15
May
2023

Biopharma Innovation – Beyond The Breathless Headlines

David Shaywitz

Biopharma relies on innovation to stay in business. Success depends on our collective ability to discover, develop, and deliver new products that cure or meaningfully mitigate disease over and over again.

Patents allow for innovators to be rewarded, for a while. When patents expire, allowing us to purchase powerful generic medications like atorvastatin for pennies, manufacturers must come up with something new to support the enterprise.

The pressure to discover and develop the big new thing is intense.

We have seen remarkable advances in many areas, including cystic fibrosis and of course the rapid development of COVID vaccines. We routinely contemplate a range of modalities that a decade ago would have been considered fanciful (see here). We also acknowledge that, tragically, many dreadful conditions like glioblastoma multiforme, pancreatic cancer, and amyotrophic lateral sclerosis remain largely resistant to our efforts – so far.

While we recognize the value of innovation, we also appreciate that often, there seems to be a lot more heat than light, at lot more self-congratulatory social media posts than real evidence of progress.

The Harm of Innovation Theater

Writing this month in Forbes, Dr. Sachin Jain, a physician-executive with experience across all of healthcare, from academic medicine to pharma to payors, plaintively expressed his frustration with the excessive celebration of innovation. He called out the dichotomy between the triumphant characterization of innovation by many healthcare and biopharma organizations, and the often far less impressive reality.

Sachin Jain

“I was struck by the difference between what I read and [what] I was seeing on the ground in practice,” he writes, noting, for example, that many highly-touted advances were only small pilot programs, and never actually scaled (or planned to scale).   

He’s previously described the difference between what he calls the “change layer” – “the cloud in which visionary ideas about transforming healthcare resides” – and the “reality layer,” the place “where most care is delivered.” While both layers are necessary, he writes, he’s observed “little mixing between them.”

Moreover, he suggests, the change layer perversely may insulate organizations from real change by providing a conspicuous, dynamic narrative around innovation and disruption, even though these innovations and disruptions rarely meaningfully permeate into the day-to-day business of the company. He cites several examples of prominent healthcare demonstration projects that persist (if at all) only as isolated examples.

Jain is hardly the first to note the distinction between speaking and acting. Aesop, born more than two and half millennia ago, reportedly observed, “when all is said and done, more is said than done.” More recently, University of Chicago economist John List has examined, in The Voltage Effect, some of the reasons why promising pilots often fail to scale. 

But Jain is making an important, somewhat more provocative point: that our relentless celebration of innovation sustains a false illusion of progress, enabling incumbents to highlight their commitment to change while continuing to practice business as usual.

While his current focus is on healthcare, he’s also discussed some of the challenges he observed when he worked in pharma, writing:

“I watched with curiosity as the industry launched countless initiatives to move ‘beyond the pill’ to build services and solutions business to enhance patient outcomes, only to undercapitalize them and quietly shut down without notice. The industry was unable to sustainably think about a future outside of high margin molecules – just as many hospitals are unable to think of a future without fee-for-service.”

Here, of course, we immediately think of the famous observation by Upton Sinclair in 1934, “It is difficult to get a man to understand something, when his salary depends upon his not understanding it.”

Jain, to be sure, acknowledges that disruptive innovation is, by definition, difficult. But what worries him is that the gap between the innovation we trumpet and the innovation we implement seems to be growing, cultivating an abiding sense of deep cynicism – call it disruptive innovation fatigue — in the trenches, which makes true change even more challenging and less likely. 

I can think of several examples from digital and data: we constantly hear about triumph of distributed clinical trials, which bring clinical trials to the patient.  This is truly a worthy and important goal. Yet the success of these endeavors has been far more limited, the logistics far more difficult, and the impact far less profound, than the constant publicity would suggest.  It is perhaps not surprising, for instance, to hear that CVS is shutting down its nascent clinical trial business.

Similarly, we are constantly hearing about the great success of AI drug discovery. I am extremely optimistic about the ability of AI to dramatically improve aspects of the process. Nevertheless, the realized impact to date has been far less than publicity would suggest. I recently read in a prominent publication about a supposed triumph of AI-based drug discovery by a VC-backed startup, leading to an attractive licensing deal around a promising molecule. 

Perplexed by this “retconning” – a term from cinema and politics that refers to “retroactive continuity,” revising an established narrative to align with a new storyline — I pinged one of the founding venture capitalists. The VC was also amused by what the investor termed “revisionist history.”  Instead – and far more credibly — the VC attributed the success to the team of “smart people” doing structure-based drug discovery. 

Nevertheless, the investor shrugged, AI is “the buzzword of the day.”

At the far extreme of cynicism, I think about an assertion I once heard from a senior management consultant, who argued that at its core, big pharma is about clinical trial orchestration and product commercialization, rather than about innovative early research.  The consultant argued that the work in pharma labs essentially serves as a public relations distraction while corporations seek new products to license from biotechs.  As this consultant saw it, pharmas excel at orchestration at scale, rather than organic scientific innovation.  The key competencies of pharma, in this view, are successfully managing the incredibly complex processes required for global clinical development, international regulatory approvals, and worldwide commercialization. 

(I’ve also heard some suggest that the most significant contribution of discovery research teams in big pharma is understanding a field in enough detail to enable rigorous evaluation of in-licensing candidates.)

Efficiency Matters, Even For Innovators

Before we consider a more sanguine view of pharma innovation, it’s important to recognize that for all large organizations, even the most innovative, it’s critical not only to develop new products, but to ensure this is done with ruthless efficiency.

As World War II General Omar Bradley reportedly said, “Amateurs talk strategy; professionals talk logistics.” (Or, if you prefer Frederick the Great: “An army, like a serpent, goes upon its belly.”)  True, the vision for Apple’s success was developed by Steve Jobs – but the ability to make it happen required the supply chain management led by Tim Cook, who later became CEO. 

The Wall Street Journal recently profiled Zach Kirkhorn, the CFO of Tesla, who the Journal says performs a behind-the-scenes role similar to the one Cook played for years at Apple.  “While Mr. Musk revolutionized the auto industry by taking often risky bets that upended the status quo,” the Journal writes, “Mr. Kirkhorn earned a reputation for fine-tuning operations.”

The Journal quotes Tesla’s former Chief Technology Officer, JB Straubel, who says, “It’s probably the hundreds and thousands of hours of slaving away to make things incrementally better where he left the biggest mark and is leaving the biggest mark.”

Adds former Tesla board member Steve Westley, “Predictability is everything with a CFO. What you can’t do is surprise people, and he has not surprised people.”

Thus, while it’s exciting to imagine AI helping us come up with important new drugs, it’s not surprising that many of the earliest uses have been focused on improving process efficiencies (see here).

Pharma Innovation: Making The Elephant Dance

Efficiency may be necessary, but it’s hardly sufficient. A tight supply chain may be critical for the commercial success of Apple and Tesla, but only if these companies are producing innovative products that customers want to buy. 

For big pharma, innovation often means in-licensing the right products or acquiring the right biotechs, typically in oncology. Such transactions were critical to the recent success of Gilead (Kite, Immunomedics) and AstraZeneca (Acerta Pharma).

Encouragingly, several of big pharma’s most promising medicines of the moment were developed entirely in house. For example, Lilly discovered and developed both donanemab (for Alzheimer’s disease – see here) and tirzepatide (Mounjaro, FDA-approved for type 2 diabetes and likely soon, weight loss). (Notably, Novo Nordisk’s semaglutide [Wegovy/Ozempic], already FDA-approved for both diabetes and weight loss, was also developed internally.)

A recent, in-depth Wall Street Journal article by Peter Loftus examined Lilly’s R&D, and described a culture that underwent a profound change after a key acquisition – in this case, in the person of physician-scientist Daniel Skovronsky, the CEO of Avid Pharmaceuticals, a neuro-biomarker company acquired by Lilly in 2010. 

As he experienced the big pharma’s culture, Loftus writes, Skovronsky “was frustrated with Lilly’s slow pace. ‘Let me understand this,’ he recalled saying at a committee meeting setting timetables for getting experimental drugs to market. ‘Our goal is to be slower than average, and we’re failing at that goal? This can’t be the way to do things.’”

Consequently, in 2015, according to the Loftus, Lilly’s board asked Skovronsky (then senior vice president of clinical and product development), to “help analyze Lilly’s research flops over the prior 10 years and figure out how to do R&D better.”

Daniel Skovronsky

Skovronsky’s big conclusion: key decisions were being driven by commercial needs, rather than the best science.  Marginal products were advanced (only to later fail) because they targeted a specific commercial need.

According to the Loftus, Skovronsky recommended that “Lilly pursue drug projects where it best understood the science and lean less on commercial sales estimates. Lilly was not very good at predicting a drug’s sales over time anyway, he concluded, but could better predict the scientific probability of a drug’s success.” (I’ve discussed the challenge of predicting drug sales here, and also, in collaboration with Nassim Taleb, here.)

Skovronksy was soon promoted to Chief Science Officer and Chief Medical Officer, where he pushed to address another challenge he observed, endemic to large organizations (and described in excruciating detail by Safi Bahcall in Loonshots – see here, also here). 

As Loftus writes:

“One internal committee after another second-guessed every recommendation to advance a promising drug candidate. ‘The decisions got revisited every step of the way,’ recalled J. Anthony Ware, who led product development at Lilly before retiring in 2017.  The committees were intended to ensure thorough vetting, but in practice became a limiting process that squeezed out bold ideas, according to Dr. Skovronsky.”

