inspired magazine
TRANSCRIPT
The viability of nations and institutions depends on their ability to embrace innovation. As in the business world, governments, schools, universities and healthcare organizations face unprecedented competition and increasingly complex demands. This magazine describes a few of the ways IBM helps them continue to break new ground in serving the public good, and making a difference in the lives of individuals.
Connecting and combining resources
Assaulting disease
Driving accessibility Exploring humankind’s past
Innovators on innovation
October 2005
Real stories from government, education and healthcare.
Inspiration across industries
2 4 6 8 10 12
Inspiring public healthpage 4
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Millions of women have had routine mammography exams to catch
breast cancer in its earliest stages, when it can most easily be
treated. Tens of millions of these images have been stored in medical
facilities around the world. But finding and retrieving them can take physicians
days or even weeks, especially in today’s mobile
society. For patients and clinicians alike, that’s far
too much time.
To come up with a solution, IBM worked with
a consortium of top universities to enable the
National Digital Mammography Archive (NDMA)
grid. The NDMA, represented by i3ARCHIVE,
Inc.,TM offers a virtual repository of mammography
data and high-fidelity images from around the world. The grid provides:
• Electronic data capture of patient records
• Management and storage of huge files for fast retrieval, comparison and
diagnostic review
• Assurance of the security and privacy standards required for patient records,
including meeting federal and state regulatory requirements.
Answers in seconds
Hospitals are connected to the grid via a secure virtual private network that
allows authorized physicians to upload, download and analyze digitized X-ray
data to identify potential tumors and other problems. The NDMA can provide
access to current and past patient records in ninety seconds or less. Additional
benefits can include lower overhead and administrative costs, enhanced patient
safety and a reduction in potential legal expenses.
Based on open standards, the NDMA will also help doctors, medical students
and interns learn more about breast cancer and related diseases via a suite
of tools that includes educational tools for radiologist training. Ultrasound and
breast magnetic resonance imaging are also accessible through the NDMA.
Says Derek Danois, president of i3ARCHIVE, Inc., which is working to make
the tool broadly available to clinicians and patients worldwide: “Our mission is
focused on providing a world-class healthcare information network.”
To our readers: Remember, October is National Breast Cancer
Awareness Month!
Putting society’s computational shoulders to the wheel
At last count, the IBM BlueGene/L computer can
crank out 140 trillion computations a second without
breaking a sweat. But what if you need to do 140.1
trillion computations a second? That conundrum is
the IT equivalent of all your relatives descending on
you for the weekend, and you not having enough
bedrooms to handle the crunch. But just as you could
farm out your familial influx to nearby hotels and friends,
IBM is making it possible for universities, research
institutions, governmental agencies and private compa-
nies to connect and combine their computational
capacity. And, as the examples here show, the benefits
extend very far.
Finding needles in haystacks–and saving lives
An unmatched legacy of innovation: The many IBM innovations making important
differences in people’s lives today – data-mining
and speech-recognition technologies transform-
ing education, grid computing yielding new
cures for disease, programmable devices that
can make ports more secure and efficient, and
dozens more – flow directly from decades of IBM
achievements in research. Our clients and part-
ners reap the benefits of this legacy through the
unprecedented resources we can bring to bear
on society’s diverse challenges.
140,000,000,000,000
1890: Hollerith Punch Card
The U.S. Census Bureau adopts the Hollerith
Punch Card, Tabulating Machine and Sorter to
compile results of the 1890 census, reducing
an almost ten-year process to two years.
1945: First of many research centers
The Watson Scientific Computing Laboratory
opens in a renovated fraternity house near
Columbia University in Manhattan. In 1961, it
relocates to Yorktown Heights, New York. Today,
the T.J. Watson Research Center operates in
the United States, Switzerland, Israel, Japan,
China and India.
1956: Hard disks
IBM introduces the world’s first magnetic hard
disk for data storage. It had a purchase price
of about US$10,000 per megabyte. By 1997,
the cost of storing a megabyte had dropped to
around ten cents.
1971: Speech recognition
IBM achieves its first operational application of
speech recognition. Today, IBM’s ViaVoice® rec-
ognition technology has a vocabulary of 64,000
words and a 260,000-word backup dictionary,
and it is used in fields such as IT, emergency
medicine, journalism, law and radiology.
1981: Scanning Tunneling Microscope
Two IBM scientists, Gerd K. Binnig and
Heinrich Rohrer, invent the Scanning Tunneling
Microscope, which provides a first-ever look at
the topography of surfaces in an atom-by-atom
format – and which wins them the Nobel Prize
in physics.
1993: Scalable parallel systems
IBM pioneers the technology of joining multiple
computer processors and breaking down com-
plex, data-intensive jobs to speed their comple-
tion. This spawns many high-speed, high-volume
number-crunching applications that are proving
invaluable in weather prediction, healthcare,
research, oil exploration and other fields.
2005: Supercomputing
The world’s foremost supercomputer ranking
authority, Top500, taps the IBM BlueGene®/L as
the world’s most powerful supercomputer – plac-
ing it at the top of the list with sustained perfor-
mance of 136.8 teraflops, or trillions of floating
point calculations per second.
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Health sciences is just one area that can benefit from grid computing.
IBM recently launched the Economic Development Grid initiative, an
innovation that will employ grid computing and other technologies to
stimulate economic growth in cities and regions around the world. Cleveland,
Ohio, and Communauté d’Agglomération de
Bayonne Anglet Biarritz are two such areas that
will gain from this effort.
In the city of Cleveland, a variety of educational,
governmental, research, arts and cultural, health-
care and nonprofit organizations have joined to
create OneCleveland. After implementing an ultra-
broadband network serving much of northeastern
Ohio, OneCleveland is working closely with IBM to jumpstart new economic
activity in the area with an ultra-powerful computing grid. The grid will support
many of Cleveland’s startup companies – including those involved in medical
research and software development – that simply don’t have the capital to invest
in their own supercomputers. “It is an exciting time for us right now. By partner-
ing with IBM and utilizing its expertise in grid computing and in our focus areas,
we will have the resources necessary to affordably enhance the collaboration
among our healthcare, education, research and government organizations,”
says Scot Rourke, president, OneCleveland.
