Focus Determines Reality
bl0g by Chr1s Shea7s
bl0g by Chr1s Shea7s
Jul 13th
As a society, we choose to apply metrics to individuals. This seems to be a natural choice—as if innate, we presume to be individuals. However, we are innately social.
After basic study of inertia in application to developing extrapolation scenarios, and to juxtapose the institution of academia, I feel as though all levels of formal education have undervalued the capabilities of technology to better integrate people and information.
I must point out that I will primarily be attacking higher education and their faults. After seven years of struggle as a gifted yet learning disabled student in higher education, toned down, I’m disappointed.
To preface, I claim to be an intellectual minority. I believe it gives me a unique perspective; and in retrospect, allows my objectivity to be useful. With what little research that is available concerning individuals that are gifted and learning disabled, there are many attributes of said students that offer insight into the faults, or perhaps areas where education systems should grow, of educational institutions.
“[Gifted and learning disabled students have] special talents or interests that were usually manifested in out-of-school or within-school extracurricular activities and that enabled them to ameliorate their negative school experiences. These talents and interests were recognized and often nurtured by parents and seemed to contribute to the positive sense of self eventually developed by some of the participants in this study despite their negative experiences in school.”
[Case Studies of High-Ability Students with Learning Disabilities Who Have Achieved, Journal article by Sally M. Reis, Terry W. Neu, Joan M. Mcguire; Exceptional Children, Vol. 63, 1997]
This notion signifies where education systems continue to not change, and in areas that would benefit all students, not just intellectual minorities. Without holistic support, these students might be forced to practice their identified strengths in non-constructive manners (hint: illegal manners). They are certainly not being used in the classroom. Where is the system to identify the unique strengths and weaknesses of each student? Do teachers or mentors know about these strengths? Why do student’s weaknesses get punished instead?
What is a weakness? Well my severe weakness is my learning disability. And this notion is complicated by the fact that disability support services in all grade levels only support the disability—that is, the attempted normalization of the weakness. This system is completely backwards for students who are gifted and learning disabled. But I digress. Thomas Jefferson once wrote, “There is nothing more unequal than the equal treatment of unequal people.” When it comes to personal learning styles, I do not believe in equality. Weakness is punished by awarding grades as metrics to academic failure, and I believe this act plays into the demolishment of natural creativity that students have.
Evidence: video
As Sir Ken Robinson states, “…if you’re not prepared to be wrong, you’ll never come up with anything original. If you’re not prepared to be wrong. And by the time they get to be adults, most kids have lost that capacity. They have become frightened of being wrong. And we run our companies like this, by the way, we stigmatize mistakes. And we’re now running national education systems where mistakes are the worst thing you can make. And the result is, we are educating people out of their creative capacities.”
Sir Ken Robinson continues, “…academic ability, which has really come to dominate our view of intelligence because the universities designed the system in their image. If you think of it, the whole system of public education around the world is a protracted process of university entrance. And the consequence is that many highly talented, brilliant, creative people think they’re not, because the thing they were good at at school wasn’t valued, or was actually stigmatized. And I think we can’t afford to go on that way.”
More on Sir Ken Robinson: http://www.ted.com/speakers/sir_ken_robinson.html
My argument here is this: the foundational metrics system which we use to measure the performance of individual students is antiquated. Mainstream education, and in retrospect, society, is suffering from academic inertia—a complete lack of change for the betterment of students. So—how should it change?
Fundamentally, the education system, worldwide, is flawed. It remains insensitive to individualistic needs and continues to degrade as short term funding cuts continue to inhibit its growth. Even while society at large is learning the value of sustainability, it’s education, in the public’s eye, that is open to budget cuts and therefore is less important to society than the roads that we drive on.
Even while society is learning how to embrace technological advancement at exponential levels, academic institutions do not. Yes, schools are taking advantage of online learning tools. But if it didn’t increase the amount of money they took in, they wouldn’t use it. Academic institutions are embracing technology, but for largely the wrong reasons.
Take, for example, the private sector. While interning at Microsoft, my deployment services team was successful for many reasons. However, two of those reasons had to do with information and technology. As a team, we were encouraged to remain from becoming information hogs—that is, individuals who kept crucial information to themselves. We prided ourselves on our unique attributes, such as being a subject matter expert (SME), but when specific information was needed to complete complicated tasks, it was our duty to share and help educate everyone involved. While this process was primarily performed face-to-face, we used Microsoft’s intranet to create an encyclopedia of relevant information that each of us was encouraged to contribute to. As SME’s we had a responsibility to educate everyone else, empowered by integrative technology.
This is not how academic institutions, in a classroom setting, are managed. The teacher is the SME, and if you don’t meet standardized requirements, you fail. Nowhere in the system of curriculum is there a means for students to become the teachers. Nowhere is there a means for students to be assessed based on their strengths, or develop according to their strengths.
What is a personal strength? Well my strengths are my gifts, including my tenacity and creativity. IQ testing identified areas of high intelligence, in contrast to my average IQ scores and my low (learning disability) scores. Stereotypically, people that are not learning disabled or not gifted fall into the “average” IQ range. Again, stereotypically, people tend to believe that they only have one IQ. That’s completely false. IQs are determined by a wide range of specific areas of intelligence. It’s perfectly feasible that everyone on Earth has varying (high and low) IQs—and it’s the higher ones that we should be capitalizing on.
But people are not simply their IQs. There’s also emotional intelligence (EQ) and there’s creative intelligence (CQ). People also tend to use either their right side of their brain or the left side of their brain. And there’s personality. Understanding one’s personality is invaluable when learning about one’s self, and thus, their world. Personality is directly tied to our capacities as learning individuals.
But none of this is measured when we instruct students in mainstream education. Unless, of course, you are identified as a gifted or learning disabled student. Why don’t we perform these tests at all levels of school on all students? Starting in primary school, kids should be tested. They should be tested so that, individually, they can come to terms with their strengths and weaknesses. This is critical for understanding one’s ability to perform in society. Kids should also be tested so that educators and mentors can track individual progress—not standardized progress. Allowing educators to engage with their students at these intimate levels will set the foundations of educational sustainment.
What I propose is this: The healthcare system is receiving a lot of funding to deploy a nationwide infrastructure of personal health information that is supposed to assist with improved health care. Why can’t we do that same for students? And we need to abolish the grading system. It’s arguable that the grade point system measures a student’s strengths and weaknesses. But GPA wraps that information into one clump of poop. And nowhere on a report card is there an educator’s note on why such a grade was received. Similarly, nowhere is there a response from the actual student receiving the grade. If we can implement feedback systems on e-commerce Web sites, we can do it for our students.
Another problem, which with identification could assist with turning education systems around for the better, includes sociability. At Microsoft, we worked in teams. Being an SME was one of my strengths. But as a collaborative team of SMEs, we were something much greater. Students are graded purely on individual “success” which reinforces their “success” on a completely individualized level. While students should understand their ability to contribute to a society in ways that are unique to their psyche, in order to be a part of a society, they need reinforcement that is determined by teamwork for which they are a crucial part.
Similarly, in this era of exponentially evolving information integration, why are we basing our tests on questions that can be Googled in 2 seconds? Why aren’t we asking questions that require problem solving and critical thinking? Why are we asking questions that only have one right answer? Through collaborative teamwork, people learn to think creatively. Through collaborative teamwork, people learn the value of diversity and opinion. In developed nations, having access to the Internet is commonplace. If we don’t teach students at a young age to embrace technology in ways that are meaningful to the society for which they are a part, we are denying OURSELFS the luxury of a self-empowered, socially-educated and technologically-empowered society.
