Mad Hedge Biotech & Healthcare Letter
August 5, 2021
Fiat Lux
FEATURED TRADE:
(LET THE BIOTECH BUYOUTS BEGIN)
(TBIO), (SNY), (MRNA), (PFE), (BNTX), (ARCT), (GSK), (JNJ), (MRK), (BLUE), (CVAC)
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One of my predictions for this year just came true: the biotechnology buyouts have begun.
In my letter last January, I forecasted that the growing popularity of the mRNA technology courtesy of the COVID-19 vaccines from Moderna (MRNA) and Pfizer (PFE / BioNTech (BNTX) would trigger acquisitions of smaller biotechnology companies this year.
I predicted that bigger players in the healthcare industry would scoop up smaller players to stake a claim in this quickly growing space.
Topping our list of buyout candidates is Translate Bio (TBIO)—the very same company hogging headlines in the past days following its $3.2 billion acquisition by Sanofi (SNY).
The all-cash deal values each TBIO share at $38, representing a premium of over 30% above the stock’s price. If all goes well, the deal should be completed by the third quarter of 2021.
This is one of the first major moves by Sanofi following the healthcare giant’s recent pivot into vaccines.
However, this isn’t the first time Sanofi and TBIO worked together.
The two companies have actually started collaborating back in 2018, working on a potential mRNA-based flu vaccine—a project that has Sanofi and TBIO ahead of the pack, with BioNTech and Arcturus Therapeutics Inc. (ARCT) trailing behind.
Sanofi and TBIO’s mRNA seasonal flu vaccine candidate is expected to commence with Phase 1 results expected to be out by the fourth quarter of this year.
Considering that Sanofi is one of the leading vaccine makers in the world with roughly $3 billion in sales in flu vaccines alone in 2020, it won’t come as a surprise if their candidate breezes through the trials.
Even prior to this acquisition, Translate Bio has been working on using its mRNA platform to develop vaccines and treatments for a broad range of diseases like liver and pulmonary ailments.
So far, its novel pipeline has 2 clinical-stage programs along with 7 pre-clinical work covering direct therapeutics and vaccines.
One of its lead candidates is MRT5005, which is an mRNA-based therapy for cystic fibrosis (CF).
This is a groundbreaking treatment because it takes advantage of mRNA’s capability to deliver proteins to lung cells. It’s also extremely non-invasive, as patients can simply inhale the mRNA drug into their bodies.
Other than helping with the treatment of CF, this inhalation delivery system can also open avenues for other pulmonary targets.
Most importantly, TBIO’s MRT5005 doesn’t only offer treatments. It actually is a cure for CF.
TBIO’s work on CF treatment is extremely important. This disease is terrible, recording a median age of death among patients in the US as 30.6 years old. In this country alone, over 30,000 people suffer from the condition, and more than 70,000 are recorded worldwide—and the numbers continue to climb each year.
In terms of the CF market, the global demand for treatments for this disease is expected to reach $16.3 billion by 2026, hitting roughly 16.8% in CAGR over the years.
With the acquisition of Translate Bio, Sanofi plows ahead of its competitors in the space, including Pfizer, GlaxoSmithKline (GSK), Johnson & Johnson (JNJ), and Merck (MRK), as the sole Big Pharma company with a wholly-owned in-house mRNA platform.
This is on top of Sanofi’s recent $470 buyout of another mRNA company, Tidal Therapeutics, to bolster its immuno-oncology and inflammatory diseases segments.
Apart from its aggressive buyout strategy, Sanofi also announced its plan to allocate roughly $476 million annually to a “vaccines mRNA Center of Excellence” with the goal of queuing at least six mRNA-based candidates in clinical trials by 2025.
Allotting $476 million to this plan is a telling move on the company’s future direction, as it comprises a substantial fraction of Sanofi’s $6.5 billion overall R&D budget.
These moves strongly signal that Sanofi’s going all-in on the mRNA platform, which could obviously pose a challenge to the likes of Moderna and, of course, BioNTech.
With smaller cap companies like bluebird Bio (BLUE) and CureVac (CVAC) still up for grabs, it’s only a matter of time before another big company decides to follow suit.
Global Market Comments
March 31, 2020
Fiat Lux
Featured Trade:
(MORE PLAYERS ENTER THE RACE FOR A CORONA CURE)
(MRNA), (ARCT), (JNJ), (SNY), (GOVX), (ALT), (NVAX), (GSK), (GNBT), (VXL.V), (INO), (APDN), (CADILAHC)
Mad Hedge Biotech & Healthcare Letter
March 31, 2020
Fiat Lux
Featured Trade:
(MORE PLAYERS ENTER THE RACE FOR A CORONA CURE)
(MRNA), (ARCT), (JNJ), (SNY), (GOVX), (ALT), (NVAX), (GSK), (GNBT), (VXL.V), (INO), (APDN), (CADILAHC)
Special issue on COVID-19 vaccines: Moderna Inc (MRNA), Arcturus (ARCT), Johnson & Johnson (JNJ), Sanofi (SNY), GeoVax (GOVX), Altimmune (ALT), Novavax (NVAX), GlaxoSmithKline (GSK), Generex (GNBT), Vaxil Bio (VXL.V), Inovio Pharmaceuticals (INO), Applied DNA Sciences (APDN), Zydus Cadila (CADILAHC)
The hunt is definitely underway for potential treatments to fight COVID-19 but coming up with vaccines will take a much longer time.
