Systems Thinking Ep. 1: Lists & Models (Learn to think like a genius)

Systems Thinking with David Shapiro
3 Mar 202316:30

Summary

TLDRIn this video, David Shapiro introduces a new series on systems thinking. He explores the cognitive skills involved in systems thinking, highlighting historical examples like Tesla and Edison, and modern practices such as the Ford Model T assembly line. Shapiro discusses myths about intelligence and emphasizes the importance of lists, taxonomies, and hierarchical models in understanding and solving problems. By practicing creating structured lists and models, anyone can enhance their systems thinking abilities. The video also references key works like 'The Checklist Manifesto' and 'The Pattern Seekers' to illustrate these concepts.

Takeaways

  • πŸ“š David Shapiro introduces a new video series on systems thinking, starting with lists and models.
  • 🧠 Systems thinking is described as a set of cognitive skills that can be honed and developed by anyone.
  • πŸ”¬ Notable systems thinkers mentioned include Nikola Tesla and Thomas Edison, who were likely neurodiverse.
  • πŸ“ˆ Intelligence is dynamic and can change over time, influenced by factors like stress, nutrition, and accumulated knowledge.
  • πŸ“ Lists are emphasized as a fundamental tool in systems thinking, with various types such as checklists, procedures, classifications, and categories.
  • πŸ“– The book 'Checklist Manifesto' by Atul Gawande is recommended for understanding the power and utility of lists.
  • πŸ”„ The concept of cause and effect (if x, then y because z) is highlighted as a simple pattern for understanding systems.
  • πŸ” Taxonomies and layered models, like Linnaeus's classification system and the OSI model in networking, are key components of systems thinking.
  • πŸ›‘οΈ The defense in-depth model for cybersecurity is used to illustrate the importance of layered, hierarchical thinking.
  • πŸ”§ Practicing systems thinking involves creating structured lists, hierarchical models, and understanding the relationships between different components of a system.

Q & A

  • What is the main focus of the video series introduced by David Shapiro?

    -The main focus of the video series is systems thinking, which involves cognitive skills that can be honed to solve novel problems, gain unique understanding, and change the world through mental powers.

  • Who are the two famous systems thinkers mentioned in the video?

    -The two famous systems thinkers mentioned are Nikola Tesla and Thomas Edison, both of whom were likely neurodiverse and had a profound impact on the world with their intellect.

  • What is David Shapiro's definition of systems thinking?

    -David Shapiro defines systems thinking as a set of cognitive skills that can be honed, allowing one to solve novel problems, gain unique understanding, and change the world through mental powers.

  • What are some misconceptions about intelligence that David Shapiro wants to dispel?

    -David Shapiro dispels the misconception that intelligence is fixed and that IQ tests measure actual intelligence. He emphasizes that intelligence is dynamic, changes over time, and is composed of many aspects or facets.

  • How does David Shapiro describe the role of IQ tests?

    -David Shapiro describes IQ tests as primarily measuring speed, which is a proxy for other abilities, rather than actual intelligence. He also mentions that low IQ test scores might indicate being slower than average.

  • What is the first lesson or concept of systems thinking shared by David Shapiro?

    -The first lesson is the idea of lists, checklists, categories, and classifications, emphasizing the importance of creating order and structure in thinking and problem-solving.

  • Why is the book 'Checklist Manifesto' by Atul Gawandi significant in the context of systems thinking?

    -The book 'Checklist Manifesto' is significant because it was the first systems thinking book that David Shapiro read and it completely changed his ideas about what a list is and how it can be used in various ways, such as reminders, notes, and problem-solving.

  • What is the pattern 'if x then y because Z' and how is it related to systems thinking?

    -The pattern 'if x then y because Z' is a simple cause-and-effect pattern that helps establish explanations and patterns. It is related to systems thinking as it helps in understanding the relationships and consequences in various systems.

  • What is the second lesson of systems thinking discussed by David Shapiro?