Another community, far from Ohio, is enjoying the same advantages, thanks
to an IBM grid designed, developed and deployed by IBM and IBM Business
Partner Overlap. Communauté d’Agglomération de Bayonne Anglet Biarritz in
France can connect to this communications infrastructure and benefit from high-
speed connections and Internet access – a boon for small and medium-sized
businesses, as well as local governments, throughout the region. The grid will
also help the community attract new and emerging businesses by offering the
services they demand. Says Manuel De Lara, director, de la Communication et
des TIC, Communauté d’Agglomération de Bayonne Anglet Biarritz: “The IBM
solution provides a distinct business advantage to us – we can attract and keep
businesses in the region by providing the services they demand.” The commu-
nity anticipates a return on investment in just ten years.
World Community Grid is a not-for-profit organization that has created
the world’s largest public computing grid to advance projects that
benefit humanity. IBM has worked closely with the Grid to develop a
pioneering technical infrastructure that allows individuals like you to contribute
unused computer time to public and other not-for-
profit humanitarian research.
All you have to do is download and install some
freeware from the Grid. Soon those minutes and
hours when your machine is twiddling its thumbs
will be taken up by one slice of a Grid project.
Currently, more than 145,000 computers around
the world have been harnessed by the Grid, and
they’ve exceeded a combined 16,500 years of time into Grid projects. Now, in
one day the Grid accomplishes the work of a single computer slaving away for
more than 50 years.
One of the first users of the Grid is the Human Proteome Folding project.
It’s designed to sort through huge amounts of data that contain the secrets
to how each protein in the human body affects our health. By using that data,
scientists can develop new cures for diseases such as cancer, HIV/AIDS,
SARS and malaria.
Big projects, faster results
Millions of computations are required to understand each protein’s role.
And there are 30,000 to study. Spreading the workload across a huge num-
ber of computers makes the task less daunting – accomplished in months,
not decades.
“IBM is involved in World Community Grid because just as we do for clients,
we’re committed to bringing the best technologies forward to address critical
societal and health issues,” says Linda Sanford, IBM senior vice president,
Enterprise On Demand Transformation, and chairperson of World Community
Grid’s Advisory Board. “World Community Grid demonstrates that government,
business, and society can be the direct beneficiary of innovation if we are will-
ing to rethink the way innovation and science both develop and prosper.”
To obtain the freeware, visit: www.worldcommunitygrid.org
Folding up diseaseFrom Cleveland to France, grids are catching on
IBM: Gridding the globeThese examples are just
the latest in a series of
grid projects that illustrates
IBM’s leadership in the
fast-developing field of
grid computing. IBM was
selected to build the North
Carolina Bioinformatics
Grid, which will be devel-
oped in collaboration with
GlaxoSmithKline Inc.,
Biogen, the University
of North Carolina, Duke
University, and other organ-
izations. IBM was also
selected by a consortium of
four U.S. research centers
to build the world’s most
powerful computing grid,
an interconnected series
of Linux® clusters capable
of processing 13.6 trillion
calculations per second.
This grid system – known as
the Distributed Terascale
Facility – will enable thou-
sands of scientists around
the country to share com-
puting resources over the
world’s fastest research
network in search of break-
throughs in life sciences,
climate modeling, and other
critical disciplines. IBM
is also collaborating with
several centers in the UK
National Grid to provide key
technologies and infrastruc-
ture for the project, which is
linking a massive network of
computers throughout the
United Kingdom, and also
building a powerful comput-
ing grid for universities in
the Netherlands.
Of course, grid computing
is all about connecting
large numbers of free-
standing computing into
massively powerful, collec-
tive wholes. But computers
that can’t readily commu-
nicate with each other are
useless to a grid. IBM has
long been committed to
140,000,000,000,000per second
open standards that make it
much easier for computers
to connect and communi-
cate among themselves.
(Open standards have the
added advantage of foster-
ing competition, driving
excellence up and prices
down.) For grid computing,
open standards also allow
organizations to start small,
learn the ropes, and then
boost their capabilities by
plugging new technologies
into the grid.
Today, IBM is at the forefront
of companies developing
and driving the adoption
of open standards. As grid
computing begins to come
into its own, IBM’s early
and continuing advances
in establishing widely
accepted standards will
only increase the pace –
and expand the benefits.
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We surveyed
the numerous
projects under-
taken by IBM
Healthcare and
Life Sciences
and found a rich array of collabora-
tions with major research institutions
around the world. A few of the
promising ventures:
Advancing research on childhood leukemia
IBM and St. Justine’s Pediatric Research Centre,
a university teaching hospital affiliated with the
University of Montreal, are working together to help
accelerate cancer research and improve patient
outcomes. Researchers are using an advanced
informatics infrastructure – a clinical genomics solu-
tion – to focus on acute lymphoblastic leukemia, a
cancer responsible for 25 percent of all childhood
tumors. IBM is supporting researchers’ efforts in
developing therapies with a solution that will take
into account the unique genetic profile of indi-
vidual patients and rapidly standardize, organize
and access a vast amount of data from a wide
variety of sources. “All research projects will be
supported from a single database and integrated
infrastructure. This will provide views suited to
specific needs, in addition to avoiding duplicate
entries and deleting nominative information from
clinical systems data – while retaining a trace back
to the patient, if required, and providing long-term
follow-up of patients, even into adulthood,” said
Iris-scanning kiosks
Assaulting disease with innovation
Dr. Daniel Sinnett, a doctor and associate professor
at University of Montreal and head of the leukemia-
cancer section at the Research Centre.
Seeking origins of Alzheimer’s and Parkinson’s diseases
IBM and École Polytechnique Fédérale de
Lausanne (EPFL) entered into a joint research
agreement, code-named Blue Brain, to create a
model of the neo-cortical column – a set of 10,000
neurons that repre-
sents the fundamental
building block of the
human brain. An IBM
^® BlueGene
supercomputer running
simulations of the brain
at a molecular level will
help researchers gain
new insights on inter-
nal processes such as
thought, perception and
memory. By using this
model, scientists hope
to learn more about
the origins of diseases
such as Parkinson’s
and Alzheimer’s.
“Modeling the brain at the cellular level is a
massive undertaking because of the hundreds of
thousands of parameters that need to be taken into
account,” said Henry Markram, the EPFL professor
heading up the project and founder of EPFL’s Brain
and Mind Institute.
By running experiments in real time, Markram
expects brain research to advance more quickly
than ever. “With an accurate computer-based model
For your eyes only:
Iris-scanning kiosks
offer travelers fast,
secure passage.
Once the stuff of James
Bond movies, iris scanning
is proving its worth in every-
day travel. For example,
pre-approved airline pas-
sengers can gain fast and
secure entry into Canada
simply by looking into a
camera. CANPASS, a pro-
gram implemented by The
Canada Border Services
Agency, utilizes self-service
kiosks designed by IBM
and embedded with iris-
scanning technology–
deemed by many to be the
most accurate way to verify
a person’s identify. The
kiosks feature an iris camera
and card reader that enable
travelers to be processed
through Customs and
Immigration in seconds.
