Pediatric respiratory diseases are among the most common and serious health
challenges we face worldwide. From examples such as respiratory syncytial virus
(RSV) to pertussis (also known as whooping cough), these infections can cause
significant illness, hospitalizations, and with some, possible long-term
consequences.[1],[2] Worldwide, RSV causes approximately 3.6 million
hospitalizations and 100,000 deaths each year in children under five years of
age.[3] Yet, many of these infections may be prevented, if we continue to
prioritize and strengthen immunization.
Immunization is not just a scientific achievement; it’s a public health
imperative. And in this new era, Sanofi is at the forefront, driving innovation
and access to pediatric immunization, especially when it comes to respiratory
disease prevention. Our commitment is global, our ambition bold: to help protect
people everywhere against preventable illnesses, with the confidence that every
child, every parent, every person, and every healthcare professional deserves.
> Immunization is not just a scientific achievement; it’s a public health
> imperative.
RSV, a leading cause of infant hospitalizations globally, exemplifies both the
challenge and the opportunity.[4],[5],[6],[7] With an estimated 12.9 million
lower respiratory infections and 2.2 million hospitalizations annually among
infants under one year of age,3 the burden is immense. For decades, RSV lacked
preventive options for the broad infant population.
Some countries in Europe are a good illustration of what is possible when
prevention is prioritized. For example, in Galicia, Spain, implementation of a
universal program offered to the broad infant population led to notable
reductions in RSV-related hospitalization compared with previous seasons.[8] The
lesson is clear: when prevention is prioritized like it matters, delivered
equitably and integrated into routine care, the impact is quickly seen.
This principle applies to other childhood respiratory diseases. Hexavalent
combination vaccinations have helped to revolutionize pediatric immunization by
combining protection against six diseases into one vaccine. One of these is
pertussis, which is especially dangerous for children who haven’t received all
their vaccinations yet, and have a four-fold higher risk of contracting whooping
cough.[9] For younger infants pertussis is high risk, with over 40 percent of
infants under six months of age requiring hospitalization.[10] These data
demonstrate how delayed or missed vaccine doses can leave children vulnerable.
By combining vaccines into a single shot, immunization uptake can be improved,
increasing acceptance with efficient and equitable delivery and helping reduce
disease burden at scale.[11],[12]
> Some countries in Europe are a good illustration of what is possible when
> prevention is prioritized. For example, in Galicia, Spain, implementation of a
> universal program offered to the broad infant population led to notable
> reductions in RSV-related hospitalization compared with previous seasons.
Good uptake is crucial for protecting children. Where programs are fragmented,
under-resourced or underfunded, equity gaps worsen along familiar lines –
income, access and information. The recent resurgence of some preventable
diseases is not just a warning; it’s a call to action.[13],[14],[15] Sustaining
protection against respiratory diseases in children, increasing vaccination
coverage rates, and embracing innovation to help protect against more diseases
must be a collective priority.[11],[12]
We must not let misinformation or complacency erode public trust in
immunization. The evidence is clear: prevention works. Today, we have a unique
opportunity to showcase that impact and redefine the future of respiratory
health in children.
> We must not let misinformation or complacency erode public trust in
> immunization. The evidence is clear: prevention works.
The science is sound. The approach for protecting infants against respiratory
infections is clear. Our children deserve nothing less.
--------------------------------------------------------------------------------
[1] Glaser EL, et al. Impact of Respiratory Syncytial Virus on Child, Caregiver,
and Society. Journal of Infectious Diseases. 2022;226(Supplement_2):S236-S241
[2] Kardos P, et al. Understanding the impact of adult pertussis and its
complications. Hum Vaccin Immunother. 2024.
[3] Li Y, Wang X, Blau DM, et al. Global, regional, and national disease burden
estimates of acute lower respiratory infections due to respiratory syncytial
virus in children younger than 5 years in 2019: a systematic analysis. Lancet
2022;399:2047-2064.
[4] Leader S, Kohlhase K. Respiratory syncytial virus-coded pediatric
hospitalizations, 1997 to 1999. The Pediatric infectious disease journal.
2002;21(7):629-32.
[5] McLaurin KK, Farr AM, Wade SW, Diakun DR, Stewart DL. Respiratory syncytial
virus hospitalization outcomes and costs of full-term and preterm infants.
