See also the General Glossary, which gives further explanations and applications of {theme} theory

**
Introduction
Commutative
operators
Demarcation science-metaphysics
Endothermic
and exothermic reactions
Foundationalism
and coherentism
Fuzzy
('indeterminate') logic**

Implication

Mendelian factors

Newton's first law of motion

Newton's third law of motion

Particle in a box

Polish (prefix) notation

Referents

Regions

Selection: natural and artificial

SI units

Thermodynamic systems as partitions

No matter how extensive
this page became, it could present only a small selection of the possible
interpretations of {theme} theory.

Established concepts from
very varied fields are interpreted (very concisely) in terms of my {theme}
theory. There's next to no explanation of the theory here, or of the notation
I use. For this exposition, see in particular
{theme}
theory**.** Without some study at least of {theme} theory
and its notation, much of the material here will be very difficult to understand.

In every case, the topics discussed are ones with a literature which is very extensive, in almost all cases vast. All I do here is indicate some of the {thematic} activity which underlies and often links these topics. This is a preliminary, very concise examination. Problems in textbooks in Mathematics, Physics and Engineering and some other fields often include 'hints,' to aid solution of the problem set. The entries here are simply Helpful Hints, although the context is very different - not the clear-cut solution of a problem but steps in a complex operation, one which can't result in clear-cut attainment, bringing out {thematic} linkages and contrasts.

The {thematic} interpretations of mathematical, scientific and
other concepts aren't intended, of course, to be contributions to mathematics
or science or these other fields, just as philosophy of mathematics and philosophy
of science aren't intended to be contributions to mathematics and science.
Similarly, my explanation of **
{theme}
theory **makes use of philosophical illustrations but isn't intended
to be a contribution to philosophy.

I regard {theme} theory in many of its applications as a
kind of 'tertium quid,' an identified, not unidentified, third component
with a linkage with two others. The question of the application of
mathematics to science is
misconceived, I believe. If the same {themes} can be used in mathematics and
in science, then mathematics can be applied to science. If {themes} have
application-spheres in mathematics but not in science, then the mathematics
is inapplicable.

**Commutative
operators**

Non-rigorously, Ô :- (mathematical arguments) ) (the mathematical result).

In the real numbers, addition is commutative but not subtraction.

A group G with the binary operation + is abelian if g, h G, g + h = h + g.

One form of the Heisenberg Uncertainty Principle:

where
p is the uncertainty in the linear momentum parallel to the axis q and
q is the uncertainty in position along this axis. Dn: /
/. These observables are *complementary. *The term on the right hand
side of the equation is the modified Planck's Constant. Complementary observables
have non-commuting operators: the application of O1 followed by O2 has a different
result from the application of O2 followed by O1 so that Ô is significant.

The Heisenberg Uncertainty Principle has this {thematic} effect: == :- (precision in specifying momentum and position of a particle). By , == :- (any pair of non-commuting operators).

I see
the need for a generalized theory of indeterminacy which includes amongst
other instances the Heisenberg Uncertainty Principle and the instances of
indeterminacy of interest to philosophers. I regard indeterminacy as a sub-theme,
{/indeterminacy} and indicate it symbolically by Î. The
{thematic} action is 'to make indeterminate.' The most generally useful form
is '... is indeterminate.' This can be shown by the *{indeterminacy} indicator,
* Î Î , usually followed immediately by expansion
brackets to explain why a statement or other entity is indeterminate or vague.

*Demarcation
between science and metaphysics*

The desirability of using
'demarcation,' if it should be used at all (rather than, eg, 'boundary') *advisedly,
*after first using ® :- //. If (1) and (2) are conditions then the
default condition (1) is one in which Ô :-
(1,2)
>
(1). In speculations concerning [science] < Qn > [metaphysics] then
I use as a convention the default condition [science] // [metaphysics], which
is to say that // here is not argued but that < > has to be argued.
Obviously, there is the problem of resolvability: *® *(science-metaphysics) Qn. Karl Popper claims as a criterion of
resolvability the fasifiability of scientific claims but not metaphysical
claims. I dispute this. I think that some metaphysical claims have been falsified,
although with Î .
However, claims to scientific knowledge which have been falsified have also
been falsified with Î ,
to a far lesser degree. Claims to scientific knowledge not yet falsified or
never to be falsified are also subject to Î.

*Endothermic
and exothermic reactions*

The powerful division of the universe into two parts in some thermodynamic analyses:

® : - (the universe) (1) the reaction vessel, regarded as a thermodynamic system (2) the rest of the universe. .

Giving to {direction}
the interpretation 'flows into' or 'flows from' and treating the quantity
q as *the subject* (compare *the subject *of a verb), then q
is +ve in the case of an endothermic reaction, when q: (rest of universe)
(the thermodynamic system) and q is -ve in the case of an exothermic reaction,
when q: (thermodynamic system)
(rest
of the universe).

q is a path-function, but it's more convenient to analyze reactions in terms of state-functions. Interpretation of 'independent of' in 'state functions are independent of the way the reaction is carried out:' > < .