The program, which is
strictly voluntary, allows
customs officials and secu-
rity agents to turn their
attention to high-risk situa-
tions and speed the flow
of passengers – more safely
and securely.
of the brain, much of the pre-testing and planning
normally required for a major experiment could be
done “in silico” rather than in the laboratory. With
certain simulations, we anticipate that a full day’s
worth of wet lab research could be done in a matter
of seconds on Blue Gene.”
Unlocking the mysteries of human disease
In November of 2004, IBM and a Karolinska Institute
team worked to build
Sweden’s first IT-
enabled biobank, a
valuable resource that
researchers can use
to study the effects of
genetics and lifestyle
on disease. Using the
IBM Healthcare and
Life Sciences Clinical
Genomics Solution,
they are examining
thousands of human
tissue samples along
with genetic and
environmental data to
spotlight the underly-
ing mechanisms of
disease, conduct more focused clinical trials and
ultimately transform healthcare delivery through
information-based medicine.
The biobank makes it easier to find causes,
develop diagnostic tools and discover cures for
diseases by allowing more research scientists
and research fields to make use of huge amounts
of connectable data – something that will be of
immense value to the next generation of research
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Road user charging
scientists. This type of collaboration could lead to
the development of more targeted, timely cures for
complex diseases.
Stopping infectious disease in its tracks
The Spatio-Temporal Epidemiological Modeler
(STEM) is a simulation and analysis tool designed
to help scientists and public health officials use
mathematical models to aid in understanding –
and potentially pre-
venting – the spread
of infectious diseases.
Through the develop-
ment of these models,
STEM provides a better
understanding of epi-
demiology and interac-
tions among diseases.
IBM designed STEM
as a basis upon which
software developers
and researchers can
build other useful appli-
cations. The prototype
code is available on
IBM alphaWorks® to
allow researchers to
explore its potential and provide guidance for
further development.
An on demand healthcare ecosystem
IBM has long worked to break down the barriers to
the efficient flow of information throughout the
healthcare community. For the Hospital for Sick
Children in Toronto, Ontario, IBM established a net-
work that now gives 500 physicians and 32 care
Untying the traffic knotIt’s a dream familiar to
anyone who owns an auto-
mobile: The lure of the
open road, the convenience
of personal travel, cruising
along in air-conditioned
comfort on a smooth,
uncrowded superhighway.
The reality, though, is very
different. As the number of
vehicles around the world
increases, congestion has
become a major problem.
Building new roads isn’t the
answer; the increase in traf-
fic volume is overwhelming,
construction is too expen-
sive, and the environmental
impact can be severe.
Enter the concept of road
user charging, which
requires drivers who use
highways to pay directly
for the privilege. The basic
idea, of course, is not new;
toll collection on highways
and at bridges and tun-
nels has been in place for
decades. It takes the idea
of “pay-to-play” a step fur-
ther – using technology
to track precisely where
and when a vehicle is used.
The goal is to equip all
vehicles – eventually at the
point of manufacture – with
devices that can be tuned
to different toll operators.
Drivers will receive an
itemized monthly bill for
miles traveled and borders
crossed. Charges are
based on a variable scale:
more for traveling during
peak hours and on heavily
traveled roads, and less for
driving during periods when
traffic is typically light.
Having participated in the
development of Singapore’s
electronic road pricing
system – the first in the
world – IBM is currently
working with the city of
Stockholm, Sweden to
implement road user charg-
ing systems. Test programs
are already underway in
Seattle, WA, as well as the
state of Oregon.
facilities around Canada and the world access to
the hospital’s specialized pediatric resources.
IBM Research has also launched a broad-scale
initiative called the Interoperable Health Information
Infrastructure project. It’s aimed at driving badly
needed standards across the healthcare commu-
nity, and providing every American with a medical
record by the end of the decade. Involving scien-
tists from around the globe, this project will improve
the effectiveness of
medical care and
enable doctors to make
better decisions by
integrating information
among hospitals, agen-
cies and patients.
This use of informa-
tion technology and
open standards to
enhance the flow of
information within the
healthcare industry is
an essential step in
reducing costs and
improving quality. For
example, it could
transform public health
information by allowing the Centers for Disease
Control, along with state and local departments of
public health, to better understand how infectious
diseases spread. IBM has also developed a new
public health toolkit that will allow such agencies to
base plans and forecasts on well-grounded scien-
tific models for infectious and chronic disease.
www.alphaworks.ibm.com/tech/stem
The three pyramids Three stained pyramidal neurons. These neurons stand
nearly 2mm high and receive over 10,000 inputs from
other neurons, which they process in their complex
dendritic arbors using active regenerative mechanisms.
October 2005 | 5
6 | INSPIRED October 2005 | 7
True or false: Accessibility is an issue of primary
interest only to people with disabilities.
Before you answer, consider this: According to
recent AARP statistics, by the age of 50, one in
every four people will acquire a functional disability.
By age 65, one in two will be functionally disabled.
Frances West, director of the IBM Worldwide
Accessibility Center, led her testimony before
the U.S. Senate – not quite what you’d call a youth
organization – with that eye-opening statistic.
West appeared to urge the senators to support
“harmonized” disability standards among countries.
IBM has long been committed to helping people –
including those with disabilities – enrich their partici-
pation in society. In 1914, the company hired its first
disabled employee, 76 years before the Americans
with Disabilities Act.
Today, IBM is hard at work with universities, gov-
ernment agencies and other clients to discover and
develop new technologies to provide “innovation
that matters” to people with disabilities. At IBM,
accessibility isn’t about building ramps or publish-
ing scientific papers in Braille. It’s about using inno-
vation to enrich the lives of people both with and
without disabilities – in short, society at large.
Centers of innovation
In 2000, IBM merged its existing accessibility
groups to form a worldwide Accessibility Center
with locations in the United States, Europe, Japan
and Australia. The Accessibility Center fosters prod-
uct accessibility, works toward the harmonization
of worldwide standards, applies research technolo-
gies to solve diverse problems experienced by
people with disabilities, creates industry-focused
solutions and spreads the word about the impor-
tance of accessibility.
Helping people with disabilities takes technology–
innovative technology. Because so many IBM
assistive technologies were born in our research
labs, the Accessibility Center has a direct line to the
scientists developing new technology. A special
team works with researchers to identify new
technologies that can enhance accessibility and
be incorporated into mainstream products.