Journal of Perinatology: official journal of the California Perinatal
Association. 2016;36(11):990-6.
[6] Rha B, et al. Respiratory Syncytial Virus-Associated Hospitalizations Among
Young Children: 2015-2016. Pediatrics. 2020;146:e20193611.
[7] Arriola CS, et al. Estimated Burden of Community-Onset Respiratory Syncytial
Virus-Associated Hospitalizations Among Children Aged <2 Years in the United
States, 2014-15. J Pediatric Infect Dis Soc. 2020;9:587-595.
[8] Ares-Gómez S, et al. NIRSE-GAL Study Group. Effectiveness and impact of
universal prophylaxis with nirsevimab in infants against hospitalisation for
respiratory syncytial virus in Galicia, Spain: initial results of a
population-based longitudinal study. Lancet Infectious Diseases. 2024; 24:
817-828.
[9] Centers for Disease Control and Prevention. 2019 Final Pertussis
Surveillance Report. Accessed 4 March 2025
[10] Glanz, J. M., et al. (2013) Association between undervaccination with
diphtheria, tetanus toxoids, and acellular pertussis (DTaP) vaccine and risk of
pertussis infection in children 3 to 36 months of age. JAMA Pediatr. doi:
10.1001/jamapediatrics.2013.2353
[11] Fatima M, Hong KJ. Innovations, Challenges, and Future Prospects for
Combination Vaccines Against Human Infections. Vaccines (Basel). 2025 Mar
21;13(4):335. doi: 10.3390/vaccines13040335. PMID: 40333234; PMCID: PMC12031483.
[12] Maman K, Zöllner Y, Greco D, Duru G, Sendyona S, Remy V. The value of
childhood combination vaccines: From beliefs to evidence. Hum Vaccin Immunother.
2015;11(9):2132-41. doi: 10.1080/21645515.2015.1044180. PMID: 26075806; PMCID:
PMC4635899.
[13] Liu J, Lu G, Qiao J. Global resurgence of pertussis in infants BMJ 2025;
391 :r2169 doi:10.1136/bmj.r2169
[14] Jenco M. AAP, CHA call for emergency declaration to address surge of
pediatric illnesses. AAP News. 2022
[15] Wang, S., Zhang, S., & Liu, J. (2025). Resurgence of pertussis:
Epidemiological trends, contributing factors, challenges, and recommendations
for vaccination and surveillance. Human Vaccines & Immunotherapeutics, 21(1).
https://doi.org/10.1080/21645515.2025.2513729
MAT-GLB-2506084
Tag - Evolution of health care
It could have been the ominous cold open to a classic Bond film.
The Russian and Chinese leaders caught on a hot mic at a Beijing military
parade, casually musing about cheating death.
“With the development of biotechnology, human organs can be continuously
transplanted and people can live younger and younger, and even achieve
immortality,” Russian leader Vladimir Putin told Chinese ruler Xi Jinping, his
tone half clinical, half conspiratorial.
“Predictions are that this century, there is a chance of living to 150,” Xi
replied.
But this wasn’t a scriptwriter’s villainous fantasy. It was a jaw-droppingly
real exchange between two of the world’s most powerful, heavily armed leaders.
While it may have sounded absurd, behind palace walls, the obsession with
longevity is more than idle chatter.
The Russian and Chinese leaders were caught on a hot mic at a Beijing military
parade, casually musing about cheating death. | Pool photo by Alexander
Kazakov/AFP via Getty Images
In 2024, the Kremlin ordered scientists to fast-track anti-aging research on
cellular degeneration, cognitive decline and the immune system. Meanwhile, China
has also been pouring resources into exploring nanotechnology-delivered hydrogen
therapy and compounds such as betaine and lithocholic acid, hoping to slow down
aging and extend healthy lifespans.
But even as the world’s autocrats fantasize about replacing body parts like car
tires, the science remains far less accommodating.
James Markmann, executive council president at the American Society of
Transplant Surgeons, called Xi and Putin’s idea of living to 150 through
transplants “unfounded.”