Why is the sharing of information important? Here’s why:
Evidence: video
Matt Ridley states, “…what we’ve done in human society, through exchange in specialization, we’ve created the ability to do things that we don’t even understand.” He continues, “With technology we can actually do things that are beyond our capabilities. We’ve gone beyond the capacity of the human mind to an extraordinary degree. And by the way, that’s one of the reasons that I’m not interested in the debate about IQ–about whether some groups have IQs higher than other groups–It’s completely irrelevant. What’s relevant to a society is how well people are communicating their ideas, and how well their cooperating, not how clever the individuals are.”
More on Matt Ridley: http://www.ted.com/speakers/matt_ridley.html
What I propose is this: By engaging with others, sharing problems and sharing ideas, we learn about ourselves while simultaneously learning how to be a more intricate part of a community. Through foundational understanding of how we work individually, we can offer those strengths to our groups through interaction. Engagement is the pinnacle of education. Without engagement and without respectful, compassionate sharing, we reinforce our egos. Reinforcing our egos with what not to do—or with what to do but basing it on invisible expectations—is undermining our abilities as a global community. Our goal here should be to revolutionize our education system to encourage civic engagement at any level. Assignments should be replaced with engaging projects. Students should do these projects together. They should be tested on their abilities to understand themselves and how to best engage with their teams and their communities.
How can we develop student’s strengths, to bring success to their community, and in creative and non-threatening ways? Why would the latter be important?
Evidence: video
David Logan states, “So when individuals come together and find something that unites them that’s greater than their individual competence, then something very important happens. The group gels. And it changes from a group of highly motivated but fairly individually centric people, into something larger, into a tribe that becomes aware of its own existence.”
David continues, “Two percent are at Stage One. About 25 percent are at Stage Two, saying, in effect, “My life sucks.” 48 percent of working tribes say, these are employed tribes, say, “I’m great and you’re not.” And we have to duke it out every day. So we resort to politics. Only about 22 percent of tribes are at Stage Four, oriented by our values, saying “We’re great. And our values are beginning to unite us.” Only two percent, only two percent of tribes get to Stage Five. And those are the ones that change the world.”
“See, people who build world-changing tribes do that. They extend the reach of their tribes by connecting them, not just to myself, so that my following is greater. But I connect people who don’t know each other to something greater than themselves. And ultimately that adds to their values.”
More on David Logan: http://www.ted.com/speakers/david_logan.html
The question begging to be asked: Why can’t we design education systems that empower students to value stage four and stage five tribes? If they could even acknowledge what tribe they were in, I presume that it would allow them to strive to a higher level of tribal leadership. Just think of the impacts that would have on our society even if it was a small increase. When we design education systems that teach students what is valued in society, and for all of their developmental years in life (K-12), what should we be striving for?
The goals of our education systems no longer serve us as a society. We are now connected in vastly superior ways from when our core education system values were established. We are no longer individual information carriers and processors. As our society becomes more and more complicated, we have to be raising children with an aptitude for individualized empowerment and value systems based on civic engagement, unafraid to take risks. “American creativity scores are falling.” I have yet to read a political argument battling for a nationwide increase in creativity.
“The potential consequences are sweeping. The necessity of human ingenuity is undisputed. A recent IBM poll of 1,500 CEOs identified creativity as the No. 1 “leadership competency” of the future. Yet it’s not just about sustaining our nation’s economic growth. All around us are matters of national and international importance that are crying out for creative solutions, from saving the Gulf of Mexico to bringing peace to Afghanistan to delivering health care. Such solutions emerge from a healthy marketplace of ideas, sustained by a populace constantly contributing original ideas and receptive to the ideas of others.”
Reference article: http://www.newsweek.com/2010/07/10/the-creativity-crisis.html
The need for creativity is staggering in comparison to knowledge. With the Internet, fact-based information cramming is futile. Education strategy should demand systems that teach students how to solve problems, not simply the solutions to problems. With the Internet, individualistic problem solving is ludicrous. Education strategy should demand systems that reward constructive social behavior. And finally, designing education systems that provide structure for engaging with one’s community should be a requirement—how else are we going to teach the value of a connected society?
As a society, we choose to apply metrics to individuals. This seems to be a natural choice—as if innate, we presume to be individuals. However, we are innately social.
After basic study of inertia in application to developing extrapolation scenarios, and to juxtapose the institution of academia, I feel as though all levels of formal education have undervalued the capabilities of technology to better integrate people and information.
I must point out that I will primarily be attacking higher education and their faults. After seven years of struggle as a gifted yet learning disabled student in higher education, toned down, I’m disappointed.
To preface, I claim to be an intellectual minority. I believe it gives me a unique perspective; and in retrospect, allows my objectivity to be useful. With what little research that is available concerning individuals that are gifted and learning disabled, there are many attributes of said students that offer insight into the faults, or perhaps areas where education systems should grow, of educational institutions.
“[Gifted and learning disabled students have] special talents or interests that were usually manifested in out-of-school or within-school extracurricular activities and that enabled them to ameliorate their negative school experiences. These talents and interests were recognized and often nurtured by parents and seemed to contribute to the positive sense of self eventually developed by some of the participants in this study despite their negative experiences in school.”
[Case Studies of High-Ability Students with Learning Disabilities Who Have Achieved, Journal article by Sally M. Reis, Terry W. Neu, Joan M. Mcguire; Exceptional Children, Vol. 63, 1997]
This notion signifies where education systems continue to not change, and in areas that would benefit all students, not just intellectual minorities. Without holistic support, these students might be forced to practice their identified strengths in non-constructive manners (hint: illegal manners). They are certainly not being used in the classroom. Where is the system to identify the unique strengths and weaknesses of each student? Do teachers or mentors know about these strengths? Why do student’s weaknesses get punished instead?
What is a weakness? Well my severe weakness is my learning disability. And this notion is complicated by the fact that disability support services in all grade levels only support the disability—that is, the attempted normalization of the weakness. This system is completely backwards for students who are gifted and learning disabled. But I digress. Thomas Jefferson once wrote, “There is nothing more unequal than the equal treatment of unequal people.” When it comes to personal learning styles, I do not believe in equality. Weakness is punished by awarding grades as metrics to academic failure, and I believe this act plays into the demolishment of natural creativity that students have.
Evidence: video
As Sir Ken Robinson states, “…if you’re not prepared to be wrong, you’ll never come up with anything original. If you’re not prepared to be wrong. And by the time they get to be adults, most kids have lost that capacity. They have become frightened of being wrong. And we run our companies like this, by the way, we stigmatize mistakes. And we’re now running national education systems where mistakes are the worst thing you can make. And the result is, we are educating people out of their creative capacities.”
Sir Ken Robinson continues, “…academic ability, which has really come to dominate our view of intelligence because the universities designed the system in their image. If you think of it, the whole system of public education around the world is a protracted process of university entrance. And the consequence is that many highly talented, brilliant, creative people think they’re not, because the thing they were good at at school wasn’t valued, or was actually stigmatized. And I think we can’t afford to go on that way.”
More on Sir Ken Robinson: http://www.ted.com/speakers/sir_ken_robinson.html
My argument here is this: the foundational metrics system which we use to measure the performance of individual students is antiquated. Mainstream education, and in retrospect, society, is suffering from academic inertia—a complete lack of change for the betterment of students. So—how should it change?
Fundamentally, the education system, worldwide, is flawed. It remains insensitive to individualistic needs and continues to degrade as short term funding cuts continue to inhibit its growth. Even while society at large is learning the value of sustainability, it’s education, in the public’s eye, that is open to budget cuts and therefore is less important to society than the roads that we drive on.
Even while society is learning how to embrace technological advancement at exponential levels, academic institutions do not. Yes, schools are taking advantage of online learning tools. But if it didn’t increase the amount of money they took in, they wouldn’t use it. Academic institutions are embracing technology, but for largely the wrong reasons.