Once it spots a technology, the team works with
other IBM business units, independent software
vendors and assistive technology vendors to trans-
fer the technologies to the appropriate parties.
Many times, IBM takes cutting-edge technology
from IBM Research, transforms it into a work-
ing prototype and tests it with clients. Successful
ideas then become offerings that help more people
access IT – regardless of ability or disability.
Teaming with China
China has 60 million citizens with disabilities.
Early this year, IBM and the China Disabled Persons
Federation signed an agreement reflecting the
current campaign by the Chinese government to
create a “Harmonized Society through Accessibility”
that will assist people with disabilities. Through the
new IBM China Accessibility Center, IBM divisions
in China are working closely with the Chinese gov-
ernment to help promote consistent, open stand-
ards for Web accessibility, and explore innovative
tools that help:
• People who are blind use screen reader applications
that read information aloud.
• People who are deaf read captions, embedded in
video and audio files.
• People who have low vision, color blindness or
age-related vision problems can be helped by
increasing the text size or changing the color con-
trast of Web pages.
Under the agreement, IBM and the China
Disabled Persons Federation announced plans to:
• Co-sponsor, along with the China Braille Press, a
campaign to teach thousands of blind Chinese
citizens to use computers. IBM will donate new
ThinkPad® laptops to assist with the campaign.
• Work toward setting accessibility policies, laws and
standards that help people with disabilities in China
to participate in the “information society” more fully
and productively.
Accessing innovation . . .innovating access
Pharma’s futurebeen set up, one such
example being the Smallpox
Research Grid, which has
screened 35 million drug
candidates with process-
ing power provided by two
million PCs from volunteers
around the world.
IBM forecasts that seven
key technologies will help
the pharmaceutical industry
reduce its pre-launch drug
development costs to as
little as US$200M (a quarter
of the current average cost
per drug); cut average lead
times from 12-14 years to
between 3-5 years; dramati-
cally increase success rates
from first human dose to
market; raise the quality of
development and manufac-
turing processes, and allow
companies to deliver bigger
shareholder returns than
ever before. These include:
1 Petaflop and
grid computing
give the indus-
try access to
unprecedented
levels of computing power.
By 2006, a new genera-
tion of petaflop computers,
including IBM Blue Gene,
will enable large-scale
biomolecular simulations,
such as protein-folding
studies. Grid computing
(which harnesses the idle
computing power locked in
companies’ desktops and
servers), will enable com-
panies to undertake such
tasks as screening for DNA
sequence matches, and
analyzing sales and market-
ing data in real time. Several
research grids have already
2 Predictive
biosimulation is
the use of
sophisticated
computer-
generated models to simu-
late how a biological system
works as a whole. Predictive
biosimulation enables phar-
maceutical companies to
significantly reduce the
number of wet lab experi-
ments required to identify
possible drug targets. “In
silico” modeling (as
opposed to “in vitro” – in
glass or “in vivo” – in life)
also enables researchers to
predict the effects of drugs
on the human body, includ-
ing their efficacy and safety.
Various academic institu-
tions are building computa-
tional models, including
Indiana University’s
Center for Cell and Virus
Theory, which is exploring
how cells react to chem-
ical disturbances.
3 Pervasive com-
puting – miniatur-
ized devices,
mobile telecoms
and wireless
technologies – will ultimately
transform drug development
and healthcare delivery by
facilitating the transmission
and collection of biological
data on a real-time basis
outside a clinical setting.
That, in turn, means it can
be used to monitor patients
and manage their health;
to test new drugs in totally
different ways; and to
deliver healthcare any-
where, anytime. Several
firms, including Philips
Medical, are designing intel-
ligent biomedical clothing;
and Bang & Olufsen has
devised a “pill box” that
reminds patients when to
take their medicine.
The China Accessibility Center is leveling the field for hearing- and vision-impaired citizens.
At IBM, better ideas become better innovations for people of all abilities.
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• Launch a Liberated Learning Pilot Project with
the Special Education College of Beijing Union
University using the IBM ViaScribe™ speech-to-text
technology to translate lectures into computer text
displayed on a screen in the classroom.
• Co-host the second China Information Accessibility
Forum in October 2005.
“From survival to self-achievement”
The initiatives mesh with China’s goal to create a
“Harmonious Society” that will empower citizens
through science and technology.
China sees the adop-
tion of accessible tech-
nology as an import-
ant step in moving
citizens with disabilities
“from survival to self-
achievement.” It’s part
of a broader program of
education, job training
and societal advance-
ment, aligned with
IBM’s strategy to deliver
not just innovation, but
innovation that matters
to the world.
“Enhancing human
capacity through
accessible technology
and solutions,” West
said, “is innovation that matters, as it allows for a
more inclusive society, a society where human
and societal potential can be optimized.”
Liberated learning
A group of ten universities around the world is
earning top marks for teaming with IBM on an
initiative to make learning easier for students with
disabilities – and, in the process, simplify it for
other students, too.
In a traditional university setting, students who
are deaf or hard of hearing can find it hard to take
notes. Those who rely on wheelchairs may have
trouble getting into a lecture hall. Blindness or other
visual impairments can make note-taking difficult.
And students with learning difficulties can find con-
centration a challenge if notes have to be taken
at the same time. Meanwhile, international stu-
dents can struggle to overcome language barriers
between them and the faculty.
Widely known for their cutting-edge research
and commitment to students, Saint Mary’s
University in Nova Scotia and California State
University at Northridge are pioneers in making
education accessible to their attendees through
the Liberated Learning Initiative. A key compo-
nent of the initiative is IBM speech recognition
computer technology, which professors rely on
to deliver classroom lectures.
As Saint Mary’s Liberated Learning Initiative
International Manager Keith Bain explains, “IBM
speech recognition technology was originally
implemented to help
level the playing field
for students with dis-
abilities. But we have
received overwhelming
feedback from students
without disabilities who
believe in the tremen-
dous potential of this
technology as well.”
Listening with one’s eyes
The participating
professors first develop
personalized voice
profiles so the IBM
speech recognition
technology can under-
stand their individual
speaking styles. The software essentially recognizes
the speaking style of each professor. While lectur-
ing, the professors wear a wireless microphone that
picks up their spoken words and sends them to the
computer. The speech recognition technology then
transcribes the audio into text – in real time – and
projects it onto a large screen for students to read.
