Showing posts with label Biotechnology. Show all posts
Showing posts with label Biotechnology. Show all posts

October 12, 2016

Losing Patience With Tech Progress

We're so close yet so far...that's my feeling as I grow ever impatient with the pace of technological progress. 

We have cloud computing, but still everyone has their own private computing setups everywhere. 

We have mobile computing, but still can't get get reliable service in the Metro and all the other "dead zones."

We have social computing, but still people are so cliquey and nasty and troll and bully each other online and off. 

We have the Internet of Things, but still things don't really talk to each other regularly (except our smart meters).

We have robots, but still they're relegated to factory assembly lines. 

We have natural language processing, but still can't get a meaningful conversation going with Siri.

We have 3-D printing, but still can't get dinner or a pair of Nikes to appear from the Star Trek like "Replicator."

We have augmented and virtual reality headsets, but still can't go anywhere with them without getting motion sickness.

We have biometrics, but still have to sign the check.

We have driverless cars, but still there is a driver inside. 

We have networks of information, but still it's subject to hacking, malware, identity and data theft, and even big time EMP knockouts. 

We have immunotherapy, but still haven't beaten cancer. 


We have nanotechnology, but still we travel through life loaded down with material possessions.

We have food and biotechnology, but still one in eight people are going hungry. 

We have space shuttles and stations, but still can't get a colony going on Mars.

We have big data, but still information is corrupted by personal biases and politics. 

We have knowledge management, but still more than 780 million adults are illiterate. 

We have artificial intelligence, but still it's devoid of emotional intelligence. 

We have bigger, deadlier, and more sophisticated weapons systems and smart bombs to "protect us", but still are no closer to living in peace and brotherhood. 

All this technology and advancement is great, except that we're left hungrier than ever for the realization of the promised technology land, and are really only halfway there, maybe. ;-)

(Source Photo: Andy Blumenthal)
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December 19, 2014

Amazing Advances In Prosthetics


Watch this video...

Where a man who lost both arms over 40 years ago is fitted with these amazing dual prosthetics that he is able to control with his mind and muscle movements. 

Made with financing from the Defense Advanced Research Project Agency (DARPA).

John Hopkins University Applied Physics Lab shows the possibilities for the future for helping everyone from Wounded Warriors to those disabled from accidents and disease. 

G-d creates and we imitate and together we make an incredible flourishing world. ;-)

(Note: My gratitude to Rebecca Blumenthal for sharing this video with me.)
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September 21, 2013

Restoring Hearing Using Bionics



A mother wrote in the Wall Street Journal yesterday about the miracle of Cochlear Implants.

Lydia Denworth described when her 2-year old son, who is deaf, got these implants and how now he is now able to attend 5th grade in a "mainstream school" and is "nearly indistinguishable from the other children."

These implants allow her son, Alex, to have a conversation with another child about the hearing device that "can open up the world of sound and spoken language."

Denworth states at the end of the editorial, "Moments like that make me deeply grateful for the technology."

For me, reading this was an opportunity to go learn about the amazing bionics that has already restored hearing to 320,000 people!

While hearing aids amplify sounds and make them louder, they don't resolve permanent damage to the inner ear. 

A cochlear implant bypasses the damage by receiving sounds in a microphone, digitizing them, and converting them to electrical impulses that are sent directly via implant to the auditory nerves-- bypassing damaged or missing sensory cells in the ear--in a way that the brain can understand.

I am in awe of the inventors--Graeme Clark, Ingeborg Hochmair, and Blake Wilson--who are being recognized for their pioneering research leading to the development of Cochlear Implants.

Hopefully, soon we can do for sight, smell, taste, and touch what we can do for hearing and restore the impaired to fully functioning again.

We are living in a time of great miracles--thank you G-d!

(Source Photo: here with attribution to Bjorn Knetsch)
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July 4, 2013

The Five Phases Of Medicine

In many respects, medicine has come a really long way, and yet in other ways it seems like it still has so far to go. 