    -The second lesson is taxonomies, layered models, and hierarchies. It involves understanding the relationships and classifications in various systems, such as the taxonomic system created by Linnaeus or the OSI model in computer networking.

  • How can the concept of taxonomies or hierarchies be applied in different fields?

    -Taxonomies or hierarchies can be applied in various fields to understand and organize relationships and classifications. Examples include Linnaeus's taxonomic system in biology, the OSI model in computer networking, and layered security models in cybersecurity.

  • What is the significance of creating order with lists in systems thinking?

    -Creating order with lists is significant in systems thinking as it helps in structuring thoughts, organizing information, and understanding the relationships and classifications in various systems, which is essential for effective problem-solving and decision-making.

Outlines

00:00

πŸ€” Introduction to Systems Thinking

David Shapiro introduces a new series on systems thinking, explaining his decision to create video content instead of writing a book. He highlights the importance of systems thinking as a cognitive skill that can be developed, not just innate. He mentions famous systems thinkers like Nikola Tesla and Thomas Edison, suggesting they were neurodiverse. Shapiro also dispels myths about intelligence, emphasizing that IQ tests measure speed rather than true intelligence and that intelligence is dynamic and can be improved over time through knowledge and practice. The first lesson in systems thinking he shares is the use of lists, checklists, and classifications, recommending the book 'Checklist Manifesto' by Atul Gawandi.

05:00

πŸ“ The Power of Lists in Systems Thinking

This paragraph delves into the various roles lists can play in systems thinking, such as reminders, note-taking, summarizing information, and solving problems. David Shapiro emphasizes the importance of practicing list-making as a way to improve systems thinking skills. He also discusses the concept of cause and effect, referencing Simon Baron Cohen's book 'Pattern Seekers', which suggests that certain patterns like 'if-then-because' are particularly effective for systems thinkers. Shapiro warns about some criticisms of Cohen's work, particularly its focus on a debunked theory of autism, but still finds value in the pattern recognition approach.

10:03

🌳 Taxonomies and Hierarchical Models

David Shapiro discusses the concept of taxonomies and hierarchical models as a key aspect of systems thinking. He uses the example of Linnaeus's taxonomic system to illustrate how understanding relationships between organisms can be achieved through a layered model. He also mentions the OSI model in computer networking and the defense in-depth model in cybersecurity as examples of how layered models help in designing and troubleshooting systems. Shapiro encourages viewers to be aware of these models and to use them in their own systems thinking practice, suggesting that creating order with lists is a fundamental skill.

15:05

🧠 Cognitive Architecture and Systems Thinking

In the final paragraph, Shapiro introduces a taxonomy he created for cognitive architecture, which includes layers from episodic and declarative memory to executive function. He emphasizes the importance of creating structured lists and ordered systems in practicing systems thinking. He suggests that viewers can apply this concept to various aspects of their lives, such as cooking or driving, to improve their understanding and efficiency. Shapiro concludes by inviting feedback on this new topic he is exploring in his video series.

Mindmap

Keywords

πŸ’‘Systems Thinking

Systems thinking is a cognitive approach that involves understanding complex systems by viewing them as interconnected sets of components that operate in a coordinated manner. In the video, David Shapiro defines it as a set of skills that can be developed to solve novel problems and gain unique understanding. It is central to the video's theme as it underpins the discussion on how to think about and manage complex systems.

πŸ’‘Nikola Tesla and Thomas Edison

Nikola Tesla and Thomas Edison are historical figures renowned for their contributions to electrical engineering and invention. They are mentioned in the video as examples of individuals who were likely neurodiverse and profound systems thinkers. Their work exemplifies the impact that systems thinking can have on technological and societal advancements.

πŸ’‘Ford Model T Assembly Line

The Ford Model T assembly line is a historical example of systems thinking in practice. Introduced by Henry Ford, it revolutionized manufacturing by breaking down the production process into smaller, specialized tasks. In the video, it is used to illustrate how systems thinking can be applied to change the world, emphasizing the importance of understanding and optimizing processes.

