Friday, October 13, 2017

The Healthcare Information Infrastructure Business Case

Benefits of the Healthcare Information Infrastructure

Increased Utility of Information to the Customer (Patient)

The customer regulates access to his or her medical record
Healthcare information is Immediately available to healthcare professionals where and when the customer needs assistance
Better tracking of customer medical history
The healthcare information is 99.999999% secure from cyber attacks

Reduce Regulations

Little or no need for HIPA regulations and procedures with respect to the customer
Must reduce Obama Care, Medicare, and Medicaid processes and regulations to fully implement this infrastructure

Reduce Cost (10 to 30%)

Reduced paperwork by doctors and hospitals—a major cost driver
Reduced need for additional forms by customers
Automated information insertion into customer records means no need for duplicate testing
Better ability to audit all stakeholders in the infrastructure

Side Benefits

Increased access to summary data by researchers

Downside

Time to implement

Prototype Phase – about 2 Years
Pilot/Customer Acceptance Phase – about 1 Year
Build out – Initial Operating Capability (IOC) about 5 Years

Political/Culture/Economic

Politicians, Doctors, Hospitals and Clinics, Pharmacies, Insurance Companies, and current Bureaucrats will not like it because of the way it effects their processes, procedures, and ways for making money
Remember: “The first instance of a superior principle is always inferior to a mature instance of an inferior principle”

An Architecture for a Customer-Centric Healthcare Information Infrastructure

1.    Healthcare IS: The Obsolete and Broken Infrastructure

The healthcare Information Infrastructure is both an obsolete and broken system.  It has at least four major problems.  The total system is technologically fractured between paper-based systems and computer-based; and the computer-based system is shattered among competing technologies, (for example, PC versus smart phone).  The number of health-care information regulations and standards militates against a coherent information infrastructure. 

The Fractured System

Any system in a technology change process will be fractured between the old and new technologies.  However, the healthcare system is particularly fractured because of overburdening federal regulations for insurance, for care, and for HIPA. 
Then there are the interlocking state regulations and insurance policies and procedures.  All of these make creating a healthcare information infrastructure difficult and complex.
Additionally, a significant portion of the medical professionals are the opposite of tech-savvy.  So they stick to paper—lots and lots of paper.  Compared with electronic storage, the simple storage of paper is expensive.  Then there is the time and expense of retrieving a patient’s medical records.  All of these costs are absorbed in the cost of healthcare.
But there is yet another, potentially life threatening expense; the loss of records and the inaccessibility of records when patients are on travel.  When people move for a new job or other reasons, the medical data contained in their records is more frequently than not lost.  
When they travel and have an accident or medical problem, their medical records contained in this fractured infrastructure are normally inaccessible.  The inability of onsite medical personnel to have access to a patient’s medical record can be an unnecessary death sentence for the patient.

Number of Regulations and Standards

There are other problems caused by this fractured healthcare information infrastructure.  As noted, there is a large increase in office staff to manage the paper records caused by the regulations supporting the “affordable care act”. 
This is in addition to the HIPA and state regulations, and insurance company’s policies and standards. Is it any wonder that doing paperwork is the single largest expense in a doctor’s office or medical center?

Non-linkage to Research

One of the most significant challenges in medical research on various diseases is tracking a disease through generations to determine if the disease is caused by environmental factors, or by a person’s generic heritage.  Given a set of standards and regulations (not over regulations) an integrated healthcare information infrastructure could provide the necessary information to enable much better insight in a much shorter time, at much less expense.

Non-linkage to Technology

There is another very expensive problem caused by the highly fractured and fragmented information infrastructure.  Currently and increasingly, there are many digital sensors on the medical device market.  These sensors include, X-ray, MRI, and cat scan machines.  There are also digital thermometers, blood pressure sensors, heart rate monitors (including Fitbit, Garmin, and Apple watches).
Additionally, they include a host of equipment for evaluating eyes, ears, blood, nervous systems and the hundreds of other evaluation sensors.

2.    Customer (Patient) Centric healthcare Information Infrastructure Architecture

A goal of a customer-centric healthcare information infrastructure architecture is to enable the customer to have complete access control over his or her health data and information in an ultra secure data network (USDN) while providing a high-level access to non-personal (i.e., aggregated) data for research and development.
I recently posted a high-level architecture for such an USDN; having said that I will now the healthcare information infrastructure as an example.

Customer ID and HIPA

The first component of this USDN is the user (customer) interface.  The key concept embedded in the HIPA rules and regulations is to keep access to the customer’s data to only those with a need to know.  Currently, the person who gives written permission is the customer [Sidebar: I don’t like the term patient because of its implications and connotations.]
With the USDN, the user/customer would give permission to medical personnel by inserting a smart card.  This card would contain biometric data.  The user/customer would then use the sensor on the medical terminal to confirm that they are who they say they are.  For example, put their finger on a fingerprint reader. 
If the biometric information on the card matches the information given by the user/customer then the medical personnel can get to the portion of the customer’s medical record and history they need to do their job.
If a customer comes into an emergency room unconscious the medical personnel can get authorization in much the same manner.  This could save the customer’s life.
In a hospital, the access to the customer’s record and history could be systematically extended to all appropriate personnel through the use of authorization or entitlement meta-data.

The Bridge/Portcullis

A second unique feature of the Ultra-Secure Data Network is the network bridge with portcullis.  The bridge converts the standard Internet communications protocols (that are well known to hackers and which malware uses to attack computers) into a set of network protocols much less well known. 
The portcullis allows only a limited set of formally defined data in formally defined data formats across the bridge.  The portcullis has other functions that are somewhat arcane, but which are important for security. [Sidebar: A high-level description of these is found in my post on the Ultra-Secure Data Network]

Centrally Organized Geographically Distributed Datastore

The data storage software will be what is currently being call “in the cloud”.  That means that the data is stored in data centers that are protected by the USDN including the bridge/portcullis.  Additionally, the operating system and application software will be customized to accept only data that is in the authorized formats.

Datastore for Research

The Medical Information Infrastructure is a cornucopia of data for medical research.  Currently, this data is, in the main, inaccessible to medical researchers due all of the rules and regulations for the current fractured system and to the nature of gathering data from a fractured system.
With the functions and features of using the USDN, data from the Medical Information Infrastructure could be made available to researcher without destroying the privacy of the customers of the system.  In turn, this would reduce the cost of medical research significantly.

3.    Building the USDN

Because of the size, scope, and complexity of the Medical Information Infrastructure it will take at least 10 years for the initial build out.  I will describe the major tasks of the build out, as I envision them, currently.

Setting up the Governance of the Infrastructure

The key to the USDN is setting up the processes for defining data, meta-data, governance, and infrastructure management.  Without these, the infrastructure will either be hacked immediately or be completely ineffective.

