When he announced his policy expanding federal funding of
embryonic stem cell research, President Barack Obama was not timid
about proclaiming its benefits. It would, he announced, hasten "a
day when words like 'terminal' and 'incurable' are finally retired
from our vocabulary."
You thought Obama wanted to establish death panels? Actually, he
seems to think he can confer immortality.
That announcement, made in March of last year, dismantled the
limits imposed by the Bush administration. The change, in Obama's
view, was a triumph over ignorance and ideology.
His executive order was, the president claimed, "about
protecting free and open inquiry" and letting scientists "do their
jobs, free from manipulation and coercion, and listening to what
they tell us, even when it's inconvenient." When science wins, he
led us to believe, we all win.
Conspicuously absent from those declarations were facts that
Obama would prefer to omit because they are—well, inconvenient. But
those facts did not elude U.S. District Judge Royce Lamberth, who
on Monday said the revised policy violates federal law.
What facts? A restriction approved by Congress in 1996, and
repeatedly renewed, says federal money may not be used for
"research in which a human embryo or embryos are destroyed." But
the point of Obama's new policy was to pay for experiments using
stem cells harvested from embryos that are killed in the
process.
The administration evaded the ban by stipulating that Washington
could fund such research as long as it didn't fund the part where
the fetus is terminated. Judge Lamberth was not buying.
Embryonic stem cell research, he noted, requires the destruction
of embryos. The federal prohibition, he said, "encompasses
all 'research in which' an embryo is destroyed, not just
the 'piece of research' in which the embryo is destroyed." So any
funding of experiments using such stem cells is forbidden.
Obama imagines that this research may make the word "terminal"
obsolete—except, of course, when applied to the embryos that perish
when their stem cells are taken for scientific inquiry.
President George W. Bush's policy allowed research only on stem
cell lines that had already been established. The idea was to
facilitate studies without creating incentives to destroy
additional embryos. Obama, by contrast, took the view that the
destruction of additional embryos (those "left over" at fertility
clinics) is essential to the march of science.
What's wrong with destroying a 5-day-old embryo that would be
discarded anyway? Nothing, unless you think there is something
wrong with killing a human embryo ostensibly for some greater
good.
If there is nothing wrong with that, though, it's hard to see
what's wrong with destroying an embryo that is 5 weeks old or 5
months old, if its tissue could be used to help people who are
seriously ill. In that case, why limit research to leftover
embryos? It would make more sense to let scientists create embryos
and let them gestate for months, for the sole purpose of destroying
them for their stem cells.
Americans might bridle at that prospect, but proponents of
expanded embryonic stem cell research have spared them from the
contemplation of such unpleasantness. Their campaign focuses on
ends, not means -- alleviating suffering, conquering disease,
letting the blind see and the lame walk.
Such advances are only speculative at this point. But their
allure is such as to discourage us from looking too closely at the
methods needed to bring them about. It's easier to think in terms
of excising tissue from blastocysts than in terms of killing human
embryos. In reality, they are the same thing.
The problem with embryonic stem cell research is that the goals
are so desirable that they override our usual moral impulses. Yuval
Levin, a fellow at the Ethics and Public Policy Center in
Washington, wrote in 2006 in The New Atlantis, "It is very
hard for us to describe something higher than health, or more
important than the relief of suffering, so when relief comes at a
cost, even the cost of cherished principles or self-evident truths,
we all too often pay up."
The court decision against Obama's policy on stem cell research
is a rare exception, which may induce us to reconsider the wisdom
of what we have sanctioned. "Our problem is not that we are lacking
in ethical principles," says Levin, "but rather that we are
forgetful of them."
Last week, a federal district court judge in northern California
issued an injunction against
planting biotech sugar beets next year. Why? He accepted the
activist argument that the U.S. Department of Agriculture (USDA)
must issue a full environmental impact statement (EIS) under the
National Environmental Policy Act before permitting the improved
sugar beets to be grown. An EIS is required when a federal
government agency engages in actions that might be "significantly
affecting the quality of the human environment."
So how are biotech sugar beets (already approved by the USDA,
mind you) significantly affecting the human environment? Activists
at the Center
for Food Safety and the Sierra Club argued in federal court
that sugar beets improved to resist the herbicide glyphosate might
result in the development of superweeds or might interbreed with
organic chard and regular beets.
Let’s consider a few background facts. Sugar beets are the
source of half the sugar produced in the U.S. Biotech sugar beets
were approved as safe for growing by the USDA five years ago. The
frankenbeets at issue in this case are now so popular with farmers
that they constitute 95 percent of the current crop. In fact, there
may not be enough conventional seeds to replace biotech seeds for
next year’s planting.
Meanwhile, weeds
treated with any herbicide tend to become resistant to
those that are applied to them, this is not something peculiar to
biotech plants. And most sugar beets are grown nowhere near organic
chard or red beets and so will have no chance to interbreed with
them. (Even if they did, sugar beets are typically harvested before
they flower and so don’t get a chance to produce pollen in the
first place.)
In the bigger picture, it might be fair to ask why regular
farmers who are growing biotech crops are forced to worry about
meeting unscientific process standards that organic farmers have
imposed on themselves. If organic farmers insist on no cross
pollination from biotech crops, they can pay local beet farmers to
grow something else or look into other options besides an across
the board ban. The U.S. government has also
subsidized the production of sugar from beets and limits the
import of sugar from cheaper foreign producers, so if anti-biotech
activists really want to substantially cut the growing of biotech
beets, opposition to sugar subsidies and sugar import tariffs might
be a better place to start.
More worryingly, these unscientific attacks on agricultural
biotechnology are producing another consequence that the same
anti-biotech activists often decry—the increasing consolidation of
the seed industry over the past two decades.
I regularly cover activist gatherings at which the biotech
agriculture company Monsanto is denounced as the devil incarnate.
Why? Because the St. Louis company is allegedly monopolizing seeds.
Last year Dupont, which owns Pioneer Hybrid Seeds, a big competitor
of Monsanto, claimed in filings with the U.S. Justice Department
that 95 percent of all the soybeans and 60 percent of all the corn
planted in the U.S. contained genes licensed from Monsanto.
Monsanto
responded that it actually sold a much lower percentage of
seeds on the market, although the company admitted that most
independent seed companies licensed and sold seeds using its
herbicide and insect resistant traits. In fact, biotech crop
varieties are so popular with American farmers that seeds for
non-biotech corn, cotton, and soybeans constituted only about 13
percent of the varieties offered last year.
Decades ago there were hundreds of seed companies competing for
farmers’ business. Now the U.S. seed market is dominated by
Monsanto, Dupont, and Syngenta, which sell more than 40 percent of
seeds for all major crops in the U.S. In the 1990s, agricultural
chemical companies began to integrate with seed companies, offering
farmers very attractive packages of high quality seeds and the
chemicals that would protect them from weeds. How attractive? As
one California cotton farmer
explained recently to Forbes magazine, his organic
fields cost $500 per acre to weed by hand while killing weeds by
spraying Monsanto’s glyphosate on his biotech herbicide resistant
cotton fields costs only $30 an acre.