Take, for example, the private sector. While interning at Microsoft, my deployment services team was successful for many reasons. However, two of those reasons had to do with information and technology. As a team, we were encouraged to remain from becoming information hogs—that is, individuals who kept crucial information to themselves. We prided ourselves on our unique attributes, such as being a subject matter expert (SME), but when specific information was needed to complete complicated tasks, it was our duty to share and help educate everyone involved. While this process was primarily performed face-to-face, we used Microsoft’s intranet to create an encyclopedia of relevant information that each of us was encouraged to contribute to. As SME’s we had a responsibility to educate everyone else, empowered by integrative technology.
This is not how academic institutions, in a classroom setting, are managed. The teacher is the SME, and if you don’t meet standardized requirements, you fail. Nowhere in the system of curriculum is there a means for students to become the teachers. Nowhere is there a means for students to be assessed based on their strengths, and developed according to their strengths.
What is a personal strength? Well my strengths are my gifts, including my tenacity and creativity. IQ testing identified areas of high intelligence, in contrast to my average IQ scores and my low (learning disability) scores. Stereotypically, people that are not learning disabled or not gifted fall into the “average” IQ range. Again, stereotypically, people tend to believe that they only have one IQ. That’s completely false. IQs are determined by a wide range of specific areas of intelligence. It’s perfectly feasible that everyone on Earth has varying (high and low) IQs—and it’s the higher ones that we should be capitalizing on.
But people are not simply their IQs. There’s also emotional intelligence (EQ) and there’s creative intelligence (CQ). People also tend to use either their right side of their brain or the left side of their brain. And there’s personality. Understanding one’s personality is invaluable when learning about one’s self, and thus, their world. Personality is directly tied to our capacities as learning individuals.
But none of this is measured when we instruct students in mainstream education. Unless, of course, you are identified as a gifted or learning disabled student. Why don’t we perform these tests at all levels of school on all students? Starting in primary school, kids should be tested. They should be tested so that, individually, they can come to terms with their strengths and weaknesses. This is critical for understanding one’s ability to perform in society. Kids should also be tested so that educators and mentors can track individual progress—not standardized progress. Allowing educators to engage with their students at these intimate levels will set the foundations of educational sustainment.
What I propose is this: The healthcare system is receiving a lot of funding to deploy a nationwide infrastructure of personal health information that is supposed to assist with improved health care. Why can’t we do that same for students? And we need to abolish the grading system. It’s arguable that the grade point system measures a student’s strengths and weaknesses. But GPA wraps that information into one clump of poop. And nowhere on a report card is there an educator’s note on why such a grade was received. Similarly, nowhere is there a response from the actual student receiving the grade. If we can implement feedback systems on e-commerce Web sites, we can do it for our students.
Another problem, which with identification could assist with turning education systems around for the better, includes sociability. At Microsoft, we worked in teams. Being an SME was one of my strengths. But as a collaborative team of SMEs, we were something much greater. Students are graded purely on individual “success” which reinforces their “success” on a completely individualized level. While students should understand their ability to contribute to a society in ways that are unique to their psyche, in order to be a part of a society, they need reinforcement that is determined by teamwork for which they are a crucial part.
Similarly, in this era of exponentially evolving information integration, why are we basing our tests on questions that can be Googled in 2 seconds? Why aren’t we asking questions that require problem solving and critical thinking? Why are we asking questions that only have one right answer? Through collaborative teamwork, people learn to think creatively. Through collaborative teamwork, people learn the value of diversity and opinion. In developed nations, having access to the Internet is commonplace. If we don’t teach students at a young age to embrace technology in ways that are meaningful to the society for which they are a part, we are denying OURSELFS the luxury of a self-empowered, socially-educated and technologically-empowered society.
Why is the sharing of information important? Here’s why:
Evidence: video
Matt Ridley states, “…what we’ve done in human society, through exchange in specialization, we’ve created the ability to do things that we don’t even understand.” He continues, “With technology we can actually do things that are beyond our capabilities. We’ve gone beyond the capacity of the human mind to an extraordinary degree. And by the way, that’s one of the reasons that I’m not interested in the debate about IQ–about whether some groups have IQs higher than other groups–It’s completely irrelevant. What’s relevant to a society is how well people are communicating their ideas, and how well their cooperating, not how clever the individuals are.”
More on Matt Ridley: http://www.ted.com/speakers/matt_ridley.html
What I propose is this: By engaging with others, sharing problems and sharing ideas, we learn about ourselves while simultaneously learning how to be a more intricate part of a community. Through foundational understanding of how we work individually, we can offer those strengths to our groups through interaction. Engagement is the pinnacle of education. Without engagement and without respectful, compassionate sharing, we reinforce our egos. Reinforcing our egos with what not to do—or with what to do but basing it on invisible expectations—is undermining our abilities as a global community. Our goal here should be to revolutionize our education system to encourage civic engagement at any level. Assignments should be replaced with engaging projects. Students should do these projects together. They should be tested on their abilities to understand themselves and how to best engage with their teams and their communities.
How can we develop student’s strengths, to bring success to their community, and in creative and non-threatening ways? Why would the latter be important?
Evidence: video
David Logan states, “So when individuals come together and find something that unites them that’s greater than their individual competence, then something very important happens. The group gels. And it changes from a group of highly motivated but fairly individually centric people, into something larger, into a tribe that becomes aware of its own existence.”
David continues, “Two percent are at Stage One. About 25 percent are at Stage Two, saying, in effect, “My life sucks.” 48 percent of working tribes say, these are employed tribes, say, “I’m great and you’re not.” And we have to duke it out every day. So we resort to politics. Only about 22 percent of tribes are at Stage Four, oriented by our values, saying “We’re great. And our values are beginning to unite us.” Only two percent, only two percent of tribes get to Stage Five. And those are the ones that change the world.”
“See, people who build world-changing tribes do that. They extend the reach of their tribes by connecting them, not just to myself, so that my following is greater. But I connect people who don’t know each other to something greater than themselves. And ultimately that adds to their values.”
More on David Logan: http://www.ted.com/speakers/david_logan.html
The question begging to be asked: Why can’t we design education systems that empower students to value stage four and stage five tribes? If they could even acknowledge what tribe they were in, I presume that it would allow them to strive to a higher level of tribal leadership. Just think of the impacts that would have on our society even if it was a small increase. When we design education systems that teach students what is valued in society, and for all of their developmental years in life (K-12), what should we be striving for?
The goals of our education systems no longer serve us as a society. We are now connected in vastly superior ways from when our core education system values were established. We are no longer individual information carriers and processors. As our society becomes more and more complicated, we have to be raising children with an aptitude for individualized empowerment and value systems based on civic engagement, unafraid to take risks. “American creativity scores are falling.” I have yet to read a political argument battling for a nationwide increase in creativity.
“The potential consequences are sweeping. The necessity of human ingenuity is undisputed. A recent IBM poll of 1,500 CEOs identified creativity as the No. 1 “leadership competency” of the future. Yet it’s not just about sustaining our nation’s economic growth. All around us are matters of national and international importance that are crying out for creative solutions, from saving the Gulf of Mexico to bringing peace to Afghanistan to delivering health care. Such solutions emerge from a healthy marketplace of ideas, sustained by a populace constantly contributing original ideas and receptive to the ideas of others.”
Reference article: http://www.newsweek.com/2010/07/10/the-creativity-crisis.html
The need for creativity is staggering in comparison to knowledge. With the Internet, fact-based information cramming is futile. Education strategy demands systems that teach students how to solve problems, not simply the solutions to problems. With the Internet, individualistic problem solving is ludicrous. Education systems demand systems that reward constructive social behavior. And finally, designing education systems that provide structure for engaging with one’s community should be a requirement—how else are we going to teach the value of a connected society?