For example, while antibiotics are used to routinely treat many bacterial infections, there are few antiviral treatments currently available--and we are left with the proverbial, "take two aspirin and call me in the morning."

Similarly, heart attacks, strokes, cancers and so many other ailments still take their victims and leave the bereaving family asking why?

In thinking about medicine, there are five major historical phases:

1. Do nothing: Get hurt or ill, and you're as good as dead. You shudder at the words "There is nothing we can do for you." Average lifespan for folks, 30s.  If you're lucky (or wealthy), you may make it into your 40s or even reach 50. 

2. Cut it: Diseased or damaged limb or body part, chop it off or cut it out surgically.  I still remember when the people in my grandparents generation called doctors, butchers. 

3. Replace it: When something is kaput, you replace it--using regenerative medicine, such as stem cell therapy (e.g. for bone marrow transplants or even for growing new tissue for teeth) and bioprinters (like a 3-D printer) to make new ones. 

4. Heal it: Envision a future with self-healing microbes (based on nanotechnology) in the blood and tissues that detect when a body part is dangerously ill and deploys repair drones to fix them.  There is no need to cut it off or replace it, you just fix it. And perhaps with DNA "profiling"(don't like that word), we'll be able to tell what a person is predisposed to and provide proactive treatments. 

5. Eliminate it: Ok, this is way out there, but could there come a time, when with technology (and of course, G-d's guiding hand) that we can eradicate most disease. Yes, hard to imagine, and with diseases that adapt and morph into other strains, it would be hard to do--but that doesn't mean it's impossible. 

I still am shocked in the 21st century with all the medical advances and technology that we have that the doctors still say for everything from routine colds, to viruses, sores, growths, and more--"Oh, there's nothing we can do for that." 

Yet, there is what to look forward to for future generations in terms of better medicine and perhaps with longer and better quality of life.

My grandfather used to say, "No one gets old without suffering"--let's hope and pray for less and less suffering with future medical technology advances. ;-)

(Source Graphic: Andy Blumenthal)
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February 1, 2013

Biowarfare, A Means To Our End

The Wall Street Journal (1 February 2013) has an interesting book review on "The Soviet Biological Weapons Program."

Although 85 nations, including the Soviet Union, in 1975 signed the "Biological Weapons Convention" (BWC) pledging not to develop, produce, acquire or stockpile bioweapons or toxins for hostile purposes, the Soviet regime was "covertly expanding them."

In the following years, the Soviets "built the most extensive facilities for the weaponization of bacteria and viruses in history" with "tens of thousands of scientists and support personnel and guarded by hundreds of Ministry of Interior troops."

Both civilian and military laboratories were used under the guise of biotechnology, and factories that produce flu vaccines and pesticides for crops could relatively easily be converted to mass-produce deadly bioweapons to use against the West.

Apparently, motivating the Red Army were there own horrible experiences in the early 20th century when disease such as typhus and lice killed millions "mowing down our troops."

"Fighting disease became a priority...and such efforts morphed easily into weapons research."

While the Soviets could not financially keep pace with the U.S. and eventually lost the Cold War, they continued to funnel their military dollars into nuclear and bioweapons, where they could literally get the most bang for the buck!

Often I think that despite the safety we generally feel in this country surrounded on both sides by large expanses of Ocean and the freedoms that protect us within, we are really only a nuclear suitcase or bio epidemic away from great catastrophe and chaos.  

In such an event, would we know who to retaliate against, would we have time, and even if we do, what good does it do us with mass casualties and disruptions?

Make no mistake; being able to retaliate against the perpetrators is critical to bring justice and respite to the nation, to prevent the potential for national annihilation, and to deter other maniacal acts.

However, it is vital as well to protect us from ever getting hit by weapons of mass destruction in the first place and depending on treaties alone cannot be enough.