·         Governance

As I see it, the governance of the infrastructure will make or break both the security and utility of the infrastructure.  This governance sets the data, meta-data, and infrastructure management policies, standards, and rules for the infrastructure. 
That is why it needs to be the first task; though it will run concurrently with other tasks.
As I envision it the board of governors (guiding group, whatever the name) should be made up of medical professionals, medical researchers, insurance personnel, and IT professional from business and academia.  Getting that eclectic group moving in the same path will be difficult.  Therefore, I think an Enterprise Architect with a Systems Engineering group will be needed. 

·         Data

There will need to be a process set up for defining the data that should be in the USDN, the format for communicating that data and for creating, updating, and deleting data formats and structures.  Once set up this will be one of the key governance processes; changing data types and the actual data formats as technology changes.
One key to the USDN is that no unformatted data, like e-mails and e-mails with attachments will be allowed.  This cuts off one prime access points for hackers.

·         Meta-Data

For security purposes, the definition and delimitation of the infrastructure’s meta-data is of seminal importance.  It is what enables authentication, authorization, and access to the data of the Medical Information Infrastructure.  The governance body together with the Enterprise Architect and the Systems Engineering group will need to make decisions as to what is and what is not allowed, always with an eye to securing the data.
For example, the terminals connected to the internet, in turn connect to the USDN through the Bridge/Portcullis.  Each of these terminals will have a specific and static Media Access Control (MAC) address.  I would recommend that these terminals also have a static Internet Protocol (IP) address and other static information tied to that particular terminal.  This would make is difficult to spoof the bridge/portcullis into allowing a hacker through the gateway.
Additionally, there are many other ways this static (or infrastructure management only) meta-data can be used. But they will be guided by the rules and policies set by the governance board.

·         Infrastructure Management

The infrastructure management team will manage the hardware, software, and meta-data of the Medical Information Infrastructure as the prototype is rolled out and the operational version is built out.  It will be under the guidance of the governance board.

Developing the Bridge/Portcullis

The design requirements for the bridge/port will come from the standards and policies set by the governance board as architected by the enterprise architect and the functional and component designs will come from the Systems Engineering team.
There are several technical innovations required for an operational USDN.  I would recommend that a series of prototypes be developed using a cyclic process, like the one I developed and was patented by the Northrop Grumman Corporation.  That is, design, create the prototype, test, and repeat until all of the requirements are met.  I would expect that this development effort will take a minimum of one year and can be started about three to six months after the governance board begins their work which will identify the requirements for the equipment.
The first is the Bridge/Portcullis.

·         Designing

Designing the bridge/portcullis can be divided into two functional designs.  The first is the design of the network bridge.  This should not be as much about creating a design as resurrecting a design of a network bridge from the late 1990s.
The second is the design of the portcullis.  This is a wholly new functional and component design, though based on many standards.
When these functional and component designs are complete, then the entire bridge/portcullis will need additional functional integration design work.

·         Prototyping

A series of prototypes will need to be constructed, in following the Technology Readiness Level (TRL) characteristics.  I expect that the bridge can be prototyped at level 7 or 8 right from the start.  However, the network portcullis starts as a TRL level 1 or 2.  It will need to cycle through a number design, prototype, test cycles before it will be ready for integration with the bridge.

·         Testing

All prototypes will be evaluated against the metrics as defined by the requirements.  This means that prior to testing the systems engineering team will need to establish metrics for each requirement.

·         Rollout

When all of the cycles of design and functional testing and requirement evaluation of the bridge/portcullis are completed, the unit will be replicated two or more times for use in the pilot testing effort.

Developing the User Terminal(s)

The user terminals for the Medical Information Infrastructure are an interesting combination of advanced technology being used for a single purpose terminal (a throwback to the 1960s).  Some of the functions of this terminal type are discussed in my post on the USDN.  One key function will be enabling automated medical sensors (X-ray, MRI, etc. machines) to report results of tests through the terminal to the Medical Information Infrastructure.

·         Design

Again, the design of this terminal should start as soon as its requirements are identified (3 to 6 months.  In this case, the design is really more in terms of a system integration of functions rather than the development of new technology.

·         Prototyping

Constructing prototypes of the terminal should not nearly as difficult as the development of the bridge/portcullis.  But again, it is likely that several prototypes will be needed to get the functions and form factor correct for the terminal.

·         Testing

Likewise, testing should be relatively straightforward.  The most extensive set of tests will be those associated with terminal and network security.

·         Rollout

When all of the cycles of design and functional testing and requirement evaluation of the terminal is completed, the unit will be replicated several times for use in the pilot testing effort.

Datastore

The datastore, the hardware and software for storing the customer’s data, is by far the simplest of the functions/components that will need to be developed.  The reason is that commercial off the shelf hardware and software is available.

·         Design

In this case the challenge is to write custom code and define the parameters of standard database software and the operating system such that the data is secure from hacks inside individuals (the technical staff) and to provide the access for the various functions of the infrastructure.  For example, giving access to researchers to summarized or anonymous data would be one such function.
This development exercise would use a cyclic process, like the one I developed and Northrop Grumman patented.

·         Prototyping and Testing

Even while a software service is being coded it will be evaluated on a daily basis and formally tested at least once a month.  Frequently, the testing will not only reveal bugs and inconsistencies, but also additional governing board requirements and technical risks.

·         Rollout

As opposed to the bridge/portcullis and terminal, I expect that the datastore appliance (the combination of hardware and software) will be rolled out as an Initial Operating Capability (IOC) with a minimum number of data structures and software functions.
Additionally, I expect that one a one to three month cycle, new versions of the software will be integrated into the appliance.

Pilot Testing and Updating

Once the governance board has decided that enough of the bugs, defects, and other “gotchas” have been worked out of the system (likely after about one and a half to two years), the infrastructure will need to be acceptance tested.  For this type of system pilot testing is the only procedure guaranteed to clearly demonstrate all of defects in the total system from the various users’/stakeholders’ perspectives.
Ideally, this would be a progressive slow roll out, first to a single site, then to three sites, then to 10 to 12 sites with at least 3 data centers.  Ideally, this piloting phase will take one to two years.
At the same time there should be a significant increase in the types of data the infrastructure can store and the number of functions the infrastructure can perform for the various stakeholders.

Build out of the Infrastructure

Within six months of the start of pilot testing, the build out of the infrastructure can begin with user/stakeholder education about the infrastructure.  These educational activities will prepare the medical and medical IT professionals to deal with the coming changes in a more orderly manner.
As the pilot testing is coming to an end, hardware and software companies should be invited to start building products to the infrastructure’s specifications.  These would be sent to a test environment for certification as meeting all of the specifications.
These competing products could then be sold to the medical community as the infrastructure is built out across the nation.

4.    Issues

I would forecast that creating the Medical Information Infrastructure will reduce the total medical bill paid by customers, insurance companies (including governments) by 10 to 30 percent while producing much better outcomes.  This is a significant reduction in cost (hundreds of billions of dollars per year).
However, there are powerful groups that will oppose the infrastructure’s creation.  Some of their arguments will be economic and some emotional (in terms of politics or organizational culture).

