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PCR Tools for the Rest of Us

PCR is extremely easy to use because of lots of hard work by scientists around the world. As the examples described here reveal, anyone can use PCR today….

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Nearly 40 years ago, American biochemist Kary Mullis developed the polymerase chain reaction (PCR). This technique impacted research in the life sciences so fundamentally that in 1993, less than a decade after he developed PCR, Mullis received the Nobel Prize in Chemistry. In academia and industry, scientists quickly made broad use of PCR, and to this day, applications keep expanding.

When Mullis accepted his Nobel Prize, he recounted what he had been thinking during his struggle to realize his vision: “Would it work at all was important. The next most important thing was, would it be easy to do?”

Today, PCR is extremely easy to use because of lots of hard work by scientists around the world. As the examples described here reveal, anyone can use PCR today, sometimes even in their homes.

Bringing PCR home

PCR is usually used by scientists in laboratories. But what about the rest of us? To broaden access to PCR technology, Salt Lake City, UT-based Co-Diagnostics (Co-Dx) is developing the Co-Dx PCR home platform. According to Dwight H. Egan, the company’s CEO, “The Co-Dx PCR is an at-home and point-of-care rapid test.” The first assay created for this device, he says, “is designed to detect SARS-CoV-2 RNA with high accuracy using real-time PCR in around 30 minutes.”

Co-Diagnostics states that it was founded to “bring high-quality molecular diagnostics for infectious diseases to areas and populations of the world that have been overlooked and underserved by other diagnostics companies.” Currently, the company continues to broaden molecular diagnostics by developing laboratory-grade PCR testing systems suitable for homes and businesses. The Co-Dx PCR home testing platform shown in this image is being designed to identify genetic markers for a wide variety of diseases. The company indicates that the platform’s first assay will detect SARS-CoV-2 RNA.

The platform, which incorporates a reusable compact hub and a single-use cartridge, is being designed to support single and multiple pathogen assays. “Raw data is analyzed by a secure cloud-connected software, and results are displayed on the user’s mobile device, allowing optional transmission to the user’s electronic health records,” Egan explains. “The anonymized cumulative data can be shared for epidemiology and scientific studies, and for real-time geographical monitoring.”

To make such a system possible, Co-Dx uses cost-effective optics and components. Egan says, “The company has brought the manufacturing of several critical components in-house—including device manufacturing, engineering, software, dye synthesis, and oligonucleotide synthesis—and that allows process know-how to be kept as trade secrets.”

As a result, the Co-Dx platform is economical and has a small footprint. It is being developed for use almost anywhere. Although this platform is not on the market yet, Egan says that a single sample instrument will cost about $300, and each test will run about $20.

The company has plans for the platform beyond the COVID-19 test. Indeed, Egan says that assays can also be developed for several other respiratory diseases and sexually transmitted infections. Testing for COVID-19 and other diseases with this platform promises to go to consumer applications beyond home use. Egan notes, “We are also leveraging relationships with national pharmacy chains with the intention of offering the platform in retail pharmacy locations across the country.”

Breath-based detection of infection

In Belgium, scientists at Imec analyze a person’s breath for indicators of infectious disease. This nonprofit R&D organization applies nano- and digital technology to a range of world problems, including healthcare. During the pandemic driven by SARS-CoV-2, Imec developed its COVID-19 breathalyzer.

As Peter Peumans, PhD, CTO for health technologies at Imec, explains, “We decided early on during the COVID-19 pandemic to focus on breath, because it was clear that exhaled particles were the way that the virus spreads.” The level of virus in exhaled particles also correlates to a person’s level of contagion. “So, we wanted to look for the virus inside exhaled particles,” Peumans notes.

Imec scientists planned to use real-time PCR (RT-PCR) to detect and quantify mRNA transcribed from DNA in SARS-CoV-2. To do that, Peumans and his colleagues first needed a way to gather the exhaled particles. “We needed to develop something that could collect particles efficiently and was easy to breathe through,” he details. “At the same time, it had to collect these particles in a very small volume so that the downstream workflow could be very sensitive.”