Since we already have the genetic code of the novel coronavirus (click here for the link), researchers can now use the complete blueprint to come up with ways to defeat this disease.
With code in hand, it takes a supercomputer just three hours to create model vaccines. Then it is just a question of how fast you can make them, if at all. Many proposed models are far beyond our existing technology.
To date, there are roughly 35 companies and academic organizations actively seeking ways to come up with a COVID-19 vaccine. While the process will still take time, there are several promising prospects.
Among the companies working on this, Moderna Inc (MRNA) has been recognized as the first biotechnology company to conduct human trials to test its COVID-19 vaccine in March. The trial includes 45 males and non-pregnant females aged 18 to 55.
Moderna’s vaccine utilizes the genetic sequence of the novel coronavirus. Basically, the goal is to build a vaccine out of messenger RNA.
Aside from Moderna, another biotech company called Curevac has been at the forefront of this cutting-edge technology.
In China, RNACure Biopharma has been working with Fudan University and Shanghai JiaoTong University on using the same technique to come up with a vaccine as well.
China’s CDC along with Tongji University and Stermina as well as Duke-NUS in partnership with Arcturus (ARCT) are also using a similar approach.
Although Moderna’s vaccine reached Phase 1 in record time, authorities cautioned that the development time frame is somewhere between 12 and 18 months — and this is even dubbed as an “overly optimistic” timeline.
Meanwhile, there are companies like Sanofi Pasteur (SNY) elected to use previously deployed vaccine platforms in earlier epidemics like SARS.
Johnson & Johnson (JNJ) also decided to employ the same strategy using its Ebola vaccine platform. In fact, JNJ shared that it’ll be ready to conduct human testing of its non-replicating viral vector by November.
Aside from JNJ, another biotechnology company in China called CanSino Biologics (HKG: 6185) in collaboration with the Academy of Military Medical Sciences is utilizing the same technology.
Just last week, Chinese authorities approved CanSino’s Phase 1 clinical trials.
Apart from JNJ and CanSino, other biotechnology companies are also working on a vaccine using the same non-replicating viral vector technology.
The list includes Wuhan’s BravoVax along with GeoVax (GOVX), Altimmune (ALT), Vaxart (VXRT), Greffex, and the University of Oxford.
Another strategy is employed by Novavax (NVAX), which is to construct a “recombinant” vaccine.
In a nutshell, this strategy entails extraction of the genetic code for the protein found on the Sars-CoV-2. This is a part of the virus that can trigger the immune system. This will then be pasted into the genome of a bacterium or yeast.
In effect, this vaccine will force the microorganisms to produce huge quantities of the protein to be able to fight off the virus.
Big biotechnology companies like Sanofi and GlaxoSmithKline (GSK) are following the same technique.
Smaller firms are also in on the action including Generex Biotechnology Corporation (GNBT), Vaxil Bio (VXL.V), EpiVax, and Clover Biopharmaceuticals.
The University of Georgia, Baylor College of Medicine, and the University of Miami are pursuing the same lead as well.
On top of these, several biotechnology companies use a DNA-based approach to come up with a vaccine.
Last March 12, the Bill & Melinda Gates Foundation provided a $5 million grant to Pennsylvania-based biotech firm Inovio Pharmaceuticals (INO) to help the company speed up the tests needed for its DNA vaccine called INO-4800.
This is on top of the roughly $9 million in funding it received from the Coalition for Epidemic Preparedness Innovations earlier.
At the moment, INO-4800 is in preclinical studies with plans to push it to Phase 1 clinical trials by April.
Aside from Inovio, Applied DNA Sciences (APDN), Zydus Cadila (CADILAHC), Takis, and Evivax are also pursuing the same strategy.
Despite implementing the most effective and even draconian measures to contain COVID-19, these tactics only managed to slow down the spread of the virus.
With the World Health Organization tagging this situation as a pandemic, everyone has become more desperate in the search for a vaccine because only a vaccine can stop people from getting sick.
However, even the unprecedented speeds afforded, the biotechnology companies couldn’t change the fact that developing a vaccine requires at least a year. It’s crucial to not make mistakes along the way especially since the product could potentially be injected into most of the world’s population.
After all, there’s only a single thing that can be considered worse than a bad virus — and that is a bad vaccine.