Implementation Costs

Many in the current medical establishment point that the implementation of this system will be very expensive.  It will; there is no doubt of that.  It may run into $100 billion over ten years, but it will likely save more than $10 trillion over that same period.  That seems like a good investment for the country.  With the added bonus that it will save lives.
From a hospital or insurance company’s CFO perspective, this will turn into a gigantic expense for which there will be no immediate ROI. [Sidebar: This turns “short-term cost conscious” CFO type financial engineers nuts—I know.]  Again, they are correct.  But there will be a significant ROI long-term.

Politics/Cultural Issues

There are also many political/culture issues

·         The Affordable Care Act, Medicare/Medicaid, HIPA

[Sidebar: The US Constitution specifically states that governmental healthcare, like other social entitlements are within the purview of the states, not the federal government; an attitude that my ultra-left leaning “social responsible” friends find distressing.  However, since we’ve already entered this financial black hole that lead to dystopia, I think we need to find a way out of it or at least to ameliorate many of its worst effects.]
These federal laws mandate a great many enforcement rules and regulations.  These rules and regulations will be unnecessary with the Medical Information Infrastructure.  However, many federal and state bureaucrats will have to find other employment if they are removed.  So, politically they will lobby for most of them to remain.  This will cause a great deal of process friction and greatly reduce the benefits of the infrastructure.

·         Pilot Testing

[Sidebar: “The first instance of a superior principle is always inferior to a mature instance of an inferior principle”.]
Critics of the Medical Information Infrastructure will have a field day with its pilot testing.  Like many complex military systems, (three being the B-52, the M-1A2, and the CVN 78) and like many versions of software in beta testing, the system will have many hiccups and gotchas when first brought up in a pilot.  Even if the program, describes above, is followed there will be technical defects.  And like the critics of other complex systems, there will be many that will say the Medical Information Infrastructure will never live up to its hype or its promise.  In the short term they will be correct, but wrong in the long term [Sidebar: The Gartner Group calls this the hype-cycle, I call it the path that the way the future becomes the now.]

·         Medical Culture

There are three cultural issues associated with implementing the Medical Information Infrastructure.  The first is the current medical culture.
The Medical Information Infrastructure is being proposed as part of the conversion of the medical information system from the Age of Print to the Age of the Computer (as I discussed in a previous post). 
As such, people brought up in the age of print have much greater difficulty in dealing with this type of change.  That is true for medical personnel as well as everyone else.  Consequently, they will resist any automated system.
Even in medical facilities that have automated the records management this change will be difficult.  It’s like learning how to use a tablet after only using a PC.

·         Insurance Culture

Insurance is the transference of the consequences of a risk (an unknown) from the customer to organization insuring.  This comes at a price, the cost of insurance.
The cost of insurance is based on the probability that something bad will happen.  The probability is based on statistics of how often the bad thing happens within a population.  That, in turn is based on data—data that would be stored in the Medical Information Infrastructure instead of now, in a huge collection of digital and paper files spread across the country.
This means that there would much less cost in gathering and maintaining this information, but it also means that the culture of insurance selling, and adjusting would change.  And as with the medical professional, cultures resist change.

·         Customer Acceptance

One of the major challenges will be acceptance by the customer base.  In the pilot phase, customers, not fully into the computing culture will be very anxious about the processes, where his or her records are stored, and why the change is necessary.
Additionally, the customers will be anxious about the necessary changes in law to enable this system to function effectively and cost efficiently.  This stress will be hyped in the media and transmitted to congress.  There is no way to stop it, but education/marketing will be able to ameliorate it to some extent.

Meeting the Issues


Meeting these cultural issues will require significant education, training, and marketing to  create initial grudging acceptance.

Monday, July 24, 2017

Knowledge Creation and the Four Great Cultural Transformations of Humanity

[Sidebar:  While starting with a sidebar is unusual to say the least, I felt it necessary because this post has gotten itself completely out of hand in terms of length.  But then when I thought about it attempting to synthesis history and future history into a single post should be long.  Also forgive me for injecting myself into many of the sidebars.]

It’s weird when you think about it, the historians, archeologists, and other social scientists discuss the ages of culture as the early stone age, the late stone age, the copper age, the bronze age, the iron age, and so on, as the way to name the cultures of humans.

I think there is a better way to understand the ages of humanity. It is through humanity’s creation and dissemination of information and knowledge.  All the current ages of humanity are really based on these four transformations of data, information, and knowledge.

Knowledge Generation before Speech

Prior to the development of speech there were two ways that life created “information and knowledge”.  The first started with the start of life itself on earth.  It was the combination of changes in the DNA chains and natural selection by the environment.  [Sidebar: This is still the foundation on which all other forms of knowledge creation is built; that is, except for a relatively small number of differences, human DNA and tree DNA is the same.]  One form of this knowledge creation and communications is instinctual behaviors.  Additionally, this forms the basis for the concept of Environmental Determinism.

The second way “information and knowledge” was created was through the evolution of “monkey-see-monkey-do”; that is, through “open instincts”.  An open instinct is one that allows the life-form, generally, animals to observe its surroundings, orient the observations (food, a place to hide, a threat), decide on an action, and act. [Sidebar: Oh shoot, there goes Boyd’s OODA loop again.]  No longer does DNA only decide.  To make the decision the life-form must learn to observe, choosing which input is data and which is noise, and must create a mental model in order to orient the observed data.  Both of these require the ability and time to learn.  This learn-by-doing forms the basis for the concept of “Possiblism”.

The Age of Speech (~350,000 to 80,000 BC)

As noted, the learn-by-doing (monkey-see-monkey-do) process requires both the ability and time to learn.  According to studies of DNA and archeology, the average man would live about 20 years. [Sidebar: note that even today a boy becomes a man at age 13 in the Jewish religion.  This means that thousands of years ago, the man would have 7 years to procreate before dying.  Today, that 13 year old kid is not even in high school.]  So there is a time when the young need adult protection to learn.  This may be a few months as in the case of deer, or a couple of years.

The problem with learn-by-doing is that it requires both the ability to learn and the time to learn.  Because DNA evolution continues with each biological experiment—each child—there will be significant variations in the ability to learn.  So, sometimes knowledge would be lost by the inability of a child to learn-by-doing.  Other times, the parent/coach could die unexpectedly early, so that there was insufficient time for knowledge transfer.  Either way, information and knowledge was lost.

At some point between approximately 350,000 BC and 80,000 BC, possibly in several steps a new hopeful dragon (to use Carl Sagan’s term) was born. This hopeful dragon had some ability to articulate and an open instinct to most probably create a noun (the name of a thing) and/or a verb (the name of an action).  This gave birth to language.  And language allowed for learning-by-listening, which turned out to be a competitive advantage for the groups and tribes that had it when compared with those that didn’t.