This process of consolidation is being substantially abetted by
the growing web of regulations and litigation pushed by
anti-biotech activists. Already biotech crops must pass muster
through the USDA, the Environmental Protection Agency, and the Food
and Drug Administration for health and environmental safety. The
system is becoming almost as complicated and onerous as the
gauntlet that pharmaceutical companies must run in order to get
their products to patients. By treating crops like drugs, the
government and activists make sure that getting them approved costs
ever more. “The result is that only large firms, pursuing
high-value commodity crops are willing to front the money to get a
transgenic crop approved for commercial cultivation,” notes Gregory
Conko, a Competitive Enterprise Institute policy analyst and
co-author of
The Frankenfood Myth: How Protest and Politics Threaten the Biotech
Revolution. Conko adds, “The EIS requirement will, of
course, add considerably to the time and expense of getting a crop
through the regulatory apparatus.” Monsanto's shareholders will be
the biggest beneficiaries.
Unlike drugs which can sell for beaucoup bucks, crops are
commodities that sell for dollars per bushel. So only big companies
can marshal the financial and legal resources required to get
approval for crops that sell by millions of bushels and bales,
corn, soybean, canola, and cotton. Meanwhile the biotech
improvement of smaller niche crops, say tomatoes and green beans,
that might benefit even backyard gardeners remains stymied.
Conko also points out, “The EIS requirement long ago ceased
being just about a look at likely ecological impacts, and now must
include any and all potential effects on the ‘human environment’.
Courts interpret that to include economic effects, social effects,
what have you.” Of course, new crop varieties will have economic
and social effects—they’re supposed have economic and
social effects, e.g., lower production and food costs. Clearly, the
National Environmental Policy Act must be reined in, but in the
meantime the USDA should pursue a comprehensive environmental
impact statement that can scientifically demonstrate to meddlesome
judges that new biotech crop plants do not significantly affect the
human environment and therefore an individual impact statement is
not required for each new variety.
Ultimately, biotech crops should not be subject to any more
regulatory scrutiny than any other crop varieties. Making those
changes would go a long way toward breaking up the nascent seed
monopolies that the overregulation favored by anti-biotech
activists has produced.
Berkeley, California—The Open Science Summit,
which wrapped up on Saturday evening, seesawed between egalitarian
and libertarian impulses. The more egalitarian faction of open
science advocates want free intellectual property andfree
subscriptions to scientific journals. The more libertarian bloc
focused on the freedom to research and plans for alternative ways
to finance that research.Despite their disparate
views, the summiteers do have in common a brewing rebellion against
the strictures imposed by the reigning
academic-government-corporate research complex.The
summit covered a wide range of topics, so I will take brief looks
at various aspects that particularly struck me. Let’s start with
more libertarian-leaning proposals, specifically, the freedom to
research and microfinancing of research.
Freedom to Research
Jason
Bobe, the co-founder of the DIYBio.org, described it as a
“community that wants to turn biotechnology into a hobby.” Bobe is
also the director of community for the Personal Genome Project
founded by Harvard biologist George Church, which aims to boost
genomic research by recruiting thousands of volunteers who will
make their genetic and medical information available to
researchers.(Disclosure: I have applied.)Bobe illustrated what he called the “emergence of
bio-natives” by citing cases such as the 2005 instance where a
15-year-old boy used genetic testing to
trace his sperm donor dad. More recently, two New York City
high school students found that 25 percent of the sushi whose
genes they tested wasn’t as advertised.Trailing
behind these sushi citizen scientists, academic researchers later
confirmed
their results. Bobe also pointed to the advent of biohacker
community labs in Boston, New
York, and the San Francisco
Bay Area.
Regarding the BioCurious
community lab (slogan: “Experiment with friends”) near San
Francisco, biohacker Tito Jankowski
argued that such labs are the future of science, the future of
creativity, and the future of curiosity.Jankowski and
colleagues founded Pearl Biotech which makes and sells relatively
inexpensive open hardware scientific equipment such as an electrophoresis
gel box and a polymerase chain
reaction (PCR) thermocycler. The thermocycler amplifies DNA
samples and the gel box separates out DNA molecules for
identification.Jankowski showcased a short video in
which an experimenter in the garage lab was figuring out compounds
to kill metastatic ovarian cancer cells.
Computer technologist anddining
room biohackerMeredith
Patterson clad in a full length black leather coat recited a
rousing rendition of the Biopunk Manifesto
(explicitly modeled on the
Cypherpunk Manifesto). Favorite lines include: “The lawmakers
who wish to curtail individual freedom of inquiry do so out of
ignorance and its evil twin, fear—the natural prey and the natural
predator of scientific investigation, respectively. If we can
prevail against the former, we will dispel the latter.” The
manifesto further declares:“We assert that the right
of freedom of inquiry, to do research and pursue understanding
under one's own direction, is as fundamental a right as that of
free speech or freedom of religion.” And another is: “We reject
outright the admonishments of the precautionary
principle, which is nothing more than a paternalistic attempt
to silence researchers by inspiring fear of the
unknown.”
Bioinformatics guru Raymond McCauley
described a citizen scientist DIYGenomics project that he and some
friends are putting together. Their question: Do vitamins work for
me? In this case, his fellow DIY bio enthusiasts are using their
genotype scanning test results from 23andMe to focus on the effects
of variants in the MTHFR gene that are
associated with higher levels of the amino acid homocysteine in
blood plasma. Higher homocysteine levels correlate with greater risk
of cardiovascular disease, among other conditions. The question
McCauley and friends want to explore is how do homocysteine levels
respond to various vitamin regimens? A trial run of five
participants found that the activated version of folic acid
(vitamin B9) reduced the homocysteine levels of subject #2. Subject
#2 is McCauley. McCauley sees what he is doing as a kind of
crowd-sourced clinical trial. (Disclosure: I have volunteered to
participate in the follow-on DIY research.)
Microfinancing Research
The summit devoted one panel to three non-profit groups
that are trying to provide private funding to early career
researchers: Fund
Science, Sciflies, and the
Eureka Fund. The federal
government dispenses billions every year for research, but very
little trickles down to projects originated by younger scientists.
The average age for receiving a first National Institutes of Health
grant is 42. Inspired by the popular Kiva microlending site, these funds
offer researchers grants in the thousands of dollars. The Sciflies
project will enable researchers to post their proposals online with
the goal of attracting contributions from individual donors.Although the Sciflies site is at the “pre-Beta” stage,
eventually donors will be able to choose a category of research and
then scan through a list of projects that might interest them.
Sciflies has hired a journalist to turn proposals into readable
prose. No money will be disbursed until a project has been fully
funded.All three funds are about a year old, so it is
far from proven that this kind of microfinancing of research will
be successful.
Patent Trolling
On the more egalitarian side, the summit featured a panel
of scholars who really, really hate gene patents. The panel
included Australian National University law professor Luigi Palombi,
University of Delft (Netherlands) philosopher David Koepsell, and
New York University law professor Rochelle Cooper Dreyfuss. Their
main objection is that patents are supposed to be granted only to
novel inventions whereas genes are natural substances. The mere
purification of a natural substance is not patentable, they
argue.
The anti-gene patent narrative features a villain, Myriad
Genetics. Myriad developed and has been peddling a test for the
BRCA1 and BRCA2 breast cancer genes. Women with the BRCA1 or BRCA2
gene variants have a 60 percent
risk of breast cancer during their lifetimes (normal risk is
about 12 percent).Myriad reportedly charges
more than $4,000 for the test. In March, a federal district
court accepted the argument made by the American Civil Liberties
Union that genes are natural substances that are not patentable and
ruled that Myriad’s
patent was invalid. Myriad is appealing this
verdict.
