Announcing Study-group on Inductive Method of Thinking, Its Foundation

Questions from this week and sample answer

 

Here are questions from the section on “The structure of inductive reasoning”

 

Q1. How is this section similar and different from previous sections?

Q2. What is reasoning? What might be the need to introduce this concept at this point?

Q3. What role logic plays for reasoning in general, and deductive reasoning in particular?

Q4. How is inductive reasoning different from deductive reasoning, when it comes to integrating the premises to form conclusion?

Q5. What is the problem of induction?

Q6. How does study for reaching “first level generalizations” contribute to the solution of “problem of induction”?

Q7. What leads can we get to the solution by studying Benjamin Franklin’s kite experiment and related facts?

Q8. Summarize similarity and difference between first level and higher level generalizations?

Q9. Elaborate on the conceptual framework that Franklin had to integrate when he did kite experiment?

Q10. What is the role of integration and logic in developing inductive generalizations?

Q11. What is the difference between premises of induction and deduction?

Q12. Why problem of induction has been elusive for so long?

 


 

Sample answer is as follows

 

Q7. What leads can we get to the solution by studying Benjamin Franklin’s kite experiment and related facts?

Ans: MY ANALYSIS
This part shows the process of induction for reaching higher generalizations. So far we have studied induction in detail only for first level generalizations.

FROM TLL
Let us examine a case typical of scientific induction, in which we do not directly perceive causal connections, and in which we are not restricted to a handful of first-level concepts. The example I have chosen is Benjamin Franklin’s famous kite experiment. It will serve to illustrate the pattern that we will see repeatedly in the next four chapters.
Franklin set out to prove that lightening is essentially electricity. Thunder clouds, he hypothesized, are electrically charged, and lightening is merely an electric discharge, when this charge runs off. Scientists do not always have their explanation of events worked out as a hypothesis in advance of their experiments, but sometimes they do, and Franklin did in this case. He setup his apparatus accordingly.
…If Franklin was right, the electrically charged thunder clouds should cause the key to become charged, and this charge will flow into and accumulate in the Leyden Jar. Of course, everything Franklin predicted turned out as he expected, and he concluded - from his experience of one thunderstorm - with a sweeping and necessary generalization describing the nature of lightening as such, here, everywhere and always. Why did this prove his generalization?

First, what did Franklin actually see during this experiment? What concretes did he observe that could also have been observed by a child or a savage? Among other things, he saw sparks flying from the key to the wire in the Leyden jar. He saw pieces of the wet kite string become rigid and repel each other. And he found that if he held the jar with one hand while touching his finger to wire entering it, he felt an unpleasant shock.

These concrete observations are essential[but not sufficient] to the experiment; you could learn nothing from it[experiment] without them[concrete observations]. Yet these observations would be meaningless to an ignorant person…
Besides his percepts, Franklin needed a series of sophisticated concepts; otherwise, he could neither have designed his experiment, nor interpreted its results…concepts as “electricity”, “discharge”, “conductor”, “Leyden Jar”… These concepts were made possible by and represent a wealth of earlier knowledge([some of]which was also discovered by means of experiments). Without this conceptual framework, Franklin could only have stared uncomprehendingly at sparks and shocks. Given such a framework, however, he can at once identify what he is seeing : The kite apparatus is a long conductor, and thus the electrically charged thundercloud causes the key to become charged, and then the key discharges into the insulated Leyden jar.
…The conceptual framework enables him to identify with the concrete measurements omitted, the essential causal chain; nothing else explains the observations.
If one grasps the observations in this case, and learns that the conceptual framework is valid, then the generalization follows necessarily.

MY FURTHER ANALYSIS
The most important inference for induction in this section is regarding higher level generalizations. First level generalizations require relevant first level concepts, and perception of causation in phenomena the generalization will refer to. Similarly higher level generalization requires higher level concepts, and like first level generalization referring to a perception depicting causal connection. That is, higher level generalization also refers to percept containing causal connection. Further, we also see, as in case of Galileo, the concepts, more specifically their characteristics contribute to the design of experiment. Further, for humanities subjects like history, while having experiment is not possible, as we saw in DIM, these characteristics can help select relevant subjects, existents, and enable their interpretations from various eras and fields(What is being integrated? How it is being integrated?)