This is Learning-by-listening resolves the problem of loosing knowledge gained by previous generations.  As language evolved it enabled humans to communicate increasingly abstract concepts to others.  Initially, (for 100,000 years or so) much of this knowledge was communicated by statement of observations and commands, some of it evolved (likely at a much later date) into stories, odes, epic tales, sagas, and myths.  These tales encapsulated the knowledge of prior generations; the tribal or cultural memory.

Toward the end of the period (~80,000 BC) when speech and language were born Homo sapiens started migrating from Africa.  Some researcher believe this was due to the competitive advantage of speech and language, that is, better methods of knowledge accretion and communication when compared with other animals.

The Age of Speech allowed for the accumulation of data, information, and knowledge.  Much of this was passed along in the form of tails, odes, myths, and so on.  At the same time practical skills like hunting and gathering were learned more effectively when verbal instructions and especially critics could be given.  Students learned much faster and at a much higher level.  The result was a differential in knowledge among the many, many small family groups and tribes.

After many millennia of inter-tribal wars and with some inter-tribal trading enough data, information, and knowledge was created to begin the long  trek to civilization.  [Sidebar: During the “hunter gatherer stage of human “civilization” there were no “Noble Savages”, just savages.  According to DNA evidence and studies of tribes in New Guinea, the average male was killed when approximately 20 years old.]  During the time from the Paleolithic through the  Neolithic ages, knowledge accumulated very slowly.  Archeologists have found the innovations diffused through the human population over hundreds of years.  Many archeologists want to attribute this to trading, but evidence suggests that much of the time violence was involved.

The Age of Writing (~3000 BC)

Speech and language enabling and supporting Learning-by-doing and learning-by-listening provided the basis for humans’ knowledge development for the next 70,000+ years. It was not until human organizations grew beyond a few hundred individuals with a geographic territory beyond what a person could walk in a day that humans had a need for data, information, and knowledge transfer/communications that went beyond speech.  

At about the time the first large kingdoms were formed, apparently the traders of the era found a need to track their trading.  And traders and trading was the main vehicle for communicating data, information, and knowledge during this entire period.  [Sidebar: At least this is what the archeologists have found so far.]  Additionally, the tribal shaman (priests) started to create documents so that their religious beliefs, traditions, knowledge, and tenets would not be lost by their successors.  [Sidebar: these were the scientists of their age.]  Consequently, religious documents, together with trade documents are among the earliest writing found.

Understand, writing came into existence at about the same time as many large construction projects, like pyramids and ziggurats.  And this was when city states, the forerunners of the modern state formed.

For the next 4400+ years writing continued to be the main medium for data, information, and knowledge documentation and communications.  During this time many kingdoms and empires rose and fell, including The Roman Empire, and a vast quantity of data, information, and knowledge was created documented and lost.  [Sidebar: The worst was the destruction of the Library and Museum (University) at Alexandria.] 

Finally, with the beginnings of the European Renaissance in the 1100s AD schools in Italy and Spain, initially created to teach monks to read and write, began to collect and copy works from early times (including Greek and Roman).  The copies were exchanged and libraries began to appear within these schools that were called and were Universities.  [Sidebar: This age is called the “Renaissance” because it was the time when initially data, information, and knowledge were recovered and new knowledge was documented.]

During this same period, and in part using the recovered knowledge-base, came the slow innovation of new instruments including the mechanical clock, and new navigational instruments, and new methods for ship construction; all leading to an economic sea change in the European kingdoms.  Further, during this time, apprentice schools (schools of learn-by-doing) appeared in greater number with more formality to their coursework.  These schools taught “manual trades”, the start of formal engineering and technology programs.

The Age of Printing (1455 AD)

All during this time, more and more clerics, (clerks) were coping more documents.  And though the costs were high, there was a major demand for more copies of books, like the Christian bible. 
In about 1440, a German, Johannes Gutenberg, developed a system that could make hundreds of copies.  In 1455, he printed what is known as the Gutenberg Bible and created the technology infrastructure for a paradigm shift.  He also printed a goodly number of these bibles.

Another German, Martin Luther, subsequently kick started this shift by nailing his 95 theses to the door in 1517.  Prior to Luther most Europeans could not read.  The Roman Catholic clergy up to and including the Pope took advantage of this to create highly imaginative church doctrine that would provide them with a large money stream.  Since they had been infected with the edifice complex they used this money stream to indulge their favorite activity at Rome and elsewhere.  

Luther was intensely unhappy with this church doctrine in his theses.  Instead of the Pope being the final Authority on Christianity, he preached that the Christian Bible was the final authority and that all Christians had the right to read it.  So, by the late 1500s, there were many printed books in an increasing number of libraries with an increasing number of Europeans (and shortly, American colonists) that could read.  [Sidebar: Remember that Harvard College, now Harvard University was founded in 1636.]  And this was only step one of the Age of Printing.

Step two in the Age of Printing was Rev. John Wesley’s creation of “Sunday School”.  Many or most of the members Wesley’s sect, “The Methodists”, had been tenant farmers, laborers, or cottage industry owners who had lost their jobs or their businesses in the early stages of the industrial revolution (The late 1600s and through 1700s).  

At this time, machines began to be used on farms and in factories, putting these people out of work.  Wesley and the Methodists, by teaching them to read and write on Sunday, their day off from work, enabled them to move into and participate in the profits of the industrial revolution.  Together with other movements toward “schooling”, the age of printing and economic progress happened, creating the “middle class.” [Sidebar: In Colonial New England, early on—in the 1640s—primary schooling became a requirement.  For more information, see my book.]  Glossing over the many upgrades and refinements, knowledge creation and communications was base on printing technology until the 1980s, more or less.

During the Age of Writing, but particularly during the Age of Printing, the methods for the communications data, information, and knowledge began to diverge from trade.  In fact, in the US Constitution the founding fathers treated the “the US mail” as a direct government function because they felt that communications for everyone was so important.  On the other hand, they indicated that the government should “regulate” commerce among the states; and there is a great difference between a function of government and regulation by government.

The Age of Computing (~1940 AD)

There are two roots of the Age of Computing.  These had to do with improving print-based data storage and the communication of data and printed materials.  The first root was data and information communications.  While there were many early attempts of high-speed communications over long distances in Europe over the ages, the first commercially success telegraph was developed by Samuel Morse in 1837 [Sidebar: together with a standard code, coincidently call the Morse Code.]  By the 1850s this telegraphic system had spread to several continents.  

By 1874, Émile Baudot invented the teletype machine which allowed any typist to type a message on a typewriter keyboard, which the machine would then translate into Morse code.  A second teletype machine would then print the message out at the other end.  This meant that typists, rather than trained telegraphers could send and receive messages.  Additionally, the messages could be coded and sent much faster.  Three other inventions/innovations the facsimile machine, the telephone, [Sidebar: a throwback to the Age of Speech], and the modem complete the initial intro the Age of Computing.