To address this, Skovronsky “reorganized to move more quickly.”

Loftus continues:

“To stop the second-guessing of decisions, Lilly established independent internal units operating like biotech companies—with less bureaucracy and faster decision-making—to manage each of its high-priority drug projects,” including the one that would lead to Mounjaro.  Each unit “had its own board of directors, made up of senior researchers and executives from Lilly’s diabetes business unit. They were given a budget, and charged with making quick decisions on their own.”

For example, according to Loftus, “after a Lilly researcher proposed a last-minute change to the design of the second phase of human testing” for a study of tirzepatide, the review board “met within 24 hours and approved the change so the study could start on time.”

Lilly’s agility may be familiar to colleagues at smaller biotechs and also to those familiar with Pfizer’s CEO-led development of the COVID-19 vaccine (see here) but is otherwise not representative of how most big pharmas go about their business, as Bahcall trenchantly observes.

Loftus’s narrative about Lilly is also shared by several colleagues either at Lilly or who have deep familiarity with the company.

Bernard Munos

According one to colleague, the innovation expert Bernard Munos who spent 30 years at the company, Lilly’s CEO Dave Ricks (who took the job in 2017) played a critical role: 

“He understood that Eurekas cannot be scheduled, and that innovation is a byproduct of culture, not the outcome of a process – even if some amount of process is clearly necessary. He realigned his leadership team with like-minded executives and let Lilly’s talented scientists (and there were many), free from bureaucracy, return to what they loved doing: cutting-edge science and translation.”

Munos adds:

“In short, there was no magic recipe. Lilly’s scientists had innovation in their DNA but could not express it under the culture that swamped the company for a couple of decades. Lilly was not alone in its predicament. The whole industry got caught in the same warp. This was the heyday of Six Sigma and its black belts. In the 1990s, the scientists had lost the leadership of the industry to non-scientists, and the idea that you could de-risk drug R&D by codifying work into processes, optimized by efficiency experts, that would deliver innovation on demand, that idea really resonated with non-scientist leaders — as harebrained as it was to most scientists. Today, the pendulum has swung back.”

I suspect it may be reasonable to offer two cheers for Lilly here, for the success of their innovative mindset and agile approach. My reservation is that every success quickly finds a narrative. I don’t know of any biopharmas that have not conspicuously adopted a “biotech” approach and mindset and might well attribute any success to this structure. 

In other words, maybe Lilly’s recent success is attributable to their adoption of a more nimble approach, or maybe their products happened to work, and then the organizational characteristics – which may not be all that unique – are suddenly elevated.

(In the same way culture is said to eat strategy for breakfast, you could argue, especially in biopharma, that good luck, aggressively pursued [e.g. Merck’s Keytruda – see here] eats both.)

Consider Lilly’s decision to de-emphasize commercial influence. On the one hand, the observation resonates, at every level of R&D. For example, an industry colleague recently shared an example where translational oncology researchers evaluating early-stage compounds felt pressure to interpret coarse biomarker data in a fashion that would support the advancement of a compound into one of the company’s priority indications.

On the other hand, the deliberate and successful expansion into areas of high commercial value (e.g. oncology) are critical to the elevated stock prices now enjoyed by companies like Gilead. 

History, according to the old saw, is written by the victors. Unfortunately, this often leads to the most-repeated, least-actionable strategic advice in our industry: pick winners, our equivalent to “buy low, sell high.” Moreover, since the selection of winners often feels like a crapshoot, it’s not surprising that management tends focus on seemingly more tractable parameters, like improving operational efficiencies.

In the same way culture is said to eat strategy for breakfast, you could argue, especially in biopharma, that good luck, aggressively pursued [e.g. Merck’s Keytruda] – eats both

Bottom Line

The biopharmaceutical industry relies upon innovation to develop new products to replace the medicines whose patent protection has expired. As Sachin Jain observes, relentlessly hyping innovation, particularly early pilot projects that never scale, generates harmful cynicism.  We also recognize that even the most innovative companies, like Apple and Tesla, still need to pay attention to the unsexy details of supply chain optimization – and big pharmas must focus on improving process efficiencies as well.  Even so, efficiencies won’t generate the new products pharma needs (though it might help them develop promising products faster).  Pharmas might learn from Lilly’s recent re-organization that seems to have liberated the innate creativity of company scientists.

8
May
2023

Creating a New Class of Medicines: John Maraganore on The Long Run

Today’s guest on The Long Run is John Maraganore.

John Maraganore

John is best known as the former CEO of Alnylam Pharmaceuticals, the RNA interference drug developer. He spent 19 years there as CEO, before stepping down at the end of 2021. Alnylam figured out how to make a new therapeutic modality — gene-silencing with double-stranded oligonucleotide therapies.

Alnylam’s technology has now been translated into five marketed medicines. The company has more than 2,000 employees, and a market value that exceeds $26 billion.

Since leaving Alnylam, John has taken on a sort of senior statesman role in biotech – wired in with investors such as Arch Venture Partners, Atlas Venture, RTW Investments and Blackstone. He serves on a variety of public company boards, such as Agios Pharmaceuticals, Beam Therapeutics, Kymera Therapeutics and Takeda Pharmaceuticals. He advises a number of young scientific entrepreneurs. He seems to be everywhere there’s some cool translational science work to be done. I joke with him that he’s the Dos Equis Man of biotech – the beer commercial that features the supposedly most interesting man in the world.

This conversation was recorded live in Seattle on Apr. 25 in front of an audience at the Life Science Innovation Northwest conference. We talk about John’s early life, key early career experiences, a few major events at Alnylam, and a bit of his views on science and policy.

And now for a word from the sponsor of The Long Run.

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Now, please join me and John Maraganore on The Long Run.

1
May
2023

Preserving the Biotech Social Contract – We Should All Be Pitching In

[Editor’s Note: This is a preface by Jeremy Levin supporting the following essay by Steve Potts.]

Biotech is an industrial tapestry woven together by remarkable people with deep intellect, determination, passion, and bravery all driven to create the next and best medicine.

Underpinning it is an immense and complex infrastructure including capital formation, regulatory processes, patient advocacy, policy making, health insurance, media and many other stakeholders. Together they make up the core of what has not just delivered hundreds of lifesaving medicines but positioned America as the preeminent producer of medicines in the world.

Biotech is a national strategic asset.

But to continue to be successful on this mission we need to take account of the evolving and increasingly complex social, political and economic environment we operate within.

It is no longer sufficient, appropriate or adequate to operate as if we still in the 1970’s of Milton Friedman. If we do, we will help undermine our industry. It is incumbent on participants in our industry to engage with all stakeholders, express our values publicly and encourage and seek the support of those we serve, the patients.

If we don’t, we risk allowing the fabric we have created, being torn asunder by policy makers and those that do not understand the contribution biotech makes to those tackling disease and disorders, their families, the economy and the nation. They will hear only a narrative which focuses on price and downplays the value of innovation and medicines. They won’t hear the voices articulating our social contact.

This approach and the commitment it takes from all of us, is not woke. It’s good business.

In his essay below, Steve Potts, a serial entrepreneur and CEO, makes a powerful statement on the role of stakeholder engagement and the importance of the social contract. He points out those that have stepped forward and how they have stepped forward. The list includes names of long recognized leaders and encouragingly, a new and more diverse generation of female and male biotech executives, including most recently, the biotech sisterhood. Steve’s voice should be listened to, his data are sobering, and his “ask” is both admirable and achievable. To those reading this, I echo his appeal: step forward.

Dr. Jeremy Levin, chairman and CEO, Ovid Therapeutics

My Road

Steve Potts, oncology executive

Dr. Steve Potts – Anticipate Biosciences

Mountain biking is my weekend escape from the stress of drug development. The trails of Arizona provide a place to get some exercise, and to enjoy beautiful natural scenery.

Previous generations worked hard to build those trails that all of us can enjoy today. It’s our job to maintain them.

One recent Saturday, a few friends and I joined a work party to clear debris and fix some erosion damage, especially on tricky curves. Trail upkeep was needed after a long stretch of monsoon rains. Someone needed to do it, and my friends and I figured we should do our part. A few hours on a Saturday weren’t much to ask.

My friends, fellow biotech executives and investors, we have similar upkeep work to do. We’re fortunate to work in an industry that benefits from decades of investment and is now brimming with possibility to improve human health. But if we don’t do our part to maintain a healthy ecosystem, we’ll find ourselves on increasingly rocky, slippery, dead-end trails.

Creating a new therapeutic is like a long mountain climbing expedition. Maybe one in 50 ideas reach the  base camp of a first-in-human milestone. From there, one in 10 (at best) reach the actual summit of FDA approval to become revenue-generating products. At least those are the odds in my area of oncology. Cancer is a tough mountain.

The Inflation Reduction Act of 2022, passed by Congress and signed into law by President Biden, contains provisions intended to control drug prices, and curb the amount the federal government spends on them. There are reasons why the public has been outraged over drug prices for many years, and why elected officials felt compelled to respond to the outrage. But in crafting this policy, the government has created a toxic side effect for small molecule drug development. It is so severe that it could all but wash out a section of the oncology mountain. The IRA subjects all NDA-path drug candidates including small molecules, oligonucleotides, and peptides to price setting by Medicare merely nine years after they come to market.