To do that, the Imec scientists made a two-layer silicon device. Breath enters holes in the top plate and exits through slightly offset holes in the bottom plate. “It’s a labyrinth for air essentially,” Peumans says. The device is perforated by a large number of holes, so a person can easily exhale through it, but exhaled particles can’t make the turn between the silicon layers. Like a Formula One race car coming into a turn too fast, the exhaled particles go off the “track” and hit the barrier. That captures the particles in a concentrated volume. Then, the particles are analyzed with a real-time PCR technology that Imec developed earlier for another application.

The scientists moved very quickly from an idea to a device. “It took us only about four months to go from sort of a paper-napkin drawing to hardware that we could test clinically,” Peumans recalls. “In a number of clinical studies, we compared this approach to the oral-pharyngeal swabs, saliva, and also the rapid antigen test, and we see that breath actually is the most sensitive of all the test approaches.” Peumans points out that the breath-based test is especially sensitive in the first few days of infection, “and that’s important because those are also the days where you’re most infectious.”

The current version of this detector could be used in what Peumans calls “high-stakes environments,” such as airports. In just 15 minutes, the device can analyze a traveler for SARS-CoV-2.

The COVID-19 pandemic, though, is not the only use of this technology. “We’re taking a hard look now at other indications beyond COVID,” Peumans declares. One of those indications is tuberculosis. Here, too, Peumans notes that “there are good signs that breath is a better sample.”

Helping PCR make smart calls

Beyond making calls and taking selfies, a smartphone can also contribute to PCR applications. For example, a smartphone can control Philadelphia, PA-based Biomeme’s Franklin PCR platform and display the results. “Our platform essentially transforms your smartphone into a mobile lab for advanced DNA/RNA detection and real-time disease surveillance,” asserts Max Perelman, co-founder, president, and CEO of Biomeme. “Each battery-powered thermocycler enables multiplex real-time detection of up to 27 targets with results in an hour or less, depending on the assay and test method.”

Biomeme's mobile health platform
Biomeme develops mobile health platforms for nucleotide diagnostics. For example, the company offers the Franklin, a mobile real-time thermocycler that can perform a variety of PCR tests. It may be paired with Biomeme Go, a smartphone application that can run, monitor, and analyze PCR experiments. The company’s mobile real-time PCR platforms and assays can be used for applications in healthcare, agriculture, vector surveillance, veterinary medicine, environmental monitoring, education, and citizen science.

Including the battery, the Franklin weighs just four pounds. Biomeme’s next-generation Franklin ISP (Integrated Sample Prep) provides automated sample preparation for a wide range of sample types, and prototype versions can detect up to 45 targets. “To identify host-response signatures, we apply machine learning to enormous amounts of biological data obtained from human subjects to ascertain the human immune response to infection,” says Chris Woods, MD, MPH, chief medical officer at Biomeme. “Simply put, it is the art of reading the genetically encoded and highly specific response to illness to more accurately determine the root cause, the degree of risk, and/or the response to therapeutic intervention.”

Biomeme developed this technology for environmental, animal, and human-health applications in low-resource settings. “Over the years, our team has developed a diverse portfolio of PCR and isothermal tests including everything from biowarfare agent panels to food safety, water quality, industrial QC, vector surveillance, environmental DNA, animal health, and most recently human diagnostics with our EUA SARS-CoV-2 tests,” explains Jesse vanWestrienen, co-founder and biology lead at Biomeme. “Moving forward, we have plans to introduce host-response applications that cover a wide range of disease conditions from infectious diseases to autoimmune diseases and even drug response.” As an example, the first host-response test detects viral infection as soon as three days before symptoms develop.

So, yes, PCR is now very easy to do, probably easier than Mullis could have possibly imagined when he developed the technique in the 1980s. Now, it’s so simple to use PCR that the number of at-home platforms is surely just getting started.

The post PCR Tools for the Rest of Us appeared first on GEN - Genetic Engineering and Biotechnology News.