The second root was the evolution of the computer itself.  Early in the industrial revolution, Adam Smith discussed the assembly line process and the fact that tooling can be made to improve the quality and quantity of output in every activity in the process.  Using this process more or less, the hand tooling of the late 1700s gave was to increasing complex powered mechanical tooling for manufacturing products in the 1800 and 1900s.  

While that helped the manufacturing component of the business, it did not help the “business” component of the business.  While the need for improving the information handling component (reducing the time and cost) of a business was recognized in the 1500s, it wasn’t until 1851 that a commercially viable adding machine became available to help with the “book keeping/accounting” of a business.  These machines produced a paper tape (printing) on which the inputs and output was reported.

From 1851 to at least 1955 these mechanical wonders were improved, to the point that in the early 1950s, they were call “analog computers”.  And for a short time there was discussion about whether analog or this new thing called digital computers were better. [Sidebar: Into the 1990s tidal predictions were made by NOAA using analog equipment, since they kept proving to be more accurate.]

The bases for the electronic, digital computer came from several sources, mostly in the United States and in Britain, during the late 1930s and early to mid-1940s. However, it wasn’t until the invention of the transistor in 1948 coupled with the concept of the Turing Machine (Alan Turing, working from 1941 to 1950) that the first prototype commercial “electronic computers” were developed. 

In 1956 I “played” with my first computer. It consisted of a Hollerith card reader for data input, electronics, a breadboard (a board with a bunch of holes arranged in a matrix) on which a program could be “coded” by connecting the holes with wires (soft wiring), and a 160 character wide printer for the output.  The part I played with was the card sorter.  Rather than sorting the data in the “computer”, it was done by arranging and ordering the Hollerith cards before inserting them into the card reader.  The card sorter enabled the computer’s operator to sort them very much faster than attempting to sort them by hand.

By 1964, computers had internal memory, about 40K bits, and storage, tape drives (from the recording industry) and disks (giant multi-platter removable disks) holding up to 2MB of data.  [Sidebar: I learned to code on two of these; IBM’s 1401 and 1620. I coded in machine language, symbolic programming system and Fortran 1 and 2.]  These computers had rudimentary operating systems (OS) with input and output being a card reader and a punch card writer.  And they had teletype machines attached as control keyboards.

Fast forward to 1975; by this time, Technology had advanced to the point where teletypewriters were attached as input/output terminals.  These were running at 80 to 120 baud (charters per minute, fast for a human typing, but very slow for a computer).  Some old style television-like (cathode ray tube, or CRT) terminals were becoming commercially available.  Mostly, this were simply glass versions of teletype printers, allowing the use to type into or read from an 80 characters-wide by 24 lines long green screen; and it was at about the same speed as a 120 baud teletype.  But, Moore’s Law was in high gear with respect to hardware so that with each two years, computers doubled in speed and capacity.

In about 1980 networking started to develop commercially, though there were several services over telephone networks earlier. [Sidebar: The earliest global data network that I know of was NASA’s network for data communications with the Mercury spacecraft in 1961.]  Initially, this development was in terms of a Local Area Network (LAN), linked through the use of telephone cables. [Sidebar: During this time, I set up some LANs at Penn State University and at Haworth, a furniture manufacturing company.]

By 1985 the Internet protocols evolved.  [Sidebar: Between approximately 1985 and 1993, a significant group of engineers created a set of protocols to international standards; they were called Open Systems Interconnect or OSI protocols.  They were a set of protocols based on a seven layered model.  This group formed one camp; the other was from an amorphous organically evolving TCP/IP group of protocols.  This group included academics, hackers, and software and hardware suppliers.  This group preferred TCP/IP because it was a free open source technology with few if any real standards—One HP Vice President said of TCP/IP that it was so wonderful because there were so many “standards” to choose from—and because OSI required significantly more computing power because of architectural complexity of its security and other functionality.  Consequently, TCP/IP won, but we are now facing all of the security and functionality issues that would have been resolved by OSI.]  [Sidebar: In 1987, I predicted that the internet would serve as the nervous system of all organizations and was again looked at like I had two heads.]  And technology had evolved to the point the PCs on LANs were replacing CRTs as terminals to mainframe computers.  Additionally, e-mail, word processing, and spreadsheet software were coming into their own, replacing typewriters and mail carried memo and documents.

In the early 1990s fiber optic cables from the Corning Glass Works revolutionized data and information transfer in that it was speeded up from minutes to micro-seconds with approximately the same cost. [Sidebar: Since I worked with data networks from 1980 on, and since I led an advanced networking lab for a major defense contractor, I could go into the hoary details for many additional posts, but I will leave it at that.]  As fiber optics replaced copper wires, the speed of transmission went up and the cost went down.  There were two consequences.  First, the number of people connected to the internet drastically increased.  Second, more people became computer literate, at least to the point of using automated devices—especially, the children.

By 1995, the Internet was linking home and work PCs with the start of web (~1993), and by the 1996/1997 timeframe the combination of home computers, e-mail, word processing, and the Internet/web was beginning to disrupt retail commerce and the print information system.  At this point the computer started to affect all of data, information, and knowledge systems, which is disrupting culture worldwide.

User Interfaces and Networking

As I discussed in a previous post and in SOA and User Interface Services: The Challenge of Building a User Interface in Services, The Northrop Grumman Technology Research Journal, ( Vol. 15, #1, August 2007), pp. 43-60, there three sets of characteristics of every user interface.  The first is the type of user interface, the second is how rich the interface is, and third, how smart the interface is. 
There are three types of user interfaces, informational, interaction oriented, and authoring.  The first is typical of the “Apps” on your smart phone, getting information.  The second is transaction oriented.  This means interacting with a computer in a repeated manner, like when an operator is adding new records to a database.  The third is authoring.  This doesn’t mean writing only, it means creating anything from a document, a presentation, to a movie, to a song, to an engineering drawing, or to a new “App”lication.  This differentiation of the user interface only really developed in the late 1990s and early 2000s as each of these types requires a different form factor for the interface and increasingly complex software supporting it. 

A rich user interface is an interface that performs many functions internally, i.e. does a lot for you.  As computer chips have become smaller, using less power, and much faster, the interface has become much richer.  This started with the first graphics terminals (in which there were 24 by 80 address locations) in the early 1970s.  Shortly, real graphics terminals appeared costing upwards of $100K.  These graphics terminals required considerable computing power from the computers they were directly connected with to operate. 

In an effort to relieve the host computer of having to support the entire set user interface functions Intel and others developed chips for performing those functions.  When some computer geeks looked at the functionality of these chips, (the Intel 8008 chip, among them) they decided they could construct small computers from them; the genesis of the PC [Sidebar: I was one of these.  With two friends, a home grown electrical engineer and an account, I tried to convince a bank to loan us $5000 to start a “home computer” company and failed; most likely because of my lack of marketing acumen].