πŸ’‘IQ

IQ, or Intelligence Quotient, is a measure of cognitive abilities that was originally designed to track children's progress. In the video, Shapiro discusses the misconceptions about IQ, arguing that it is dynamic and not fixed, and that it is more a measure of speed than actual intelligence. This challenges the traditional view of intelligence and underscores the importance of developing cognitive skills beyond just raw mental processing speed.

πŸ’‘Checklists

Checklists are tools used to ensure that no steps are missed in a process. Shapiro mentions 'Checklist Manifesto' by Atul Gawandi, highlighting the importance of checklists in systems thinking. They are used to organize information, remind oneself of tasks, and as a tool for problem-solving, making them a key concept in the video's discussion on how to effectively manage complex tasks.

πŸ’‘Taxonomies

Taxonomies are systems of classification used to organize and categorize items into groups based on shared characteristics. In the video, Shapiro discusses taxonomies as a way to understand relationships and hierarchies, using examples like Linnaeus's biological classification system and the OSI model in networking. Taxonomies are essential in systems thinking as they help in structuring knowledge and understanding complex systems.

πŸ’‘Linnaeus

Carl Linnaeus was a Swedish botanist who developed a system of naming and classifying organisms known as binomial nomenclature. In the video, Shapiro uses Linnaeus's work as an example of creating a taxonomic system to understand the relationships between different species. This illustrates the importance of categorization in systems thinking.

πŸ’‘OSI Model

The OSI model, or Open Systems Interconnection model, is a framework used in computer networking to understand how data is transmitted between devices. Shapiro mentions this model in the video to demonstrate how layered models can be used to understand complex systems like networking. It is a practical example of how systems thinking can be applied in technology.

πŸ’‘Defense in Depth

Defense in depth is a security model that involves multiple layers of security controls to protect against threats. Shapiro discusses this model in the context of cybersecurity, emphasizing the importance of layered protection. It is an example of how systems thinking can be used to create robust security strategies.

πŸ’‘Cognitive Architecture

Cognitive architecture refers to a theoretical framework for understanding the structure and function of the mind. In the video, Shapiro creates a taxonomy for cognitive architecture, illustrating how systems thinking can be used to organize and understand complex cognitive processes. This concept is used to show how systems thinking can be applied in the field of artificial intelligence.

Highlights

Introduction of the new series called systems thinking by David Shapiro.

Examples of famous systems thinkers: Nikola Tesla and Thomas Edison.

Explanation of how systems thinking is a set of cognitive skills that can be honed.

Clarification that IQ is not a fixed measure of intelligence and is influenced by various factors.

IQ tests primarily measure speed rather than actual intelligence.

Different dimensions of intelligence can change over time through accumulated knowledge and practice.

Introduction to the concept of lists in systems thinking.

Reference to the book 'Checklist Manifesto' by Atul Gawande.

Various uses of lists: reminders, note-taking, problem-solving, and categorizing information.

The importance of practicing list-making to become a better systems thinker.

Introduction to taxonomies, layered models, and hierarchies in systems thinking.

Example of Linnaeus's taxonomic system for classifying living organisms.

Explanation of the OSI model for understanding computer networking.

Introduction to the defense-in-depth model for cyber security.

Encouragement to use and create structured lists to practice systems thinking in everyday tasks.

Transcripts

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hey everybody David Shapiro here with a

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video today we are going to start a new

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series called systems thinking

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so uh this video was

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um an idea that I had and rather than

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writing a book I figure I'll just do

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videos this seems to be the primary way

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that I disseminate information anyways

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so here we go episode 1 lists and models

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all right so before we dive in you need

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to know like what are some examples of

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famous systems thinkers I have here the

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two

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um adversarial uh enemies of all time

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Nikola Tesla and um Thomas Edison

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so both of them were likely neurodiverse

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um and both of them were profound

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systems thinkers now these are towering

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Geniuses who change the world with their

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intellect in these cases they are likely

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at least partially genetically

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predisposed to systems thinking now that