Today, companies and their investors typically count on having 14 years[1] on the market before generic competitors erode the price and profits.

Nine years is far shorter than 14, especially when you consider that between the challenges of securing reimbursement and proving that the drug works in different stages of the disease, revenues take a while to ramp up. Truncating a drug’s marketability by five years can cut its profitability by half. By comparison, biologic drugs get 13 years before Medicare negotiation knocks their price down, which is close enough to 14 not to alter how we think about the reward for antibodies or other biologics.

Science wouldn’t necessarily lead us to a policy that prioritizes large molecules over small molecules. In both neurodegenerative diseases (Alzheimer’s, Parkinson’s, etc.) and cancer brain metastases, small molecules are the weapon of choice over biologics because of their ability to penetrate the blood-brain barrier. If a biologic kills off all cancer cells in the body but cannot cross the blood-brain barrier, the cancer could come back lethally as brain metastases. We need both small molecule and biologic weapons in our toolkit.

The fix is straightforward: we need 13 years for small molecules, as we have for biologics, for investors to continue supporting this area.

It’s not like small molecules cost less to develop or are less risky to develop than biologics. Their development has simply been rendered much less rewarding to investors.

Survey Says

I have been fundraising for a Series A to support our clinical trials and have noticed a distinct change in investor attitudes toward small molecule drug development after the IRA was signed into law.

I’m a data-driven guy, so I conducted a survey online of nearly 100 biotech investors and CEOs. The results are deeply disturbing for the future of oncology drug development. Since the IRA’s passage, six of every seven investors have moved away from funding small-molecule drug development programs for the elderly because the nine-year negotiation clock for NDA-path medicines makes them unattractive investments.

I’ve been working in oncology for three decades. Conducting this survey was the first time I went to work to improve the hiking and biking trails of drug development. It struck me as necessary in the aftermath of the IRA monsoon, much like trail upkeep seemed necessary after the heavy rains hit Arizona.

As I spent a little volunteer time in trail management, I became more aware and appreciative of others who had spent years ahead of me on these trails. I also noticed how many biotech executives like me have taken the stability and the incentives of our industry ecosystem for granted. Many haven’t yet gotten involved but it’s starting to change. It must change.

The Many Tending the Trails

The nonprofit organization No Patient Left Behind has pulled our industry together in a type of trail maintenance. Many identify as Biotech Builders on the NPLB website in support of the biotech social contract.

The statement is simple and powerful: “People must be able to afford (through proper insurance) all appropriate treatments and all medicines must go generic without undue delay.”

That idea guides us to support reforms that lower out-of-pocket costs for patients, opposes patent gaming by companies, and opposes government price controls on new drugs.

The IRA caps individual out-of-pocket drug costs at $2,000 a year. That’s a positive change. The IRA is aligned with the biotech social contract in several important ways, except in its treatment of small molecule drugs.

I believe that no congressional leader seeks to do harm deliberately. Like all of us, they have aging family members who hope for better drugs for deadly diseases like Alzheimer’s and cancer. They need our feedback on how to ensure that new drug development expeditions are financed and that all patented medications either become generic or are priced as generics after patents expire.

Engaging in dialogue with policymakers is one form of trail maintenance. In the last two years, hundreds of executives and investors have written and signed letters to Congress trying to explain what it takes to keep biomedical innovation going, how it generates value for our society, and the advantages of insurance reform over price controls in achieving affordability without sacrificing progress.

Many people in our industry are rolling up their sleeves. From 2021 to 2023 five Letters to Washington posted on the No Patient Left Behind website[2] have attracted over 3,000 signatures from leading investors, biotech executives and employees, big biopharma companies, bankers, service providers, as well as researchers, patient advocates, and economists.

Some Investors Take a Stand, Many Stay on the Sidelines

In looking at who signed all these letters, it’s clear how active some investors have been in standing up for biomedical innovation.

A total of 189 total venture funds are represented by the signatories across the five letters, shown in Table 1 ranked by the number of letters they signed and how many of their people participated.

Many VCs firms are quite small, so a few signatures may represent a notable fraction of a firm, or maybe everyone feels represented by the signature of a leader.

But it’s also notable how some firms inspired widespread participation among their employees, suggesting a clear commitment by their leaders to mentoring others on the importance of actively preserving the innovation ecosystem and tending to the trails. RA Capital, RTW Investments, Atlas, Boxer, 5AM, Deep Track, Omega, and others have done this, setting an inspiring leadership example for all of us.

And yet, I noticed that some firms were missing among the signers.

To get a sense of who was missing, I looked at which investment funds we normally think of as active in biotech (in this case based on how much each deployed into private financings in 2022, based on data from Endpoints) and cross-referenced them with the letter signers.

Table 2 shows that, disappointingly, 70 out of the top 100 did not sign a single letter despite how much they would seem to lose from biotech trails eroding.

Signing letters is not the only measure of how much someone cares to stand up for biomedical innovation (e.g. it was great to see Eli Lilly CEO Dave Ricks participate in an NPLB webinar on the harms of the IRA).

But, given the stakes and how easy it is to show support for a message by signing a letter, it’s telling when institutions repeatedly remain on the sidelines.

It’s not as though they don’t use the biotech trails. They are running the trails and supporting companies that run the trails. They just aren’t preserving them. That’s disheartening, because scaling the oncology mountain and developing treatments for other diseases is not just about profits for any of us.

Our ability to innovate could save the lives of the people who are closest to each of us. We all have a personal stake in keeping the biotech trails viable.

Support From All Quarters

Reviewing the lists of signers, I noticed other key contributors in our ecosystem took a stand. Commendable examples include the IR firm LifeSci Advisors (with an impressive 68 different employees represented among the signers), the investment banks Cowen and Bloom Burton, the CRO ICON. Also, Derek Lowe and Bruce Booth, two of our best biotech bards.

It would be great to see more participation from banks, service firms, and contract research organization partners, if not because of the personal impact of biomedical innovation for all their employees and their families then because their own businesses depend on the success of biotech R&D.

Big biopharmas were not much represented in the early letters, but the signatories of the latest letter (on the primacy of the FDA as the proper arbiter of which medicines should be on the market) attracted CEOs of giants like Pfizer and Biogen and executives from many other large companies. Their continued involvement is deeply appreciated by all of us small company executives.

The biotech social contract is under attack as never before. We can no longer take for granted that the trails for current and future drug development treks will remain fundable unless we all get involved.

Rod Wong, managing partner, chief investment officer, RTW Investments

Rod Wong of RTW said it well: “We should never take for granted the biotech ecosystem we have in the United States. No other place has this kind of biotech ecosystem. If we do take this for granted, one… the world will be worse off, because so much of biotech innovation happens here, or two… the US will lose its leadership position.”[3]

If you are considering getting involved, don’t wait to be asked. Sign up with NPLB as a First Responder so that you hear about these initiatives and follow people like Peter Kolchinsky, Jeremy Levin, Laura Shawver, Paul Hastings, John Maraganore, and no doubt many others who tweet about these initiatives so there is no chance that you miss another grassroots action. Talk to your Representatives and Senators in your home state. Protecting healthcare innovation is a truly bipartisan challenge.

The IRA’s treatment of NDA-path drugs is causing more than a monsoon’s worth of damage to our trails; it could leave entire swaths of the oncology mountain untraversable.

As we make plans and gather teams for new biotech expeditions, we will deliberately seek to partner with investors who share our love for the biotech social contract and who spend the time to teach others in their firms to contribute to societal good in this way. It’s essential to maintain the trails established by previous generations.

Let us all be part of this work.

 

[1] How do we get to 14? Patents last 20 years, but a lot of that patent life is eaten up by the drug development process. Up to five years of patent life can be restored via the Hatch-Waxman Act, a decades-old law designed to both incentivize drug development and create a thriving generics market.

[2] There are four letters written to the public and Congress and one meant to align industry around the importance of fixing the IRA. Four letters are about the IRA and one recent one was about the importance of preserving the FDA’s standing as the scientific arbiter of which medicines can be on the market.

[3] Minute 18 of this video.

 

24
Apr
2023

Gene Editing Therapies Delivered In Vivo: Ensoma’s Emile Nuwaysir on The Long Run

Today’s guest on The Long Run is Emile Nuwaysir.

Emile is the CEO of Boston-based Ensoma.

Emile Nuwaysir, CEO, Ensoma

Ensoma is developing gene-editing therapies that can be delivered in a single shot, in vivo, inside the body. The name is derived from the Greek word for ‘in the body.’

The basic idea is to make these gene editing medicines so they can be given off-the-shelf, to any patient, and that they can deliver a fairly long and complex set of genetic instructions in a single shot.

The hope is to deliver these treatments — which you could call a genetic form of surgery — without having to go through the steps common to some of the first-generation gene editing procedures, which are often performed outside the body, or ex vivo.

Some of the well-known variations on CRISPR gene editing require a patient to undergo a blood draw, have certain cells isolated — like hematoepoeitic or blood-forming stem cells, for example. Then the patient undergoes another procedure, such as chemotherapy preconditioning, before the engineered cells can be re-infused back.

That takes time and money. It’s a process that has to be carefully choreographed. It’s not likely to ever reach global scale, like in poor countries that might someday want access to the curative power of gene editing therapies. Ensoma hopes to eliminate the need for those blood withdrawals, and preconditioning therapies, and re-infusions. It wants to deliver the gene editing therapy once, and in a single shot.