A smart user interface is one that that takes the information of a rich interface and intercommunicates with mainframe applications (“the cloud” as marketers like pretend is a new concept) and their databases to bi-directionally update (share) their data.  Rich interfaces have rapidly evolved as network technology has grown from copper wire in the 1950s to fiber optics, Wi-Fi, and satellite communications as competing interconnection technologies at the physical through network layers of the OSI model.  These enabled first the Blackberry devices and phones, then in 2003, the Iphone and competing products.  The term “App” from application is a rich and generally “smart” user interface.  [Sidebar: I put “smart” in quotes because many of these “rich/smart apps” require constant updating burning data minutes like they are free.  When you allow them to only use Wi-Fi they complain bitterly.]

The library

Initially, in the late 1970s, information technology started to disrupt the printed information center, that is, the library.  The library is the repository of printed documents (encompassing data, information, and knowledge) of the Age of Print.  It uses a card catalog together with an indexing system, like the Dewy Decimal or Library of Congress systems, creating metadata to organize the documents to enable a library’s user to find documents containing data or information contained in the document pertaining to the user’s search requirements.

It started from the use of the rudimentary data bases’ (records management systems’) ability to control inventory, in the case of a library the inventory of books.  Initially, automation managed the metadata about the library’s microfilm and/or microfiche collections.  [Sidebar: The libraries used microfilm and microfiche technologies to reduce the volume and floor space of its collections as well as enabling easier searches of those collections.  Microfilm and microfiche technologies greatly reduced the size of the material.  For example, an 18 by 24 inch newspaper could be reduced to less than a two inch square (or rectangle).  However, with so many articles in each daily paper, library patrons had difficulty finding articles on particular topics; enter automation.

Initially, the librarians used the one or two terminals connected to the computer to either enter the metadata about what was on the microfilm or fiche or pull that data for a library’s customer.  They would enter the data using a Key Word In Context (KWIC) indexing system. 

Gradually, as computing systems evolved the quantity and quality of metadata of what was in the libraries increased and access within the library’s computing system increased; generally with a terminal or two sitting next to the card catalog.  However, none of the metadata was available outside the library.

With the advent of the World Wide Web standards and software (both servers and browsers) all of that changed.  [Sidebar: Interestingly, at least to me, the two basic protocols of the web, HTML and XML were derivatives of SGML, Standard Generalized Markup Language.  SGML is a standard developed by the printing industry to allow it to transmit electronic texts to any location and allow printers at that location to print the document.  It’s ironic that derivatives of that standard are putting the printing industry out of business. One of the creators of SGML worked for/with me for awhile.] 

With the advent of the Internet, browser and server software, and HTML (and somewhat later XML), the next step in the disruption of libraries as repositories of data, information, and knowledge started with search engines.  The first commercially successful search engine was Yahoo.  It used (as do all search engines) web crawler technology to discover metadata about websites then organizes it in a large database.  The most successful search engine to date is Google; the key reason being that it was faster than Yahoo and contained metadata about more websites.  These search engines replaced card catalogs of libraries before the libraries really understood what they were dealing with.  This has been especially true since as a great deal of data and information has migrated to the web in various forms and formats.

One of the things many library users went to the library for, before the advent of the web, was to use encyclopedias, dictionaries, and other such materials.  Now, Wikipedia and others sites of this type are the encyclopedias, dictionaries, thesaurus, and so on, of the Age of Computing.  Additionally, many people read newspapers and magazines at the library.  These too, are now available on any rich, smart user interface.  [Sidebar: For the definitions see my paper on Services at the User Interface Layer for SOA.  There is a link on this blog.]   The net result is that libraries, as physical facilities, are nearly obsolete.  Now “Big Data” (actually the marketing term for knowledge management of the 1990s) libraries and pattern analysis algorithms are taking data, information, and knowledge development of the library to the next level, as I will discuss shortly.

Imaging: Photos, Videos, Television, Movies, and Pictures

One of the greatest transformations, so far, from the Age of Print to the Age of Computing is in the realm imaging.  Images, pictures if you will, have been found on cave walls inhabited in the early “stone age” and some written languages are still based on ideographs.  So imaging is one of the oldest forms of communications.

Late in the Age of Writing, in the Italian Renaissance, images became much more realistic with the “discovery” of perspective.  Up to that point images (paintings) had been very “two dimensional”; now they were three.  Early in the Age of Print, actually starting with Guttenberg, wood cut images were included in printed materials.  From ­­­1800 onward, a series of inventors created photography, capturing images on a photo-reactive film.  Lithography allowed these images to be converted into printed images.  Next moving images, the movies came into being; as well as color photography.

From the 1960s, the U.S. Defense Department started looking for methods and techniques to gather near real-time intelligence by flying over the area—in this case areas in the USSR; and the USSR objected.  The first attempt was through the use of aerial photography, which started with a long winged version of B-57, then the U2, and finally the SR-71.  All of these used the then state-of-the-art film-based photography.  But all had pilots and only the SR-71 was fast enough to evade anti-aircraft missiles. 

So a second approach was used, sending up satellites and then parachuting the film back to earth. There were two major problems with this approach.  First, was getting the satellite up in a timely manner.  Rockets at the time took days to launch so getting timely useful data was difficult.  Second, having the film canister land at the proper location for retrieval was difficult.

Therefore, the US government looked for another solution.  They, and their contractors, came up with digital imaging.  This technology crept into civilian use over the next 20 years. Meanwhile, the photographic industry, in the main, ignored it, in part, because of the relatively poor quality of the images early on.  But this improved, both the resolution and the number of colors.  Among others, this led to the demise of Kodak and Fuji Films.

Another part of the reason the photo film industry ignored digital imaging is the quantity of storage and the physical size of the storage units required to store digital images.  But as Moore’s Law indicated, the amount of storage went up while the cost dropped drastically and this size of the hardware needed decreased even more.  With the advent of SD and Micro-SD cards there was no need for film.  And with the advent of image standards like .tif, .gif, and .jpg the digital images could be shared nearly instantly.

Retail Selling

From before the dawn of history, until 1893, trade (buying and selling) was a face to face business.  In 1893, Sears, Roebuck, and Company started selling watches and then additional products by catalog using the railroad to deliver the goods.  When coupled with the Wells Fargo delivery system—across the railroad system—allowed people in small towns to purchase nearly any “ready-made” goods, from dresses to farm implements.  This helped mass production industries and helped to create cities of significant size.  It then followed (or led) the way by building retail outlets (stores) in every town of even small size. 

This model of retailing is still the predominate model, but is the one being challenged by the Sears and Roebucks catalog model in an electronic internet-based form of retailing.   Examples include the electronically based, Amazon, eBay, and Google.  Amazon rebooted the no bricks and mortar retailing catalog with an internet version.  It is successfully disrupting the retail industry.  Likewise, eBay used the earliest market model, trading in the local market, in a global version.  Early on in the existence of the internet various groups developed search engines.  Currently, Google is the primary search engine. But it is supporting a concierge service which the Agility Forum, The Future Manufacturing Consortium said would be a requirement for the next step in manufacturing and retailing, that is, mass customization.