Rather, excellent intelligence, early warning systems, antimissile defense, stockpiles of antidotes and countermeasures, premier medical facilities, superbly trained first responders, a high state military readiness, and refined continuity plans are all necessary to keep us from a premature and horrible end--and ultimately to preserve the peace. ;-)

(Source Photo: here with attribution to Pere Ubu)

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November 9, 2012

Biowarfare: A Fight At The Molecular Level

There is a fascinating article in The Atlantic (November 2012) on an emerging bioweapons storm that is brewing that could be used in a decapitation strike to harm anyone, even the President of the United States. 

Advances in genetic engineering, biotechnology, and synthetic biology (Synbio) has been seen from decoding human DNA to the development of "magic bullets", personalized viral therapies that can target and destroy cancer cells.

However, just as most things can be used for good or evil--so too, can this biotechnology be used to target and destroy cancerous cells or perversely to attack healthy ones.

Bioweapons could be targeted to various parts of the body or brain to cause blindness, memory loss, or death itself. More subtly, it can be used to "fabricate evidence" of affairs, crimes, "cast doubt" as to birthplace or heritage, or as supposed markers for genetic diseases, and even mental disability. 

Moreover, while bioweapons of mass destruction can destroy virtually entire civilizations, personalized bioweapons can be engineered based on the manipulation of a specific person's DNA to attack that person--then just like a sniper, it becomes one shot, one (targeted) kill. 

Personalized bioweapons can be silent and deadly, difficult to detect, hard to pin on a source, and may even be confused with death by natural causes. 

And the cost is coming down...cell-culturing gear "can be had on eBay for as little as $10,000" or "cobbled together for less than $1,000."

Even non-weaponized use of this technology, can be extremely dangerous. For example, Synbio, can be used to "cut and paste" genetic code from one species to another, can be mixed from multiple species, and new creatures can be created altogether--all this potentially leading to frightening scenarios of "undesired cross-breeding with other organisms, uncontrolled proliferation, crowding out existing species, and threats to biodiversity." 

Already, "forty nations now host synbio research" and "The Beijing Genomics Institute...is the largest genomic research organization in the world."

The article speaks to various approaches to counter the personalized bioweapons threat including scientific task forces, bio-detectors, "Clean DNA" (as biological backup system), conducting biological war games, and open/crowdsourcing for solutions. 

It seems clear that the answers of how to defend against these emerging threats are not as good as the questions raised by them--and we will need to be vigilant and fast-track R&D in these areas, as we are still vulnerable. 

Further, I see some similarities between bioweapons, cyberweapons, and even legions of attack drones/droids, as all areas that are non-conventional and developing quickly and quite lethally. 

Unfortunately, we can't just put on a coat of armor and be safe from attacks at the molecular level, or from malicious code seeking to cripple our national critical infrastructure, or from robots that can stream across a battlespace attacking without fear, pain, or tiring. 

There is no simple paradigm for killing anymore and we better let our imaginations run wild, so we can figure out new ways to protect everyone--from the President and on down to us all.

(Source Photo: Andy Blumenthal)

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August 18, 2012

How Good Is Our DNA

Where do we store the vast and expanding information in our universe? 

These days it's typically in 0 and 1s--binary code--on computer chips. 

But according to the Wall Street Journal (18 August 2012), in the future, it could be encoded in the genetic molecules of DNA.

DNA has "vastly more capacity for their size then today's computer chips and drives"--where a thumb size amount could store the entire Internet--or "1.5 milligrams, about half the weight of a house ant could hold 1 petabyte of data, which equals to 1,000 1-terabyte hard drives."

As opposed to binary code, DNA will store information as strands made up of four base chemicals: adenine (A), guanine (G), cytosine (C) and thymine (T). 

Just like letters in the alphabet make up words, sequencing of these 4 base chemicals can store biological instructions (e.g. 3 billion for a person) or any other information. 