Whatever one may think about the patentability of genes,
the crucial question is, do such patents hurt or help innovation?
”My theory is that intellectual property is interfering
significantly in the innovation process,” asserted Palombi. But is
he right? Numerous
studies have so far
failed to find that gene patents are a big impediment to either
research or innovation.
Keith Bergelt, the CEO of the Open Invention
Network, argued that the increase in “patent trolls” is
becoming a big problem for innovators. Bergelt described the Open
Invention Network as an intellectual property company that defends
against patent trolls by acquiring and sharing patents related to
the open source Linux computer operating system. The pejorative
term “patent troll” refers to groups that acquire potentially
useful patents, wait for someone to independently develop and
create a market for the patented technology, then emerge to claim
infringement and demand payment. One of the more recent high
profile cases involved Research In Motion, the maker of Blackberry
wireless devices, which
paid more than $600 million for infringing wireless
communication patents owned by NTP, Inc., the privately-held
intellectual property firm based in Richmond, Virginia. In July,
NTP announced new infringement suits against Apple, Google, HTC,
Microsoft, and Motorola over email patents. Bergelt asserted that
patent trolls have invested more than $6 billion to aggregate
patents for which they lie in wait for the unwary to develop into
successful products.
Open Access to Research
Journals
The Right to
Research Coalition, a student lobbying group based in
Washington, D.C., wants Congress to mandate that access to research
funded by taxpayers be free to everyone. The ebullient Nick
Shockey, who manages the student group under the aegis of the
Scholarly Publishing and Academic Resources Coalition,
detailed
a hearing last week about mandating access before the House
Subcommittee on Information Policy, Census, and National
Archives.
Two years ago, the National Institutes of Health required that all its
grantees make their research publicly available 12 months after it
appears in a scientific journal. In one of the more clueless
comments made at the hearing, one member of Congress worried that
providing free access to journals would amount to giving away our
country’s intellectual property to foreign competitors. A lobbyist
for journal publishers apparently argued that mandating open access
would destroy American jobs. The coalition favors the passage of
the Federal
Research Public Access Act which would extend the NIH policy to
11 other government agencies that fund research and shorten the
embargo time from 12 to 6 months. “You can’t build on cutting edge
science if you don’t know where the cutting edge is,” quipped
Shockey.
Cheap Drugs for Poor People
Nobody, egalitarians and libertarians alike, showed much
love for Big Pharma. One of the concerns is that the current model
of drug development means that drug companies must focus on
developing pharmaceuticals that they can later sell for high
prices. High prices mean that poor people can’t get access to life
saving treatments.To overcome this problem Aiden
Hollis described the Health Impact
Fund (HIF) proposal [pdf]. The proposal would offer drug
companies a choice between seeking to recoup their investments
using high prices as usual or registering their drugs with the HIF,
which would require the firm to sell its product worldwide at an
administered price near the average cost of production and
distribution. The company would be compensated by a stream of
payments based on the assessed global health impact of its drug.
The HIF would be funded by governments to the tune of about $6
billion annually. James Love of Knowledge Ecology International wants
to accomplish much the same thing by offering big prizes to the
developers of medicines that aim to treat diseases rife in
developing countries such as malaria, TB, and HIV. He would fund
his prizes through a one percent tax on pharmaceutical sales which
would raise about $4 billion annually in the U.S.
Many of the summiteers are oddly unaware of the role that
Food and Drug Administration (FDA) regulation plays in creating
high drug prices. For example, a PR consultant for the summit
argued that the chief problem is that Big Pharma and Big Finance
want to protect their unconscionable profits by crushing the
nascent biotech open science movement. Perhaps so, but what
summiteers miss is why this particular dysfunctional business
ecosystem exists. Three letters: FDA. As annoying as the FDA
regulators are to Big Pharma, the truth is that FDA regulation
creates a huge barrier to entry for any new competing firm. This
means that start-up biotechs have no chance of getting any
therapeutic product approved since it takes years and hundreds of
millions of dollars to get it past the hypercautious
FDA.
A contrast with the IT industry is instructive. With
information technology, a company develops a cool product, runs it
out the door, and makes billions (or flops quickly).In biotech and pharmaceuticals, a company can’t do that.
Developers of new treatments have to run an expensive and time
consuming regulatory gauntlet before they can sell a single pill or
shot. I suspect that if the information technology industry was
regulated by the FDA we would still be using 50-lb.
IBM 5100 “portable” computers costing over $80,000 in today’s
dollars.
The foregoing is a taste of the smorgasbord of topics
offered at the summit. Others included how do academic researchers
get credit for open source contributions, how cure entrepreneurs
are reshaping the research enterprise to focus on the development
of new treatments, how open source biotechnology can enhance
biosecurity, and how open source drug discovery can advance
innovation. The summit wrapped up this weekend, having made a
slight bit of progress toward its stated goal of organizing the
various sub-communities of the Open Science Movement into an
effective global force for rapid change in science and innovation
policy. It’s a start.
Berkeley, California—The inaugural Open Science Summit kicked off
Thursday afternoon at the University of California, Berkeley’s
International House. Some 200 participants have gathered to “update
the social contract for science.” The summit’s chief organizer, a
young intellectual entrepreneur named Joseph P. Jackson III, says
his aim is to jumpstart Enlightenment 2.0. Let’s hope he succeeds,
because the first panel of presenters made it clear that
Enlightenment 1.0 is mired in a bureaucracy run by careerist
professionals.
Before the formal presentations began, the summit opened with a
kind of free-forum forum where participants stood up to ask panel
members questions. The first question from the floor was: What is
“open science” anyway? My personal favorite definition was
enunciated at the outset by quirky Cambridge University chemist
Peter Murray-Rust: “The ‘open’ bit means that it is available to
anyone in the world to do whatever they like without any
restrictions.” Statistician and Yale Law postdoctoral asssociate
Victoria Stodden described the open science movement as an amalgam
of folks who want open access to the peer-reviewed scientific
literature; open access to all scientific data; and to improve the
efficiency of how science is done, largely by enhancing cooperation
between researchers. Surprisingly, none of the initial answers
addressed one the more interesting motivating themes behind the
conference: how the falling costs of enabling technologies are
empowering citizen scientists to participate fully in the
scientific enterprise, liberating science from the stifling bonds
of the government-academic-corporate research complex.
The negative effect of those bonds was highlighted when
University of Manchester computer scientist and research social
networking guru Carole Goble noted that openness is being stymied
in part because many young pre-tenure researchers are afraid to
share their results before publication. They fear that sharing will
allow their rivals to “steal” their results and that scientific
journal editors will refuse to publish anything that has already
been aired in public. Murray-Rust admitted that this is a problem
which he hoped would be solved in the next 10 years.
From the floor, a young mathematician (unidentified) then
ridiculed the fields of biology and chemistry for being backward
fuddy-duddies with regard to publication and scientific priority.
She pointed out that the norm among mathematicians and physicists
is that as soon as they produce something reasonable, they put it
up on the arXive preprint server.
Everyone can then see that you’ve published it and that you got
there first. Peer review, such as it is, happens when you get
around to sending your results to the journals. One life scientist
from the floor pointed out that genomic research has already
fostered a similar culture where researchers make their data
public.