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I created a ‘cosy game’ – and learned how they can change players’ lives

Cosy, personal games, as I discovered, can change the lives of the people who make them and those who play them.

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Cosy games exploded in popularity during the pandemic. Takoyaki Tech/Shutterstock

The COVID pandemic transformed our lives in ways many of us are still experiencing, four years later. One of these changes was the significant uptake in gaming as a hobby, chief among them being “cosy games” like Animal Crossing: New Horizons (2020).

Players sought comfort in these wholesome virtual worlds, many of which allowed them to socialise from the safety of their homes. Cosy games, with their comforting atmospheres, absence of winning or losing, simple gameplay, and often heartwarming storylines provided a perfect entry point for a new hobby. They also offered predictability and certainty at a time when there wasn’t much to go around.

Cosy games are often made by small, independent developers. “Indie games” have long been evangelised as the purest form of game development – something anyone can do, given enough perseverance. This means they can provide an entry point for creators who hadn’t made games before, but were nevertheless interested in it, enabling a new array of diverse voices and stories to be heard.

In May 2020, near the start of the pandemic, the small poetry game A Solitary Spacecraft, which was about its developer’s experience of their first few months in lockdown, was lauded as particularly poignant. Such games showcase a potential angle for effective cosy game development: a personal one.

Personal themes are often explored through cosy games. For instance, Chicory and Venba (both released in 2023) tackle difficult topics like depression and immigration, despite their gorgeous aesthetics. This showcases the diversity of experiences on display within the medium.

However, as the world emerges from the pandemic’s shadow, the games industry is facing significant challenges. Economic downturns and acquisitions have caused large layoffs across the sector.

Historically, restructurings like these, or discontent with working conditions, have led talented laid-off developers to create their own companies and explore indie development. In the wake of the pandemic and the cosy game boom, these developers may have more personal stories to tell.

Making my own cosy game

I developed my own cosy and personal game during the pandemic and quickly discovered that creating these games in a post-lockdown landscape is no mean feat.

What We Take With Us (2023) merges reality and gameplay across various digital formats: a website, a Discord server that housed an online alternate reality game and a physical escape room. I created the game during the pandemic as a way to reflect on my journey through it, told through the videos of game character Ana Kirlitz.

The trailer for my game, What We Take With Us.

Players would follow in Ana’s footsteps by completing a series of ten tasks in their real-world space, all centred on improving wellbeing – something I and many others desperately needed during the pandemic.

But creating What We Take With Us was far from straightforward. There were pandemic hurdles like creating a physical space for an escape room amid social distancing guidelines. And, of course, the emotional difficulties of wrestling with my pandemic journey through the game’s narrative.

The release fared poorly, and the game only garnered a small player base – a problem emblematic of the modern games industry.

These struggles were starkly contrasted by the feedback I received from players who played the game, however.

This is a crucial lesson for indie developers: the creator’s journey and the player’s experience are often worlds apart. Cosy, personal games, as I discovered, can change the lives of those who play them, no matter how few they reach. They can fundamentally change the way we think about games, allow us to reconnect with old friends, or even inspire us to change careers – all real player stories.

Lessons in cosy game development

I learned so much about how cosy game development can be made more sustainable for creators navigating the precarious post-lockdown landscape. This is my advice for other creators.

First, collaboration is key. Even though many cosy or personal games (like Stardew Valley) are made by solo creators, having a team can help share the often emotional load. Making games can be taxing, so practising self-care and establishing team-wide support protocols is crucial. Share your successes and failures with other developers and players. Fostering a supportive community is key to success in the indie game landscape.

Second, remember that your game, however personal, is a product – not a reflection of you or your team. Making this distinction will help you manage expectations and cope with feedback.

Third, while deeply considering your audience may seem antithetical to personal projects, your game will ultimately be played by others. Understanding them will help you make better games.