Using DNA for storage involves 4 key steps: 

1) Encoding information into binary code
2) Synthesizing the chemical molecules
3) Sequencing them in a string to hold the information
4) Decoding the molecules back into information

Overall, DNA is seen as a "stable, long-term archive for ordinary information"--such as books, files, records, photos, and more.

Researchers have actually been able to store an entire book of genetic engineering--with 53,426 words--into actual DNA, and "if you wanted to have your library encoded in DNA, you could probably do that now."

With the cost declining for synthesizing and sequencing DNA, this type of data storage may become commercially practical in the future.

And with the amount of information roughly doubling every 2 years, large amounts of reliable and cost-effective memory remains an important foundation for the future of computing. 

Frankly, when we talk about storing so much information in these minute areas, it is completely mind-boggling--really no different than the corollary of imaging all the stars in vastness of sky.

It is almost incredible to me that we have people that can not only understand these things, but make them work for us. 

With NASA's Curiosity Rover exploring Mars over 34 million miles away, and geneticists storing libraries of information in test tubes of DNA coding, we are truly expanding our knowledge at the edges of the great and small in our Universe. 

How far can we continue to go before we discover the limitations to our quest or the underlying mysteries of life itself?

What is also curious to me is how on one hand, we are advancing our scientific and technological knowledge as a society, yet on the other, as individuals, we seem to be losing our knowledge for even basic human survival. 

How many people these days, are proficient on the computer in an office setting, but couldn't survive in the wilderness for even a few days. 

Our skills sets are changing drastically--this is the age of the microwave, but knowing how to cook is a lost art to many. 

So are we really getting smarter or just engaging our minds in a new direction--I hope we have the DNA to do more than just one! ;-)

(Source Photo: adapted from here with attribution to Allen Gathmen)

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August 11, 2012

Technology Forecast 2013















I am an avid follower of everything technology and trends, but am tired of hearing about cloud, mobile, and social computing. 

It's time to get over it with the agenda of the past and get on with it with the future of technology. 

Here is my "Technology Forecast 2013" and the top 8 trends I see going forward:

1) Service Provision--Cost-cutting and consolidation into the cloud is a wonderful idea and it has had it's time, but the future will follow consumer products, where one flavor does not fit all, and we need to have globalization with a local flavor to provide for distinct customer requirements and service differentiators, as well as classified, proprietary and private systems and information. 

2) Service Delivery--Mobile is here and the iPhone is supreme, but the future belongs to those that deliver services not only to remote devices, but in wearable, implantable, and even human augmentation. 

3) Human Interaction--Social computing epitomized by Facebook, Twitter, LinkedIn, and many more is a cool way in interact with others virtually, but wall posts, email, and chats are getting cliche--next up conjoining with others with capabilities such as telepathic communication, mind melding collaboration, and even virtual sex for the outlandish. 

4) Robotics and Artificial Intelligence--With something like 10,000 drones flying the friendly and not-so friendly skies and even drones that autonomously land on aircraft carriers, the next robot is coming to the ground near you--drones will become (an)droids and will eventually have the AI to become part of our everyday society. 

5) Service Assurance--Enough playing defense with a sprinkling of offense against our worst enemies--it's past time to move from trying to stop-gap infiltrators and do damage control once we've been robbed blind, and instead move to a hunter-killer mentality and capability--the price of being a bad boy on the Internet goes way up and happens in realtime. 

6) Data Analytics--Big data isn't a solution, it's the problem. The solution is not snapshot pretty graphics, but realtime augmented reality--where data is ingrained in everything and transparent realtime--and this becomes part of our moment-by-moment decision processes.

7) Biotechnology--Biometrics sounds real cool--and you get a free palm reading at the same time, but the real game changer here is not reading people's bio signatures, but in creating new ones--with not only medical cures, but also new bio-technological capabilities. 

