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Subject: fyi'm sure u know [C]
From: Paul Morris ‹ >
Date: Mon, 10 Aug 2015 15:18:48 -0400
To: jeffrey E. <[email protected]>
Classification: Confidential
To this point, the technology known as CRISPR-Cas9 has been a science
project, a research tool with enormous potential—and significant questions
to answer—on which venture capitalists have placed bets by forming a group
of startups. The jackpot: CRISPR-Cas9, a method of performing precise
genetic surgery, might yield treatments for a wide array of previously
intractable diseases.
We're still a long way from anybody claiming that prize, though; no CRISPR-
Cas9 therapy has ever been tested in a human being, and a whole lot could go
wrong when that happens. Emerging technologies, after all, go through their
ups and downs. But today some of the biggest names on Wall Street and
elsewhere are showing that they like the odds by handing the largest round
of funding yet to a CRISPR-Cas9 startup.
Cambridge-based Editas Medicine is announcing a $120 million Series B round
led by Bill Gates's chief advisor for science and technology, Boris Nikolic.
The list of financiers teaming with Nikolic reads like a rolodex of so-
called crossover investors, who invest in both public and private entities,
and corporate venture arms. Among them: Deerfield Management, Viking Global
Investors, Fidelity Management & Research, T. Rowe Price Associates, Google
Ventures, Jennison Associates, Khosla Ventures, EcoR1 Capital, Casdin
Capital, Omega Funds, Cowen Private Investments, and Alexandria Venture
Investments. Editas' founding VC backers—Flagship Ventures, Polaris
Partners, and Third Rock Ventures—also pitched in, as did Partners
Innovation Fund.
Nikolic, who is joining Editas' board, made the investment through what's
been called "bng0," a new U.S.-based investment company backed by "large
family offices with a global presence and long-term investment horizon" and
formed specifically to invest in Editas. CEO Katrine Bosley confirmed that
Gates is one of the individuals investing in Editas alongside Nikolic.
To be clear, while this is a significant round, it's not even close to the
largest financing round for a biotech startup. During the latest boom, we've
seen messenger RNA drug developer Moderna Therapeutics haul in a record $450
million. And the now-public cancer immunotherapy company Juno Therapeutics
(NASDAQ: JUNO)—which Editas recently partnered with—got $310 million last
year before taking itself public.
But the round is still the largest financial investment made yet in a CRISPR-
Cas9 startup, adding to the quickly gathering momentum of the field's
fledgling companies. Intellia Therapeutics and CRISPR Therapeutics (both of
which have operations in Cambridge) were both formed after Editas, and both
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have made strides as well: Intellia raised a $15 million Series A last year
and then cut a broad collaboration with Novartis in January. CRISPR hauled
in $64 million in April in a round that was led by Celgene (NASDAQ: CELG)
and the venture arm of GlaxoSmithKline. Caribou Biosciences of Berkeley, CA,
too, is part of the fray, having recently raised an $11 million Series A of
its own.
Editas has become the first of the group not only to attract crossover
backers, but to begin discussing the diseases that its targeting. Its first
program, Bosley says, is a potential treatment for a form of leber
congenital amaurosis (LCA), a genetically driven blindness. It's a different
form of the LCA than the gene therapy company Spark Therapeutics (NASDAQ:
ONCE) is targeting; Bosley says the one Editas is going after can't be
solved by gene therapy.
Beyond that, and Editas's ongoing immuno-oncology work with Juno, Editas has
done some very early work in Duchenne muscular dystrophy and is exploring
ways to repair a mutant hemoglobin gene—something that could have an impact
in a range of bleeding disorders. That doesn't mean this is where Editas
will ultimately focus—Bosley notes, for instance, that there are big
technical challenges of producing an effective CRISPR-Cas9 therapy for
Duchenne—but it's a glimpse into the company's thinking.
Bosley won't estimate how long it'll be before the first Editas therapy
begins human testing, noting that the company is in the midst of preclinical
work, testing its technology in patient cells. "We have a little bit more
work to do before we can really be explicit about a specific timeline," she
says.
Does that mean a few years? "I don't think it'll take that long," she says.
"We'll move sooner than that if we have a construct that's good enough."
For those new to the story, CRISPR-Cas9 is a two-part system derived from a
defense mechanism that bacteria use to fend off viruses. Think of it as a
pair of molecular scissors (an enzyme called CRISPR-associated protein 9, or
Cas9) being carried into a cell's nucleus by a strand of RNA that serves as
a guide (clustered, regularly interspaced short palindromic repeats, aka
CRISPR). Once there, the scissors may be able to snip out a defective gene,
and perhaps replace it with a new, functioning one. In the case of Editas's
LCA program, for instance, Bosley says the company aims to make two specific
cuts in two different DNA sites to eliminate the genetic mutation causing
the disease.