Another issue raised was sharing negative and inconclusive
results. Among other things, the failure to publish negative and
inconclusive results skews statistical analyses that aim to
determine the effectiveness of drugs or the alleged toxicity of
chemicals. In addition, making negative or inconclusive results
public would considerably speed up scientific research by sparing
researchers from traveling down previously explored dead ends. Some
panelists noted that several journals have tried this in the past
and failed, due in part to the fact that researchers barely have
enough time to put together and publish their successful results.
Australian National University chemist Cameron Neylon responded
that software developments will soon make these excuses untenable
because it will be possible to standardize and upload the results
of failed experiments onto the Internet where others can find them.
Neylon also argued that researchers should want both more positive
results and more rubbish published because then someone can build a
Google for science. So instead of filtering information on a
pre-publication basis, filter it once it’s out there.
The free-form forum was followed by a number of brief, formal,
TED-like presentations. To give
readers an idea of what is on offer at the Open Science Summit,
let’s look at a selection from Thursday night's presentations. One
of the fiercer presenters was statistician Victoria Stodden. She
argues for framing the open science movement in terms of two
principles: reproducibility and knowledge sharing. She actually
views this as a return to the traditional scientific method of
complete disclosure. According to Stodden, computation in research
is now pervasive and many scientists fail or even refuse to release
the computer code they use to determine their reported results.
Without this code, outside investigators cannot reproduce the
reported results. Although she didn’t say it, this means that
outsiders are being forced to take reported results on faith.
Stodden noted that the “Climategate” scandal erupted, in part,
because a clique of researchers refused to share their data and
computer models with skeptical outsiders. This very week, three cancer treatment
trials were halted because outside statisticians could not
reproduce the results of Duke University scientists. Fortunately,
as Stodden pointed out, this situation may be changing since
funders like the National Science Foundation are requiring grantees
to enact data release plans and journals are also setting up
requirements that researchers share their code and data at the time
of publication.
Morgan Langille, a young University of California, Davis
genomics researcher, unveiled his BioTorrents file sharing service
which enables researchers to find and speedily download vast data
files. It was a bit surprising that it has taken biologists this
long to figure out how to leverage this technology. Kudos to
Langille. Next up was Jason Hoyt, a geneticist and research
director at Mendeley, which
offers a software system that aims to break through the scientific
silos that confine and often obscure relevant results from
researchers. Ultimately, Mendely wants to build the world’s largest
academic database. In the 18 months since it went online, Mendeley
has 450,000 users and has aggregated the metadata from 29 million
papers. Hoyt noted that Thomson Reuters took 50 years to aggregate
50 million scientific papers.
Neuroscientist Martha Bagnall noted that a lot of valuable
criticism of new published work takes place among colleagues in
laboratories that never gets aired in public. She observed that
lots of journals now allow commenting, but there is a big ironic
problem—while peer review is anonymous, commenting at journals is
not. Anonymity is important because researchers fear reprisal from
criticized colleagues when their own papers or grant proposals come
up for review. So to capture the lab's informal criticism and make
it publicly available, she and her colleagues have created The Third Reviewer website. The
site lists journal research by discipline, complete with abstracts,
and lets anonymous commenters have at it without fear of reprisal.
It also gives authors an opportunity to defend their research.
Third Reviewer is now expanding to other disciplines.
In one of the more exciting presentations, young scientists D.J.
Strouse and Casey Stark unveiled their Colab open source science site at
the summit. They argue that open science is more than open
publishing. Strouse and Stark complained that the state of
scientific publication is static and keeping up with the latest
results is much like “playing ping pong under a strobe light.” In
Colab, researchers can dynamically collaborate by describing a
problem, figuring it out together, and publishing their results on
the site, where those results can be continuously improved in
public. Since the entire process is open, a researcher’s idea is
time-stamped so that everyone knows who gets credit for scientific
priority. However, if a researcher still fears being scooped, she
can make her research problem private and invite specific
collaborators to work on it, only publishing once they are
done.
On the subject of empowering citizen scientists, a number of
young entrepreneurs discussed their efforts to build cheap biotech
research equipment. Josh Perfetto talked about the Open PCR (polymerase chain reaction)
project which aims to build a PCR thermocycler that will cost under
$400. PCR thermocyclers are used to amplify DNA samples for
analysis. Using the Kickstarter microfinance
platform, Perfetto and his colleagues raised more than $12,000 for
their project and have now completed a desktop prototype they plan
to offer later this year. Similarly, University of Michigan stem
cell biology Ph.D. student James Peyser and colleagues have created
the Otyp project, which aims to get
real biotech experiments—e.g., putting genes for green fluorescence
into E. coli bacteria—into high school classrooms. Also using the
Kickstarter financing platform, Otyp is developing affordable open
source hardware, wetware, and software to achieve this goal.
The final presenter of the evening was Todd Kuiken from the
Woodrow Wilson Center in Washington, D.C. Kuiken heads up the
Center’s
DIYBiosafety project. Its aim is to create a culture of
research safety among DIY biotechnologists. Apparently, some people
are nervous about do-it-yourselfers genetically manipulating
bacteria, plants, and animals in their garages and kitchens. Go
figure.
Further dispatches from the conference will detail presentations
on open peer review, distributed decentralized amateur science,
alternative research funding methods, and more.
Writing in The New York Times Magazine, Contributing
Editor Kerry Howley reports on cryonics and marriage:
It has not escaped the members of the often sappily
life-affirming cryonics community that their practice, so often
thought to be the province of either misfit loners or rugged
individualists, involves great faith in the competent benevolence
of other people. Nor is Robin Hanson blind to the extent to which
he depends on his tribe. Marriage, despite its lack of clean edges
and predictable outcomes, is one of the few institutions he seems
to have no interest in reforming. Peggy describes their conflict as
akin to a deep religious difference, bridgeable by some core shared
belief. “Robin and I have been together for 28 years,” Peggy says.
“We’ve always loved spending time together. He is an excellent
father. He devotes an enormous amount of time and energy to family
life. And that has to be there.”
Robin and Peggy remain silent on the issue of how, exactly,
death will part them, but earlier this year a stray bit of chatter
glanced past the conversational barricade. Sitting at their kitchen
table, Peggy told Robin about a funeral tradition she’d heard
about: after a cremation, the ashes of the dead are separated among
family members. The children and surviving spouse each get a
handful, to save or dispose of as they see fit.
“You’re not getting any part of me,” Robin said. “I’m being
frozen.”
“No.” Peggy said. “Your head is being frozen. I get the rest of
you.”
In a ruling that favors free trade
and rejects certain harsh controls over biotechnology patents, a
European court has dismissed Monsanto's lawsuit that attempted to
block the import of genetically modified (GM) soybeans from
Argentina, where the company doesn't enjoy a government-protected
monopoly over its product. The court said that patent protections
do not apply to seeds once they have been harvested. According to
The Wall Street Journal:
The European Court of Justice Tuesday ruled that European Union
patent law can't be used to bar imports of products made from
biotech ingredients that are patented in the EU but not in the
exporting country.
The decision could open the door for increased exports to the EU
by producers of biotech products in emerging-market countries that
have weaker patent protection.…
Monsanto Co., the St. Louis-based company that is the world's
biggest seed maker, owns the patent for the DNA sequence
incorporated into this type of soybean seeds, called Roundup Ready.