8) Nanotechnology--Still emerging, quantum mechanics is helping us delve into the mysteries of the universe, with applications for new and advanced materials, but the new buzzword will be nano-dust, where atomic and molecular building blocks can be used on-the-fly to build anything, be anywhere, and then recycled into the next use.   

Overall, I see us moving from mass produced, point-to-point solutions to more integrated end-to-end solutions that fit individual needs--whether through continued combinations of hardware, software, and services, man-machine interfaces/integration, and building blocks that can be shaped and reused again and again. 

From my perspective, there a seeming lull in innovation, but the next big leap is around the corner. 

(Source Graphic: Andy Blumenthal)
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November 1, 2011

Replacing Yourself, One Piece at a Time

Here is a wonderful idea to help people who use prosthetics--a smartphone built right in to the artificial limb.

What was once a challenging task to hold a smartphone and make calls, write emails and texts, or just search the web is now just a push of a button or voice command away.

This is a user-centric and functional integration of technology with medical science to help those who have either lost limbs or been born without them.

While a step forward for the disabled, perhaps this is also a move towards future technological augmentation of regular body parts as well.

What was once a tattoo or body piercing on the periphery may soon become an implanted smartphone in the body part of your choosing.

The concept reminds me of the MTV show "Pimp My Ride" where run-of-the-mill cars are completely made over into new awesome vehicles by stripping them and rebuilding them with better, cooler parts.

Is this where we are going with our human bodies--where one day we are an old beat-up minivan only to have our parts swapped out and replaced with biotechnology to become a new hotrod convertible once again.

Now we are moving from leveraging technology for medical purposes to tinkering with our our physical bodies, using technology, for preference.

Yes, this is already being done with facelifts and other cosmetic surgery, but how about replacing entire body parts not because they are diseased, but because you want or can afford an upgrade?

Lot's of exciting and scary implications to think about with this one--as our body parts become replaceable almost like legos--snap on and off.

In the future, becoming a better, stronger, faster person may not be just a function of what you do, but how much you can afford to replace.

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August 21, 2011

Deus Ex-Overtaken By Technology

Deus Ex is an action role-playing game (RPG) and first person shooter game. It sold more than a million copies as of 2009 and was named "Best PC Game of All Time."

A prequel Deus Ex: Human Evolution is due to be released this month (August 2011).

You play a coalition anti-terrorist agent in a world slipping further and further into chaos.

The time is 2052 and you are in a dystopian society where society has progressed faster technologically than it has evolved spiritually--and people are struggling to cope with technological change and are abusing new technology.

The challenges portrayed in the trailer show people using/abusing technological augmentation--the integration of technology with their human bodies--replacing damaged limbs, adding computer chips, and even "upgrading themselves".

There are many issues raised about where we are going as a society with technology:

1) Are we playing G-d--when we change ourselves with technology, not because we have too (i.e. because of sickness), but rather because we want to--at what point are we perhaps overstepping theologically, ethically, or otherwise?

2) Are we playing with fire--when we start to systematically alter our makeup and change ourselves into some sort of half-human and half-machine entities or creatures are we tempting nature, fate, evolution with what the final outcome of who we become is? As the end of the trailer warns: "Be human, remain human"--imagine what type of cyborg creatures we may become if we let things go to extremes.

3) Technology may never be enough--As we integrate technology into our beings, where does it stop? The minute we stop, others continue and we risk being "less intelligent, less strong, and less capable than the rest of the human race." In short, are we facing a technological race toward dehumanization and enhanced machines.

4) Drugs and other vices follow--To prevent technology augmentation from being rejected, mankind relies on ever larger and more potent doses of drugs. We not only risk losing elements of our humanity to technology, but also to drugs and other vices that make us forget the pain of change and rejection (physical and perhaps emotional).

Deus Ex literally is Latin for "G-d out of the machine." Perhaps, future dystopian society starts out by people trying to play G-d, but I think the risk is that it ends with the proverbial devil displacing the best laid intentions.