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being said there are plenty of other

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people who have managed to change the

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world through systems thinking without

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having to be you know a genius or

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autistic here's an example of the Ford

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Model T assembly line from more than 100

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years ago

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all right so systems thinking what is it

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what is our working definition of

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systems thinking so here's my definition

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of systems thinking systems thinking is

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a set of cognitive skills that can be

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honed while some people have a natural

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inclination towards systems thinking

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such as myself anyone can practice and

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develop these abilities systems thinking

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allows you to solve novel problems gain

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unique understanding and change the

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world through mental powers

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so before we dive into this series

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there's a couple myths that we need to

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dispel about intelligence first of all

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IQ is

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um IQ was originally invented as a way

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to track children's progress it was

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never even intended to be static that

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being said the psychology the the

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establishment

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of academic psychology they say that

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intelligence is fixed which there's not

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any any good evidence of that but that's

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because psychology is a pseudoscience

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um intelligence is dynamic over time it

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changes with your life and so for

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instance your IQ changes depending on

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how tired you are or how well you've

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eaten or if you're stressed or whatever

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um and it and it is also uh uh

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intelligence is also composed of many

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aspects or facets

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another thing is that IQ tests primarily

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measure speed they don't actually

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measure intelligence they measure speed

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which is a proxy for other abilities so

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it's true that some people are naturally

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mentally faster or naturally mentally

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slower

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that is something that you're probably

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not going to be able to change too much

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um but it it also it is what it is

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um but it's important to remember that

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if you score low on an IQ test that just

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means that you depending on the kind of

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test you might just be slower than

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average

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um or in my case I'm much faster than

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average again it's a proxy for other

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cognitive abilities but it is not

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actually measuring intelligence

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there are hundreds of actual dimensions

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of intelligence

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um but some of them are things that you

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can change easily over time such as

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accumulated knowledge practice skills

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and other various cognitive abilities

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now

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the jury is still out as to whether or

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not like you have a cognitive ability or

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not right could anyone could could

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anyone on the planet eventually figure

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out the same things that Isaac Newton

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did and Albert Einstein did I don't know

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it's entirely possible that some people

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do have entirely unique cognitive

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abilities that other people will never

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be able to achieve

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but that being said you absolutely can

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accumulate knowledge and you absolutely

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can practice skills so your level of

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intelligence will absolutely change over

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the course of your life and we call this

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stuff like wisdom and experience but

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those are just all attributes of

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intelligence

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okay so with all that out of the way the

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first lesson or concept of systems

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thinking that I want to share with you

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is the idea of lists lists checklists

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categories classifications

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so this comes from the book checklist

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Manifesto by Atul gawandi this is the

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first systems thinking book that I ever

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read and it is also one of the best it

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is a short book and it will completely

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change your ideas about what a list is

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and what a checklist is

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um obviously I'm not going to delve into

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the entire book here but I can give you

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a little bit of a taste so one

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there's so much that you can do with a

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list there are different kinds of lists

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so there's checklists there's procedures

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there's classifications there's

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categories and in his book he goes

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through the history of all these things

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in different ways to use lists excuse me

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um lists can have different roles so you

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can have reminders that's how I use

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lists here right your what you're seeing

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is the learning from this book in real

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time I'm using this to cue myself to

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remind myself what to talk about and

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also as a visual cue for you so it's

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reminders you can also take notes in

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list format

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um where it's just like and I if you

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come if you came from my AI Channel you

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you probably have seen that I use notes

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quite extensive extensively

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um notes have a really powerful way of

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summarizing information

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you can also use lists to list facets of

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Concepts right just as I've done here

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you can also use list to solve problems

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to list out everything that you know

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about a problem for instance you can

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also do chains of thought cause and

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effect all sorts of stuff

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now how do you practice this practicing

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lists is super easy just make lists

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just as as pictured here get a pen and a

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piece of paper and write the lists

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longhand the act of dis of distilling

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things down into lists is really good

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right that's why we do uh chapter