Jul 6th
A recent idea of mine includes the breakdown on information on a semantic level. It’s just one step of many, but this level-three breakdown shows how complicated language and the establishment of new ideas can be.

May 1st
This is a copy of my National Cybersecurity Awareness Campaign Challenge proposal. I licensed it under the Creative Commons Public Domain license when I submitted it to DHS on 02010 April 30. Since its submittal, two updates have been made to the document:
The Big Picture
Bill Clinton, regarding health clinics in Rwanda, said that it’s not enough to create one, but that you’ve got to create a system that will work better and better. Public awareness concerning the safe use of the Internet and of the devices that connect us to the Internet requires a holistic strategy. The Department of Homeland Security (DHS) has a complex problem to address concerning the cyber education of residents in the United States. This complex problem is a common problem in every nation in the world, and it is going to take efforts from a global community, the Internet community, to minimize the dangers of using the Internet. The solution to this common problem has to be flexible in order to adapt to the dynamic nature of information and communication technologies that use the Internet. The solution to this common problem also has to be scalable to reach beyond mass-media outlets and be personable so that learning individuals can appreciate the need for Internet best-practices.
The Federal Bureau of Investigation (FBI) created InfraGard in 1996, a public-private partnership to assist the private sector with managing critical infrastructure. DHS needs to create a similar partnership to assist the public with becoming cyber literate—to understand the risks involved with uploading and downloading data and information via the Internet. DHS is in an ideal position to facilitate a cyber education movement in a very organized, informal and cost-effective way. The objective of this movement is to set the foundation for an international network of experts that will create and manage an education framework of solutions for all communities. The facilitation of this movement should entail an expansion of the National Cyber Security Alliance (NCSA) that would engage with colleges and universities to manage education programs tailored to their immediate and surrounding communities.
Richard McDermott and Douglas Archibald, in an article titled Harnessing Your Staff’s Informal Networks from the March 2010 edition of the Harvard Business Review magazine, describe the value of informal teams and communities to “share knowledge and attack common problems.”
“Consider the rise and fall of an informal group of experts at a large water-engineering company located just outside London. Starting in the early 1990s, they began meeting weekly to discuss strategies for designing new water-treatment facilities. The gatherings were so lively and informative that they actually drew crowds of onlookers. (The company can’t be named for reasons of confidentiality.)
The community initially thrived because it operated so informally. United by a common professional passion, participants would huddle around conference tables and compare data, trade insights, and argue over which designs would work best with local water systems. And the community achieved results: Participants found ways to significantly cut the time and cost involved in system design by increasing the pool of experience that they could draw upon, tapping insights from different disciplines, and recycling design ideas from other projects.”
[Harvard Business Review, March 2010, Reprint R1003F]
It is critical that any program designed to educate a population as large as the one inside of the United States do so with care that takes advantage of the uniqueness of individual communities. This program must approach each and every community within the United States with systems that are already available, thereby decreasing the overall cost to DHS while increasing outreach effectiveness. By expanding NCSA, DHS can interface with, at first, colleges and universities across the United States that have information technology related education programs.
The High-level Phases
The NCSA expansion should include several phases in order to build an infrastructure that can support the mission and vision previously outlined. An NCSA expansion must include network creation within the United States, but it must be done in a highly organized and targeted way in order for the network to propagate itself. This network self-propagation is necessary for the network to expand beyond the physical boarders of the United States. The second phase of the NCSA expansion must include an international audience. Cyber literacy is a matter of national security. Cyber literacy extends beyond the borders of the United States because cyber crime outside of the United States directly affects the state of national security. Therefore it is required that the cyber education movement includes an international audience to draw on resources beyond our own.
The Processes
Process #1
NCSA Expansion <–> Higher Education
In order to educate the people of the United States on such large scale, the NCSA expansion must utilize colleges and universities throughout the United States. These already established systems (college campuses) are critical because they are already integrated into their communities, and because they contain the people needed to help DHS with its new mission. The successful completion of this process entails finding students and faculty that are interested in the information assurance profession, and by providing these experts and to-be experts with an infrastructure that will allow them to interface with specific parts of their communities in order to grow and share information. NCSA would be responsible for disseminating the following to these higher education teams:
The secondary objective of teams is the establishment and facilitation of cybersecurity information. The following processes will help explain how this will take place.
Process #2
Higher Education <–> Private Sector
The private sector is an important part of the United States public cyber learning effort. This is because the information assurance best-practices that need to be shared with the general United States public must interface, at some level, with private sector business practices. What people practice at home must make sense with the general practices carried out at work. Therefore it is important for NCSA to support symbiotic relationships with the private sector, through the higher education teams, in order to expand local communities. These symbiotic relationships should support the following goals:
Process #3
Higher Education <–> City Council
City councils generally have special projects or programs that can affect local business organizations, schools, or public facilities or events. Each of these entities/locations interface with the Internet on some level, which means the city council is a perfect place to increase cyber literacy. Higher education institutions in cooperation with NCSA can offer educational programs specific to the needs of city councils, either directly to city councils, or directly to entities that interface with city councils. Because there can often be multiple higher education institutions in any given region, this will present an opportunity for these higher education teams to strategically work together to accomplish their goals concerning the secondary objective.
Process #4
Higher Education <–> Community Centers
Community centers provide higher education teams a neutral location to offer no-cost public services for general cyber awareness events, helping satisfy the secondary objective. Adult attendees can take information packets to their workplace, spreading general cyber awareness, and by providing these workplaces contact information for the higher education teams for future awareness training. This will help satisfy the primary objective.
Process #5
Higher Education <–> Primary Education
Primary education institutions are the focal points for higher education teams concerning the secondary objective. Each year, primary education students increase their experiences with Internet facing devices. Primary education teachers are not thoroughly educated to teach cyber security topics to their students. The higher education teams can relieve primary education institutions by providing them with no-cost information packages, provided by the NCSA, and no-cost training services, provided by the higher education teams. Again, this interface with primary education institutions provides adults the opportunity to share the services provided by the higher education teams with their family and friends, helping satisfy the primary objective.
Process #6
NCAE <–> NCSA Expansion
The National Security Agency (NSA) National Centers of Academic Excellence (NCAE) generally have very large information assurance networks, either within their respective universities or in their professional communities. NCAE can support NCSA by:
Process #7
InfraGard <–> NCSA Expansion
InfraGard can assist NCSA by helping develop the information packages designed for business organizations, helping satisfy the secondary objective. InfraGard can later integrate itself into regional communities, expanding the higher education team’s community, helping satisfy the primary objective.
Process #8
AmeriCorps <–> NCSA Expansion
AmeriCorps can work with NCSA by providing national community service opportunities to provide cyber security awareness training to regions of the United States with no nearby higher education teams. These opportunities could be team-based or individual-based. This extended service could then establish its network, helping satisfy the primary objective, by making new contacts in these isolated regions of the United States.
Conclusion
The opportunities presented in this paper are colossal for both DHS and for information assurance students in higher education. Each of these processes and experiences must be designed to be recorded in a privacy-conscious, systematic fashion. This documentation will then be integrated back into the NCSA developed social network and database for continued, sustainable growth.
The primary objective of teams will be the development of their communities. The secondary objective of teams is the establishment and facilitation of cybersecurity information. These distributed teams and communities will form an informal network of information assurance students, managers, community leaders, researchers, practitioners and educators. Combined, DHS will have access to plethora of talent and means to educate the United States public. This strategy will take time and careful planning, but once begun, it will be a system that will get better and better over time.
Mar 12th
This is research project proposal that I hope to turn into a masters or doctoral thesis.
Problem
Understanding the threat spectrum when designing security policies to govern how businesses should share and use information by means of information and communication technologies (ICT) is a complex process. Every company in the world that uses ICTs as a means to conduct business needs some form of an information assurance program that orients proper handling of shared information from creation to destruction. Information is dependent on data, and both data and information can be used improperly to put any business at risk of damaging its customers or itself.