The pandemic reignited the interest in cosy games, but subsequent industry-wide troubles may change games, and the way we make them, forever. Understanding how we make game creation more sustainable in a post-lockdown, post-layoff world is critical for developers and players alike.

For developers, it’s a reminder that their stories, no matter how harrowing, can still meaningfully connect with people. For players, it’s an invitation to embrace the potential for games to tell such stories, fostering empathy and understanding in a world that greatly needs it.


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Adam Jerrett does not work for, consult, own shares in or receive funding from any company or organisation that would benefit from this article, and has disclosed no relevant affiliations beyond their academic appointment.

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KIMM finds solution to medical waste problem, which has become a major national issue

A medical waste treatment system, which is capable of 99.9999 percent sterilization by using high-temperature and high-pressure steam, has been developed…

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A medical waste treatment system, which is capable of 99.9999 percent sterilization by using high-temperature and high-pressure steam, has been developed for the first time in the country.

Credit: Korea Institute of Machinery and Materials (KIMM)

A medical waste treatment system, which is capable of 99.9999 percent sterilization by using high-temperature and high-pressure steam, has been developed for the first time in the country.

The Korea Institute of Machinery and Materials (President Seog-Hyeon Ryu, hereinafter referred to as KIMM), an institute under the jurisdiction of the Ministry of Science and ICT, has succeeded in developing an on-site-disposal type medical waste sterilization system that can help to resolve the problem caused by medical waste, which has become a national and social issue as the volume of medical waste continues to increase every year. This project was launched as a basic business support program of the KIMM and was expanded into a demonstration project of Daejeon Metropolitan City. Then, in collaboration with VITALS Co., Ltd., a technology transfer corporation, the medical waste treatment system was developed as a finished product capable of processing more than 100 kilograms of medical waste per hour, and was demonstrated at the Chungnam National University Hospital.

Moreover, the installation and use of this product have been approved by the Geumgang Basin Environmental Office of the Ministry of Environment. All certification-related work for the installation and operation of this product at the Chungnam National University Hospital has been completed, including the passage of an installation test for efficiency and stability conducted by the Korea Testing Laboratory.

Through collaboration with VITALS Co., Ltd., a corporation specializing in inhalation toxicity systems, the research team led by Principal Researcher Bangwoo Han of the Department of Urban Environment Research of the KIMM’s Eco-Friendly Energy Research Division developed a high-temperature, high-pressure steam sterilization-type medical waste treatment system by using a high-temperature antimicrobial technology capable of processing biologically hazardous substances such as virus and bacteria with high efficiency. After pulverizing medical waste into small pieces so that high-temperature steam can penetrate deep into the interior of the medical waste, steam was then compressed in order to raise the boiling point of the saturated steam to over 100 degrees Celsius, thereby further improving the sterilization effect of the steam.

Meanwhile, in the case of the high-pressure steam sterilization method, it is vitally important to allow the airtight, high-temperature and high-pressure steam to penetrate deep into the medical waste. Therefore, the research team aimed to improve the sterilization effect of medical waste by increasing the contact efficiency between the pulverized medical waste and the aerosolized steam.

By using this technology, the research team succeeded in processing medical waste at a temperature of 138 degrees Celsius for 10 minutes or at 145 degrees Celsius for more than five (5) minutes, which is the world’s highest level. By doing so, the research team achieved a sterilization performance of 99.9999 percent targeting biological indicator bacteria at five (5) different locations within the sterilization chamber. This technology received certification as an NET (New Excellent Technology) in 2023.

Until now, medical waste has been sterilized by heating the exposed moisture using microwaves. However, this method requires caution because workers are likely to be exposed to electromagnetic waves and the entrance of foreign substances such as metals may lead to accidents.

In Korea, medical waste is mostly processed at exclusive medical waste incinerators and must be discharged in strict isolation from general waste. Hence, professional efforts are required to prevent the risk of infection during the transportation and incineration of medical waste, which requires a loss of cost and manpower.