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outlines book outlines right you're just

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saying let's get this in a sequential

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list

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um

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and uh in particular writing longhand

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does unique things neurologically

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speaking

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um so list everything that is lesson

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number one in becoming a better systems

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thinker read uh read checklist Manifesto

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and practice lists it will change your

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life

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um another aspect of this is I wanted to

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delve into a very specific kind of list

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which is that cause and effect

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that's sequential and so in the book the

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pattern Seekers by Simon Baron Cohen

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um he he articulates that there is one

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formula that um those of us with certain

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kinds of autism tend to excel in and

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that is if then because it's a simple

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pattern if x then y because Z so like if

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I throw this at the wall it'll make a

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sound because of the reverberation right

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so if you're if your brain naturally is

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curious and you explore things you say

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if I do this or if if you know situation

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A is true

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um then uh result B happens and here's

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the cause

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here's the thing humans are naturally

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curious if you ever watch a child

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playing with something like pushing

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something over that's a natural

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experiment if I push this over it falls

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because that's just how gravity works or

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you know if I fold this air paper

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airplane this way and throw it it flies

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well because or maybe it doesn't fly

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well because

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so these natural experiments that's

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that's how our brains work science is an

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attempt to formalize that now here's the

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thing is you know there's all kinds of

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methods and techniques and tools within

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science but that's all science is if x

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then y because Z

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it's coming up with explanations so you

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can practice this and and saying if x

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then y because Z is way easier than

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talking about science right it's just

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that's how you establish patterns right

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and so by listing things out you say

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like okay if this is true then this you

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know is what hap this is the natural

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result because why and then you can test

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that you can test that with Socratic

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reasoning and so on and so forth and

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we'll get into some of these things in

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Greater detail in future videos

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um now one thing to keep in mind is uh

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there are some legitimate criticisms of

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of Simon's book because it focuses on

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the masculinization uh theory of autism

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which is Thoroughly debunked so he's

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basically looking at a very particular

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kind of autism which he never really

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addresses in the book I don't I don't

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remember

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um because

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he basically ignores the existence of of

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autism in women and females and girls

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um that being said

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his thesis is here is the pattern of the

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pattern secret so interesting book

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okay so the second lesson of systems

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thinking is taxonomies layered models

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and hierarchies so rather than

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um rather than teach you with lists I'll

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just show you

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so this is the um the taxonomic system

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as created by Linnaeus so Linnaeus

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one thing that you have to keep in mind

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is that many many years ago people would

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look out into the world and not

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understand the relationship of how

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animals and plants and all living things

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related to each other

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so for instance people used to group

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Things based on where they were so

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everything in the water was a fish

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and now we understand that you know fish

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is different from a mammal because

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they're hot blooded and cold-blooded so

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on and so forth

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um you know or plants fungus and Moss

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would have been all like our trees uh

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moss and and mushrooms would have all

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been categorized the same because

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they're in the dirt

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um bats and birds would have all been

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you know flying things uh even though we

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understand that they're different now

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and so what Linnaeus did was he went

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around the world and categorized and

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created a classification system to

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understand the relationship between

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animals and so what he basically did is

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he reverse engineered the tree of life

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and so by breaking it down the way that

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he did he created a taxonomic ranking

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system a tiered system that has layers

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of abstraction

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and so the smallest layer or the bottom

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layer is the species that is the

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individual classification of organisms

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and above that you have the genus family

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order class phylum kingdom and domain so

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on and so forth getting progressively

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larger and more all-encompassing

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um so this is an example of a one it

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took many many years to collect enough

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evidence to do this and I don't think he

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had it right the first time and he was

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also let's say very sure of himself

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um after walking around I think

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Scandinavia for a couple years he's like

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I have clearly classified almost every

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uh species on the planet and that was

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not true he did like five thousand or

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fifteen thousand species

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um you know here we are you know a

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couple million species later uh but the

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system he created uh was very prescient

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in that it was able to accommodate

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um the rest uh ditto for the uh the