Internet-based social media platforms, in particular, have made it so easy to share information that their effectiveness in the business environment decreases time and money spent while increasing connectivity to a global audience. But the opportunities and risks of using social media platforms are not holistically clear. The mediums that store, transfer, and communicate the information to us dramatically affect our perceived consequences. All organizations must have a way of thoroughly understanding the risks involved with the evolution, emergence and integration of technologies that have the capability of distributing data and information.
Hypothesis
By using a multidisciplinary approach to canonicalize information sharing scenarios for a range of public sector and private sector organizations, a scalable framework can be developed in order to quantify risk and opportunity involved with the use of ICTs, with a focus on Internet-based social media platforms.
Similar work
Mats Lindgren and Hans Bandhold, authors of Scenario Planning: The link between future and strategy, illustrate many process models that can be adapted to better understand the relationships between information. By using these models in various applications, the organization of the causes and effects of data, information, uses, and mediums will be defined clearly and effectively.
Dr. Luciano Floridi, author of Information – A Very Short Introduction, describes the implications of biological information. In application to information assurance, this conceptual analysis will allow for the development of specific information models that will help illustrate the security implications of humans and technology as information storing and sharing processors.
The United States Chief Information Officers Council, in a document entitled Guidelines for Secure Use of Social Media by Federal Departments and Agencies, outlines a model developed by Dr. Mark Drapeau and Dr. Linton Wells that describes the four functions of social software. However the current state of ICT relies heavily on visual and auditory stimulus. An expansion of this social-media model must include an analysis of the other three information receptors: touch, taste, and smell. This expansion must occur to develop scenarios that take into consideration the future trends of virtual reality and a deeper integration into a human-developed infosphere.
Proposed outcomes
This phase of the project entails graphical modeling of a wide range of information sharing scenarios utilizing ICTs. The scope of the information sharing scenarios will begin with Internet-based social media platforms and will expand to include various forms of telecommunication services. It is necessary to incorporate a comprehensive selection of scenarios in order to compile a large knowledge base for Goal #2. The knowledge base will be organized systematically according the complete life cycle of information processing concerning data, information, information stakeholders, and information transport mediums.
Using the knowledge base established in Goal #1, a critical analysis must take place utilizing Dr. Floridi’s work concerning the philosophy of information. This analysis should include applied concepts such as the information as, for and about reality. A better understanding of the relationships between people, ICTs, and a combination of people and ICTs (dependent on origin and destination) can be quantified in direct relation to our perception of the any given ICTs interface. Further research regarding human perceptions of ICTs can be applied using Dr. Sherry Turkle’s research in psychoanalysis and culture in relation to people’s relationship with technology. This exploration will expand the knowledge base for Goal #3.
I presume that following Goal #2, commonalities among ICT interfaces will become evident. This presumed manifestation should allow for the expanse of Dr. Mark Drapeau and Dr. Linton Wells’ four functions of social software model. This expanded model should be able to visually depict a more precise yet comprehensive representation of the utilization of ICTs. This representation will be able to quantify human-centric information control feasibility, impact, and residual risk depending on the source and destination of complete life cycle information dissemination.
The final phase of this project will include the development of system development life cycle processes to assist public sector and private sector organizations with establishing more coherent information assurance programs.
Mar 11th
Originally posted on Overclock.net.
Introduction
Firewalls, however unfortunately, are an essential part of connecting to the Internet. The devices that you use to connect to the Internet use complicated operating systems which are prone to security risks due to the nature of software engineering. Because of the consistent weaknesses in software on your personal computer and hand-held devices, installing firewalls is an inherently reactionary security measure–no amount of cryptography is going to completely protect you against buggy software.
In order to minimize risk and protect yourself from the potential threats that exist beyond your home/office local area network, it’s wise to implement, at the very least, a basic stand-alone firewall (such as a router). Firewalls are designed to monitor and/or prevent network intrusions and are programmed with much less code, therefore having a (proven) lower probability that they contain bugs/security holes.
One of the greatest things to happen to the Internet is the popularity of wireless (802.11 a/b/g/n) devices. You may be skeptical because of the security risks that are inherent with unsecured wireless networks. But what this increase disbursement of wireless routers did was it directly, however unintentionally, put a hardware (stand-alone) firewall in front of millions, if not billions of home networks.
There are many different technologies used in various firewalls: packet filter, stateful, application proxy, unified threat management (UTM), intrusion detection and/or protection system (IDPS), and network address translation (NAT). There are big differences when it comes to the performance of the different types of firewalls; however, as a typical home user you will not notice the limitations of throughput.
Before we jump into the various firewall technologies, you should understand the difference between an appliance-based firewall and a server-based firewall. A typical Linksys home-network router is an appliance firewall because the hardware was designed around the needs of the firewalls software. There are exceptions of course, which include third-party firewall operating systems, such as DD-WRT, Open-WRT or Tomato. But using these operating systems in appliance-based firewalls does not make them server-based firewalls because they are static, unchangeable units. Server-based firewalls can be changed to adapt to the necessary requirements of any given local area network. Server-based firewalls include x86/64 computers that Linux-based firewalls can be installed to via CD, DVD, USB, or PXE.
Packet Filter
Packet filtering is the oldest and the most basic firewall technology. All firewalls have some level of packet filtering. Packet filtering simply allows or denies individual packets based on a set of rules–a set of rules that manages the inspection of the information in the packets header, such as the packets source or destination address, protocol, and/or port number. Packet filtering does not inspect the payload; nor does it monitor the sessions, which makes them vulnerable to spoofing attacks. Packet filtering works on layers 1, 2 and 3 of the OSI model making packet filter technology very efficient.
Stateful Packet Inspection (SPI)
Stateful firewalls are built into any modern firewall system. To be a “stateful” firewall, the “state” of all TCP sessions are monitored including the sequence numbers in packet headers. After the session has ended, the session-table is discarded. Stateful firewalls also do not monitor the payload of data packets. Stateful firewalls differ based on firewall vendor because with UDP and ICMP traffic, for example, there are no packet “states” for the firewall to monitor, unlike a classic TCP protocol where there is a well defined start and end of any given session. Connectionless “sessions” can be monitored, but the end of a session is ended via timeout.
SPI Examples
Appliance-based stateful firewalls include any typical home/small office router or wireless access point. Server-based stateful firewall operating systems include:
Some of these server-based stateful firewall distributions support basic intrusion detection and prevention system technologies (keep reading…).
NOTE: The reason why people like to change their appliance-based operating system from the default OS found in most routers, such as those by Linksys, is because the default operating systems are tailored to home users that typically do not know enough about firewall and/or routing systems to modify them. It would cost router vendors more money to increase the complexity of these firewall operating systems, not to mention the probable increase in tech support. By “upgrading” an appliance-based routers firmware with third-party firmware, such as DD-WRT, advanced users can have access to better router/firewall controls.
Application Proxy
Application-proxy firewalls are the most “in depth” and most secure firewall technology for specific network applications because these firewalls are the middle man between all communications across all seven layers of the OSI model. It is most commonly used in simple Web hosting or (non-time-sensitive) e-mail service environments, and are not used in high-bandwidth intensive environments (such as Web file servers). Each protocol that needs to be monitored and controlled requires a unique proxy application module, increasing the need for computation resources. Being bandwidth-sensitive, due to the dependency on computation resources, application proxy firewalls are susceptible to denial of service attacks. The advantages of an application proxy firewall over a packet filter firewall or a stateful firewall include advanced security monitoring functions. Application proxy firewalls can authenticate users directly, examine the payload of data packets and make decisions based on the payloads. Application proxy firewalls can also be deployed in redundant configurations and/or clusters.