While technology holds the most amazing of promises from curing disease, solving world hunger, and endless innovations (even including developing the archetype bionic man/women--"We can rebuild him...we have the technology"), without a solid moral compass and frequent check-ins, we run the risk of technology getting away from us and even doing more harm than good.

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September 25, 2009

Nanotechnology and Enterprise Architecture

“Nanotechnology is the engineering of functional systems at the molecular scale. In its original sense, 'nanotechnology' refers to the ability to construct items from the bottom up.” (Center for Responsible Nanotechnology)

Two examples of nanotechnology include the manufacturing of super strength polymers, and the design of computer chips at the molecular level (quantum computing). This is related to biotechnology, where technology is applied to living systems, such as recombinant DNA, biopharmaceuticals, or gene therapy.


How do we apply nanotechnology concepts to User-centric EA?
  • Integration vs. Decomposition: Traditional EA has looked at things from the top-down, where we decompose business functions into processes, information flows, and systems into services. But nanotechnology, from a process perspective, shows us that there is an alternate approach, where we integrate or build up from the bottom-up. This concept of integration can be used, for example, to connect activities into capabilities, and capabilities into competencies. These competencies are then the basis for building competitive advantage or carrying out mission execution.
  • Big is out, small is in: As we architect business processes, information sharing, and IT systems, we need to think “smaller”. Users are looking to shed the monolithic technology solutions of yesteryear for smaller, agile, and more mobile solutions today. For example, centralized cloud computing services replacing hundreds and thousands of redundant instances of individuals systems and infrastructure silos, smaller sized but larger capacity storage solutions, and ever more sleek personal digital assistants that pack in the functionality of cellphones, email, web browsing, cameras, ipods, and more.
  • Imagination and the Future State: As architects, we are concerned not only with the as-is, but also with the to-be state (many would say this is the primary reason for EA, and I would agree, although you can't establish a very effective transition plan without knowing where your coming from and going to). As we plan for the future state of things, we need to let our imagination soar. Moore’s Law, which is a view into the pace of technological change, is that the number of transistors on an integrated circuit doubles every 24 months. With the rapid pace of technological change, it is difficult for architects to truly imagine what the true possibilities are 3-5 years out--but that can't stop of from trying based on analysis, trends, forecasts, emerging technologies, competitive assessments, and best practice research.

The field of information technology, like that of nanotechnology and biotechnology is not only evolving, but is moving so quickly as to seem almost revolutionary at times. So in enterprise architecture, we need to use lots of imagination in thinking about the future and target state. Additionally, we need to think not only in terms of traditional architecture decomposition (a top-down view), but also integration (a bottom-up view) of the organization, its processes, information shares, and technologies. And finally, we need to constantly remain nimble and agile in the globalized, competitive marketplace where change is a constant.


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March 29, 2009

Kudos to the Bean Counters

Innovation is powerful, and with power comes responsibility.

When we think creatively and “out of the box”, we break the mental bounds that constrain our ability to go beyond what we know today and build capabilities that were unimaginable just the day before.

Yet, innovation is not like creation. G-d creates something from nothing. Man builds on the ideas of those who came before us—this is incrementalism.

And doing so, we are able to go beyond our own individual human limitations.

Incrementalism is a force multiplier. It is like layering one new thought, one change, one innovation on top on another and another. With each incremental development, we as a society are able to go beyond those who came before us.

Of course, some innovations are more evolutionary and some more incredibly revolutionary, but for all there are influences that underpin their development and they are there even if we cannot readily see them.

In short though, we are constantly changing as a society and as individuals—for better or possibly, for worse.

In the introduction to the novel, The Prey, by Michael Crichton, the author talks about the how everything—“every living plant, insect, and animal species”--is constantly evolving and warns of the complexity, uncertainty, and possible dire consequences if we do not manage change responsibly.

““The notion that the world around us is continuously evolving is a platitude; we rarely grasp its full implications…The total system we call the biosphere is so complicated that we cannot know in advance the consequences of anything that we do.”