Following the lecture, comprehensive, computer-
generated notes are available to students online
and in various other formats – text or audio only, or
a synchronized text-to-audio version.
Professor of Religious Studies Dr. Amir Hussain
says, “The technology benefits deaf and hard-of-
hearing students by allowing them to see the words
that I speak. Blind students can use the audio ver-
sion of the lecture, or convert the electronic text to
Braille. It benefits learning disabled students who
are better able to process information that they can
see rather than hear. And, both disabled and non-
disabled students benefit from the edited transcripts
of each class.”
4 Smart tags, or
radio frequency
identification
(RFID) tags
enable physical
objects to be identified at
many points during manu-
facturing and distribution.
RFID can help pharmaceuti-
cal companies to prepare
for a future with greater
numbers of more complex
products produced in
smaller quantities. It will
also help companies satisfy
the increasing demands of
regulatory compliance by
enabling the monitoring of
pharmaceutical products
at points in the supply
chain, and allows for more
efficient and effective prod-
uct authentication.
5 Advanced stor-
age solutions
will provide the
tools with which
to manage and
maintain the vast quantities
of data now being gener-
ated. Sophisticated new
storage servers, virtualized
storage grids and trans-
parently integrated record
management and archiv-
ing systems will help the
industry comply with the
increasingly tough require-
ments imposed by the Food
and Drug Administration,
the Securities and
Exchange Commission
and other regulators.
6 Process analyti-
cal technology
lets companies
monitor their
manufacturing
processes continuously and
automatically in real time,
rather than intermittently
and historically via samples
and post-manufacturing
quality controls. The tech-
nology improves manufac-
turing quality and saves
money, because it is
cheaper to adjust a produc-
tion line immediately than to
discard goods that have
fallen outside the agreed
tolerances. The FDA’s new
rules on good manufactur-
ing practices will have a sig-
nificant influence on the
investment in process ana-
lytical technology.
An IBM speech technology can actually “hear” what a person is saying and transcribe it for viewing on a computer screen.
There is no looking back for blind students, thanks to IBM text-to-Braille technologies.
Accessibility technology empowers citizens with dis-abilities to move from “survival to self-achievement.”
7 Web-scale
mining and
advanced text
analytics use
intelligent algo-
rithms to scan all the digital
information on the Internet
as soon as it becomes avail-
able. This new generation of
data and text mining tools
will enable pharmaceutical
companies to quickly and
efficiently draw meaning
from huge quantities of
research, marketing and
patient data. Web-mining
will help the industry con-
duct research, select poten-
tial targets for further study,
identify trends, perform
more active pharmacovigi-
lance, anticipate potential
crises and gain better
patient insights.
To download a PDF of
the report “Pharma 2010:
Silicon Reality,” visit:
ibm.com/bcs/pharma2010
“In essence, we are strivingto deliver not just innovation, but innovation that matters to the world, a corporate core value of IBM. And wethink that enhancing humancapacity through accessible technology and solutions is an innovation that matters.”– Frances West, Director, IBM Worldwide
Accessibility Center
October 2005 | 7
8 | INSPIRED October 2005 | 9
Exploring the collective past of all humankind
Sharpening the intelligence of campus security
St. John’s University is
America’s largest Catholic
university with a student
population of 19,000.
The institution is home
to three New York-based
campuses spread across
Manhattan’s metropolitan
area. The 135-year-old
school’s New York-based
residence halls house
2,500 students.
In addition to its mission
to provide a first-rate
education, St. John’s insists
on having tight security
without impeding on its
constituents’ quality of
Discovering the links
Scientists from the IBM Computational Biology
Center, one of the world’s foremost life sciences
research facilities, will apply advanced analytical
technologies and data sorting techniques to inter-
pret the samples and discover new patterns and
connections within the data they contain. IBM is
also providing the core computational knowledge
and infrastructure that will manage the hundreds of
thousands of genotype codes being analyzed by
The Genographic Project.
“IBM and National Geographic are embarking on
a historic expedition into our global histories,” said
Samuel J. Palmisano, chairman and CEO of IBM,
when the project was announced in April of 2005.
“Our two organizations have long contributed to
scientific exploration and achievement, extending in
different ways the boundaries of human knowledge
and understanding. We continue this tradition of
innovation that matters for the world and welcome
the participation of the hundreds of thousands of
people who will join in this amazing journey.”
life. The university’s video-
surveillance technologies
and the due diligence of its
safety officers has been a
key part of St. John’s Public
Safety department’s capa-
bilities. Over time, however,
the university’s closed-
circuit television surveillance
systems began to show
their age.
School officials sought a
solution that would sup-
port St. John’s efforts to
provide a “safety first” yet
non-intrusive environment
while making the best of its
existing technology invest-
ments. The answer came in
the form of a 165-camera,
network-based system
designed and implemented
by IBM. The solution, which
utilizes “intelligent” software
from Insight Video Net,
offers impressive advan-
tages. Before, if an incident
were to occur over a long
weekend, safety officials
would have to run through
72 hours of videotape to
find it – a process that could
take days.
Now, St. John’s system has
an instant-replay capability.
“One of our insurers, an old
and venerable, international
company, paid us a visit
and toured the new com-
mand center. During the
demonstration, on the spur
of the moment, we asked
them where they’d been
five minutes before. Within
seconds, we had the video
of the group displayed
on the big monitor. They
were impressed, to say the
least,” noted Walter Kerner,
St. John’s Director of
Network Services.
The university’s cameras
now connect to digital
encoders – creating a data
stream that flows from
St. John’s network to its
new state-of-the-art com-
mand center. The system
can detect the slightest
motion, simplifying the job
of finding and following
actions. Additionally, “An
officer can see something
and immediately replay it to
find out what just happened,
with no interruption in serv-
ice at all. This capability
alone is worth its weight
in gold,” says Joe Tufano,
St. John’s CIO. The biggest
advantage, of course, is
the ability to offer students,
faculty, staff and visitors
optimum security, 24x7.
IBM and the National Geographic Society are undertaking a landmark, five-year study that will map how mankind populated the Earth.
8 | INSPIRED
The Genographic Project will employ sophisti-
cated computer analysis of DNA contributed
by hundreds of thousands of people to reveal
mankind’s migratory history and better understand
the connections and differences that make up the
human species. Using sophisticated laboratory
and computer analysis of that DNA, an international
team of scientists and IBM researchers are mapping
the flow of human populations around the globe
since we first left Africa around 60,000 years ago.