This genetic modification allows farmers to protect soybean crops
from weeds by spraying glyphosate without destroying the crop
itself.
After Monsanto failed to earn patent protection in Argentina for
its genetically modified Roundup Ready soybean, it ceased selling
the seeds there. However, farmers continued to use the seeds
produced every year from their crops, without paying the royalties
Monsanto says it is due.
Monsanto went on the offensive by taking its complaint to the
EU. In 2005, Monsanto attempted to stop imports of soy meal made
with its soybeans by suing importers in a court in the Netherlands.
The Dutch court referred the case to the ECJ.
Meanwhile, the BBC is
running an op-ed calling for deregulation of the GM foods
industry:
But monopoly is bad for everyone. Here's a part solution;
deregulate GM.
If it costs more than $20m (£13m) to get regulatory approval for
one transgene, lots of little GM-based solutions to lots of
problems will be too expensive and therefore not deployed, and the
public sector and small start-up companies will not make the
contribution they could.
Never before has such excessive regulation been created in
response to (still) purely hypothetical risks.
The cost of this regulation—demanded by green campaigners—has
bolstered the monopoly of the multinationals. This is a massive
own-goal and has postponed the benefits to the environment and to
us all.
The EU parliament also rejected a proposal to require labels on
products made from animals that were given GM feed. While this
might all sound like good news, Europeans still seem to have a
thing for banning foods that they see as being produced using too
much human intervention. The EU recently
upheld a ban on foods produced from cloned animals.
“Here’s all I’m trying to say: The planet on which our
civilization evolved no longer exists,” BillMcKibben declares in
Eaarth: Making a Life on a Tough New Planet. “The earth
that we knew—the only earth we ever knew—is gone.” The climate is
about to get really freaky due to man-made global warming, and
we’re also about to run out of oil: peak temperature and peak oil
combined. The result, McKibben says, is that we’re about to find
ourselves living on a much less friendly planet he calls
“Eaarth.”
McKibben is no stranger to environmentalist jeremiads, having
declared The End of Nature due to global warming and the
rise of biotechnology back in 1989.Twenty years later he’s
declaring the end of civilization as we know it.
Eaarth follows the time-honored structure of
environmentalist tracts, opening with a quick rehearsal of the
science that allegedly seals our terrible fate, followed by a much
longer disquisition outlining theauthor’s elaborate plan for
salvation. Give McKibben some credit: Unlike many prior doomsters,
such as Paul Ehrlich and Stephen Schneider, he doesn’t argue for a
top-down solution. He sees a situation so dire that centralized
strategies will fail and we’ll have to return to living in villagesand farms, becoming 21st-century peasants.
McKibben’s evidence of the impending apocalypse includes melting
Arctic ice, melting mountain glaciers, expanding tropics,
acidifying oceans, worsening hurricanes, and rising seas. All these
things except the hurricanes are happening. According to the
National Snow and Ice Data Center, for example, the Arctic ice cap
has been shrinking at a rate of about 3 percent a decade since
1978. New research suggests a lot of this melting can be attributed
to wind shifts rather than directly to global warming, and the
Arctic sea ice recovered last March to almost normal levels. But
McKibben is right that global temperatures have been rising. One
set of satellite data shows global average temperatures increasing
at a rate of 0.13 degree Celsius per decade since 1979. Overall,
surface records suggest that average temperature has increased by
about 0.7 degree Celsius during the last 100 years.
McKibben is so eager to make his case for doom, though, that he
can’t resist pushing the data farther than they go. Consider his
comments about hurricanes. McKibben asserts that “one hundred
eleven hurricanes formed in the tropical Atlantic between 1995 and
2008, a rise of 75 percent over the previous thirteen years.” Fair
enough. But according to hurricane researchers at Florida State
University, the global number of major tropical cyclones was 149 in
the 1980s, 179 in the 1990s, and 165 in the 2000s. The overall
trend is not significant during the last 30 years. The overall
numbers for tropical storms are 324 in the 1980s, 367 in the 1990s,
and 317 in the 2000s. Moreover, the total energy of tropical
cyclones has been declining for the last 30 years. In McKibben’s
favor, new research by climate modelers suggests global warming
will result in fewer but stronger hurricanes.
To prove that things are getting worse, McKibben cites a 2008
New York Times op-ed that claims the last 30 years have
yielded as many weather-related disasters as the first
three-quarters of the 20th century. The article also notes that the
U.S. has suffered the most. Sounds bad, but a closer look reveals
that annual global mortality from weather disasters has
declined from nearly 500,000 per year in the 1920s to 22,000
annually in the early 21st century. The annual mortality rate has
dropped from 242 per million in the 1920s to 3 per million today.
In the U.S., the amount of property damaged by weather events is
indeed up, but that’s almost entirely because there is more
property to damage and because more people live in coastal areas
subject to hurricanes.
The U.N.’s Intergovernmental Panel on Climate Change estimates
that sea levels will rise between seven and 23 inches by 2100. In
general, the sea level has been rising by about eight inches per
century. How might humanity cope with that? Well, consider the case
of Boston. According to the National Oceanic and Atmospheric
Administration, the sea has been rising at Boston at a rate of
about 10 inches per century. Yet the city has not been inundated.
In fact, since 1775 the city has dramatically expanded into areas
that were once covered by the ocean. In other words, people don’t
just stand there and drown as the rising waves break over their
heads. They adapt and thrive.
McKibben dives into resource depletion as well, looking back
nostalgically at The Limits to Growth, a 1972 report from
the Club of Rome that describes just what the name suggests. To
show the limits we’ve reached, McKibben cites declining fish
catches since the 1990s and peaking per capita grain production in
the 1980s.
McKibben is right that per capita grain supplies peaked in the
1980s, but he neglects to mention that overall global grain
production has been steadily increasing since the 1970s.
Consequently, per capita production has been steady. Even, as even
the alarmists at the Worldwatch Institute acknowledge: “In recent
decades, as growth in grain production has matched population
growth, per capita production has hovered around 350 kilograms per
person.” And while wild-caught fish production has been falling,
aquaculture has been boosting overall supplies. According to the
U.N.’s Food and Agriculture Organization, per capita fish
consumption, about 11 kilograms per person in 1970, had risen to
about 17 kilograms per person by 2006, almost entirely due to
aquaculture. The more important point to be made here is one that
McKibben misses: Wild-caught fisheries are declining not because
their limits were reached but because they have been plundered as
open-access commons.
So what should we do in the face of all this doom and gloom?
“We’ll need, chief among all things, to get smaller and less
centralized, to focus not on growth but on maintenance, on a
controlled decline from the perilous heights to which we’ve
climbed,” McKibben writes. Why? Because climate change will make it
more difficult to raise food using modern agriculture and, more
important, because we’re about to run out of oil to drive our
tractors and supply our fertilizers. Thus McKibben concludes that
we will have to retreat to small towns and begin to raise food
using more labor. He envisions the future on Eaarth as a kind of
communitarian back-to-the-land agrarian utopia.
For the sake of argument, let’s assume McKibben is right about
peak oil. Does that mean the era of expansive global civilization
and economic growth is over? Not necessarily. Transportation might
become increasingly electrified, perhaps using new-fangled
traveling wave nuclear reactors. This would reduce the demand for
oil, keeping its price relatively lower for farming uses. In
addition, biotechnologists have developed crop varieties that use
two-thirds less nitrogen fertilizer than conventional varieties do,
which also would reduce the demand for oil in farming. Civilization
could well save itself by means of technological fixes and economic
growth.