This isn't the first gene editing technique to emerge; Sangamo Biosciences
(NASDAQ: SGMO) and its zinc finger nuclease platform have the most advanced
gene editing candidate, a potential therapy for HIV in Phase 2 testing. But
CRISPR-Cas9 has taken the medical world by storm because of how easy it is
to use, and the broad potential it may have. CRISPR technology has already
been used to modify the genomes of plants and animals, but that ease of use
has also led to some serious ethical questions. One of the field's pioneers,
UC Berkeley's Jennifer Doudna, and several others have called for a
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moratorium on using CRISPR-Cas9 to edit the human germline—making changes to
sperm, eggs, and embryos that would then be passed along to future
generations—and have warned against altering humans for non-medical reasons.
There are also some practical concerns when it comes to using CRISPR-Cas9
for therapeutics. How can a therapy using this technology be delivered into
the body effectively? Will it safely do its work, or cut DNA in the wrong
places? One wrong snip—a so-called off-target effect—could cause serious
unintended consequences, and ensuring that this doesn't happen is just one
of the technical challenges that have to be faced before a CRISPR-Cas9 drug
begins human testing. One need only look at the up and down history of gene
therapy and RNA interference drugs to see the roller coaster likely ahead as
researchers try to figure out how to use CRISPR-Cas9 for therapeutics.
While Bosley acknowledges the challenges to come, she notes that part of the
excitement surrounding CRISPR-Cas9 is that it's come at a time when "our
knowledge of the genome is just at a fundamentally different place" than it
was many years ago. She adds that a lot of progress has been made to combat
potential off-target effects, like figuring out the exact right size of the
RNA guides and which types of Cas9 enzymes to use. Meanwhile, Editas co-
founder Keith Joung has developed a tool called "Guide-Seq" to track
instances of unintended DNA cuts.
And as for delivering these treatments, Editas "isn't trying to reinvent the
wheel," Bosley says. Rather, it's looking to proven delivery methods—at
least initially. For the LCA program, it's delivering a CRISPR/Cas9 using
adeno-associated virus, a delivery vector that has been used by a number of
gene therapy companies. It could use other established delivery
technologies, like lipid nanoparticles (often used to shepherd RNA
interference drugs into the body) or electroporation (in which an electric
pulse creates tiny holes in cells that allow drugs to gain entry).
Still, delivery is "a critical challenge in this field, there's no question
about that," she says.
A patent battle between Editas and Doudna's group at UC Berkeley is also
part of the mix. The U.S. Patent and Trademark Office awarded the first
CRISPR-related patent in April 2014 to the Broad Institute of MIT and
Harvard for work led by the Broad's Feng Zhang (an Editas co-founder). The
Berkeley group is fighting the patent, claiming it made the invention first.
Doudna's work is licensed to Caribou, which in turn has licensed use of its
technology for human therapies to Intellia. The work of Doudna's co-
inventor, Emmanuelle Charpentier, is licensed to CRISPR. And Doudna herself
was an Editas co-founder, but as MIT Technology Review first reported, later
cut ties with the company. When asked about the patent case, Bosley didn't
give an update directly, but said that the company has a "broad portfolio of
IP" that it's licensed in, and that it's developing patent applications from
its own internal work as well.
All of which is why the progress of Editas and its rivals will be so closely
watched, and why the financing today marks such a noteworthy step for the
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technology. Crossover backers have been increasingly active during the
biotech boom, joining up with early stage companies to lay the foundation
for a number of public offerings. Editas has become the first of the CRISPR-
Cas9 group to amass that kind of support, but deciding when to take the leap
to the public markets is critical, particularly for a company with a new and
unproven technology. Moderna executives, for instance, contended that they
were not thinking of an IPO in the short term when they raised $450 million.
Bosley also brushed off thoughts of an IPO, at least in the short term.
While Editas will almost certainly have to tap Wall Street at some point to
build the broad type of company it hopes to be, there's much work to be done
first. That means adding a significant number to its roughly 40-person
staff, refining its strategy, and using some of that $120 million to bring
several programs to clinical testing.
"We are on a marathon here at Editas," Bosley says. "As much as we think
there's some nearer term possibilities of things we might be able to address
in a more straightforward way, there's a lot to do to really develop the
platform."
Paul Morris
Managing Director
Deutsche Bank Private Bank
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