Emile is a scientist by training, with a PhD in molecular toxicology with a focus on oncology from the University of Wisconsin-Madison. He has been through a series of startups that have given him a wide variety of experiences in genomics, diagnostics, cell therapy, and antibodies. He’s been a part of three startups that were ultimately acquired by big players – Roche, Fujifilm, and Bayer. From 2021-2022 he was chairman of the board for the Alliance for Regenerative Medicine.

None of this was preordained or predictable when he first got interested in science. Like so many scientific entrepreneurs, he discovered his technology interests and inclination to work in startups along the way.

And now for a word from the sponsor of The Long Run

 

 

Occam Global is an international professional services firm focusing on executive recruitment, organizational development and board construction. The firm’s clientele emphasize intensely purposeful and broadly accomplished entrepreneurs and visionary investors in the Life Sciences. Occam Global augments such extraordinary and committed individuals in building high performing executive teams and assembling appropriate governance structures. Occam serves such opportune sectors as gene/cell therapy, neuroscience, gene editing, the intersection of AI and Machine Learning and drug discovery and development

Connect with them at:

www.occam-global.com/longrun

 

 

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Now, please join me and Emile Nuwaysir on The Long Run.

12
Apr
2023

The Frontier of Epigenetic Editing: Chroma CEO Catherine Stehman-Breen

Today’s guest on The Long Run is Catherine Stehman-Breen.

Catherine is the CEO of Boston-based Chroma Medicine.

Catherine Stehman-Breen, CEO, Chroma Medicine

Chroma is working on therapies that control gene expression through epigenetic editing.

People have heard a lot about editing of the genome with CRISPR, and then subsequent refinements of the technology known as base editing and prime editing. The question at Chroma is a newer one. It boils down to whether it possible to achieve a similar kind of effect – with the potential for single-shot cures — by making edits to the epigenome? Can you achieve the same kind of life-changing result by leaving the underlying DNA sequence intact, but then just altering the expression of genes?

The work is still in the early stages. Chroma hasn’t publicly disclosed its targets, indications, or the preclinical results it has achieved thus far.

The company came out of stealth mode with a $125 million Series A financing with a prominent set of scientific founders and investors. I wrote about it then for on TimmermanReport.com.

Over the next year, the company did make enough progress in its first year to secure a $135 million Series B financing led by GV, and which included all of its existing investors. I expect to hear some scientific presentations later this year which might explain why that investment group chose to double-down, even in a difficult financing environment for biotech startups.

Catherine is a physician by training, and nephrology was her specialty. She started out in academic medicine at the University of Washington, and then worked her way up in clinical development roles at Amgen and Regeneron. She found new challenges in the biotech startup world in Boston / Cambridge a little over five years ago. It’s a confluence of skills, experiences, and network that have put her in position to run this interesting and ambitious young company.

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10
Apr
2023

In Support of FDA’s Authority to Regulate Medicines

Shehnaaz Suliman, CEO, ReCode Therapeutics

On Friday, April 7, a federal judge with no scientific training fundamentally undermined the bipartisan authority granted by Congress to the Food and Drug Administration to approve and regulate safe, effective medicines for every American.

District Judge Matthew Kacsmaryk issued a decision that overturns the FDA’s 23-year-old approval of mifepristone, the primary medicine used in abortion and miscarriage care, and which has been proven by decades of data to be safer than Tylenol, nearly all antibiotics and insulin.

Amanda Banks, MD

The decision ignores decades of scientific evidence and legal precedent. Judge Kacsmaryk’s act of judicial interference has set a precedent for diminishing FDA’s authority over drug approvals, and in so doing, creates uncertainty for the entire biopharma industry.

As an industry, we count on the FDA’s autonomy and authority to bring new medicines to patients under a reliable regulatory process for drug evaluation and approval. Adding regulatory uncertainty to the already inherently risky work of discovering and developing new medicines will likely have the effect of reducing incentives for investment, endangering the innovation that characterizes our industry.

Jeremy Levin, CEO, Ovid Therapeutics

Judicial activism will not stop here. If courts can overturn drug approvals without regard for science or evidence, or for the complexity required to fully vet the safety and efficacy of new drugs, any medicine is at risk for the same outcome as mifepristone.

While the drug development, approval and monitoring process is not perfect, the Agency’s framework has resulted in decades of unsurpassed medical innovation and in statutory mechanisms to remove drugs from the market if, among other reasons, they fail to maintain the anticipated safety and efficacy profile.

As an industry dedicated to improving human health, and as members of the biopharma industry, we add our signatures to this letter and stand together to unequivocally support the continued authority of the FDA to regulate new medicines.

Paul Hastings, CEO, Nkarta Therapeutics

In the face of laws and rulings that aim to undermine the evidence-based and legislatively sanctioned authority of federally mandated institutions such as FDA to protect public interests, and by putting an entire industry focused on medical innovation at risk, we cannot stay quiet.  

We call for the reversal of this decision to disregard science, and the appropriate restitution of the mandate for the safety and efficacy of medicines for all with the FDA, the agency entrusted to do so in the first place.

Click here to join us.

Shehnaaz Suliman, MD

CEO

ReCode Therapeutics

Amanda Banks, MD

Advisor, Board Member

Co-founder and former CEO, Blackfynn

 

Jeremy Levin, MD

CEO

Ovid Therapeutics

 

Paul Hastings

CEO
NKarta Therapeutics

John Maraganore

Former founding CEO at Alnylam Pharmaceuticals

 

Julia Owens, PhD

CEO

Ananke Therapeutics

 

Peter Kolchinsky, PhD

Managing Partner

RA Capital Management

 

Ted Love, MD
President & CEO
Global Blood Therapeutics
Eric Dube, PhD

CEO
Travere Therapeutics

Dr. Albert Bourla

Chairman and Chief Executive Officer

Pfizer

 

Deborah Dunsire MD

President and CEO 

H. Lundbeck A/S

 

Alisha Alaimo

President

Biogen

Robert Langer, PhD

Professor

MIT

Daniel Swisher

President and COO
Jazz Pharmaceuticals

Christopher Tan

Exec Director, BD&L, Infectious Diseases & Vaccines

Merck & Co, Inc

 

Paula Soteropoulos

Chairman of the Board

Ensoma

 

Steven Holtzman

Chair

Camp4 Therapeutics

Peter J Pitts

President

Center for Medicine in the Public Interest

Angie You

CEO

Architect Therapeutics

Jon Martin

Associate Vice President 

Organon

 

Jeb Keiper

CEO

Nimbus Therapeutics

Paul J Sekhri

President and CEO

Lyv Advisors LLC

Grace E. Colón, Ph.D.

Former CEO, InCarda Therapeutics; Board member, Voyager Therapeutics, CareDx, BIO, MIT

 

Michelle Werner

CEO
Alltrna

Rene Russo 

CEO

Xilio Therapeutics 

 

Barbara Duncan

Director

Ovid Therapeutics

Ramani Varanasi

Managing Director

ReVive Advisors

 

Maria Soloveychik 

CEO

SyntheX 

 

Nancy Whiting, PharmD

CEO

Recludix Pharma

Rekha Hemrajani

Board Member

BioAge Labs

Hanadie Yousef 

CEO

Juvena Therapeutics 

 

Deborah Geraghty

CEO

Anokion

Patrice Milos

Board Member, VP Scientific Operations

Proof Diagnostics

Yvonne Linney PhD

Board Director

Linney Bioconsulting 

 

Julie Krop

Chief Medical Officer

PureTech Health

Rhonda F. Farnum

CBO, SVP Commercial & Medical Affairs

Theravance Biopharma, Inc.

Stephanie Oestreich

CBO

Galecto

 

Sylvia McBrinn

Former CEO

Axerion Therapeutics

Christine Miller

Biopharma Executive

Wendye Robbins, MD

Independent

Red Tower Partners

 

Meg Alexander

Chief Corporate Affairs Officer

Ovid Therapeutics

 

Melita Sun Jung

CBO

Structure Therapeutics

Katherine Bowdish

CEO & President

PIC Therapeutics

 

Joanne Dove Kotz

CEO

Jnana Therapeutics

Jenny Herbach 

CEO

Adventris Pharmaceuticals 

Lavi Erisson 

CEO

Gensaic 

Bob Coughlin

Board Member, Former CEO

MassBio

 

Kristine C. Mechem

Chief Corporate Development Officer

Craif Inc

Jason Tardio

Chief Operating Officer 

Ovid Therapeutics 

 

Nina Kjellson

General Partner

Canaan Partners

 

Tara Nickerson

Biopharma Executive

 

John Kolljins

President & CEO

Satsuma Pharmaceuticals

 

Ashley Zehnder

CEO

Fauna Bio Incorporated

Mark Frohlich

CEO

Indapta Therapeutics

Cristina Ghenoiu 

Principal

RA Capital 

 

Emily Minkow

CEO

Stylus Medicine

Rajeev Shah

Managing Partner

RA Capital

Lori Lyons-Williams 
CEO, Abdera Therapeutics  
Ron Cohen, MD

President and CEO

Acorda Therapeutics

 

Elizabeth Jeffords

CEO

Iolyx Therapeutics

Emily Drabant Conley, PhD

CEO

Federation Bio

Amit Rakhit

CEO
Flare Therapeutics

 

Ken Drazan

Chairman & CEO

Arsenal Biosciences

Bernard Coulie

President and CEO

Pliant Therapeutics 

 

Sabrina Martucci Johnson

CEO

Daré Bioscience 

 

Zachary Hornby

President & CEO

Boundless Bio, Inc.