A group of leading scientists from ten research
centers around the world will conduct field and
laboratory research of DNA contributed from vari-
ous indigenous populations. Funding for global
field science will be provided by the Waitt Family
Foundation. The resulting public database will
house one of the largest collections of human popu-
lation genetic information ever assembled, and will
serve as an unprecedented resource for geneticists,
historians and anthropologists.
8 | INSPIRED October 2005 | 9
Project components
Spin doctors: IBM and Stanford teams study spintronics
erty is central to creating
a whole new breed of elec-
tronic properties.
For example, scientists
are optimistic that their
work could lead to new
materials and devices with
unique capabilities, such
The quest for altogether new
ways to further reduce the
size and power demands
of microcircuitry is under-
way at Stanford University.
Spintronics is an emerging
field of nanotechnology that
deals with controlling the
spin – or magnetic orienta-
tion – of electrons. Today,
IBM and Stanford teams
hope to unlock secrets that
will lead to a revolutionary
generation of low-power
switching, as well as infor-
mation storage devices that
retain their contents even
when power is switched off.
“These scientists will
dramatically hasten
progress from theoretical
concept to experimental
verification and from new-
device ideas to product
prototypes,” said Stanford
Dean of Engineering
James D. Plummer.
IBM demonstrated the
promise of spintronics in
1997, when it unveiled its
giant magnetoresistive
head, which has since
enabled a 40-fold increase
in data density on stor-
age devices. Another
multilayered spintronic
structure is at the heart of
the high-speed, non-volatile
magnetic random access
memory, currently being
developed by IBM in
collaboration with several
other companies.
Electron spin is a quantum
property that has two pos-
sible states: either “up” or
“down.” Aligning spins in a
material creates magnetism.
Moreover, magnetic fields
affect the passage of “up”
and “down” electrons
differently. Understanding
and controlling this prop-
as reconfigurable logic
devices, room-temperature
superconductors and
quantum computers.
Research is being con-
ducted by half a dozen
Stanford professors, a
similar number of IBM
scientists, up to ten gradu-
ate students working at
both IBM and Stanford,
three or more postdoctoral
researchers, and two or
more visiting faculty. Initial
funding for their efforts is
from IBM and Stanford,
participating scientists’
research projects, as well
as agencies such as the
Defense Advanced
Research Projects Agency,
the U.S. Department of
Energy and the National
Science Foundation.
the field and laboratory
research, with oversight
from an international
advisory board.
Public participation and
awareness campaign
Members of the public
can trace their own
migratory history while
helping to support the
project by purchas-
ing a Genographic
Participation Kit
(available at www.natio-
nalgeographic.com/-
genographic) and sub-
mitting swabs of inside
their cheeks. National
Geographic and IBM
will regularly update the
public and the scientific
community on project
findings through its
Field research
Collecting DNA sam-
ples and field research
with indigenous popu-
lations are central to
discovering ancient
migratory patterns.
Project leader Spencer
Wells and a consor-
tium of scientists from
prominent international
institutions will conduct
“We see this as the ‘moon shot’ of anthropology,
using genetics to fill in the gaps in our knowledge
of human history,” said project leader Dr. Spencer
Wells, Explorer-in-Residence with the National
Geographic Society. “Our DNA carries a story that
is shared by everyone. Over the next five years we’ll
be deciphering that story, which is now in danger
of being lost as people migrate and mix to a much
greater extent than they have in the past.”
Discover your own migratory history!
“National Geographic has been exploring and map-
ping the world for 117 years,” said John Fahey,
President and CEO of the National Geographic
Society. “Now, as a result of our remarkable team-
work with IBM and Dr. Spencer Wells, we are
deploying state-of-the-art science and technology
to map our journey across the planet.”
You can contribute to The Genographic Project
by purchasing a participation kit and allowing your
results to be included in the database. You will then
be able to follow the progress of your own migratory
history, as well as the global research, by logging
on to nationalgeographic.com/genographic.
Web site, six hours
of television pro-
gramming and
other media outlets.
Genographic
legacy project
Proceeds from the sale
of the Genographic
Participation Kits
will help fund future
field research and a
October 2005 | 9
legacy project, which
will build on National
Geographic’s focus
on world cultures. The
legacy project will
support education
and cultural preserva-
tion initiatives among
indigenous groups.
10 | INSPIRED October 2005 | 11
Turning the tables on disability: Dr. Dimitri Kanevsky
Innovations can spring
from a need . . . a
gift . . . an inspiration . . .
a technology. In the
case of Dr. Dimitri
Kanevsky, each has
shaped this excep-
tional man’s life and
work. Scholar. Author.
Inventor. Researcher.
Kanevsky is all of these things. Born in Kiev,
Ukraine, he has been deaf since the age of three.
This did not deter his resolve, nor his ability to craft
a life filled with achievements. Kanevsky’s work
at the IBM Watson Research Center alone has
resulted in 74 U.S. patents, and at least 82 patents
worldwide – many in the area of speech technol-
ogy. Among his accomplishments: ViaScribe, a
system that transcribes lectures for students in real
time . . . non-intrusive disease-detection systems . . .
glasses that transform street signs into a person’s
native language . . . and a system that prevents
people from falling asleep while driving.
IBM: In your opinion, what are the elements
of innovation?
Kanevsky: Innovations encompass three aspects:
the minds of the people that conceive them, the
technologies that enable them and the problems
that they help solve. Innovations can come from an
idea, a need, or be made evident by a technology.
IBM: Being a mathematician, how do you approach
a problem?
Kanevsky: At IBM, I have the opportunity to see a
lot of technology applied in many areas – speech
recognition, translation, and nanotechnology, for
example. When I identify a need or a problem, I only
have to look around me to see how a technology
might help solve it. This is how inventions and inno-
vations are born.
IBM: Speaking of invention, how does it differ
from innovation?
Kanevsky: Invention is just a technical thing that
solves a technical problem. Innovation requires
teamwork. It doesn’t just come from people
like me, or from technology. It relies heavily on
people communicating, interacting and sharing
opinions. Teamwork is a very big factor, and
IBM encourages that.
IBM innovators on
“ Innovation requires teamwork. It doesn’t just come from people like me, or from tech- nology. It relies heavily on people communi- cating, interacting and sharing opinions.”
– Dr. Dimitri Kanevsky
IBM: Not everyone is aware that IBM technologies are
“under the covers” of so many innovations.
Kanevsky: When I started to work at IBM 19 years
ago, IBM was like a university. You could just do
research – long-term research – without thinking
about an immediate application. A few years ago,
IBM started to change. The goal was not only to do
good research, but also to think about how our work
could solve customers’ problems. This involved
gathering feedback from customers, which helps
us focus on real-world challenges.