Coming to Franklin’s experiment, here too we follow similar path as in “First Level Generalization”. While ultimately it established[connected units of] concept electricity, explicit scope of this experiment was to establish the generalization “clouds are electrically charged”. The behavior of lightening, or characteristics of concept lightening led to the formulation of hypothesis. More specifically, its heat, light and equivalent shock characteristics are similar to sparks that came around charged particles[This part is not written in the text, but we can infer this from later text]. And the experiment established other aspects of clouds, like it is charged since the string of kite got charged. This being established by spark near Leyden jar and repulsion among the strings.

These are the steps that I think would be involved here(all are not necessarily chronological, but some can be) :-

  1. Forming concepts of entities whose units exhibit electrical characteristics. Concepts like amber rod, spears etc. in this case.
  2. Forming concepts, probably as phrases initially, for characteristics that subsume properties of charged materials or conductors. Like attracting-repulsing, shock producing, spark producing, heat producing etc. Or transferring shock, spark etc.(I also assume concepts of actions like attraction, shock etc. are formed before).
  3. Forming causal connection between the characteristics in (2.), and entities in (1.), leading to higher level concepts like charge and charged materials.
  4. Subsuming new units to materials exhibiting characteristics identified in (2.), like key, wet string, and Leyden jar.
  5. Observing lightening and forming the concept that subsumes its various instances.
  6. Adding characteristics to lightening using “first level generalizations”. Like it produces shock, produces “heat and light” etc. These first level generalizations have concepts of attributes derived from (2.).
  7. Formulating experiment that can be used to connect entities involved in lightening and entities involved in charge. The formulation is because of hypothesis that lightening and “sparks of charged materials” are same, and hypothesis is reached because of few similarities like shock producing, heat producing, and light producing between the two.
  8. Doing and noting various observations in experimental setup.
  9. Comparing new observations in the setup to observations of relevant phenomenon in materials identified in (1.).
  10. If the actions are same, reaching the conclusion that concepts of attributes contributing to the actions are also same. And therefore concluding that entities involved in lightening have some attributes, that are same as that of charged materials. That is clouds are also electrically charged.
  11. Forming / Expanding concept electricity based on the generalizations derived from observations. Generalizations involving flow of charges, sparks being produced, shock, heat and light.

Some concepts in the above experiment will come under pre-science knowledge. Like lightening, clouds, kite, spark, heat, light, etc. Others like charge, Leyden jar, conductor will be discovered by science. Even if one of the concept, its characteristics, or the observation is invalid or false, the generalization will collapse. But we know from physics, each of this is true or valid. Valid meaning consistent, and true meaning as is perceived.

 


Other recent posts that I think are important are as follows

 


On certainty of “first level generalizations” and referrants of “first level concepts”

Certainty of “first level generalizations”

I have been using obvious to describe the status of “first level generalizations.” Given its greater emphasis on completeness in understanding, I think certainty is a better term. Here I will clarify the context of certain.

I think certain is a genus that subsumes “self-evident”, “obvious” and “proven” as units. Self-evident being perceptual. Obvious meaning easily reduced, like single percept as in “two tables with chair as a foil” for concept table. Or reduced to continuous percepts as in “pushing rolls the ball”. Proven will also be ultimately reduced to perceptual, but the percepts will be distributed. Few of the many percepts of G=(m1)(m2)/(d^2) being motion of objects falling on earth, rotation of planets and moon, and experiments involving circular motion.