Eric Easom

Founder & CEO

AN2 Therapeutics

 

Mark Lappe

CEO and Chairman

Inhibrx

Kevin Pojasek

CEO

Enara Bio

Srini Akkaraju

Managing General Partner

Samsara BioCapital

 

Jack Elands

CEO

Emergence Therapeutics

Kristen Fortney

CEO

BioAge Labs

JJ Kang, PhD

CEO

Appia Bio

Elena Itskovich

President

Nest Catalyst

 

David Meeker

Chairman and CEO 

Rhythm Pharmaceuticals 

 

Bonnie H Anderson

CEO

PinkDx Inc

 

Michael Gladstone

Partner

Atlas Venture

Ivana Magovcevic-Liebisch

President & CEO

Vigil Neuroscience

Polly Murphy

CBO

UroGen Pharma 

 

Matthew Hammond

Partner

RA Capital Management

Linda Phelan Dyson

Founder and Principal

Dunn Street Strategies

Marcelo E. Bigal

CEO

Ventus Therapeutics

 

David Grayzel

Partner

Atlas Venture

ShiYin Foo

CEO
Arvada Therapeutics

Jason Braun

SVP

Nkarta

 

Jason Rhodes

Partner

Atlas Venture

Bruce Booth

Partner

Atlas Venture

Erika Smith

CEO

ReNetX Bio

 

Kevin Bitterman

Partner

Atlas Venture

Joao Siffert

CEO

Design Therapeutics 

 

Peter Strumph 

CEO

Parvus Therapeutics 

 

Daphne Zohar

CEO

Puretech 

Alex Harding, MD

Head of Business Development

CRISPR Therapeutics

Zach Scheiner

Principal

RA Capital

Camille D Samuels 

Partner

Venrock

 

Faraz Ali

CEO

Tenaya Therapeutics

Gisela A. Paulsen, MPharm

Former President & COO, Oncocyte Corporation

EIR, DigitalDX

 

Nicolas Tilmans

CEO

Anagenex

Michael Gilman

CEO

Arrakis Therapeutics

Pearl Freier

President

Cambridge BioPartners

 

Alan Fuhrman

Chief Financial Officer

Tyra Biosciences

Christy Oliger

Board Director

Reata

Katherine Vega Stultz 

CEO

Ocelot Bio

 

Paul D Rennert

CEO

Aleta Biotherapeutics

Thomas J. McGahren, MD JD

Managing Director

Griffin Securities

 

Yael Weiss

CEO

Mahzi Therapeutics

 

Kenneth A. Berlin

President & CEO

Ayala Pharmaceuticals, Inc.

Rob Shaffer

Chief Operations Officer

Vrata Therapeutics

Patrick Heron

Managing Partner 

Frazier Life Sciences

 

C Gordon Beck III

Founder and Managing Director

Princeton Biomedical Consulting LLC

 

Rebecca Frey

President and CEO

Siduma Therapeutics

Doug Drysdale

CEO

Cybin

 

Nerissa Kreher, MD

Chief Medical Officer

Entrada Therapeutics

Sarah Boyce 

CEO

Avidity Biosciences 

Safia Rizvi

CEO

CILA Therapeutics

 

Zen Chu

Faculty

MIT Healthcare Ventures

Bruce Goldsmith

Consultant

Aureum Bio

Nabil Uddin

Corporate Development 

Concert Pharmaceuticals, Inc.

 

Paul Peter Tak, MD PhD

President & CEO

Candel Therapeutics

Catherine J. Mackey, Ph.D

Retired Sr. VP R&D

Pfizer

Samuel D Waksal

CEO and President 

Graviton BioScience Corporation 

Gautam Kollu

CEO

D2G Oncology

Sun Altbach 

Advisor

LVF

       

 

Nima Farzan

CEO

Kinnate Biopharma

 

David de Graaf

President & CEO

Reverb Therapeutics

Brook Byers

Biotech Founder and Board Member

Byers Capital

 

Peter Barrett

Partner

Atlas Venture

 

Art Krieg

Adjunct Professor

University of Massachusetts Chane Medical School

 

Peter Smith

CEO

Remix Therapeutics

Holly Weng

President

HW MedAdvice

Michael Raab

President & CEO

Ardelyx, Inc.

Jean-Francois Formela

Partner

Atlas Venture

 

Todd Harris

CEO

Tyra Biosciences

 

Richard Colvin, MD, PhD

Chief Medical Officer

bluebird bio

Ronald A. DePinho, MD

Professor & Past President

UT MD Anderson Cancer Center

Steve Derby

Chairman

General Ventures Inc.

 

David Campbell

President and CEO

Janux Therapeutics

Amir Nashat

CEO

Paratus Sciences 

Nick Mordwinkin

Chief Business Officer

Kezar Life Sciences

 

Heather Turner

CEO

Carmot Therapeutics, Inc.

Leslie Williams

CoFounder President & CEO

hC Bioscience, Inc

Mark Benjamin

President & EVP Business Development 

Cyrus Biotechnology 

 

Douglas Fisher, MD

Partner

Revelation Partners

Gerald Commissiong

CEO

Todos Medical

Diala Ezzeddine

Co-founder & COO

Differentiated Therapeutics

 

Daphne Koller

Founder and CEO

insitro

Hannah Brie Gordon

VP, Product

Enveda Biosciences

Sanjeev Redkar

President & CoFounder

Apollomics Inc.

 

Rick Lundberg 

President and CEO

Eikonizo Therapeutics 

Rajesh Devraj

President & CEO

Rectify Pharmaceuticals

Raul Oliva

CEO & Co-Founder

Sidekick Bio, Inc.

 

Ty Howe

Biotech advisor 

Marsh USA

Jeff Jonker

CEO

Belharra Therapeutics

 

Adel Nada

CEO

GentiBio

 

Tess Cameron

Principal

RA Capital

Florian Brand

CEO & Co-Founder

atai Life Sciences

Daniel Bradbury

Executive Chairman

Equillium, Inc

 

Robert Hughes

EVP

Rectify 

 

Rohan Palekar

CEO

89bio Inc 

 

Chris Francis

SVP

Wave Life Sciences

 

Stephen Benoit

President & CEO

MDI Therapeutics

Mary Rozenman

CFO/CBO

insitro

Derek DiRocco

Partner

RA Capital

 

Hong Wan

President & CEO

Tallac Therapeutics

Aoife Brennan

CEO

Synlogic

James McArthur

President & CEO

PepGen

 

Glenn Rockman

Managing Partner

Adjuvant Capital, L.P.

Daniel Bensen

COO

Tyra Biosciences

 

Ali Fawaz

General Counsel

Tyra Biosciences

 

William S. Marshall

Chief Scientific Officer

Elsie Biotechnologies

Laura Stoppel 

Principal

RA Capital

Allison Kemner

VP Clinical Sciences and Operations

Tyra Biosciences

 

Piyush Patel

Chief Development Officer

Tyra Biosciences

Ronald Swanson

CSO

Tyra Biosciences

Ben Wang

Cofounder and COO

Chimera Bioengineering

 

Jessica Sagers

Head of Engagement

RA Capital

Michael Mendelsohn

Board Chairman

Cardurion Pharmaceuticals

Imran Nasrullah

VP and US Head Collaborate to Cure Hub, BD&L/OI

Bayer Pharmaceuticals

 

Karen LaRochelle

CBO

Aleta Biotherapeutics 

Clifford Stocks

CEO

OncoResponse

Xiaobing Li

Chief Development Officer

Rectify Pharmaceuticals

 

Ram Aiyar

CEO

Korro Bio

 

Sarah Honig

VP Corporate Development and Strategy

Tyra Biosciences

 

 

Stephanie Engels

SVP, HR

Korro Bio, Inc

 

Eli Berlin

Chief Financial and Operating Officer

Terray Therapeutics 

 

Micah Benson

CSO

KSQ Therapeutics

Robert Hudkins

CTO

Tyra Biosciences

 

Laura Shawver

CEO

Capstan Therapeutics

Adam Kolom

CEO

Related Sciences

Jonathan Moore

CSO

Rectify Pharmaceuticals

 

William J. Newell

CEO

Sutro Biopharma

 

Reid Huber

Partner

Third Rock Ventures

Arthur T. Suckow

CEO

DTx Pharma

 

Suha Jhaveri

CBO

Leyden Labs

Viswa Colluru

CEO

Enveda Biosciences

William J. Rieflin

Chairperson

NGM Biopharmaceuticals

 

Michael Rosenblatt, M.D.

Senior Advisor

Several life science funds and boards

Eileen McCullough

Board member, CEO, and Company Builder

Stealth-stage Biotechs

 

Jing Liang

Managing Partner

Umbrex

 

Bassil Dahiyat

CEO

Xencor

Isan Chen, MD

CEO

MBrace Therapeutics, Inc.

Kabeer Aziz

Partner

Adjuvant Capital

 

Adam Gridley

President & CEO

Allay Therapeutics

Ryan Daws

CFO

Obsidian Therapeutics, Inc.

