From SBS’ Executive Director
Alternative Futures are Now
By Christine Giordano
Are you ready for a stroll down memory lane? This year marks the 40th anniversary of the television show Star Trek—a futuristic look into the 23rd Century. It was actually 1964 when the show’s creator, Gene Roddenberry, created the first pilot. Television producers at that time thought the show was “too cerebral” and the pilot was turned down. However, the concept was interesting enough to earn Mr. Roddenberry a chance at a second
pilot. The second time was a charm, and the show went on the air in 1966.
The intergalactic Starship Enterprise was chock full of new technological wonders that were quite impressive at the time— so
much so that the series grabbed the attention of scientists and influenced a generation of engineers, inspiring them to
challenge accepted scientific theories and turn new concepts into reality. While Mr. Roddenberry was ahead of his time,
the technology moved forward faster than even he predicted. Many of today’s popular products are reflections of some
of the props first seen on this show:
- Palm One and the Treo were actually designed on the flip-top voice-activated communicators used by the crew.
- The Internet closely resembles the online database used by the crew to access infinite amounts of information.
- Magnetic resonance imaging and computed tomography scans provide non-invasive medical assessments of the kind that
were feigned by Dr. McCoy’s tricorder readouts.
- Conducting laser surgery has become fairly routine in many cases.
Many were skeptical and some were threatened by the use of robots—but robotics has taken on vital roles not only
in the lab but also as a means of giving people back their independence. Take, for example, a biotechnology company called
Cyberkinetics Neurotechnology Systems, which has created silicon arrays the size of a baby aspirin that turn brainwaves
into electronic computer commands for quadriplegics and others who are paralyzed. Robotic-assisted surgeries have also
been shown to be more precise over time compared with manual procedures.
“Wow” Factor
Star Trek has certainly raised the bar for the “Wow” factor in new technologies. Today, there is new excitement
and speculation about the implications of nanotechnology. Futurists are predicting that nanotechnology will have widespread
applications in medical therapies (among many other uses) and will likely be in clinical use by 2025. Imagine the possibility
of ultra-tiny machines that can monitor an individual’s health, remove cholesterol plaques from arteries, and destroy
cancer cells before they can form tumors.
Nanotechnology is already being employed to control biological threats. A company named Fast-Act has developed a fast-acting
powder made of nanostructured crystals of magnesium oxide and titanium oxide. When released from a pressurized cylinder,
this substance can quickly neutralize mustard gas, VX nerve gas, and other toxic threats by absorbing them and leaving
behind a harmless solid to be swept up.
Scientific and technological advancements will not be slowing down any time soon. But whereas resourcefulness continues
to push the boundaries of science forward, we are increasingly being forced to look back. Globalization is behind this
dichotomy.
- Diseases such as HIV and severe acute respiratory syndrome (SARS), as well as strains of mutated viruses for many infectious
diseases, are spreading rapidly throughout the world, no longer restricted by geographic or economic boundaries.
- Every day, news items warn of the threat of an avian flu pandemic. Scientists are working feverishly to develop sufficient
vaccine and study the illness more closely in the hopes of avoiding global outbreaks.
- Previously neglected diseases, such as tuberculosis, dengue fever, malaria, West Nile virus and various parasitic infestations
are becoming more widespread, and the threat of transmission is raising the level of awareness within drug- discovery circles.
- Diseases that were once thought eradicated (such as poliomyelitis) have resurfaced in India and Pakistan, and elsewhere
in the world.
- Widespread use of antibiotics has created new resistant strains of bacteria and there is a great need for new methods
to overcome these “super bugs”.
- As the population ages, increasingly the world will be faced with a growing number of people affected by Alzheimer’s
disease. In developed countries, about 2% of the population already suffers from this illness. By 2054. the number of Alzheimer’s
patients globally could potentially increase by a factor of three in the absence of any advances.
A More Informed Future
SBS is in the business of keeping its members abreast of industry news and trends—but more importantly, SBS is here
to help its members share ideas, challenge current concepts, and hopefully envision alternative futures that will push
the frontiers of understanding the mechanisms of diseases and their treatments. This was part of the reason that the society
branched out to be more inclusive of other aspects of the science of drug discovery. We want to provide our members with
opportunities to explore a wider range of viewpoints, sometimes reaching out to different industries, in the hope that
this may spawn new ideas and give rise to looking at problems or applications in new ways.
When Gene Roddenberry created Star Trek, I wonder if he could have envisioned the impact his program would have on the
future of technology. Clearly, some of the best ideas will be discovered in the most unlikely places. So take this to heart:
The ideas are out there to be found, conceptualized, and expanded upon—and then, run with them!