McKibben sees a retreat from modernity as our only option
because he believes humans have reached the limits of our
creativity. But there’s every sign that our capacity to innovate
around problems remains limitless.
Ronald Bailey
(rbailey@reason.com) isreason's science
correspondent.
Better medicines, carbon neutral fuels, cheaper food, and a
cleaner environment—who could be against that? Well, quite a few
people, as it turns out.
Last week, a research team led by private human genome sequencer
J. Craig Venter announced that they had created the world’s
first synthetic self-replicating bacteria. Among other things,
synthetic biologists are aiming to create a set of standardized
biological parts that can be mixed and matched the way
off-the-shelf microchips, hard drives, and screens can be combined
to create a computer. The goal is to produce novel organisms that
excrete biofuels, clean up toxic spills, strip clogged arteries of
cholesterol, rapidly produce vaccines, grow more photosynthetically
efficient crops, and manufacture eco-friendly plastics. In an early
success, UC Berkeley biologist Jay Keasling used synthetic biology
techniques to engineer micro-organisms to produce at much lower
cost the anti-malaria drug artemisinin in 2004.
Eventually, bioengineers will no longer be limited to just
moving around and tweaking genes discovered in nature, but instead
would develop never-before-seen genes. “With the tools of synthetic
biology, we don’t have to just accept what Nature has given us,”
Keasling often says.
But nowadays, every technological breakthrough is accompanied
with ethical handwringing and dire warnings about unintended
consequences, and synthetic biology is no exception. A Canadian
anti-technology outfit, the ETC Group, is calling for a global
moratorium on synthetic biology. “This is the quintessential
Pandora's box moment—like the splitting of the atom or the cloning
of Dolly the sheep," ETC Group's Jim Thomas warns. "We will all
have to deal with the fall-out from this alarming experiment.” The
Daily Telegraph quotes an even more hyperbolic response
from David King, head of the Human Genetics Alert group in the
United Kingdom, who
said, “What is really dangerous is these scientists’ ambitions
for total and unrestrained control over nature, which many people
describe as ‘playing God.’”
In addition, a subcommittee of the United Nations Convention on
Biological Diversity has forwarded language to the next conference
of the parties meeting in October urging that the world’s
governments apply “the precautionary approach on field releases of
synthetic life, cells or genomes into the environment.”
(Happily, the United States has never ratified the convention.) The
precautionary approach basically means no new activity can go
forward until it’s proven to be safe. The problem is that
determining whether something is safe usually involves a process of
trial and error, and there are no trials without errors.
So what fears motivate the call for a global moratorium? There
are basically three: bioterrorism, lab accidents, and environmental
release of synthetic organisms.
Bioterrorists might create and release pathogenic organisms to
cause diseases in humans, animals, or crops. While the creation of
some kind of super-pathogen using synthetic biology might be
possible in the future, there are plenty of frightening pathogens
available right now without going to the trouble of building new
ones. And researchers have already proven their facility at
resurrecting scourges from the past, such as smallpox, polio, and
the Spanish flu. In fact, legitimate researchers have already
reconstructed polio and flu viruses in a lab setting.
Leaving aside bioterror, there's still the threat posed by
biohacking. Do-it-yourself researchers working out of their garages
might create—either intentionally or inadvertently—the biological
equivalent of malign computer viruses. Or what about governments
eager to manufacture new biological weapons? After all, the Venter
team used digitized genome sequence information and off-the-shelf
chemicals to design, synthesize, and assemble a genome from one
bacterial species stretching more than 1 million DNA base-pairs
encoding about 850 genes. They inserted this man-made genome into
the hollowed out cell of another species whose original genome had
been completely removed. The synthesized genome jumpstarted the
cored-out cell, turning it into a different species of bacteria.
Anyone could do it, right? Keeping governments out of the business
of building new biological weapons will be difficult, but
strengthening the verification provisions of the Biological
Weapons Convention would greatly reduce this anxiety.
Lab accidents do occur. Last year, a researcher at a German lab
pricked herself with a needle contaminated with the deadly Ebola virus and
an Austrian lab mixed up samples of
bird flu virus with seasonal flu samples. Picking the
appropriate level of lab containment and rigorously training lab
personnel is essential, but if preventing all accidents were
mandatory, all research would come to a halt.
No one is talking about releasing synthetic organisms into the
environment at this stage. The Venter team “watermarked” the
synthetic cells with unique genetic sequences to distinguish them
from natural cells so that they could keep track of them. And
before getting too worked up over the potential dangers of escaped
synthetic microbes, keep in mind that humans have been moving
thousands of exotic microbial species across continents and oceans
for centuries. Surely, some have had deleterious effects, but
the world has not come to an end.
In any case, many lab-crafted creatures would likely be
obliterated by competing organisms honed by billions of years of
evolution in the wild. In the future, synthetic organisms could be
equipped with suicide
genes where their survival is dependent on some chemical that
is only available in the lab. For example, if synthetic microbes
are created to treat some kind of pollution, they would be supplied
with the chemical onsite and once their work was done, they would
be starved of it. In addition, future synthetic lifeforms should be
“watermarked” like Venter’s new microbe so that their creators can
be held accountable for them.
The good news is that a robust and expansive commercial and
nonprofit biotech research establishment will enable the growth of
a resilient and responsive public health infrastructure. It will
give us the capability to quickly detect and contain outbreaks by
rapidly devising and deploying new diagnostics, drugs, vaccines,
and other treatments. Thus will a dynamic biotech industry protect
us against bioterrorism, biohacking, accidents, and the unintended
consequences of deliberate releases of both natural and synthetic
microbes.
The German Ebola virus incident gives us a glimpse of this rapid
response future. The researcher who pricked her finger with the
contaminated needle was likely saved by being injected with an
experimental
vaccine 40 hours after she was exposed to the virus. Contrary
to the claims of the anti-technology alarmists, the surest way to
greater safety in the dawning era of synthetic biology is not
prohibition, but proliferation.
In a bang-up roundup talk, says New Yorker staff writer
Michael Specter and author of a book called Denialism,
tears into vaccine-autism claims, "Frankenfood" bans, the herbal
cure craze. "All point to the public's growing fear (and, often,
outright denial) of science and reason. He warns the trend spells
disaster for human progress."
Specter also opens the talk with the right answer to the
question: If you could go back to any time in history, or forward
to the future, what would you do?
Using your own stem cells—extracted from your fat or bone
marrow—a San Diego company called Organovo is offering a $200,000
bioprinter that prints human tissue in 3D. While the current model,
which ships this year, can only handle simple stuff like blood
vessels, printing up whole organs is very close. From the always
fascinating and jauntily written H+ magazine, notification that
custom organ printing is upon us:
Yes, artificial organs… kidneys, esophagi, bladders, muscles,
cartilage, ureters, glands, trachea, bone, breast lung, uterus,
testes, nerves, livers, and even hearts. Need a new retina? Print
one. Technovelgy points out that artificial organs have
appeared in SF since Philip K. Dick wrote about artiforgs in his
1964 novel Cantata 140 (a.k.a. The Crack in
Space) and Larry Niven described artificially-grown organs in
his 1968 novel A Gift From Earth. Once again, science
fiction is rapidly becoming science fact.
