life. Synthetic Genomics has also been quicker and more efficient – not to mention having Venter himself as its marquee spokesman – at finding a deep-pocketed and thus far sustainable base of investors.

We agree that synthetic biology has the potential to be the future of biotech. That’s why we are calling the field it is spawning bio+technology. It will take not just cheap DNA but brilliant bio-architects doing more than parlor tricks to make the new industry a reality.

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*The Belfast Telegraph jumped the gun and broke the Science embargo on publication early on Thursday. That landed the story at the top of the web sites of newspapers and scientific journals around the world a day or so ahead of the original plan.

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