Additive Manufacturing

Early in my studies in economics, the professors tied economic progress of the industrial age,  to mass production, to economies of scale.  However, in the Age of Computing mass production is giving way to mass customization.

Initially, in the 1970s, robotic arms were implemented on mass production lines to reduce the costs of labor [Sidebar: especially in the automotive industry.  At the time US automakers found it infeasible to fire inept or unreliable employees do to union contracts.  Additionally, the labor costs, do to those contracts priced the US automobiles out of competition with foreign automakers.  To reduce their labor costs the automakers tried to replace labor with robots numeric controlled machines.  They had mixed success do to both technical and political issues raised.  This is not unlike the conversion of the railroads for steam to diesel and the “featherbedding that forced many railroad into contraction or bankruptcy.]  By the 1990s automation and in particular agile automation (automation that is leading to mass customization) is becoming the business-cultural norm in manufacturing and fabrication industries.  Automation is replacing employees in increasingly complex activities.  It will continue to do so and will continue to enable increasing mass customization of products.

For thousands of years components for everything from flint arrowheads to automobile engine blocks to sculptures were created by subtracting material from the raw material.  This subtracted material is waste.  A person created a flint arrowhead by removing shards from a flint rock. 
Automobile engine blocks are created by metal casing, then milling the casting to smooth the surfaces for the moving engine components. 

Stone and wood sculptures use the same material removal procedures as creating an arrowhead.  These too create waste.  Some cast sculptures may not be milled or polished, but these are the exceptions and the mold for the casting is still waste material.

Recently, a process similar to casting called injection molding does create products with relatively little waste.  But most component manufacturing processes create considerable waste.

However, with the rise of ink jet printing technology, people began to experiment with overlaying layers of material and found they could create objects. This technology is called 3D printing or additive manufacturing. It will have a much greater impact on manufacturing and mass customization.

A simple example is car parts for older model vehicles.  A car enthusiast orders a replacement part for the carburetor in his 1960s vintage muscle car.  The after-market parts company can create the part using additive technology rather than warehousing hundreds of thousand parts, just in case.  The enthusiast gets a part that is as good as, or perhaps better than, the original, the after-market parts company doesn’t need to spend money on warehousing, and the manufacturing process doesn’t product waste (or at least only a nominal amount).

Research and development is using this technology is now looking at creating bones to replace bones shattered in accidents, war, and so on; in nano-versions to create a wide variety of products.  [Sidebar: Actually, one of the first “demonstrations” of the concept was on the TV show, Star trek, where the crew went to a device that would synthesis any food or drink they wanted.] 

In the future this technology will disrupt all manufacturing processes while creating whole new industries because it can create products that meet the customer’s individual requirement better, while costing less, and being produced in less time.  For example, imagine a future where this technology can create a new heart identical to the heart that needs replacement, except fully functional—researchers are looking into the technology that could, one day, do that.

Automotive

The automotive industry is already starting to feel the effects of the Age of Computing.  The automotive industry has been based on cost efficiency since Henry Ford introduced the assembly line.  The industry was among the first to embrace robots on the assembly line.  But, there is much more.

The cell phone is becoming the driver’s interactive road map.  This road map tells the driver which of several routes is the shortest with respect to driving duration based on the current traffic and backups, as well as speed, and distance.

Since the 1970s automobiles have had engine sensors and “a computer” to help with fuel efficiency and identifying engine malfunctions.  These have become increasingly sophisticated.
Right now the automotive industry is driving toward self-driving cars.  There some on the roads and many that have sensors (and “alerts”) that “assist” drivers in one or more ways.

In the Near Future

And there are many industries like the automotive industry which are feeling the effects of The Age of the Computer.  That is, there are many more systems which the technology and processes of the Age of Computing are disrupting.

While processes are in transformation today, it’s nothing compared with what will happen in the immediate and not very distant future.

Education

Shortly, in the Age of Computing, information technology will disrupt schools.  People learn in two ways, by doing (showing, or “hacking”) and by listening.  And everyone learns using differing combinations of these two methods.

Technology can and will be used to “teach” in all of these combinations.  Therefore, “the classroom” is doomed.

Some students learn by doing, a method that “academics” pooh-pooh; only “stupid” children take shop and apprenticeships don’t count, you must of a “degree” to get ahead.

However, children do learn by doing, and enjoy it.  Why do you think that so many boys, in particular, choose to play video games? 

Why is it, that pilots of the United States Navy have go through 100 hours or more of computer simulations before trying a carrier landing?  Why, because they learn by doing. 

In the near future most of the jobs will require learn by doing.  Learn by doing includes simulations, videos, solving problems, labs.  Automation has and increasingly will impact all of these, giving the learn-by-doers the opportunity the current mass production education system doesn’t.
The other method for learning is “learn by listening”.  Learn by listening includes reading and audio (audio includes both lectures and recordings of lectures).  Over the past two hundred years, these have been the preferred methods of “teaching” in mass production public schools.

In the main, it has worked “good enough” for a significant percentage of the students, but numbers of students have fallen from the system.  Part of the problem is that some teachers can hold the interest of some students better than other students, other teachers may hold the interest an entirely different group of students, and some may just drone on.

Now, using the technology of the age of computers, students will be able to listen to lectures from teachers that they are best suited to learn from.  This means that the best teachers are able to teach hundreds of thousands of students across the globe, not just the 30 to 50 using the tools of the age of print.

It also means that students can learn in ways the more align with their interests. [Sidebar: I saw a personal example of this when I was working on my Ph.D. at the University of Iowa.  The Chair of the Geography Department, Dr. Clyde Kohn was also a wine connoisseur.  He decided to offer a course, called “the world of wines” to a group of 10 to 15 students.  He would teach them about climates and geomorphology (soils, etc.) that create the various varieties of wine.  He would also teach them about wine making and distribution worldwide; so there was physical and economic geography involved.  In the first 5 minutes of enrollment the class was filled and students were clamoring to get into to it.  He opened it up.  By the time all students had enrolled there were 450 students in the geography class and they probably learned more geographic information than they ever had before. It also gave the state legislator apoplexy.]  As the technology becomes more refined, students will be able to learn whatever they need to learn without ever going near a classroom.  I suspect that home (computer) schooling will become the norm.  Even “class discussion” can be carried on using Skype/Gotomeeting/etc. like tools.  Sports will be team-based rather than school-based.

I will define a prescriptive architecture for education in another post.  It turns the educational system on its head.  [Sidebar: Therefore, it will be ignored by the academic elite.]

Medicine

Medicine, too, is starting and will continue to go a complete disruption of the way it is performed (not practiced).

Currently, most of medical performance is in the rational “weegee”-boarding stage and uses mass production methods, not mass customization.  But all people are biological experiments and are, consequently, individuals.  And every malfunction should be treated the same way.

To get the best result for the individual, each type of drug and dosage of that drug should be customized for the individual from the start—not by trial and error.