Ronald Bailey mentioned Organov's organ printing tech is his
dispatch
from the future earlier this week, but it's so cool that I
thought it deserved a post of its own right here in the
present.
Genetic tests are ridiculously cheap these
days: Last week, The New York Times ran a story about
pre-conception
genetic tests from a company called Counsyl. You send them $349, they
send you a cup to spit in, and two or three weeks later they send
you results for more than 100 genetic conditions. The price is
right and the process is painless, but getting genetic info about
hypothetical future spawn is a one-shot deal for most people, not
something they're going to integrate into their health routine.
But after years of chatter about personalized medicine, two
important companies have finally put their money where Ronald
Bailey's mouth is.
About 100 million American have their prescription benefits
managed by one of two companies, Medco or CVS Caremark. And both
companies have recently invested in firms that aim to make genetic
testing more accessible and easier for doctors and patients to
interpret.
"Physicians understand the concept of pharmacogenomics, but they
don't really feel comfortable interpreting the results," says Pat
Deverka, a physician and researcher at the Institute for
Pharmacogenomics and Individualized Therapy at the University of
North Carolina, in Chapel Hill. A recent survey by Medco found that
while almost all physicians polled recognized that genetic profiles
may influence a reaction to a drug, only 10 percent believed they
were adequately informed about pharmacogenetic testing.
And once they're invested in the world of personalized medicine,
it only makes sense that these pharmacists would start investing in
research:
Medco is also funding studies to evaluate the cost-effectiveness
of specific pharmacogenomics tests, including those for the blood
thinner warfarin and the breast cancer drug tamoxifen.
"How dare you do this research? The earth is already being
raped by too many people, there is so much garbage, so much
pollution."
Ten years ago, an anti-aging researcher described this
hostile reaction to her work in the pages of The New York
Times. Not much has changed since then. The first objection
one hears when one advocates radical life extension is that it will
produce a Malthusian Hell of overpopulation and resource depletion.
Objectors clearly believe it would be immoral to make it possible
for lots ofpeople to live to be, say, 150 years old. But is that
so? Two newish papers from two controversial philosophers take on
that reasoning, and tear it apart—with the help of their pocket
calculators.
Philosopher John Davis
from the University of Tennessee takes a direct approach, arguing
that pursuing life extension—even if it results in a Malthusian
Hell—is the moral thing to do. In his article, “Life-Extension
and the Malthusian Objection,” Davis accepts for purposes of
argument that the moral goal is to maximize total human welfare
over time. To illustrate how one might decide whether or not a
society should permit research and deployment of life extension
technologies, Davis assumes a population of two types of people:
Lees and Seans. Lees who want to live a long time are 17 percent of
the population and Seans who prefer shorter lives are 83 percent.
Seans live an average of 100 years, while Lees using life extension
treatments live an average of 600 years. Then you add up the life
years of a population of 100Lees and Seans, and find that 17 Lees
would enjoy a total of 8,500 life years while 83 Seans enjoy only
8,300 life years. Treatment prohibition would result in the loss of
200 life-years, thus reducing the total human welfare possible. So
Davis concludes that counting aggregate life-years rather than
individual lives is the way to decide whether or not to go with
life extension treatments.
Davis then considers what might happen in situations where
people are forced to choose between life extension and
reproduction, as opposed to a world where they can opt for both.
Davis divides a hypothetical population of 100 people into three
policy categories: Free Choice; Forced Choice/Treatment; Forced
Choice/Reproduce. Free Choice allows everyone to choose life
extension no matter how many children they have. Under a Forced
Choice policy, people must choose between having children and
receiving the treatments. Davis assumes a population of 100 will
contain 31 Free Choicers, who take both the treatments and
reproduce, 19 Forced Choicers who take the treatments and do not
reproduce, and 50 Forced Choicers who refuse the treatments and
choose to reproduce. The numbers reflect his own rough intuitions
about how human preferences would play out. Adding up the
life-years at stake:
Free Choicers 31 x 500 years = 15,500 life-years
Forced Choice/Treatment 19 x 500 years = 9,500 life-years
Forced Choice/Reproduce 50 x 100 = 5,000 life-years
In this scenario, the Free Choicers' preferences that would
result in a Malthusian world trump the combined preferences of
those who choose long lives over reproduction and short lives in
favor of reproduction.
What drives Davis’ calculations is the concept of total
utilitarianism which aims to maximize utility across a population
based on adding all the separate utilities of each individual
together. “So far as the total net good for humans is
concerned, the most justified social policy is the one that
satisfies preferences over the greatest number of life-years, all
else being equal,” argues Davis. One implication of total
utilitarianism is that “we should create as many people as possible
in order to maximize the total amount of desirable experiences.”
Total utilitarianism might result in Malthusian consequences
because a large, relatively miserable population might well have a
greater total amount of utility than a smaller, happier
population.
Davis’ allocation of preferences among Free and Forced Choicers
is based on his own guesswork, and tweaking the numbers could
produce different outcomes. But no matter how you slice the
numbers, it would be immoral to stop research on life extension
technologies simply because of fears that they would result in a
Malthusian Hell. As Davis notes, people who choose the treatments
would obviously not consider living in an increasingly Malthusian
world a fate worse than death, and “therefore they would probably
not consider it a fate worse than non-existence for their children
either.” And Malthusian Hells may be self-limiting. “Will there
come a time when the Malthusian conditions reach a level of such
crisis that people are better off not extending their lives?,” asks
Davis. “Perhaps so; if they see it that way, they will stop
choosing life-extension.”
Is there any way to break out of this dismal total utilitarian
calculation? Bioethicist Russell Blackford argues yes.
In the second new paper, Russell Blackford from
Monash University in Australia specifically addresses Princeton
University bioethicist Peter Singer's
claim that it is immoral to want to live longer, say by
doubling one’s life expectancy to 150 years. Why does Singer think
this? Singer begins by setting up a thought experiment in which
researchers develop a pill that will double life expectancy to 150
years. He assumes that people have an average happiness level of 5
out of a possible 10 during the first 75 years. The life extension
pill maintains its users at about the same level of health and
mental acuity as a healthy 60-year-old for the next 75 years,
reducing their happiness level to 4 for that period. This yields an
average happiness level of 4.5 over the course of their 150 year
life spans. Imagine Singer's pill as a kind of Fountain of
Prolonged Middle Age.
Singer also assumes population control measures stabilizing
population at replacement levels. As we shall see, the population
stabilization assumption is a bit of a contradiction for Singer.
Ultimately in the Singer scenario, the total number of people who
would be born will be half of what they otherwise would have been
during any specific time period without the age-retarding drug. So
a long lived society might constitute 1 billion individuals and a
normal life expectancy society would number 2 billion at any one
time.
4.5 units of happiness x 150 years of life x 1 billion
individuals = 675 billion happiness years.
The computation of pleasure for short lifers:
5 units of happiness x 75 years of life x 2 billion = 750
billion happiness years.
Singer acknowledges that individual long lifers would have
better lives (4.5 hedonic units x 150 years = 675 total units) than
individual short lifers (5 hedonic units x 75 year = 375 units).
But the total sum of happiness over any specific period of time is
higher in the society without the life extension treatment. So
Singer concludes that the moral thing to do is to stop research on
life prolonging drugs.