Here is relevant snippet from the excerpt of “How We Know”

p21-23

“Self-evident” is not a synonym for “obvious.” To one who has learned
arithmetic, it is obvious that two plus two is four, but that truth is not selfevident;
it is inferred by a process of comparison and counting. But that the
page you are reading exists is not an inference: it is self-evident.
The data of sensory perception are self-evident, but the conceptual
interpretation of that data, and inferences drawn from it, are not self-evident.
They must be validated by reducing them back to the self-evident.

Referrants of “first level concepts”

Here is the relevant snippet from “How We Know”


p151-153

To form a concept of an entity, we contrast two or more instances of
the entity with a foil — e.g., some tables vs. a chair. Likewise, to form the concept of an attribute, we contrast this and that instance of the attribute with a foil — e.g., two or more shades of blue vs. a shade of green. To form the concept of an action, we contrast this and that instance of an action with a foil — e.g., two or more instances of a thing moving vs. being at rest.
And, as with entity-concepts, concepts of characteristics are formed by
measurement-omission, on the “some but any” principle, and are integrated
into a new mental unit by means of a word.

We form higher-level concepts of characteristics just as we do in the case
of higher-level concepts of entities. “Blue” is first-level, within attributeconcepts; “color” is a widening; “indigo,” and “ultramarine” are narrowings. Narrowing by cross-classification is exemplified by “pastel blue,” if we allow two words to count as a concept, since “pastel blue” stands for those shades.

74 A technical issue arises regarding “levels,” because the term has two senses. In one sense, only concepts of entities are “first-level”: only entity-concepts presuppose no prior conceptualization. Since concepts of characteristics presuppose concepts of entities,
concepts like “blue” are not “first-level” in this sense. But, in another sense, “first-level” denotes concepts that do not integrate or subdivide any prior concepts, and in this second sense “blue” is first-level: it conceptualizes what is directly perceivable. Accordingly, these concepts need no validation or checking (there’s no such thing as getting “blue” wrong). Concepts like “blue,” “round,” and “moves” are part of the incontestable base to which more abstract concepts must be reduced and against which their validity is to be judged. As such, they could be called “reductively first-level.”


Personally I picture levels in 2 dimensions. X axis being entities at origin, attributes at 1, actions at 2 etc. Higher levels of entities like Furniture, Household items, man-made objects etc. being at (0,1),(0,2),(0,3) etc. if table is at origin. Dining Table, desk etc. being at (0,-1). Rounded being at (1,0), as attribute for entity ball in origin. Rolling being at (2,0) as action for ball etc. Motion being at (2,1) as higher level concept subsuming rolling.

 



 

Foils while forming "first level generalization

We have foil chair while forming “first level concept” table. Like concept is a universal, so is generalization. Therefore forming “first level generalization” also requires foils. Further if we retrospect on formation of our own “first level generalizations”, we will see that without foil, forming first level generalization would not be possible.

If for e.g. bulb always remained lighted because of some hidden connection, child will never be able to form the first level generalization “switching lights the bulb” by just playing with the switch. He has to see first hand that with switch down bulb is on, and when switch is up bulb is off.

Off state of bulb I will call as metaphysical foil. I think there needs to be an epistemological foil also, which in this case will be “wish that bulb is not switched on when I push the switch down”. Let me elaborate how. Before child actually pushes the switch down, he will have to make the decision at some level, mostly really low conscious level that is bordering sub-conscious level. So he makes the decision to push the switch down, actually pushes the switch down, and then the bulb glows. At this point he might start thinking that it was his wish and not push down of switch that made the bulb glow. But at later point lets say he wishes the bulb to glow without pushing down the switch, and the bulb does not glow. At this point he will be certain that “pushing down switches the bulb”.

The epistemological foil I gathered from examples Dr. Peikoff gave in OPAR section we studied. “Wishing that marbles dont rattle”, or “pillow rattles”, or “balloon goes down on release” and “stone goes up” etc.


Here is final update from the study-group

The final week was for “Review and Summary” So first I posted the the scope of “Review and Summary”, and then my own “Review and Summary”.

 


Basic structure of “Summary and Review”

Now that we have finished the main study text, we enter the concluding week. Please try to post pending posts this week.