Emilie Besnard 

Senior Scientist

Dorian Therapeutics 

 

Drew Volpe

Managing Partner

First Star Ventures

Sheila Gujrathi

Chair of Ventyx, ADARx and ImmPACT Bio

John Hood

CEO

Endeavor Biomedicines 

 

Mary Ann Gray

President

Gray Strategic Advisors, LLC

Roger Frechette

Principal and Founder

New England PharmAssociates, LLC

Karim Dabbagh

President/CEO

Second Genome, Inc

 

Blake Mandell

CEO and Co-Founder

Transcend Therapeutics

Brian Gallagher

Managing Partner

Trekk Venture Partners

 

Ginger Cooper

VP Sales

Artificial, Inc

 

Wendy Nelson

President & Founder

Boston Biotech Forum

Amit Jolly

Investor

Self

 

Jacqueto Zephyr

Scientist

Nimbus Therapeutics

Alan Horsagee

President & CEO

Duet BioTherapeutics

Bharatt Chowrira

President

PureTech

Jens Eckstein Ph. D.

Managing Partner

Jens Eckstein Ph. D.

 

 

Dominique Verhelle

CEO

NextRNA Therapeutics

Arthur Klausner

Executive Chairman

Concarlo Therapeutics, Inc.

Anna French

Partner

Qiming Venture Partners USA

 

Aetna Wun Trombley

CEO

Lycia Therapeutics

Sean McClain

Founder & CEO

Absci 

Jessica O’Leary

VP, Corporate Development

76Bio

 

Hiroomi Tada MD PhD

Chief Medical Officer

Tyra Biosciences

Glenn Schulman

SVP, Investor Relations 

ProKidney Corp

Loren Beck

Chief Legal Officer 

HDT Bio Corp. 

 

Andrew Farnum

CEO

Variant Bio

Kenny Storch

Vice President

BTIG

Benny Sorensen

CEO & President 

Hemab Therapeutics 

 

Jason Lettmann

General Partner

Lightstone Ventures

Philippe Lopes-Fernandes

EVP, Chief Business Officer

Ipsen

Cedric Francois

CEO

Apellis 

 

Leslie Stolz

Senior Vice President, Regulatory Affairs
Verve Therapeutics

 

Renato Skerlj

CEO

Expansion Therapeutics

Chi-Ting Huang

Vice President CMC

Pheon Therapeutics

 

Samantha Truex

CEO

Upstream Bio

Jeff Marrazzo

Co-founder and former CEO

Spark Therapeutics 

Hilary Malone

CEO

Certego Therapeutics

Greg Naeve

Chief Business Officer

RootPath Genomics

Alicia J. Hager

Chief Legal Officer

Nkarta

 

Nadir Mahmood

CFO & CBO

Nkarta

Mark Leuchtenberger 

CEO

Spybiotech 

Catherine Stehman-Breen

CEO
Chroma Medicine

J. Mike Smith

Managing Principal

Back West, Inc 

 

Robert Michael Poole
PresidentNW Biomedical Consulting, Inc.
Kenneth Moch

President

Euclidean Life Science Advisors, LLC 

 

Matthew Gall

CFO

iTeos Therapeutics, Inc.

Linda Rockett

General Counsel

Wave Life Sciences

 

Laura Tadvalkar

Managing Director

RA Capital

Bernat Olle

CEO

Vedanta Biosciences

 

Eric Marcusson

Co-Founder, Providence Therapeutics & Northern RNA

Marcusson Consulting

 

Marcos Milla

Venture Partner

Samsara BioCapital, LLC

Michele Libonati

COO

Pacylex Pharmaceuticals, Inc.

 

Dolca Thomas

Venture Partner, BOD

Samsara, Ventus, Chinook

Susan Dillon
CEOAro Biotherapeutics 
Flavia Borellini

Biotech Executive, Board Director

 

Nancy Simonian

CEO

Syros Pharmaceuticals

Svetlana Lucas
CBOScribe Therapeutics Inc.
Eef Schimmelpennink

President and CEO

LENZ Therapeutics

 

Sumant Ramachandra

President and CEO

ImmPACT Bio

Fredrik Wiklund

CEO

Bright Peak Therapeutics 

Simon Read

CEO and Founder

Mariana Oncology

 

Sarah Kurz

Executive Vice President

Partner Therapeutics

Debanjan Ray

CEO

Synthekine

Michele Libonati

COO

Pacylex Pharmaceuticals, Inc.

 

Dolca Thomas

Venture Partner, BOD

Samsara, Ventus, Chinook

Susan Dillon
CEOAro Biotherapeutics 
Flavia Borellini

Biotech Executive, Board Director

 

Nancy Simonian

CEO

Syros Pharmaceuticals

Svetlana Lucas
CBOScribe Therapeutics Inc.
Simon Read

CEO and Founder

Mariana Oncology

 

Sarah Kurz

Executive Vice President

Partner Therapeutics

Debanjan Ray

CEO

Synthekine

 

Jeffrey Smith

VP, Program Management

Nkarta

Eric Dobmeier

President & CEO

Chinook Therapeutics, Inc.

 

Thomas J Novak

Chief Scientific Officer

Autobahn Labs, Inc.

Stefani Wolff

COO

Nurix

 

David M. Epstein

President & CEO

Black Diamond Therapeutics

Tawni Koutchesfahani 

Executive Director, Manufacturing

Nkarta

 

Chris Varma

CEO
Frontier Medicines

 

David-Alexandre Gros

CEO

Eledon Pharmaceuticals

Patrick Trojer

CEO

TRIANA Biomedicines

Behzad Khosrowshahi

President & CEO

DRI Healthcare

 

Theron Odlaug, Ph.D.

Operating Partner

Signet Healthcare Partners

Saif Rathore, MD PhD

Former SVP Strategy, Cellarity

Andrew Hirsch

President & CEO

C4 Therapeutics

 

Laura Lande-Diner
CBOSatellite Bio
Amy Hummel

Associate Director, IND/IDE Management

Yale Center for Clinical Investigation

 

George Vlasuk

Board Member

Nimbus Therapeutics

 

Cara Tenenbaum

Principal

Strathmore Health Strategy

Daniel van der Lelie

CSO and CEO

Gusto Global LLC. 

Philip R. Johnson

CEO

Interius Biotherapeutics

 

Dave McDonald

Head of Life Sciences Investment Banking

Lake Street Capital Markets

Joseph Horvat

US General Manager

MorphoSys US, Inc.

Matt Ottmer

CEO & President

Kisbee Therapeutics, Inc

 

Seth Ettenberg

President and CEO

BlueRock

Edwin H Gordon

Founder

4c Advisors, llc

Andrew Funderburk

Managing Director

Kendall Investor Relations

 

Rita Balice-Gordon

CEO

Muna Therapeutics

Jonathan Leff

Partner

Deerfield Management

Mary Kay Fenton

Chief Financial Officer

Talaris Therapeutics

 

Kieren Marr

CEO

Pearl Diagnostics

Ananya Zutshi

CEO

Guardian Bio

 

Susan Sobolov

President

RIGImmune Inc

 

Amy Conrad

CEO

Juniper Point

Jacob Stangl

Founder and Director

OrisDx, Inc.

Mario David Saltarelli MD PhD
CEOGABA Therapeutics Inc

 

 

Ellen Leinfuss 

SVP, Commercial 

Certara

Ed Burgard PhD

President

Dignify Therapeutics

 

 

8
Apr
2023

Tech, Pharma, and the Uneven Distribution of the AI-Enabled Future

David Shaywitz

The worlds of technology and entrepreneurship are captivated by recent advances in generative AI and large language models (LLMs). 

The arrival of ChatGPT, developed by OpenAI (a startup partnered with Microsoft), caused Google to declare a “Code Red,” akin to “pulling the fire alarm,” the New York Times explained. The latest class of startups at Y Combinator are reportedly flocking to AI. Students in the Harvard MS-MBA biotechnology program I advise tell me they are using ChatGPT constantly in section, and say the page is always open. I’ve also heard many medical trainees are routinely using it.

But if the future has arrived, as science fiction writer William Gibson famously observed, it’s not evenly distributed.

“People in tech are freaking out about LLMs, but not in science yet,” writes University of Rochester chemist and AI expert Andrew White.

Andrew White

“AI hype may be too high,” White observes, “but we’re missing hype on smart people + AI…. this will be the biggest transformation in science since the internet. Universities must be completely rethinking education and research.”

White’s onto something. There is an absolute frenzy of activity in tech, and a rash of startups seeking to apply AI to some aspect of biopharma, often drug discovery. 

But the view from within established biopharma companies tends to be more reserved. 

Far, far more reserved. 

Curiosity, wariness, weariness, and concern

As best I can determine, the view of incumbent biopharmas reflects a combination of curiosity, wariness, weariness, and concern. 

There’s authentic curiosity around ChatGPT and AI more generally, wariness about the newest new thing, weariness about successive cycles of technology hype and disappointment, and concern about the many unknowns.

No one in the pharma C-suite wants to miss the AI train. Then again, no CEO wants to explain to the media how confidential company information was inadvertently leaked – as recently happened at Samsung. Biopharma also must be serious about patient confidentiality and strict adherence to regulatory process. Not surprisingly, the industry is loath to engage in anything that could put these vital priorities at risk.

Consequently, many biopharmas are taking a cautious approach, considering generative AI the way they routinely evaluate other emerging technologies. Rigorous guidelines for use are established, highly specified pilot projects are proposed, reviewed and subject to tiers of approvals. Once clear guardrails are established, the new technology is gently prodded and poked. The potential is gingerly explored.