(Specialized) Application Proxy Examples:
Unified Threat Management (UTM)
UTM firewalls combine several firewall technologies, including stateful, intrusion detection and prevention, anti -virus, -spyware, -fishing, -adware, -spam and web content filtering. UTMs are also used primarily in low-throughput intensive environments, with low-user counts. UTMs are not limited to low-throughput networks however, because server-based firewalls are only limited by how much money you can put into its hardware. The IPS capabilities in UTM firewalls are typically subsets of full blown IPS features, meaning they only support protection for a small amount of protocols. Anti-virus functionality is generally limited to HTTP, SMTP, and POP3 protocols only.
UTM Examples:
Intrusion Detection and Prevention System (IDPS, IDS, IPS)
Intrusion detection systems (IDS) only monitor. Typically, IDS are used in conjunction with intrusion prevent systems (IPS) by monitoring and logging network traffic. This logged information is then shared with various IPS, both network-based and host-based.
In this above scenario, the IDS is able to monitor all traffic that enters and leaves the network. This is important because log analysis is crucial for proper care of a business environment’s network. The information that the IDS collects can be used to anticipate (IPS) incoming traffic. Having a leaner SPI firewall in front of the IPS decreases the amount of IPS processing so the IPS can have maximum resources available to tackle more complex traffic.
IDPS are commonly associated to network-based devices, meaning they are appliance- and server-based devices that support the network. IDPS can also support, monitor and protect the hosts on the network in the form of software. Host-based intrusion detection and prevention systems (HIDS/HIPS) also support the NIDS/NIPS by providing the complete IDPS with up-to-date information with needs and activity of the hosts on a network.
IDPS are different from UTMs because IDPS are much more feature-rich in terms of capability. UTMs support only a couple hundred signatures and only a dozen or so protocols, where as a full IDPS will utilize several thousand signatures and over 40 protocols. Of course this is dependent on the vendor and/or product. IDPS are capable of managing their own rule sets by “learning” and can update themselves either by downloading new content or sharing information with other IDPS on the network. Stand alone appliance-based IDPS can also support up to multi-gigabit speeds.
HIDS such as OSSEC (see below) are important to businesses that have to be PCI compliant because they monitor extremely detailed aspects of hosts. This information that OSSEC monitors is stored centrally on a local server for system administrators.
IDPS Examples:
Network Intrusion Prevention Systems (NIPS, a form of IPS)
($$) McAfee IntruShield
Host Intrusion Prevention Systems (HIPS, a form of IPS)
($$) McAfee Host Intrusion Prevention for desktop
($$) IBM Proventia Desktop and Server Endpoint Security
Host Intrusion Detection Systems (HIDS, a form of IDS)
(free) OSSEC
NOTE: Cisco, Juniper, and Check Point are the largest suppliers of business-class firewall devices. Be sure to do your research, and to ask questions, when shopping for IDPS. ICSA Labs is always a good place to start.
Dec 1st
This is an ongoing project of mine that will entail a lot of updating. I am presuming that I can establish a common framework using the highly-adaptable systems analysis and design framework, a systems development life cycle, to break down common attributes of various IT security frameworks such as the NIST-800 series and PCI-DSS. After my model is complete, a user could plug in the various sub-processes of said IT security frameworks, which would help make clear which aspects of various frameworks are complete, incomplete, or missing. This framework could also be used to integrate multiple IT security frameworks, and by using scores for each sub-processes, the user could generate a “most-effective” or “most-cost-effective” information assurance plan.
May 22nd
Life is a very small thing. But life is as life deems necessary. The human perception would indeed be a far simpler one if we were to live as a leaf of an Aspen tree identifies life. This paper is going to be written to help explore where human intelligence lies in comparison to the idea of artificial intelligence. In large part, I presume that human cognizance does not have free will, albeit this paper will also explore the idea of free will in a larger sense. I believe that the adaptation of computer processing, from a biological point of view, is beginning to merge with how and why we think about life. In correlation, I do not think that the notion of artificial intelligence is currently possible.
Computational Will
People, more so the brain of a person, appear to produce a considerable amount of “overhead” processing. Through the processes of our sensory organs detecting external stimulus and our brain rechecking this new data with old information, people conduct a great deal of sifting, scanning, and further identification of the information which we have come to know. We think of things as they occur. If they remain active in our conscience, the processing of that maturing information continues to be processed until a conclusion can be satisfied. Computers on the other hand, the system of which a modern day computer processes, includes its given data and its ability to respond to such data, governed by its privileged application. To explore these two notions in parallel, the application of emotion seems fitting to the identification of how and why people process data.
Goals
This world in which we live, it could be anything, and people have trouble dealing with that uncertainty. Computers are programmed to do what we tell them. Both computers and people possess the definition of a goal, however abstractly different they remain. Computers function by auto-building a task list and the resources necessary to compile the available data. This notion of a goal is similar to people’s understanding of goal setting—one must identify the necessary steps in order to take them, and to further streamline this process, we must abide by the resources that we are able to utilize.
Stimulus
The human brain shares a fundamental property with a computer. Our brain appears to work in such a way that is similar to the concept of cause and effect in that any given reaction of our brain is entirely determined by what is excited, and what is not. This notion is the same in application with the utility of binary code in a computer. Processing is coded by what is on or what is off. Excitement is stimulated from influence; computers do not have the ability to experience what is outside of them, until provided by humans, in the form of new programming code or new data to be processed by preprogrammed code. How then does one program artificial intelligence if computers do not have the ability to be stimulated? To further complicate this notion of stimulus, what then determines excitement in a person, from an internal-to-external point of view? Does stimulus alone allow for our idea of what it means to freely will our independent rule? From a complex point of view, perhaps how and why any given person is excited or not excited about any given subject is itself a learned application, a self building application, one which is merely an escalation of survivability. Applying this notion to computers, how then do we program a computer, one which does not have sensory organs, to be scared? Computers do not need the application of emotion if they cannot reason, for there is no currently programmed reason why a computer needs to react to its environment.
Double Helix
People have always been willing to spend an ample amount of resources in attempts to further streamline the way in which we manage all of the increasingly complex information that we must process on a daily basis. This process of learning new ways to do things, do to more without spending quite as much, is presumably something that every person wants. As computers and the tools that we continue to develop to outsource what we need to process evolves, we are increasingly becoming more like computers. Ironically, at the same time, we are putting a considerable amount of resources into making computers smarter by giving computers human-like characteristics; namely, curving the concept of processing to more effectively react to the life of a human, or, artificial intelligence. In retrospect, it would seem that creating artificial intelligence is more so the act of dumbing-down a computer. Making computers more like humans while humans attempt to process more like computers seems to resemble a double helix. However, through the advancement of computer-human interfaces, it is clear that one day this double helix will merge. But in that time, with respect to the development of computer processing, how will a computer actually respond as an intelligent being? Is it possible to create such an entity?
Biological Will
To create a fundamental understanding of what intelligence is, it would seem necessary to proclaim that the natural development of the biological mind supersedes the instant quantification of a computer. Computers can calculate incredibly complex calculations very quickly, while in contrast, a computer currently cannot calculate the answer to “would you kill yourself to save…” unless you were to apply a numerical value to all prospects, and then, if you can even create a formula that is repeatedly correct in its solution. In order to begin to program a computer as having any degree of intelligent process control, it would be required to develop a modularly-integrated, dynamically-evolving baseline be constructed to compare all old and new information to. Biological cells all have a natural, and perhaps, a “default” comfort level—a naturally predefined yet developing instrument to build from. In the sense of a human being, we are a composite of a trillion different, unique, comforts levels, all having to work together to react to our environment.
Further questions:
Nov 24th
I believe in an open, connected, and educated world.