Purpose of this concluding week is to summarize what we have studied, what we have learnt, how we have learnt it, and highlight the important aspects of the study-text. More importantly, we mention how we will follow up this study for even deeper understanding.

 


 

SUMMARY AND REVIEW

To summarize the path of (formal)study, I first studied about concepts and concept formation. Existent, identity, and unit stages from ITOE gave me better understanding about things I had already learned, and how to better organize my knowledge for improved understanding and living. That is through reduction, and keeping snapshots of units and characteristics in various states of unit stage, identity stage or even existent stage of some concepts. Studying causality helped me to better organize knowledge related to various events I observe and those I know of. Examples from physics(and from chemistry, biology, history, I recollected) gave me even better grasp of causality. Co-relating my day to day thinking to that of Galileo and Newton I think will make me a better person by enabling me to solve problems better through systematic understanding.

We apply principles often(and laws get applied on us), but don’t validate them as much as required. Now I think I will validate my goals, motivations, principles, and events impacting me more often. And fine-tune the hierarchy of my values, based on proper analysis of emotional triggers I get. Professionally, I will continue to effectively question key policy reversals in my company happening due to cultural bankruptcy of humanities. Specifically, removal of ratings system in my case. But primarily prioritize my work related tasks better, and organically improve my knowledge of software systems and their genesis. I can already see much better problem solving, partly due to experience, but also by better understanding similarities and differences between various systems and their versions.

While most of us know that we form concepts and generalizations from percepts(thanks to Aristotle), now many of the missing links have been filled. To further solidify my understanding, I plan to again study “the full book”, “Abstraction from Abstractions”, “Cognitive Role of concepts”, and “Concepts of consciousness” from ITOE. Reading How we know excerpts itself improved quality of my posts. I will definitely follow it up with complete study. But more importantly I plan to cash in on the epistemological assets I have built through this study group. So expect my next study-group to be on Ethics, probably Virtue of Integrity.

My understanding of first level concepts and generalizations has been greatly enhanced though. I can now think of any first level concept like table, chair, red, rolling, etc. to have 6 perspectives. The existent, its percept(s), its characteristics, essence in concept, its CCD, and the category like enity, attribute, action it belongs to. I intend to build on this understanding and have better understanding of complex categories involving concepts-of-consciousness, abstractions-of-abstractions(-of-abstractions…), axiomatic concepts etc. However I am still thinking of one aspect. If induction is moving from particulars to universals, why are we spending so much time in moving from universals to particulars using reduction. I think reason can be that moving from universals to particulars for known concepts like tables, furnitures, gravity, etc. can provide us more (explicit) CCDs and better understanding of categories of concepts. Armed with this better understanding, we can then better classify new existents we encounter. And thus enabling us to form correct, and more abstract concepts and generalizations.

Representation through symbols, whether its concepts, mathematics, physics or deduction, it improves the understanding of finer aspects. Introducing symbolism in concept formation and induction(not to that extent in Induction though) I think is a major take away here. Whether its through sets in various stages of concept formation and induction, or setting and organization(prioritization through fundamentality) of characteristics, essence or CCD.

So to conclude, I will study epistemology privately in short term. Publicly I will try to connect epistemology studied so far to ethics, politics, economics and law. So Tara Smith’s book on ethics, and Yaron Brook and Don Watkin’s “Free Market Revolution” are what I am eyeing. Apart from these I will also rescan archives of SGO, and co-relate it to what I studied here.

Thanks to all for participating. Apart from academic, enhancing my project management and marketing skills was a major takeaway. This “study group” will always remain special. In totality it took minor part of my year, but gave me unprecedented joy in return…!

Amen, not in the name of supernatural, but “In the name of Best Within Us”(David Harriman, Leonard Peikoff, ARI, Brad, all the particpants including myself, and the fountainhead whose soul shall always reside in these study-groups and inside many of us - Burgess Laughlin!!).