“There is currently no evidence suggesting that living to 150 years of age is
possible through organ transplantation,” Markmann said. “While there is much
interest in related research and some progress in intervening in the aging
process, there is no evidence that a 150-year lifespan can currently be
achieved.”
While organ transplantation can and does save lives, there’s no data that it can
also slow or reset an individual’s biological clock, Markmann said. Replacing a
single organ, or even several, may improve health temporarily, but it cannot
halt the overall aging process of the body.
“The concerning idea here is that there is a surplus of organs available that
can consistently be replenished for a single individual to prolong their life;
this is simply not the case,” Markmann said.
THE OLDEST OBSESSION
The Xi-Putin exchange didn’t happen in a vacuum. History is littered with rulers
who believed they could outsmart death.
Qin Shi Huang, China’s first emperor, swallowed mercury pills in pursuit of
eternal life, a habit that eventually killed him. Egyptian pharaohs mummified
themselves for eternity, Cleopatra dabbled in youth potions and medieval
alchemists peddled elixirs. By the 20th century, Russia’s last czar, Nicholas
II, and Empress Alexandra were consulting Rasputin and other mystics for advice
on health and longevity.
Today, the same quest has migrated to Silicon Valley, where the mega-rich pour
fortunes into cryonics, anti-aging biotech and “biohacking” in the hope of
buying more time.
According to Elizabeth Wishnick, an expert on Sino-Russian relations and senior
research scientist at the Center for Naval Analyses (CNA), a non-partisan
research and analysis organization, this fixation is typical of the world’s
wealthiest and most powerful.
“They want to go into outer space, they want to go underwater … the human body
for them is just another frontier,” she told POLITICO. “It’s logical for people
who don’t feel limits to try to extend those boundaries.”
But there’s a stark contrast close to home. Life expectancy in Russia remains
just over 73 years, while in China, it hovers around 79 years, with access to
healthcare being deeply unequal.
In Wishnick’s view, Xi and Putin “would do better to focus on that, but instead
their focus seems to be on their own longevity, not the health of their
societies.”
UNFINISHED BUSINESS
There’s also a significant cultural dimension agitating Xi and Putin.
Robert Jay Lifton, the American scholar who coined the term “symbolic
immortality,” argued that humans invent religions, nations and political
legacies as ways of cheating death. Xi’s mantra of “national rejuvenation” and
Putin’s mission to restore a “great Russia” fit neatly into that framework —
even if they can’t physically live forever.
“Both of them are really hostage to their own propaganda,” said Wishnick. “They
truly believe they are the only leaders who can do the job. They’re concerned
about their legacy and how they’ll be remembered in history.”
That, she said, helps explain their obsession with reclaiming “lost” territories
— Taiwan for Beijing; Ukraine for Moscow — as if completing unfinished maps
might also complete their historical destinies.
Qin Shi Huang’s attempt at immortality, the Terracotta Army, still stands today.
| Forrest Anderson/Getty Images
They’ve made creeping moves toward that goal domestically. Xi has upended
China’s tradition of leadership turnover to maintain his dominance, while Putin
has dismantled elections and eliminated rivals until only he remains. “It’s not
surprising they would look to science as a way of extending that,” Wishnick
added.
While the scientific limitations persist, immortality will — at least for the
time being — remain tied to public consciousness and memory. See, for example,
Qin Shi Huang’s Terracotta Army, which still stands, or Russia’s expansionist
czar, Peter the Great, an 18th-century leader who inspires Putin even today.
But even in a world of nanotech and organ swaps, immortality has a catch: you
still have to live with yourself. And for the world’s Bond villains, that might
be the cruelest sentence of all.
An estimated one-third of people in the European Union will be over the age of
65 by 2050 . Add in lifestyle risk factors and socio-economic differences, and
it is clear Europe needs to act fast to upgrade its health systems to improve
life for patients.
To achieve this, Europe needs to improve the global competitiveness of its
regulatory framework in order to get medical innovation to patients faster.
Europe should be commended for the speed, transparency and efficiency of its
regulators in responding to the Covid-19 pandemic. However, these efficiencies
have not endured. The European regulatory system takes about 120 days longer
than regulatory systems in the United States and Japan.[1] Such delays, combined
with complex country-level market access systems, mean patients in Europe are
waiting an average of 20 months longer than people living in the United States
to benefit from scientific innovation.