I think the point is that even if we can envision or test the consequences of innovation one, two, three or however many steps forward, we cannot know the limitless possible downstream effects of a change that we initiate.

Crichton states: Unfortunately, our species has demonstrated a striking lack of caution in the past. It is hard to imagine that we will behave differently in the future.”

We don’t have to look too far to see how we have irresponsibly used many innovations in our times, whether they be complex and risky investment instruments that have led to the current financial crisis, medical products that have had serious unintended side effects resulting in serious injury and fatalities, and of course our endless thirst for and usage of fossil fuels and the general disregard for our planet and the negative effects on our environment such as global warming and pollution to name just a couple.

Crichton warns that “sometime in the twenty-first century, our self-deluded recklessness will collide with our growing technological power.”

The warning is particularly apropos in light of the ever increasing rate of change enabled by and manifested in various technologies such as biotechnology, nanotechnology, nuclear technology and information technology.

With each new advance in our technological prowess come risks of these new tools getting away from us and causing harm. For example, nuclear technologies have provided weapons of mass destruction that we struggle to contain; biotechnology has stirred concerns in terms of cloning, mutations, and deadly pathogens; nanotechnology stirs fears of toxic microscopic organisms that can easily get into our bodies, and IT viruses and cyber warfare that threaten our world of bits and bytes as we have come to know and rely for just about every daily activity we are involved in.

The point is not for us to be scared into mental stasis and inaction, but to be cognizant of the potential for serious side effects of changes and to take appropriate safeguards to mitigate those.

Innovation is exciting but it can also be seriously scary. Therefore, we need to be brave and bold in our thinking and actions, but at the same time we need to be cautious and act responsibly.

What this means in real life is that when new ideas are introduced, we need to evaluate them carefully so that we understand the range of benefits and risks they pose.

While it is not very sexy to be the voice of caution, great leaders know how to encourage new thinking while reining in potentially dangerous consequences.


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March 5, 2008

Fighting Crime with Hair! And Enterprise Architecture

Enterprise architecture analyzes problem areas in an organization and identifies gap, redundancies, inefficiencies, and opportunities. It uses this information to drive business process improvement, reengineering, and the introduction of new technologies.

Enterprise architecture can benefit any process or problem area, even the difficult area of solving crimes.

Crime fighting has long faced major problems, such as identifying murder victims and tracking their killers. Now new technologies and associated analytical processes are being introduced to help solve these murder mysteries.

MIT Technology Review, 27 February 2008, reports that “Researchers at the University of Utah say that they are able to determine a person's recent travel history by comparing the isotope ratios of oxygen and hydrogen in a strand of his or her hair.”

The study, which was published February 25 in the Proceedings of the National Academy of Sciences, found a strong correlation between the isotopes in the water that a person drinks and the isotopes in her hair.”

The hair closest to the root indicates where a person has been most recently. The longer the hair, the more recorded history the researchers have to work with. Hair grows one millimeter every three days, so if the hair is 20 centimeters long, that represents about 20 months' worth of history, says Ehleringer.”

Hair analysis is considered a major breakthrough for law enforcement in helping detectives narrow locations where a murder victims and their perpetrators have been and ultimately to identify them.

In the case of hair analysis for crime solving, the enterprise architecture solution actually crosses all three technology areas—information technology, biotechnology, and nanotechnology. Hair analysis involves evaluating hydrogen and oxygen isotopes (biotechnology) in various regions’ water and air and comparing that to molecules from a person’s hair follicles (nanotechnology) using technologies called mass spectrometers (information technology), and then analyzing “geographic region of origin and travel history of humans” through predictive modeling (information technology).

As an enterprise architect, we look to deliver mission performance and results of operations through technology enablement. These technologies can take the form of information technologies, biotechnologies, or nanotechnologies. The use of these technologies in combination can solve even the toughest problem areas.


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