In the near future, people will be diagnosed using their complete history, analyzing their DNA, body scanning, and other diagnostic measurements (both current and undiscovered). Then, using additive nano-technology an exact prescription will be created.  The medicine may be a single pill, mixed with a liquid, through a shot, or some other method, introduced into the individual.

Much of this analysis will be done by a computer.  Already, in the 1070s, a program simulated a patient, so that medical students could attempt to diagnose the “patient’s” problem.  In order for this program to serve its intended function, the MDs and Computer Assisted Instruction mavens were continually refining the data used by the program.  If this continued, and I suspect it did, the database from this single program could have been used by an analysis program to produce a diagnosis that would be comparable with that of expert diagnosticians.

This type of program could be, and likely will be, used by every hospital in the country, saving time and a great deal of money in identifying problems.  The key reason that it is not used today is that it has poor “bedside” manners—but so to do many of the best diagnosticians. 

Also, in many situations, this will take “The Doctor” out of the loop.

For example, instead, the patient walks into “the office”, which may be in front of the home computer.  The analysis “App” asks the patient questions and gets the patient’s permission to access his or her medical record.  If the patient is at home and the “Analysis App” needs more information, the app may ask the patient user to go to the nearest analysis point of service (APOS) for further tests.
At the APOS the patient would lay on a diagnostic table, not unlike those mocked up in Star Trek.  This table would have all sensors needed to take the necessary measures—in fact; there will be a mobile version of this table in the back of a portable APOS vehicle.

Once the analysis is complete, the APOS will use additive manufacturing to incorporate all of the medicines needed in a form usable by the patient.

For physical trauma or where this is irreparable damage to a bone or organ, additive manufacturing will create the necessary bone or organ and a robotic system will then transplant it into the patient’s body.

The heart of this revolution in medical technology is Integrated Medical Information System based on the architecture I’ve presented in the post entitled “An Architecture for Creating an Ultra-secure Network and Datastore.”  Without such an ultra-secure system for the medical records of each individual, externalities are too grave to consider.

However, even with an Integrated Medical Information System there will be substantial side effects for all stakeholders, doctors, nurses, technicians, and patients.  There need no longer be any medical professions, except for medical research organizations. 

Because the recurring costs of an APOS are low when compared with the current doctor’s office/hospital facility, all people should be able to pay for their own medical costs.  So there will be little or no need for insurance.

Additionally, because medicines are manufactured on a custom basis as needed by the patient, there will be no need for pharmacies or systems for the production and distribution of medicines.
With no medical professionals, no insurance, and no need for the production and distribution of medicine, this whole concept will be fought, in savage conflict, by the those groups, as well as Wall Street and federal, state, and local welfare agencies, all of whom will lose their jobs.  However, it will be inevitable, though perhaps greatly slowed by governmental regulation.

Again, I will say a good deal more on this topic in a separate post.

Further into the Future

There are three alternative future cultures possible in the Age of Computers, the Singularity, Multiple Singularities, or the Symbiosis of Humans and Machines.  These may all sound like science fiction or fantasy, but they are based on my 50+ years of watching the Age of Computers and technology advance.

The Singularity

In a story that someone told me in the 1960s, a man created a complex computer with consciousness.  He created it to answer one question, “Is there a god?”  The computer answered, “Now there is.”  A definition of “The Singularity” is that all of the computers and computer controlled devices, like smart phones become “cells” in a global artificial consciousness. 

Many science fiction writers and futurists have speculated on just such an occurrence and its implications.  John von Neumann first uses the term "singularity" in the early 1950s as applied to the acceleration of technological change and the end result. 

In 1970, futurist Alvin Toffler wrote Future Shock. In this book, Toffler defines the term "future shock" as a psychological state of individuals and entire societies where there is "too much change in too short a period of time".

The Singularity Is Near: When Humans Transcend Biology is a 2006 non-fiction book about artificial intelligence and the future of humanity by Ray Kurzweil

Many science fiction writers and many movies have speculated about what happens when the Singularity arrives.  For the most part these stories take the form of Man/Machine Wars or conflicts.  In the first Star Trek movie, the crew of the Enterprise had to battle” a world consuming machine consciousness.  In the Terminator series of movies it’s man versus machine and man and machine versus a machine.  And in The Matrix, it’s about man attempting to liberate himself from being a slave of the machine consciousness. [Sidebar: In the mid-1970s I had a very interesting discussion with Dr. John Crossett about the concept that formed the plot for The Matrix.]

There are literally hundreds of other books and short stories about dealings and conflicts with the singularity.  While this is all science fiction, science fiction has often pointed the way to science and technology fact.

Multiple Singularities

A second scenario is that because of the advances in artificial intelligence there are multiple singularities.  Again, Science Fiction has dealt with this scenario.  Isaac Asimov was one that dealt with multiple singularities and the results in his I Robot series of stories.  In this scenario, more than one robot achieved consciousness.  In these scenarios, humanity plays a subordinate role to the “artificial intelligence”.  These singularities interact with each other in both very human and very un-human ways.

Symbiosis of Humans and Machines

The best set of scenarios, from the perspective of humanity, is the symbiotic scenarios.  All multi-cell life, above a very rudimentary level is composed of a symbiosis of cells and bacteria.  So it is reasonable that there could be a symbiosis of humans and machines.

For example, nano-bots could be inserted that would deliver toxins to cancerous cells to directly kill those cells, to inhibit their transmission of the cancer causing agent to other cells or to  link with brain with orders to repair any damaged cells. These nano-bots would be excreted when their work is complete.

Taking this a step further, these nano-bots could allow the human brain direct access to the information on the Internet or “in the cloud” (as marketers like to say). [Sidebar: “Cloud Computing” has been with us ever since the first computer terminals used a proprietary network to link themselves to a mainframe computer.  Yes, the technology has been updated, but it’s still remote computing and storage.]  This would mean that all you would have to do is think to watch a movie, or gain some knowledge about the world around you.  The very dark downside of this is that terrorists, politicians, news commentators, or other gangsters and thugs could control your thinking, i.e., direct mind control.  And actually the artificial consciousness could take over and use human to their benefit.  [Sidebar: Remember a thief is nothing more than a retail politician, retail socialist, or retail communist.  Real politicians, socialists, and communists steal at the wholesale level.]   This mind control is the ultimate greedy way to steal—anyone whose mind is controlled is by definition a slave of the mind controller.

“Space the Final Frontier”

I see only one way out of the mind-control conundrum, traveling into and through space.  Once humans leave the benign environment of the earth, the symbiosis of humans and machines (computers and other automation) becomes imperative for both humans and their automated brethren.  Allies are not made in peace, only when there are risks or threats.


Even the best astronomical physicists readily admit that while we don’t understand our universe, as humans we may never be able to understand the universe.  There is simply too much to fathom.  However, with the symbiosis with artificial consciousness, we may be able to take a stab at it.