If medical waste is processed directly at hospitals and converted into general waste by applying the newly developed technology, this can help to eliminate the risk of infection during the loading and transportation processes and significantly reduce waste disposal costs. By processing 30 percent of medical waste generated annually, hospitals can save costs worth KRW 71.8 billion. Moreover, it can significantly contribute to the ESG (environmental, social, and governance) management of hospitals by reducing the amount of incinerated waste and shortening the transportation distance of medical waste.

[*Allbaro System (statistical data from 2021): Unit cost of treatment for each type of waste for the calculation of performance guarantee insurance money for abandoned wastes (Ministry of Environment Public Notification No. 2021-259, amended on December 3, 2021). Amount of medical waste generated on an annual basis: 217,915 tons; Medical waste: KRW 1,397 per ton; General waste from business sites subject to incineration: KRW 299 per ton]

As the size and structure of the installation space varies for each hospital, installing a standardized commercial equipment can be a challenge. However, during the demonstration process at the Chungnam National University Hospital, the new system was developed in a way that allows the size and arrangement thereof to be easily adjusted depending on the installation site. Therefore, it can be highly advantageous in terms of on-site applicability.

Principal Researcher Bangwoo Han of the KIMM was quoted as saying, “The high-temperature, high-pressure steam sterilization technology for medical waste involves the eradication of almost all infectious bacteria in a completely sealed environment. Therefore, close cooperation with participating companies that have the capacity to develop airtight chamber technology is very important in materializing this technology.” He added, “We will make all-out efforts to expand this technology to the sterilization treatment of infected animal carcasses in the future.”

 

President Seog-Hyeon Ryu of the KIMM was quoted as saying, “The latest research outcome is significantly meaningful in that it shows the important role played by government-contributed research institutes in resolving national challenges. The latest technology, which has been developed through the KIMM’s business support program, has been expanded to a demonstration project through cooperation among the industry, academia, research institutes, and the government of Daejeon Metropolitan City.” President Ryu added, “We will continue to proactively support these regional projects and strive to develop technologies that contribute to the health and safety of the public.”

 

Meanwhile, this research was conducted with the support of the project for the “development of ultra-high performance infectious waste treatment system capable of eliminating 99.9999 percent of viruses in response to the post-coronavirus era,” one of the basic business support programs of the KIMM, as well as the project for the “demonstration and development of a safety design convergence-type high-pressure steam sterilization system for on-site treatment of medical waste,” part of Daejeon Metropolitan City’s “Daejeon-type New Convergence Industry Creation Special Zone Technology Demonstration Project.”

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The Korea Institute of Machinery and Materials (KIMM) is a non-profit government-funded research institute under the Ministry of Science and ICT. Since its foundation in 1976, KIMM is contributing to economic growth of the nation by performing R&D on key technologies in machinery and materials, conducting reliability test evaluation, and commercializing the developed products and technologies.

 

This research was conducted with the support of the project for the “development of ultra-high performance infectious waste treatment system capable of eliminating 99.9999 percent of viruses in response to the post-coronavirus era,” one of the basic business support programs of the KIMM, as well as the project for the “demonstration and development of a safety design convergence-type high-pressure steam sterilization system for on-site treatment of medical waste,” part of Daejeon Metropolitan City’s “Daejeon-type New Convergence Industry Creation Special Zone Technology Demonstration Project.”


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IFM’s Hat Trick and Reflections On Option-To-Buy M&A

Today IFM Therapeutics announced the acquisition of IFM Due, one of its subsidiaries, by Novartis. Back in Sept 2019, IFM granted Novartis the right to…

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Today IFM Therapeutics announced the acquisition of IFM Due, one of its subsidiaries, by Novartis. Back in Sept 2019, IFM granted Novartis the right to acquire IFM Due as part of an “option to buy” collaboration around cGAS-STING antagonists for autoimmune disease.

This secures for IFM what is a rarity for a single biotech company: a liquidity hat trick, as this milestone represents the third successful exit of an IFM Therapeutics subsidiary since its inception in 2015.