The data means large numbers of Europeans living with cancer, cardiovascular
conditions and other difficult-to-treat conditions may be missing out on
medicines that could help them. Furthermore, they have far less opportunities
to access much-needed care.
Alzheimer’s disease — a progressive, fatal condition — is just the latest
example. After more than three decades of dedicated research investment, two new
breakthrough treatments were recently approved in a number of countries,
including the United States, Japan and China, the first that can delay the
progression of early symptomatic Alzheimer’s disease. This makes it possible for
patients to have more time to live independently, relieving some of the
tremendous financial and emotional burden on families and caregivers. These new
medicines have comparable efficacy, safety and costs to other biologic medicines
already approved for cancer and autoimmune conditions.
> The millions of people across Europe are suffering from this relentless and
> fatal disease and will have to keep waiting.
Yet in Europe there is little evidence that these breakthrough medicines are
even available. European regulators have been reviewing one of these medicines
for a staggering 26 months — and market authorization is still pending. In sharp
contrast, regulators in Japan completed their review in eight months, and China
and the United States each took about 13 months to issue full marketing approval
for the same medicine. In the case of a second medicine, made by my company,
Lilly, after 20 months from submission the scientific committee of the European
Medicines Agency (EMA) recommended against approving it at all — even though
regulators in 10 other countries already have. The millions of people across
Europe are suffering from this relentless and fatal disease and will have to
keep waiting.
These delays undermine the European Commission’s goal to improve Europe’s
competitiveness. Europe is at a crossroads on whether it can deliver on the
recommendations of the Commission’s Draghi report, which calls out the “slow and
complex EU regulatory framework” as one of the factors underpinning the EU’s
competitive gap.
The pharmaceutical industry spends more than four times as much on research and
development in the United States than in Europe, despite our much larger
population.[2] Europe’s fragmented system for clinical trial approvals has also
cut the region’s share of clinical trials by nearly half over the past decade,
depriving at least 60,000 Europeans of the opportunity to benefit from
groundbreaking clinical studies.[3]
One way to change this is to expand the use of expedited approval pathways for
new medicines. In 2023, only 3 percent of reviews by the EMA used an expedited
pathway, compared with 62 percent in the United States and 33 percent in Japan.
> Europe is at a crossroads on whether it can deliver on the recommendations of
> the Commission’s Draghi report, which calls out the “slow and complex EU
> regulatory framework” as one of the factors underpinning the EU’s competitive
> gap.
The voice of patients is also woefully missing from the regulatory process,
which needs to introduce additional ways to incorporate their perspectives in
weighing benefits and risks.
When medicines show clinically meaningful effects and have well-characterized,
manageable and monitorable safety profiles, EU regulators should enable
physicians and patients to decide whether these medicines are the right choice
for them.
If EU policymakers desire to encourage more companies to invest in Europe, they
need a modernized regulatory framework with sufficient resources to deliver
approvals for clinical trials and new medicines at pace and on a consistent
scientific basis with regulators in the United States and Asia.
Europe can either strengthen its competitiveness by creating a regulatory
environment that improves patient access to innovative treatments for diseases
like Alzheimer’s or it can continue to see declining investment in the health of
its citizens. Which path will EU leaders choose?
--------------------------------------------------------------------------------
[1] Centre for Innovation in Regulatory Science (2024) R&D Briefing 93: New drug
approvals in six major authorities 2014-2023: Changing regulatory landscape and
facilitated regulatory pathways. Centre for Innovation in Regulatory Science
(CIRS), London, UK:
https://cirsci.org/wp-content/uploads/dlm_uploads/2024/07/CIRS-RD-Briefing-93-six-agency-briefing-v2.0.pdf.
[2] Organisation for Economic Co-operation and Development, Figure 10.12 in
“Health at a Glance 2019: OECD Indicators”:
https://www.oecd-ilibrary.org/docserver/4dd50c09-en.pdf?expires=1598376941&id=id&accname=guest&checksum=ACAEE105A158161FA44800557714694B.
[3] IQVIA, Assessing the clinical trial ecosystem in Europe, Final Report,
October 2024: efpia_ve_iqvia_assessing-the-clinical-trial-ct-ecosystem.pdf.