It’s not just senior executives who are risk averse. Most of my colleagues in biopharma are skeptical. 

After successive cycles of hope and disappointment, many seasoned drug developers just aren’t smitten by what seems like the latest shiny tech object. (I was probably in this camp as well before I started speaking with grounded AI experts like Zak Kohane and Peter Lee, who had early access to GPT-4, and began to appreciate over time that the technology represents something profoundly different.)

Many are still trying to understand what this technology can do. For instance, a colleague this week told me he tried GPT-4 for search and concluded “Meh. I’m still going to use Google.”

Playing around (or not)

What’s abundantly clear to me from Kohane, Lee, and others who have invested time in understanding GPT-4 is that:

  1. To really understand what GPT-4 can do, you need to spend a lot of time just playing with the technology, trying out all sorts of things, particularly in your area of expertise (like medicine).
  2. The more time you spend with GPT-4, the more it starts to feel like you’re developing a relationship with an extraordinary alien intelligence – powerful, imperfect, mystifying, intriguing.

Ideally – as one expert I spoke with this week suggested – the best way, in theory, for pharma colleagues to fully leverage GPT-4 would be to play around with it. This exploration would help determine the extent to which the technology could enable everyday tasks, and eventually contribute more profound insights. 

Given the concerns about risk, I don’t see this happening in biopharma. While data scientists like Cloudera co-founder Jeff Hammerbacher famously aspire to “party on the data,” this unfettered, playful approach tends not to be the dominant mindset of large biopharmas, given their abiding concerns around potential downside consequences.

One way GPT-4 is likely to arrive in pharma is through consultant service companies like Tata Consulting Services, Accenture, and Cognizant, to use the three examples highlighted by Chamath Palihapitiya on the “All In” podcast. As Palihapitiya notes, these companies do coding-for-hire work at scale, and are thus likely to be the first to operationalize tools like GPT-4 (which can assist and enable coders) so these firms can accomplish more with fewer people. 

GPT-4 will also come to pharma through applications, ideally from established, trusted vendors.  Familiar Microsoft Office products supercharged by GPT-4 will be an early example. For many emerging tools, generative AI will operate under the hood, largely invisible. Users, understandably, are likely to focus on the capabilities an application is providing — the job to be done — rather than on the underlying technology making this possible.

Culture Contrast

The contrasting attitudes of established companies and startups towards emerging technology — including, but hardly limited to, GPT-4 — reflects radically different goals and relationships to perceived risk.

Large established companies are defined by their ability to execute reliably at scale. In biopharma R&D, this means being able to manage a portfolio of complex programs globally. Included: everything from the consistent manufacturing of a range of products to the safe, responsible, and efficient conduct of clinical trials to navigating different regulatory procedures across the world. 

It’s a huge challenge to orchestrate these activities in parallel. The work requires a deliberate focus on establishing and optimizing repeatable processes, and making careful, deliberate choices – often involving multiple stakeholders – to ensure any risks to the established business are identified and hopefully mitigated.

Startups typically can’t, and don’t, work this way. Wall Street Journal technology columnist Chris Mims recently highlighted the prismatic example of Noam Bardin, a startup CEO who was absorbed into Google after his company, Waze, was acquired.

Noam Bardin

“What seems natural at a corporation,” Bardin said, “multiple approvers and meetings for each decision—is completely alien in the startup environment: make quick decisions, change them quickly if you are wrong.”

Bardin also described to Mims the differences in incentives he noticed before and after the acquisition.  “Before the sale,” Mims reports, “everyone’s financial interest was aligned with the performance of the company’s products. Once Waze was a subsidiary, getting ahead was all about getting promoted.”

As I’ve discussed (see here, here) a nearly identical description is found in Safi Bahcall’s Loonshots. The author, a former biotech executive, explains how disruptive innovation can be stifled by corporate processes dominated by risk-aversion and enlightened careerism. 

Suffocating processes designed to reduce risks are reportedly what caused Google to fall behind OpenAI and Microsoft in generative AI, according to the WSJ. “Now Google, the company that helped pioneer the modern era of artificial intelligence, finds its cautious approach to that very technology being tested by one of its oldest rivals [Microsoft],” the Journal reports (also covered nicely in this WSJ-associated podcast).

The risk aversion of large, established companies creates an opportunity for risk arbitrage. Startups can naturally shoulder more risk because they have less to lose and potentially more to gain. As I’ve discussed, this is reportedly how PayPal was able to defeat eBay’s attempt to develop a rival online payment product with Wells Fargo (called Billpoint). It is almost certainly why the most important generative AI applications for biopharma are likely to be developed by someone else. 

Bottom Line

While many technology companies view generative AI as essential technology that must be adopted as an existential, urgent imperative, established biopharma companies are taking a more cautious approach, curious about the opportunities, but wary of the many uncertainties and risks. 

Additional Astounding columns on generative AI:

4
Apr
2023

Translating CRISPR Gene-Editing into a Groundbreaking Cell Therapy

Bill Lundberg, CEO, Merus; former CSO, CRISPR Therapeutics

A little more than 10 years have passed since the discovery of CRISPR gene editing. It’s been a whirlwind development for science and medicine. We are now on the cusp of seeing the first medicine based on this powerful technology win approval from regulators in the US and Europe.

It’s exagamglogene autotemcel (exa-cel), a cell therapy developed by CRISPR Therapeutics and in partnership with Vertex Pharmaceuticals. The treatment is made when a patient’s blood is withdrawn, hematopoietic stem cells are isolated in the lab, they are gene-edited to produce high levels of fetal hemoglobin, and then the edited cells are re-infused back into the patient.

These engineered cells, after a single shot, have been shown to successfully produce enough fetal hemoglobin-expressing and oxygen-carrying red blood cells to effectively cure patients with sickle-cell disease and transfusion-dependent beta-thalassemia. Vertex and CRISPR Therapeutics have completed their application for FDA approval.

This is a landmark achievement for the biotech history books. It’s both a meaningful treatment for patients with no good options, and it’s a testimony to our industry’s capacity to turn basic science into life-changing medicines. 

I was there in the early days as the first US-based employee and chief scientific officer of CRISPR Therapeutics. Let me tell you a bit about how this medicine came to be, along with some lessons that we learned along the way.

Getting Started

We opened our first lab in Boston in 2015. Within three years, we filed to begin our first clinical trials in Europe for CTX-001, now called exa-cel. CRISPR Therapeutics raised a $25 million Series A financing from Versant Ventures in April 2014. One year later, we raised a $29 million Series B financing from that included Vertex, SR One, Celgene, and Bayer.

We had resources, but not unlimited resources. We had to think about where to start with a technology that could potentially change any gene in the genome, or could potentially treat any one of hundreds of different diseases.

The first big decision was about where to concentrate our valuable time and energy. We couldn’t afford to be distracted, or risk spreading ourselves too thin.

We chose initially to pursue sickle cell disease and transfusion-dependent beta-thalassemia. This was a logical place to start.

Every patient with sickle cell disease has the exact same molecular change. Every patient has the same clinical manifestations of rigid, sticky, and misshapen red blood cells that can clump together and damage the lining of blood vessels, and organs. Every patient suffers from terrible pain crises that end up requiring emergency medical care. Every patient has respiratory problems. Fatigue is a constant battle. Patients suffer terribly for years, and they die too soon.

We knew that while patients endure a variety of symptoms, we had a chance to take them all out if we could deliver a single, elegant edit to those blood-forming stem cells. (The related disease beta-thalassemia, with similar rationale and evaluation of therapeutic approaches is not discussed further here).

By National Human Genome Research Institute (NHGRI) Creative Commons license.

We also knew that if we went down this path, we could find out quickly in the lab if we were wrong. Biomarkers of disease and treatment efficacy – both short-term and long-term – could be easily obtained from a blood draw. And we wouldn’t have to wait for a long-term follow-up study to tell us if the biological edit caused an improvement in the clinical outcomes that matter most.

The genetic defect, as alluded to above, is in the hematopoietic system, from which cells can be removed, studied, manipulated (gene edited), and returned to the patient. Several gene therapy companies that came before us already established processes that were well-understood. Perhaps equally important, we knew that sickle cell disease was severe enough that doctors and patients would consider trying out a brand-new technology to treat it, even though that naturally meant taking on some unknown risks. 

Once settling on sickle cell disease and beta-thalassemia as our top priorities, we then had to think as clearly as possible about the questions to ask. The first and most obvious one was:

“What target should we edit?”

One option was to correct the genetic defect itself in the beta-globin gene, by using CRISPR to “knock-in” the correct code. However, we found early on that such a gene correction approach was less efficient than other approaches described below, and we were concerned we may not be able to correct enough of the cells to treat the disease. The CRISPR edits also cause gene disruption, which might knock out beta-globin function and cause thalassemia major, making the patients worse.

This strategy wasn’t worth the risk, and we dropped it quickly.

Before spending too much time and money in the lab, it helped a great deal to work with experts in the field and dig deeply into the literature. We went back to re-read a seminal finding published back in 1948, by Janet Watson, a pediatrician in New York. She observed that infants with sickle cell disease hadn’t yet developed symptoms and proposed that this was related to the protective effects of a fetal form of hemoglobin in the blood at birth.