The education system in the United States is horribly flawed. I think that the basic structure of leaving one person to solving a politically constructed, test based (product emphasis, as to a process emphasis) curriculum all by one’s self is a fallacy in and of itself, in the society of the United States of America.
The business-oriented society that I am familiar with is one of a particular work unit; working together to accomplish any particular-to-wide variety of goals. There is a flaw in our educational system: when our educational endeavors are based on individualized work and not team work, students grow up deluded.
People who are educated as an individual and made to work as a team will still, ultimately, understand the system as dependent upon one’s self, thus distracting the fundamental ideas of working together, more efficiently, as a team.
I believe that if our educational system had an emphasis on team work and allowing every student to access every possible outlet of information, as we do in the business world, that students would learn at a very young age how to work together to solve problems, and how to be resourceful and handle information responsibly.
I believe that instructing students with a team emphasis would directly affect how children learn to understand our very world, thus impacting how they would react to new influence. Basic psychology, within the realm of human to human interaction and communication, would benefit from an education which relies on a team. This philosophy is a functional one in the fundamental areas of biology; single celled organism having simple tasks, combined as a multi-cellular organism via diversified functions, to reach their goals.
Feb 23rd
It is truly very interesting to speak out, to denounce the structure in which someone has developed an idea that depends heavily on a supposition. I do not deny that my very knowledge depends greatly on how I think about me and that “I am,” nor my dependence on my belief that someone is an “I” in direct response of an anthropocentric relation and association between this body and another. The effects of this reapplication of individualistic existence is quite deceptive; I do suppose that I am separate from my fellow human beings and it is through this complication of the sense of individuality that allows me to generate this misappropriation of “will.” The extent of designing the entirety of my existence is in part “my will to live” to which my existence is a corrupted paradigm. It is in my interest to pose that a problem with human existence lies within our collective perversion of the notion of “will” and to emphasize that both “my will” and “our will” is a composite of a greater community—the interest of my biological community—cellular instrumentality and human instrumentality.
Suppose that it is impossible to learn about, to relate to, or to understand something without applying a basic concept of what you think it is to be human. Suppose that knowledge is a commodity of self actualization and that understanding something is an application of this innate ability to be familiar with particularized individuality. I despise the attempt to discover what it means to die—to determine the functionality of the non functional. Knowledge is only as extensive as one’s ability to relate to which is in the process of being understood, to which such intellect varies to which intellect is applied.
“Let the people suppose that knowledge means knowing things entirely; the philosopher must say to himself: When I analyze the process that is expressed in the sentence, “I think,” I find a whole series of daring assertions that would be difficult, perhaps impossible, to prove; for example, that it is I who think, that there must necessarily be something that thinks, that thinking is an activity and operation on the part of a being who is thought of as a cause, that there is an “ego,” and, finally, that it is already determined what is to be designated by thinking—that I know what thinking is. For if I had not already decided within myself what it is, by what standard could I determine whether that which is just happening is not perhaps “willing” or “feeling”? In short, the assertion “I think” assumes that I compare my state at the present moment with other states of myself which I know, in order to determine what it is; on account of this retrospective connection with further “knowledge,” it has, at any rate, no immediate certainty for me.”
[Friedrich Nietzsche, Beyond Good and Evil, page 23, section 16, paragraph 2]
Even while Friedrich Nietzsche openly expressed his discontent with our continual presupposition of how “I am,” that my “ego” is an entity in and of itself, and that “thinking” could very well be the definiteness of emotion, all of my relationships with everything external are dependent upon these states of surmisable accusation. The usefulness of cognitive quantification in these respects is that I am capable of formulating controversy, a dialectical comparison in which multiple events can be diagnosed in order to compose a conclusion, a seemingly natural feature that allows me to identify me as being me and nothing else. I do assume that I am a reactant of my inner flux and that this “retrospective connection” is a relatively static, automatic introspective decision.
To learn about and to understand ones sense of individuality we (my anthropocentric reapplication of my definition, to suppose about those who appear to be comparable) must perceive by sensing information and defining it with previous information, to modify what is already known, recreating such concepts by means of different bits of information, concepts, or models that are conjured by the influenced thinker. Biased by perception is quite the feature of the human mind because of the limited capability in which human cognition develops according to its particular past, and in essence, an evolution of thought and of our world. Within the construction of consciousness lies the implications of what is being processed—two thousand bits of information are what comprise consciousness, two thousand out of the four hundred billion that are constantly being received by our sensory organs and processed by our organic calculator [What the Bleep Do We Know!?, page 46].
“Through the conditioned learning process, neural pathways between eliciting stimuli and behavioral responses become hardwired to ensure a repetitive pattern.”
[The Biology of Belief, page 133]
A good analogy that would help explain how we define our paradigms would have to do with our five senses giving us a blank, spatial rendition of a canvas. These patterns are effectively our different colors of paint that allow us to draw out this progressively active canvas.
“The way [our brain constructs reality] is to first break the incoming impulses into basic shapes, color and patterns. Then it begins pattern matching with stored memories of similar things, associating that with emotions and assigned meanings to events, trying this all together in an integrated “picture” and flashing that to the frontal lobe forty times a second.”
[What the Bleep Do We Know!?, page 44]
Actively deciding what colors and shades, etcetera, to use to paint (to perceive) our environments is a huge part of what it means to be conscious:
“Emotions give [actively processed bits of information] their relative weighing and importance. They are a hardwired shortcut to perception. They also provide us with the unique capability to not see what we simply don’t want to see.”
[What the Bleep Do We Know!?, page 48]
“In Molecules of Emotion, [Candace] Pert revealed how her study of information-processing receptors on nerve cell membranes led her to discover that the same “neural” receptors were present on most, if not all, of the body’s cells. Her elegant experiments established that the “mind” was not focused in the head, but was distributed via signal molecules to the whole body. As importantly, her work emphasized that emotions were not only derived through a feedback of the body’s environmental information. Through self-consciousness, the mind can use the brain to generate “molecules of emotion” and override the system.”
[The Biology of Belief, page 132]
“Endowed with the ability to be self-reflective, the self-conscious mind is extremely powerful. It can observe any programmed behavior we are engaged in, evaluate the behavior and consciously decide to change the program. We can actively choose how to respond to most environmental signals and whether we even want to respond to them at all.”
[The Biology of Belief, page 134]
To which these scientific observations and measurements become applied, we are able to receive information from the outside world, our reality in which we appear to be fluidly involved with, and thus able to impose our own subjective order. Ones perception is, in retrospect, dynamic; our brain constantly receives new information, yet this new information is always being defined, filtered, and streamlined by what is already known. Perceptual reciprocation, giving back to one’s self for the creation and sustainment of one’s self, would seem to be a biological allowance, an adaptation mechanism that gives an organism the basic construct to develop its individuality.
How is “individuality” and “will” intertwined? It is in the interest of single celled organisms to group together to form multi-cellular organisms in order to increase survivability. This evolutionary process could be deemed as the will to power—a will that is less an individualistic characteristic as much as it is a process to bring balance to which is in existence. To bring unbalance to existence, in the case of a single celled organism, is to inflict death. The amplification of this process, in the case of a human being, this will to power is increasingly complicated by the manners in which such a multi-cellular being has the ability to operate. In the case of a single celled organism, its operations are very limited in comparison to a multi-celled organism, the hominid, that has advanced to the point of using groups of multi-celled communities for specific tasks: the stomach, the heart, the brain, and etcetera; a community of communities.
So where in lies “my will” if consciousness, the active processing of information, and the unconscious, the habitually learned processing of information, is a biologic, chaotically systematic mechanism that has evolved from the point of a simple instance of sustaining balance to our notion of a complex instance of sustaining balance?