IBM: Can you give us an example of how IBM
approaches innovation?
Kanevsky: IBM takes a balanced approach; we don’t
just focus on solving customers’ immediate needs.
For example, IBM conducts something called
“adventurous research.” Adventurous research
involves things that might have a big impact in four
or five years. IBM also conducted a “World Jam”
connecting IBM personnel all over the world during
one 72-hour period. The purpose was to provide
a Web-based platform for employees to share
ideas and challenges. World Jam served as a test-
ing ground for a number of research experiments,
including an animated site guide and a variety of
brainstorming games.
IBM: What would you say to potential innovators?
Kanevsky: You should not be afraid if your solution is
so out of the ordinary that people do not understand
it the first time around. You need to have the ability
to look ahead. You can take a standard thing that is
not new and, depending how you apply it – how you
make it useful – it can become an innovation.”
Seek and ye shall find: Michelle Zhou
Imagine being able
to find – in exacting
detail, and in the exact
context – the infor-
mation you need to
answer an inquiry,
confirm a location,
screen a candidate,
search for passengers
or identify cargo.
Soon it will be possible with IBM Realhunter,TM an
IBM patented technology that raises the bar for
information-seeking technologies. The person who
leads this effort is Dr. Michelle Zhou, a research
staff member and manager at the IBM T. J. Watson
Research Center.
10 | INSPIRED October 2005 | 11
IBM: How does Realhunter differ from a traditional
search engine?
Zhou: Unlike common search engines, Realhunter
enables people to perform application-specific,
“contact-sensitive” information searches. For exam-
ple, when evaluating a potential foster home, social
services agencies have to determine which family
among what can be thousands is best qualified to
serve a child’s particular needs in terms of care,
family size, cultural similarities, location and the
like. The data regarding a child – and possible foster
families – would be stored in an agency’s databases.
On top of that data would sit a generic search
engine like IBM OmniFindTM or Google,TM for example.
And on top of that would be Realhunter.
IBM: So Realhunter is a level above traditional
search engines?
Zhou: Definitely. Let me depict the world without
our technology. If I type “Columbia,” Google will
come up with Columbia the university, Columbia the
county, Columbia the sports brand, and so forth.
In Realhunter’s case, it knows the context of the
query. If the previous user query was “Harvard
University,” it uses that as a reference point to inter-
pret the current query. In this case, it can figure out
that “Columbia” most likely refers to the university.
IBM: Does it “learn” more over time?
Zhou: Absolutely. In the beginning, the system may
understand very little about the user or what they
ask for. We use a kind of dynamic, adaptive conver-
sational metaphor between the user and the com-
puter to gradually establish the context so each can
adapt to one another’s expressions. Search engines
basically say, “This is what you asked for. Maybe
I’ll just satisfy your request and dump all the results
back on you.” Realhunter is a mediator. Imagine it
saying, “Let me show you the information you care
about the most.”
IBM: Realhunter has obvious value for government,
education, healthcare and life sciences fields.
Zhou: Oh yes. Let’s say a government agency sets
up the context for the system – checking passen-
gers, for instance. The agency fills out a “form” or
issues a natural language query about the informa-
tion stored in their database. Realhunter figures out
the best and fastest way to answer users’ questions
in the context of that data – passenger identities
and travel methods, for example. For the sake of
security, the agency or department can also autho-
rize users on a “need to know” basis.
IBM: What other characteristics distinguish Realhunter?
Zhou: It’s a very adaptive, very versatile system. For
example, users can utter a request in their natural
language while pointing to objects on their screen.
Realhunter can correlate the input, much like a
person reads human expressions. This enables
people to express their requests in a very flexible,
very natural way.
IBM: So it acts as a very skilled, “multitalented”
interpreter?
Zhou: Exactly. The average person is not expert at
understanding computer language, and computer
systems are not designed to understand the subtle-
ties of human expressions. Realhunter serves as
the interpreter to comprehend what a user wants.
It translates the request into a format the computer
can understand, then gives the information back
to the user – organized, refined and relevant. It all
goes back to IBM’s goal of helping our customers
solve problems.
From lasers to LEGOs: Dr. James Wynne
Jim Wynne is program
manager for local edu-
cation outreach at the
IBM Thomas J. Watson
Research Center. In
2002, he and two IBM
colleagues – Samuel
Blum and Rangaswamy
“Sri” Srinivasan – were
named to the National
Inventors Hall of Fame for their role in the discovery
of the process at the heart of laser in situ keratomi-
leusis (Lasik) surgery, which has brought 20/20
vision and freedom from eyeglasses and contact
lenses to millions of people.
IBM: How did IBM pioneer a major breakthrough
in ophthalmology?
Wynne: In 1981, my team and I were experimenting
with short-pulse, ultraviolet lasers. And right after
Thanksgiving, Sri brought in a leftover turkey, and
he and Blum trained the UV laser on it. The laser
beam cut the cartilage with an amazingly fine inci-
sion. We had the insight that this process could be
used for surgery on delicate parts of the body
where you wouldn’t want scar tissue to form. Even-
tually, we found that it easily surpassed all other
ways of re-shaping the cornea to correct vision.
IBM: Why did IBM, an IT company, have your team
working with lasers?
Wynne: IBM created, and still creates, an atmos-
phere that encourages research teams to try out
new things. We happened to get lucky not just in
terms of the discovery, but also in finding such
an important application.
IBM: So luck played a role?
Wynne: Yes, and also being part of an environment
that fosters creativity, where a mix of people come
together to explore frontiers and find things that no
one knew existed.
IBM: What does your job in “educational outreach”
have you doing now?
Wynne: Part of it involves maintaining that fertile
intellectual atmosphere within IBM. One thing I
do is bring in scientists and other experts from
many different disciplines to speak to us at the
Research Center.
I also play with LEGOs®– sort of. Our top man-
agement is passionate about bringing more kids
into engineering. So I recruit IBMers to work with
FIRST, a non-profit organization that runs FIRST
LEGO League robotic tournaments around the
world for some 70,000 kids. These kids build
their robots out of LEGO parts, some of which are
equipped with microprocessors.
IBM: How has the corporate research atmosphere
changed over the last 35 years?
Wynne: There’s more focus on solving problems
that people and organizations face. But the trick is
still picking the best people and then developing
an atmosphere that fosters creativity. That hasn’t
changed a bit.