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Periodic Table of Elements which I

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forgot to include but that is an example

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of creating a taxonomic system now am I

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going to tell you you need to practice

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creating taxonomic systems and change

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the world no there are other things you

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can do

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so here's another example of of a

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layered model or a taxonomic system so

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this is the OSI model which has to do

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with computers and networking so at the

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bottom of this model is the physical

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layer so the physical layer is you know

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if you plug in your uh your your router

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uh to your home or your Wi-Fi or

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whatever

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this is the physical medium over which

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information traverses

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um and then the next layer up is the

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data link layer so this is the first

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layer in which bits and bytes are

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traversing between one device and

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another and it goes so on and so forth

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higher up the up the stack until you get

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to the until you get to the application

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which is what it is that you're actually

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consuming so like you know YouTube is

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presented over the application layer

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right this is the highest layer although

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I will say that like HTTP so HTTP is the

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protocol that you're familiar with that

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is the application layer that delivers

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the application that you're consuming

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um and so this is an example that like

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this is taught in computer science 101

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uh networking 101 so on and so forth so

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that that way you understand that all of

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networking is is uh created in this

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layered model which helps you with

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designing systems with troubleshooting

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systems

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um and understanding where the

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boundaries between certain kinds of

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systems are

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so this is another example of a layered

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model

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um uh also borrowing from from computer

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this is this is a security model so this

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is called the defense in-depth model so

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this is another rather than looking at

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it like a stack this looks at it more

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like an onion right so but again the

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point is is that it's layered it's a

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hierarchy and so at the bottom of

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Defense in depth is the device this is

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the physical device which I don't have a

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phone right now

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um but here I've got a camera

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um so this is like a device so device

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security I have physical control over

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this device

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um and so if you want to steal the data

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you would need the device my you know my

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um my card in it or it would need to be

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connected and I don't have this

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connected to Wi-Fi

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um but

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the point remains your phone however is

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always connected right

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um if it has power it is connected to a

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network somewhere and so then you get

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you know the individual device you get

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the application uh the computer at

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system as a whole

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um so a device would be like peripheral

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I guess and then a computer is the whole

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computer system then the network

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so we just looked at the OSI model then

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you have physical security so that's

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like security around the building

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um in which data is housed or machines

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can be accessed and then you have the

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human layer at the top which is policies

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procedures and awareness so again this

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is this is a hierarchical way of looking

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at cyber security

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here's another example this is this is a

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taxonomy that I created for cognitive

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architecture

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um and at the bottom there is episodic

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and declarative memory which is just raw

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data that you're uh that the AI

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accumulates then there's recall then

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there's um the morality the objective

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functions

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um then there's memory and distillation

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above that there's cognitive control

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which is you know managing tasks above

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that is problem solving and then finally

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executive function which is behavior and

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output so again it's a layered hierarchy

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um whoops I forgot to add the end title

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screen so

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um I apologize so these are all examples

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of taxonomies or hierarchies or layered

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models

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um and so what you can do is you don't

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have to necessarily create these but you

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can be aware of them and use them right

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and you can also create do these with

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lists you notice how they're all nice

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and ordered so creating order with lists

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is one of the primary things you can do

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in order to practice systems thinking so

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that is the common theme of today's

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video which is to create these

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structured uh lists or these orders of

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whatever it is that you're doing and

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um so you know uh

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whatever it is that you're whatever it

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is that you do your job you can probably

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list it out like this in terms of

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protocols procedures and then you have

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these these more conceptual models that

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you can also create like you could

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probably create a conceptual model

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around

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um you know cooking dinner or driving

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your car or whatever so I hope this was

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helpful

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um

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let me know what you think in the

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comments because uh this is this is a

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topic that I haven't really taught

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before so anyways thanks for watching I

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hope I hope this was hope this was

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valuable

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Related Tags
Systems ThinkingListsModelsTaxonomiesCognitive SkillsIntelligenceLearningProblem SolvingChecklistsHierarchy