Is the process of identifying characteristics of cells that compose the human body an anthropocentric (1) application or an anthropomorphic (2) application? This seems to be an outstanding question. The application of understanding cells could be an anthropocentric process because it is quite the community project for cells to identify themselves. However this process could very well be an anthropomorphic application because through our experiences, this community project is acting in accord with, or is in the interest of the community, and is not in the interest of the individual cells themselves.
So where in lies our notion of freedom, and how does that complicate, or confuse, our idea of what it means to “will?” Could it be an effect of our comparison to that of which is static—to which does not appear to intelligently change on its own accord?
The ability to be self reflective is not to be confused with any amount of freedom. Suppose that a child is playing with some different colors of paint. He does not know the basics of mixing paint, nor does he know which colors to combine to make any specific color of paint. When the child mixes two colors, he gets a third color. When he mixes two other colors, he gets another new color. The more paint he mixes, the more new colors he gets. And the child, not being smart enough to figure out the rules of mixing paint, might say that the paint has free will. The child might ask, “How could it be possible for green to exist, when before there were only blue and yellow?” The child would reason that the paint has a will to freely choose to make new colors and to which color it will change into. The child supplies the initial setup, and the paint’s free will chooses the outcome. The child would be wrong, of course. There are rules for mixing paint—mixing paint is entirely determined. The child’s ignorance of those rules however does not disprove determinism; it only proves the child’s ignorance. We are just simple children who don’t know the rules of how our body works. The body’s mechanics could be entirely determined, but our ignorance of the rules which determine them does not disprove determinism, it only proves our ignorance.
To be free in the sense of independent agents capable of operating without restriction would require an absence of limitation—a world composed of nothing. As liberating as this might appear to be, nothingness is not to be confused with the notion of zero, and is not something that human cognition can recognize due to our continuous calculations of something, much like human cognition is incapable of comprehending what it would mean to be dead; to actively process nothingness is a contradiction.
Am I consciously supposing that I have any amount of will, or is will an innate instinct that is confusing not how I operate, but instead why? I am not inquiring about any integral abilities that perpetrate in my subconscious, but instead a trait that is a compound of all of my cells of which I am composed. To suppose that I have any amount of will is to suppose that I, in at least any relative amount, have the ability to operate independently. Thus in this sense, the “will to power” and “free will” are one and the same but in accordance with what is needed to continue independence. In retrospect, the “will” of a single celled organism to thrive for independent balance by means of integrating itself with another single celled organism is in response to the rules of chemistry and electricity, and of its environmental stimulus—its “will” is dependent upon its requirements for sustained balance. Molecules, like people, prefer environments that offer them stability. Again, the amplification of this paradigm, in application to a human being, the very same rules do apply—irrespective of our inability to measure our extensive complexity with regards to what we require to sustain balance.
“In consequence, he acts necessarily, his action is the result of the impulse he receives either from the motive, from the object, or from the idea which has modified his brain, or disposed his will. When he does not act according to this impulse, it is because there comes some new cause, some new motive, some new idea, which modifies his brain in a different manner, gives him a new impulse, determines his will in another way, by which the action of the former impulse is suspended: thus, the sight of an agreeable object, or its idea, determines his will to set him in action to procure it.”
[Baron d’Holbach, The System of Nature]
The hominid body is composed of many different organs that carry our many different functions. In the case of any cell, in comparison, its components have many various functions, but on a much smaller scale. It was in the interest of a single celled organism to combine with other single celled bodies to distribute its ordinarily natural functions so that communities of cells could specialize in their functions to gain an advantage over its environment. Apply this very same concept with Baron d’Holbach’s explanation of determinism and one could begin to understand that our motives are dependent upon our need to complete a specific task.
In comparison and dramatic amplification with which cells operate collectively to accomplish a necessary objective, the sharing of information via electrochemical synapses can be applied using the similar notion on how and why humans communicate with each other to satisfy a seemingly necessary objective. Such tasks are seemingly necessary on occasion because of how advanced the hominid is in comparison to its basic structure, the nature of a cell. Such collective will greatly affects how each individual cell operates; with regards to human kinds’ various cultures and communities, such collective will greatly affects how each individual human operates.
Feb 16th
As an individual, I exist in a raw, natural form until I am perceived by either myself or by other individuals who are able to label my characteristics with a biased perception. [I use the term “biased” because of the limited capability in which human cognition develops according to it’s particular past]. These two forms of existence, raw existence and biased by perception, are uniquely different in that such unaltered subsistence solely exists without definition [without a “labeler”] and is only limited by its subjective, physical capabilities. The second form of existence, the biased by perception existence, only exists within the mind of the perceiver who is capable of creating and sustaining a concept of such a definition with their own limited ability to sense and calculate (to cognize) with their pre-conceived yet dynamic notion of not only what existence is, but how it operates.
However, my idea of myself is of the same qualities as ones idea of me, whereas my conceptual definition of who I am is of the same structure as my idea of another, being that my inherent ability to label my own distinctive characteristics are completed in the same fashion as my ability to label anyone else. I believe that, devoid of a physical appearance and a notion of sense-able physicality’s, my idea of self and another is identical in their cognitive assembly.
My perceived distinction between myself and others, excluding physical experiences, can only be achieved by perceptual reciprocation: our ability to internally (cognitively) respond to what we receive from the outside; the automatic capability to adjust what we receive with our already obtained knowledge. This distinction, however subjective and relative to my own perception, is why I am able to label myself me.
A position of ones mental self must be pre-defined and always in progression of being defined—the sense of ones self is to be defined in the manner of ones conscious wishes and unconscious tendencies. This definition of “I”, no matter how abstract or concrete, dynamic or static, must be perceived by its own perception. So, definition is constantly being perceived. The outcome of this, what one wishes to do with such a definition, or more importantly, what one wants to do with ones own perception, is limited to its own experiences. Ones perception is forever dynamic; perceptual reception constantly receives new information, yet this new information is always being defined, filtered, and controlled by what is already known—identified as: perceptual reciprocation—giving back to ones self for the creation and sustainment of ones self.
To learn about and to understand ones sense of individuality, we must perceive by sensing information and defining it with previous information, to modify what is already known recreating such concepts by means of perspectives, biases, and concepts conjured by the influenced thinker. People develop their character (a system of definitions and differences) by strengthening their own opinions, and others, through the instrumentality of others, depending upon the level of one’s introspection rather than conforming and integrating ones self into an already fabricated idea. But, someone’s openness to alien thoughts is where there is a conundrum. I think that, theoretically, you cannot base your opinion off of someone else’s because it is not yours. In order for you to create your own opinion, you have to take someone else’s and modify it in any way to make it understandable by you—though opinion that is heard is understood, it is really your own opinion that you are listening to because you are only reiterating their communication through your own perception. So, everything that is perceived is of its own originality, according to the uniqueness of its processing, thus reinforcing the personal notion of the individual.
The most direct form of building the sense of individuality is that of cause and effect—the consequence of a question—what is desired is that of a question, the answer, and the answers meaning. To answer what the meaning of life is, is to satisfy ones definition of individuality. The meaning of me cannot be given because I am subject to my own dynamic perception and my willingness to fulfill a definition that cannot be fulfilled because of its constant change. Therefore life cannot be answered and holds no meaning outside of its subjective nature. We feel as if it is possible to give meaning to life because we are in a habitual process of defining what we observe.
In [some form of] conclusion, without a nervous system we would be incapable of determining ANYTHING, for our nervous system is key to any form of sense inflicted by our tactile world. We quite plainly would not exist without a nervous system (our species). We would have no possible input, therefore no possible output. However, because of our ability to perceive based on cause and effect, we are able to adapt to our environments by remembering its inflictions. These inflictions are why we are able to differentiate ourselves from everything else that our nervous system is not interconnected with, thus imposing separation from such influences.