Back in 2017, BMS purchased IFM’s  NLRP3 and STING agonists for cancer.  In early 2019, Novartis acquired IFM Tre for NLRP3 antagonists for autoimmune disease, which are now being studied in multiple Phase 2 studies. Then, later in 2019, Novartis secured the right to acquire IFM Due after their lead program entered clinical development. Since inception, across the three exits, IFM has secured over $700M in upfront cash payments and north of $3B in biobucks.

Kudos to the team, led by CEO Martin Seidel since 2019, for their impressive and continued R&D and BD success.

Option-to-Acquire Deals

These days option-based M&A deals aren’t in vogue: in large part because capital generally remains abundant despite the contraction, and there’s still a focus on “going big” for most startup companies.  That said, lean capital efficiency around asset-centric product development with a partner can still drive great returns. In different settings or stages of the market cycle, different deal configurations can make sense.

During the pandemic boom, when the world was awash in capital chasing deals, “going long” as independent company was an easy choice for most teams. But in tighter markets, taking painful levels of equity dilution may be less compelling than securing a lucrative option-based M&A deal.

For historical context, these option-based M&A deals were largely borne out of necessity in far more challenging capital markets (2010-2012) on the venture front, when both the paucity of private financing and the tepid exit environment for early stage deals posed real risks to biotech investment theses. Pharma was willing to engage on early clinical or even preclinical assets with these risk-sharing structures as a way to secure optionality for their emerging pipelines.

As a comparison, in 2012, total venture capital funding into biotech was less than quarter of what it is now, even post bubble contraction, and back then we had witnessed only a couple dozen IPOs in the prior 3 years combined. And most of those IPOs were later stage assets in 2010-2012.  Times were tough for biotech venture capital.  Option-based deals and capital efficient business models were part of ecosystem’s need for experimentation and external R&D innovation.

Many flavors of these option-based deals continued to get done for the rest of the decade, and indeed some are still getting done, albeit at a much less frequent cadence.  Today, the availability of capital on the supply side, and the reduced appetite for preclinical or early stage acquisitions on the demand side, have limited the role of these option to buy transactions in the current ecosystem.

But if the circumstances are right, these deals can still make some sense: a constructive combination of corporate strategy, funding needs, risk mitigation, and collaborative expertise must come together. In fact, Arkuda Therapeutics, one of our neuroscience companies, just announced a new option deal with Janssen.

Stepping back, it’ s worth asking what has been the industry’s success rate with these “option to buy” deals.

Positive anecdotes of acquisition options being exercised over the past few years are easy to find. We’ve seen Takeda exercise its right to acquire Maverick for T-cell engagers and GammaDelta for its cellular immunotherapy, among other deals. AbbVie recently did the same with Mitokinin for a Parkinson’s drug. On the negative side, in a high profile story last month, Gilead bailed on purchasing Tizona after securing that expensive $300M option a few years ago.

But these are indeed just a few anecdotes; what about data since these deal structures emerged circa 2010? Unfortunately, as these are mostly private deals with undisclosed terms, often small enough to be less material to the large Pharma buyer, there’s really no great source of comprehensive data on the subject. But a reasonable guess is that the proportion of these deals where the acquisition right is exercised is likely 30%.

This estimate comes from triangulating from a few sources. A quick and dirty dataset from DealForma, courtesy of Tim Opler at Stifel, suggests 30% or so for deals 2010-2020.  Talking to lawyers from Goodwin and Cooley, they also suggest ballpark of 30-50% in their experience.  The shareholder representatives at SRS Acquiom (who manage post-M&A milestones and escrows) also shared with me that about 33%+ of the option deals they tracked had converted positively to an acquisition.  As you might expect, this number is not that different than milestone payouts after an outright acquisition, or future payments in licensing deals. R&D failure rates and aggregate PoS will frequently dictate that within a few years, only a third of programs will remain alive and well.