12 | INSPIRED
But CCSD 15 quickly ran
into a major stumbling
block – the requirement that
applicants demonstrate
continual improvement
against results-focused
criteria. The district turned
to IBM for help. The problem
wasn’t a lack of data that
could be used to demon-
strate results, it was finding
a practical way to get at
it, since its causes were
scattered throughout the
district in the form of every-
thing from state stand-
ardized tests to reading
intervention programs to
writing portfolios.
As the U.S. Navy sailed
into the 21st-century, it dis-
covered that it lacked an
easy way to track how
well it was supplying
replacement parts needed
by the ships and aircraft
it has spread across the
Pacific and Southwest Asia.
A sketch of one approach
looked like the track of
a bird. Thus, Birdtrack
was born. This manual
spreadsheet system was
so popular that maintain-
ing the growing amounts
of information it collected
became unwieldy. The Navy
contacted IBM to see if
For more information
IBM is ready to bring together an unmatched
range of resources to help governments,
educational institutions and healthcare enterprises
transform themselves and meet the complex
demands of their many constituencies through
innovation. For more information, contact your
IBM representative, or visit:
ibm.com/education/innovation
ibm.com/government/innovation
ibm.com/healthcare/innovation
© Copyright IBM Corporation 2005
IBM CorporationNew Orchard RoadArmonk, NY 10504U.S.A.
Produced in the United States of America10-05All Rights Reserved
IBM, the IBM logo, ibm.com, the eServer logo, alphaWorks, BlueGene, OmniFind, Realhunter, ViaScribe, ViaVoice and WebFountain are trademarks or registered trademarks of International Business Machines Corporation in the United States, other countries, or both.
Linux is a trademark of Linus Torvalds in the United States, other countries, or both.
Other company, product or service names may be trademarks or service marks of others.
References in this document to IBM products, programs or services do not imply that IBM intends to make such products, programs or services available in all countries in which IBM operates or does business. Any reference to an IBM program or product in this document is not intended to state or imply that only that program or product may be used. Any functionally equivalent program that does not infringe on IBM’s intellectual property rights may be used instead. It is the user’s responsibility to evaluate and verify the operation of any non-IBM product, program or service.
New technology helps schools earn an “A” for quality
In Palatine, Illinois, located
in Chicago’s northwest-
ern suburbs, Community
Consolidated School
District 15 (CCSD 15)
serves 13,000 students
spread out over 15 elemen-
tary schools and four junior
high schools. To foster
excellence, CCSD 15
administrators wanted
to tap into some of the same
quality control techniques
used by top corporations –
and then win the prestigious
Malcolm Baldrige National
Quality Award, which
recognizes “Six Sigma”
leadership in strategic plan-
ning, customer and market
focus, information and
analysis, human resources,
process management and
business results.
IBM helps U.S. Navy shrink the Pacific Ocean
there was a way to automate
the system, and within six
months an IBM team had it
up and running.
The time and money
savings began flowing
immediately. For example,
supply officers could see
that it was taking 17 or 18
days for many parts orders
to reach operations abroad.
The Navy then selected
850 parts that warranted
faster delivery and started
warehousing them at bases
closer to the places where
they were needed. That
simple move slashed deliv-
ery times by two-thirds.
“Getting the parts to the
ultimate user in six days
as opposed to 18 has a
massive impact on unit
readiness, and also mini-
mizes the disruption to the
planned operational tempo,”
notes Captain Thomas C.
Traaen, Supply Corps Navy
Director for Fleet Supply.
Screening data to combat money laundering and fraud
G299-0790-00
What’s more, by tracking
the need for various parts
and using more efficient
allocation schemes such as
air freighting, the Navy esti-
mates it can save US$20-30
million internally each year.
Birdtrack got one of its first
major tests when the Navy
responded to the Asian
tsunami disaster, using
the system to track relief
materials to better antici-
pate workload and monitor
backlogs. Fleetwide, the
automated Birdtrack system
has provided a high-level
view of inventory usage that
has resulted in more sophis-
ticated decision making.
The goal is to extend those
benefits to the Navy’s sister
services including the
United States Marine Corps,
the United States Army and
the United States Air Force.
IBM came up with an
answer built around an
educational data ware-
house called Insight at
School, which pulls data
that educators need to
measure and monitor
student progress from a
variety of sources, such
as student information
systems and assessment
databases. Insight at
School then creates an
information system that
teachers and administrators
can use for analysis, report-
ing and decision making
on a wide range of sub-
jects, including curricula,
budgets and personnel.
CCSD 15 won the Baldrige
Award – becoming just the
third school district in the
nation selected for that
honor. More important,
though, is the powerful tool
the district has that greatly
simplifies a seemingly
impossible job.
According to Carol Ann
Rush, retired School
Improvement Facilitator,
CCSD 15, “The data ware-
house is one of the tools
that gave us the capacity
to accomplish the goals
that we had set forth. It’s
allowed us to not just come
up with numbers, but rather,
enables us to view individ-
ual children; it ‘puts faces’
on our data.”
Money laundering has
expanded from being a
practice usually associated
with organized crime to an
activity that could signal
the presence of terrorists
and risks to national secu-
rity. Nonetheless, screen-
ing the daily volume of
transactions that take place
in global commerce is an
enormous task.
In the U.S., financial
institutions can be required
to run checks on custom-
ers moving large sums
of money. The data that
banks, investment houses
and others need to conduct
these screens resides in
more than four billion pages
of unstructured information
on the Web and elsewhere,
making it extremely difficult
and expensive for institu-
tions to search through this
data, especially on any kind
of timely basis.
To facilitate this
task, IBM devel-
oped a unique
information-
discovery
and analy-
sis technol-
ogy called IBM
WebFountain,TM
a Web-scale
business intel-
ligence platform
for very large text-
analytics applica-
tions. WebFountain
provides valuable insight
by uncovering relationships,
patterns and trends as it
analyzes billions of pages of
text from the Web, bulletin
boards, chat rooms, enter-
prise data, newspapers,
trade journals, licensed
feeds and proprietary data.
WebFountain can even
read multiple languages,
identify things of interest
and integrate them –
regardless of whether
the text is in
English, Chinese,
Arabic, French,
German or
Spanish (soon to
include Russian and
Portuguese). With this mul-
tiple language support, it
offers a global view.
This IBM innova-
tion is engineered
to serve far into the
future, too. Based on
sophisticated unstructured
data mining and semantic
metadata technologies,
WebFountain allows risk
and compliance teams to
cost-effectively respond to
changes in legislation that
influence anti-money laun-
dering initiatives and other
financial fraud.