Remarkably, the infants Watson studied only developed symptoms 6-9 months after birth, when the adult beta globin gene, or the sickle globin variant in patients, was fully expressed. In 1955, scientists found that some adult patients had only mild symptoms. These patients were no longer infants, but they appeared to have a persistent expression of an “alkali resistant” form of hemoglobin known as fetal hemoglobin, which was responsible for ameliorating symptoms. Later studies confirmed that increased levels of fetal hemoglobin is associated with reduced clinical manifestations, and acute pain episodes.

These observations decades ago made it clear: If scientists could spur more expression of fetal hemoglobin in adults, either through gene therapy or gene editing, it could make a big impact against the disease. There are now many reported inherited variations in gene sequences that are known to cause long-lasting expression of fetal hemoglobin into adulthood. Perhaps re-creating one of these rare variants in cells from a patient could ameliorate disease. Importantly, prior work by others had validated this approach, including in mouse models here and here.

Another approach was suggested by genome-wide association studies here, here and here that identified more commonly occurring variations in different genes that had more modest effects. These led to a series of remarkable discoveries, essential for our later work: the BCL11A gene is a master regulator of fetal hemoglobin. Removing it alone — a single factor — from the red blood cell compartment leads to high fetal hemoglobin and cures sickle cell disease in a mouse model; and ultimately identifying the critical sequences in the BCL11A gene that controls its function in the red blood cell compartment, called an erythroid enhancer.  

Perhaps we could aim our CRISPR gene editing efforts at BCL11A or other targets identified by genome wide studies, to cause high levels of fetal hemoglobin and cure sickle cell disease.  At CRISPR Therapeutics, we extensively evaluated in the laboratory these two approaches: re-creating variants associated with hereditary persistence, and disrupting sequences identified by the genome wide association studies and subsequent BCL11A studies.  We were also guided by important concurrent work from multiple academic laboratories also pursuing similar approaches, for example here, here and here

As we evaluated different potential approaches, we needed to keep asking ourselves the most pertinent questions.

“How much gene editing is needed?”   

We intended to edit the hematopoietic stem cell, which gives rise to the disease-causing red blood cells. The ‘edited’ hematopoietic stem cell contains the genetic code to produce both the fetal hemoglobin that would be protective, and the defective sickle hemoglobin that is the source of so many problems.

But here’s where we were fortunate: fetal hemoglobin is extremely potent in overcoming the toxic effects of sickle hemoglobin. As little as 25-30% fetal hemoglobin appears protective, slowing down by 10,000-fold the sickling process of hemoglobin polymerization in the low oxygen state that causes symptoms. That provides ample time for the red blood cell to circulate back to the oxygen-rich lungs, to prevent the onset of sickling. 

We were also fortunate that not all red blood cells in a patient had to be corrected to reduce or prevent the worst symptoms – the vaso-occlusive crises that often send patients to the Emergency Department. Only two-thirds of the red blood cells in a patient need to be of the healthy and non-sickling type to dramatically reduce the risk of stroke, as shown in studies of blood transfusion therapy.

We also realized that far less than two-thirds of the hematopoietic stem cells that give rise to red blood cells actually needed to be corrected, because these blood cells that are protected from sickling will last longer in circulation and accumulate over time. As little as 20-25% correction of the precursor hematopoietic stem cells could give rise to this important two-thirds blood cell threshold, based on computer models and experiments in mice.   

Remarkably, these predictions matched the observations here, here and here from rare patients who carried a mix of both healthy donor cells from transplantation and also some of their original, disease-associated cells.

This was an important signal to us. The bar wasn’t impossibly high.

Once we settled on our strategy for gene editing, and we had an idea of the threshold we needed to clear, we had to ask ourselves the same question over and over in different ways —

“Did we achieve sufficient editing?” 

We presented our initial results at the American Society of Hematology annual meetings in 2016 and 2017, where we demonstrated 80% editing efficiency of the hematopoietic stem cells – far greater than the 25% needed. The process we invented delivered greater than 30% fetal hemoglobin expression. These values met or exceeded our goals, and, together with other foundational work from academia supporting our approach, encouraged us to move forward into the clinic with the lead candidate CTX-001 (now exa-cel), which uses CRISPR gene editing to disrupt the erythroid enhancer of the BCL11A gene.   

It can be easy to get immersed in the details of the biology or new technology or only focus on the efficacy measures. But we had to remain rooted in the most basic question of all —

“Will it be safe?”  

The body produces an estimated 2-3 million red blood cells per second. With the nature of our edit, it had to be safe, precise, and it had to persist. We would only find out the answers to these questions in clinical trials.  

We wondered why the intended change we were making with our gene editing had never been observed in a patient, despite the evolution of hundreds of other naturally occurring genetic variations that both increased fetal hemoglobin in patients and reduced their symptoms. Might our particular edit have some other negative effects that we had not yet uncovered? We knew that loss of BCL11A function outside of the red cell compartment had other negative effects, shown here and here.

In contrast, our approach with CTX-001 limits the BCL11A disruption specifically to the red blood cell lineage. We didn’t have direct validation from human genetics to lean back on, to give us confidence that it would be safe. However, extensive foundational academic work — for example here and here — and our own preclinical experiments were critical in providing further support for our approach.

Early on, concerns had been raised in the scientific community about the potential for ‘off-target’ effects elsewhere in the genome with CRISPR gene editing. At ASH 2017, we addressed this concern directly. The specific guide RNA (site for editing) we selected showed no evidence of off-target activity in a deep evaluation of thousands of potential off-target sites, and the edited cells still functioned normally. 

Furthermore, there was no evidence of clonal (precancerous) growth and no evidence of cancer formation in the standard Good Laboratory Practice (GLP) toxicology studies. The cumulative body of evidence to that point supported our decision to go to the clinic with CTX-001.

From the start we were faced with the question:

“How do we industrialize this?” 

When we began, it was unclear how best to apply this new CRISPR gene editing approach. Should the Cas9 nuclease component be delivered as protein or encoded in RNA or DNA? Should we use separate CRISPR and TRACR RNA fragments —  as occurs naturally in bacteria — or use a concatenated single guide RNA? Should RNA be synthesized or transcribed? Or contain bases that are chemically modified? Introduced into the cell by transfection, viral transduction or electroporation? Which source was best for starting and in-process materials? How to establish GLP materials and methods? How to bring experimental-grade processes up to Good Manufacturing Practice (GMP) standards? 

Our research and process development teams urgently evaluated different variables and suppliers to assess and determine the optimal approach; we relied, as much as possible, on well-established methods and providers for obtaining, managing, manipulating and evaluating hematopoietic stem cells; for process development and manufacturing; and iterating through variations at scale with GLP-like materials and under GMP-like conditions where necessary. This was about reducing as many variables as possible, over time, to keep focused on the immediate problem at hand: to invent a CRISPR gene editing process for patients that was effective, robust and reliable.

We also wondered:

“How will we address the ethical and regulatory challenges?”

Like other early entrants, we faced considerable scientific and public concern about the ethical and societal consequences of human gene editing. Much of the concern centered on heritable modifications to the germ line, in which changes could be passed on future generations, with no turning back.

This concern about “editing humanity” or “designer babies” led some to call for a total ban on human gene editing for therapeutic purposes. That would derail or delay not only our own progress and ability to finance our company, but also the efforts of the entire field. We all had to address it thoughtfully.  

We engaged consultants and obtained an evaluation from the ethicists and clinicians at the Stanford Center for Biomedical Ethics. Together with another gene editing company, we met with the White House Office of Science and Technology Policy as well as members of Congress and staff on Capitol Hill to both educate and learn.

We participated in the first International Summit on Human Gene Editing at the National Academies of Sciences, Engineering and Medicine in December 2015. We published a peer-reviewed position paper recommending that CRISPR gene editing for therapeutic approaches should “treat the patient, not [modify] the germline.” We were hoping to build broad support for somatic (non-heritable) gene editing of the kind we were developing in CTX-001.

We did not know whether the regulatory landscape for CRISPR gene editing would be permissive. We relied on established FDA Guidance and EMA Guideline documents and precedents as much as possible. We engaged extensively with consultants and sought early advice from national health authorities. We formed partnerships with clinical trialists and clinicians with deep experience in genetics, pathophysiology, disease management, and transplantation medicine. 

With this support, we developed clinical protocols that incorporated the appropriate patient selection, treatment plans, endpoints and evaluation, and biomarkers and thresholds for success. We worked hard to ensure that our clinical plans continued to be aligned with regulatory guidance, guidelines and precedent. 

The rapid development of exa-cel, from opening our labs in 2015 to first clinical trial application in Europe in 2017, could only have been possible through the dedication, hard work and focus of the teams at CRISPR Therapeutics, with the help and support of our partner Vertex, the deep knowledge and expertise of our many collaborators, and the foundational understanding of red cell biology and disease pathogenesis built over the past 70 years, summarized here.

The impact on patients with sickle cell disease has been remarkable. As of Dec 2022, all 31 sickle cell disease patients treated with exa-cel remain free of transfusions or vaso-occlusive crises.

Rarely in our careers are we given the opportunity to bring a brand-new technology, in this case CRISPR gene editing, to an important and well-understood medical need. We are all grateful to be able to contribute to this landmark achievement, the first CRISPR gene editing medicine.

 

This article is adapted from a talk given at the 80th birthday symposium in honor of MIT professor Robert Weinberg.