But imposing population control measures should be morally
suspect to someone who advocates maximizing total utility over
time. Why? As Blackford points out, Singer’s utility logic leads to
the irresistible “conclusion that a sufficiently large population
with people whose lives are barely worth living would be a better
outcome than a much smaller population of people who are very
happy.” This is what philosopher Derek Parfit called the “repugnant
conclusion.” Parfit never believed that he had resolved the
paradox at the heart of a total utilitarian calculus that leads to
the repugnant conclusion. One consequence of this line of argument
is that people should have as many children as possible in order to
maximize the total amount of happiness just so long as they could
eke out some minimal amount of pleasure. In fact, it would be
immoral for people to restrict the number of children they bear
because they would be reducing the overall amount of possible
happiness in the world.
To counter the total utility logic, Blackford offers another
thought experiment in which a benevolent, but not omnipotent deity
has the choice between creating a world with 1 billion happy people
(6 hedonic units on average out of 10 possible) versus another
world with 6 billion fairly miserable inhabitants (1.5 hedonic
units on average). Total average happiness on the second miserable
planet would exceed that of the first by a ratio of 3 to 2 over
time (9 billion units versus 6 billion units in any given year).
Singer, if he followed the logic of his argument, would advise the
deity to create the second world rather than the first. Blackford
counters, “We expect a benevolent god to be concerned about how
well lives go, rather than about the sheer number of them.”
The upshot of this analysis, according to Blackford, is that “what
we value…is that whatever actual lives come into existence should
go well.”
Blackford’s benevolence scenario, like Singer’s original set-up,
implies that the maximization of utility under Malthusian
conditions will be avoided because population growth will be kept
in check. However, Blackford, unlike Singer, is morally consistent,
because advocating benevolence does not require maximizing total
utility, but rather the goal is to attempt to maximize the
utilities of individuals. As Blackford concludes, “Since I see no
doubt that the lives in the pro-drug scenario would be
better—something that Singer also thinks—then we should develop the
drug.” Of course, if one accepts Blackford’s conclusions, the
question of how will population be controlled comes to the fore.
Will some “benevolent decision-maker” impose something like a
replacement fertility requirement in order to make sure that the
Methuselahs are not overcrowded thus enabling their lives to go
well? Perhaps such “benevolent decision-makers” are
unnecessary.
Turning from philosophy to the empirical, it is noteworthy that
the societies with the longest life expectancies now are
already experiencing below replacement fertility largely
without the interference of “benevolent decision-makers.” In
addition, human ingenuity can avoid producing a Malthusian Hell by
expanding
available resources to more comfortably support a larger, more
prosperous, and happier human population.
At one point Davis acknowledges, “Of course, if the Malthusian
consequences of total utilitarianism are a reason to reject total
utilitarianism, then one can argue that Malthusian consequences are
a reason to reject Free Choice.” Blackford implicitly accepts this
analysis and rejects Free Choice. In any case, the conclusion from
either analysis—Davis’ dismal total utility calculus and
Blackford’s benevolence argument—is that pursuing radical life
extension is the moral thing to do.
Futurist John Smart is wrapping up the Humanity + Summit by
noting that human enhancement believers are too focused on
pie-in-the sky visions. Instead of making weird flying-car
predictions about the far future, transhumanoids should be
pointing to contemporary advances. He may be right,
but if anything, this conference was low on
mind-blowing visions and outrageous body modifications. And it
was entirely devoid of people in borg-style wearables.
The reason for this more plain look for the transhumanists may be
strategic. Ken "R.U. Sirius" Goffman pointed out yesterday that
metaverse residents are going for more vanilla personal styles
generally, and there have been many references to the
mainstreaming of out-there human enhancement ideas. There isn't a
lot of pressure to rock a science fiction style because we're
already in a science fiction age.
The downside of kinder, gentler transhumanism is that it's less
conducive to bold new personal looks. To be sure, the Rasputin
beard remains ascendent:
Experienced transhumanists will recognize mad monks Aubrey de
Gray at left and Todd Huffman at right. By the way, Huffman has
at least one magnet implanted in one of his fingertips. Three out
of three women I polled found that hot.
Another much needed enhancement that went suspiciously
undiscussed at the conference: Leg enhancers that will prevent
people from doing the Elaine Baenaes dance:
Strangely, at this collection of bleeding age pioneers, one of
the big attractions at the party was a game that looks like
something for people who can't handle Ms. Pac-Man:
In fact the most daring statement at the summit was the Vibram
toe shoes, which were very popular:
I don't know enough about transhumanism to say whether the
movement is at any kind of crossroads, but I was struck by how
modest the claims were at this event -- in addition to all
the calls for empathy, which I referred to
yesterday. Toe shoes seem useful and ergonomic, but don't
these things just beg for a new breed of humans with opposable
big toes? If there are transhumanists out there calling for human
antennae, wings, pineal gland enhancers and the like, they don't
seem to have been in Irvine this weekend.
The 2009 "Humanity+
Summit" kicked off this morning to a sellout crowd and an
overflowing conference room.
Empathy is in the air this year, with tachyons of fellow
feeling racing across the conference space -- the graciously
provided offices of Eon Reality in sunny Irvine, California --
and embedded nanobots of the milk of human kindness busily
recalibrating the hedonic processing centers of seemingly all the
transhumanists.
Negative utilitarian philosopher
David
Pearce, for example, seen at right with Galactus the devourer
of worlds, calls for empathy as the building block of a future in
which suffering has been abolished.
Yesterday, this correspondent stank up the joint during a Q&A
session at the "Biopolitics and Popular Culture Seminar" by
asserting that empathy for a robot that gets
kicked is wasted empathy, no matter how much pathos the
robot's reaction evokes. Annalee Newitz, unflappable imperatrix
of the great Io9 blog, put me in my
place by pointing out that empathy is not a zero-sum emotion: You
can apparently feel sorry for the steel and the hand that wields
it. So go ahead and weep for that discarded
lamp.
All the empathy talk may seem
surprising. This is a crowd that inclines more toward
family-outliving extreme life spans; long, lonely cryofreezes;
and at best a sort of hive-mind feeling for their fellow meat
packages. (In fact, the transhumanists' confidence in a
collaboratively filtered fourth wave of collective intellect
makes them a refreshing break from libertarians. Several speakers
have already called for an end to selfishness, if not
self-consiousness, on the path toward a better life under a
post-mammalian queen bee. Where do I plug in?) I don't know
whether we're talking about a general quality of mercy that
droppeth down to the third ventricle of every
post-human heart, or if "empathy" is just code for
giving equal rights to the scientifically
augmented or differently socialized.
For my money, the best show of the day has been University of
California, Santa Barbara's Joann Kuchera-Morin's
CG-powered presentation "Using the Creative Process to Map
N-Dimensions: Quantum Information at your Fingertips," during
which stunned audience members were able to see giant carbon
atoms and hear the actual sound of electrons. You too may be able
to hear the sound of electrons by turning to the "Soundscapes"
Music Choice channel, available in the 900s with most cable
packages. You can watch live webcast of the conference
here.
We can all agree that Ron Bailey defecates better transhumanism
coverage than I can ever hope to produce, and I appreciate your
patience with my humble efforts. If all goes well, I hope to
bring you an extended-lifetime achievement award, Fashion
Catastrophes®, and a Miss Congeniality prize later this weekend.