Atlas’ experience with Option-based M&A deals

Looking back, we’ve done nearly a dozen of these option-to-buy deals since 2010. These took many flavors, from strategic venture co-creation where the option was granted at inception (e.g., built-to-buy deals like Arteaus and Annovation) to other deals where the option was sold as part of BD transaction for a maturing company (e.g., Lysosomal Therapeutics for GBA-PD).

Our hit rate with the initial option holder has been about 40%; these are cases where the initial Pharma that bought the option moves ahead and exercises that right to purchase the company. Most of these initial deals were done around pre- or peri-clinical stage assets.  But equally interesting, if not more so, is that in situations where the option expired without being exercised, but the asset continued forward into development, all of these were subsequently acquired by other Pharma buyers – and all eight of these investments generated positive returns for Atlas funds. For example, Rodin and Ataxion had option deals with Biogen (here, here) that weren’t exercised, and went on to be acquired by Alkermes and Novartis (here, here). And Nimbus Lakshmi for TYK2 was originally an option deal with Celgene, and went on to be purchased by Takeda.

For the two that weren’t acquired via the option or later, science was the driving factor. Spero was originally an LLC holding company model, and Roche had a right to purchase a subsidiary with a quorum-sensing antibacterial program (MvfR).  And Quartet had a non-opioid pain program where Merck had acquired an option.  Both of these latter programs were terminated for failing to advance in R&D.

Option deals are often criticized for “capping the upside” or creating “captive companies” – and there’s certainly some truth to that. These deals are structured, typically with pre-specified return curves, so there is a dollar value that one is locked into and the presence of the option right typically precludes a frothy IPO scenario. But in aggregate across milestones and royalties, these deals can still secure significant “Top 1%” venture upside though if negotiated properly and when the asset reaches the market: for example, based only on public disclosures, Arteaus generated north of $300M in payments across the upfront, milestones, and royalties, after spending less than $18M in equity capital. The key is to make sure the right-side of the return tail are included in the deal configuration – so if the drug progresses to the market, everyone wins.

Importantly, once in place, these deals largely protect both the founders and early stage investors from further equity dilution. While management teams that are getting reloaded with new stock with every financing may be indifferent to dilution, existing shareholders (founders and investors alike) often aren’t – so they may find these deals, when negotiated favorably, to be attractive relative to the alternative of being washed out of the cap table. This is obviously less of a risk in a world where the cost of capital is low and funding widely available.

These deal structures also have some other meaningful benefits worth considering though: they reduce financing risk in challenging equity capital markets, as the buyer often funds the entity with an option payment through the M&A trigger event, and they reduce exit risk, as they have a pre-specified path to realizing liquidity. Further, the idea that the assets are “tainted” if the buyer walks hasn’t been borne out in our experience, where all of the entities with active assets after the original option deal expired were subsequently acquired by other players, as noted above.

In addition, an outright sale often puts our prized programs in the hands of large and plodding bureaucracies before they’ve been brought to patients or later points in development. This can obviously frustrate development progress. For many capable teams, keeping the asset in their stewardship even while being “captive”, so they can move it quickly down the R&D path themselves, is an appealing alternative to an outright sale – especially if there’s greater appreciation of value with that option point.

Option-based M&A deals aren’t right for every company or every situation, and in recent years have been used only sparingly across the sector. They obviously only work in practice for private companies, often as alternative to larger dilutive financings on the road to an IPO. But for asset-centric stories with clear development paths and known capital requirements, they can still be a useful tool in the BD toolbox – and can generate attractive venture-like returns for shareholders.

Like others in the biotech ecosystem, Atlas hasn’t done many of these deals in recent funds. And it’s unlikely these deals will come back in vogue with what appears to be 2024’s more constructive fundraising environment (one that’s willing to fund early stage stories), but if things get tighter or Pharma re-engages earlier in the asset continuum, these could return to being important BD tools. It will be interesting to see what role they may play in the broader external R&D landscape over the next few years.

Most importantly, circling back to point of the blog, kudos to the team at IFM and our partners at Novartis!

The post IFM’s Hat Trick and Reflections On Option-To-Buy M&A appeared first on LifeSciVC.

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