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Conference Keynote
Nils Daulaire: Urging Biomolecular Scientists to Make a “Real Difference” in the World
Interviewed by Marilynn Larkin
Dr. Nils Daulaire is President and CEO of the Global Health Council, the world’s largest membership alliance of public health professionals and organizations working in more than 100 low-income countries,
and dedicated to raising the attention, resources, and knowledge needed to improve health worldwide. He is presenting a keynote
address, entitled Making a Difference on a Global Scale, at the SBS 12th Annual Conference & Exhibition in Seattle
(September 17-21), and is a featured speaker in an SBS special event for conference participants and the general public.
The event,
Global Health Forum: Impact of Globalization on Drugs and Diseases, will take place on Tuesday, September 19.
What is your main message for drug-discovery professionals regarding their role in global health?
ND: The bottom line is that a fundamental reconfiguration needs to take place. So much of what’s going on in biomedical
research today is aimed at the high end—affluent populations in the later years of life. However, we must recognize
that the vast majority of years of healthy life lost around the world are occurring among the young, and in developing
countries. While there are therapeutic approaches to many of the diseases that are prevalent in the developing world, very
often the delivery mechanisms are poorly attuned to the difficult conditions under which these people live. So here, too,
the opportunities for really world-changing research is enormous. I accepted the invitation to speak at the SBS conference
in order to engage and activate scientists who are involved on the cutting edges of biomolecular sciences to make a real
difference in the world.
This means shifting priorities from, say, the next generation of statins to something more relevant to diseases of the
developing world?
ND: That’s correct. In my talk, I’ll address issues affecting premature death and disability in the developing
world, which are predominantly—but not exclusively—infectious diseases that affect younger people. Among children,
these include a whole variety of pneumonias and diarrhea-causing diseases, as well as the diseases that people are most
familiar with, namely HIV/AIDS and tuberculosis, and the growing dangers of vector-borne diseases such as malaria. Other
areas that warrant attention and research include new technologies for voluntary management of fertility, and appropriate
means of addressing the emergence of chronic disease as a growing factor of health in the developing world.
It’s clear that you are deeply committed to global health. How did you become involved in this area?
ND: When I went to Harvard Medical School, initially it was very much with the idea of taking a traditional academic approach
to medicine. However, I had an opportunity in the last half of my fourth year in medical school to spend six months in
Asia, and I went to Bangladesh and worked in a primary care rural outreach clinic. I had been struggling throughout medical
school with the question of where and how I could really make a difference, which was the reason I had gone into medicine.
And the Bangladesh experience, coupled with my interest in making a difference on a broad population scale, rather than
on a micro-organelle scale, were really what moved me in the direction of public health first, with global health growing
out of that. My feeling is that the opportunity to save 10 million lives a year is a remarkable one. It is one that the
global health community faces today.
You’ve noted that making a difference involves applying existing technology and creating new technology. What
are
some examples?
ND: Right now, for instance, we have a great technology to remove measles from the face of the earth. Measles kills about
a half million children or more each year. We have a vaccine that’s highly effective, that has been around for decades,
that requires only a single application to provide 95% life-long immunity, and it’s inexpensive at 12 cents per dose.
So from the technological standpoint, we have a pretty good product. Yet. a third of the world’s population are not
immunized against measles. That’s the example where we need to be doing better with technology that we have.
At the same time, we need new technology. One of the reasons that we haven’t optimized measles coverage is that
the measles vaccine is extremely labile. Therefore, a stable vaccine that would perhaps be able to be administered without
injections would be a significant technological step forward that could lead to lots of lives saved.
Of course, we also need better tools for addressing HIV/AIDS, TB, and malaria, as well as better delivery for the tools
that we’ve got.
What has been the greatest challenge in your global health career?
ND: The biggest challenge is being able to reflect on the ‘fullness of the glass,’ if you will. Because there’s
so much needless suffering, it’s easy to become discouraged. Because the conditions of life and medical services
in the places where these diseases are occurring are so challenging, it’s easy to feel that it’s hopeless.
And this is where having been at this for three decades helps me, because I actually see the remarkable progress that has
been made.
Ten years ago, nobody outside the immediate field was even aware of global health. Nobody had it on their radar screen,
certainly not policy makers or the general public. And when you look at the recognition that global health issues have
today, starting with AIDS and moving through a whole range of conditions, there’s been enormous progress in terms
of getting the message out. As a result, the resources available have quadrupled over the last 10 years, and the brain
power going into global health has probably increased by an order of magnitude, so I’d say we’re sitting at
the edge of something monumental. My speaking to the Society of Biomolecular Sciences is, in fact, a marker of that change.
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