*Foundationalism
and coherentism*

For foundationalists, foundational facts are epistemologically prior to non-foundational facts. [foundational facts] / (partitioning) / [non-foundational facts]. Ô :- (foundational facts, non-foundational facts] (foundational facts) > (non-foundational facts): (foundational facts) have {prior-ordering}. Non-foundational facts have {dependence} on foundational facts: (non-foundational facts) (foundational facts).

Foundationalists have
often granted epistemological *exemption *to the foundations of knowledge.
== :- (error
doubt
refutation) so that the foundations of knowledge have infallibility, indubitability
and incorrigibility. So, for many empiricists, == (+ error, doubt, refutation)
:- (immediate sensory experience). Berkeley and other phenomenalists have
claimed that (physical objects)
(sensory experience): ontological dependence. For coherentists, Ô
:- (beliefs) so as to give [foundational beliefs] / partitioning / [non-foundational
beliefs].

A general theory of dependence refers to foundationalism and coherentism and also, eg, Kant's categorical and hypothetical imperatives, where Ô:- (imperatives) and (hypothetical imperative) (categorical imperative).

'Indeterminate logic'
is the term I use for the established 'fuzzy logic.' 'Indeterminate set' is
the term I use for the established 'fuzzy set,' introduced by Lotfi Zadeh.
Indeterminate logic
indeterminate set i{indeterminacy}.

[indeterminate logic] < > [many-valued logic].

Zadeh: 'fuzzy logic in broad ... and narrow sense.'

Broad sense:

[ fuzzy (indeterminate) logic < synonymity > ['indeterminate' set theory
and its applications]

Narrow sense:

(many-valued logic)
('indeterminate' logic).

The proposition 'X is tall' involves ® :- (truth), which gives Î in the construction of the sub-set (tall people) (people) - but not, in Mendelian genetics, in the construction of the sub-set (tall plants belonging to the species Pisum sativum) (plants belonging to the species Pisum sativum).

When statement 1 implies
statement 2, then the truth of statement 1 ensures the truth of statement
2. Statement 1 'leads to' or 'directs to' statement 2. This is an instance
of

(1)
(2). ® :- (
)
/implication/ or {resolution} applied to {direction} *gives *['directs
to'] /implication/.

[induction] < > [serial ordering: the natural number following a given natural number]

and [element of a serial ordering] < > [datum element]

® :- Ô /serial ordering/

[Inductive successors taking the form n, n, n, ...] ( ) [natural number successors, n, n + 1...]

® :- (n), to take account of *vagueness *in n.

[inductive successors] (certainty, lack of certainty) [natural number successors]

[*Continuance
*of
a process] < > [].

'Inertia' :- Physics, metre (in my approach), Humean philosophy. .

From my page
**metre:
**''Metrical inertia' is the counterpart of inertia in Physics, which,
omitting any detail, is the property which causes a mass to resist changes
- so, a body in motion tends to continue in motion.'

From Donald L M Baxter, 'Identity and Continued Existence' in 'The Blackwell Guide to Hume's Treatise,' (Page 119), of an experience when we 'assume more regularity than we observe:' 'This is not mere causal reasoning, which is constrained to observed regularity. It is rather an inertia of the mind in continuing a way of thinking once begun ... Hume earlier discussed a precedent for this mental inertia when explaining how we come to the fiction of perfect equality in geometry.'

The mathematical notion that a continuum can be divided without limit I interpret as ® :- the continuum ~ ‚. ('not possible to complete.') dy/dx as showing the limit of the ratio y/x as x tends to zero. I interpret again in terms of {completion}. Where the process concerned is the giving of the smallest non-zero values to x and y then ‚:- x dx and similarly for y. Abraham Robinson's 'nonstandard analysis' translates every statement of analysis which involves limits into the language of infinitesimals.

Using as examples of possible interchangeabilty points and lines in projective geometry or existential and universal quantifiers in predicate calculus, trivially, [name: 'line'] ( ) [name: 'point'] and [name: 'existential quantifier'] ( ) [name: 'universal quantifier'] but [application-sphere of name: 'line'] ) ( [application-sphere of name: 'point'] and [application-sphere of name: 'existential quantifier'] ) ( [application-sphere of name: 'universal quantifier.']

**
Rhyme-interval**,
musical interval and mathematical interval i{distance}.

Musical interval: [pitch
of note 1] < interval > [pitch of note 2].

The interval is named by counting the diatonic degrees between note 1 and
note 2, eg C - G is a fifth, {distance} < C - E, a third.

Mathematical intervals: the set which contains all the real numbers of points between two real numbers or points. Notated (open interval) as / {x: a < x < b} /.

Interpreted as ». If A, B are sets and f: A / / B is a mathematical function, then an / inverse /, » for f is a function g: B / / A such that

g ° f = idA and f ° g = idB.

So,
a A
and
b B,

g (f (a) ) = a and f (g (b) ) = b

/Composition/ of functions a and b: Ô :- ( f ° g ).

The existence of an / inverse / ( interpreted: {/ reversal}) is one of the axioms of a Group: for each element g G there's an element h G such that g ° h = h ° g = e. The element h is an / inverse / of g. A group (G, ° ) is Abelian or commutative if Ô (a ° b) = Ô (b ° a ) a, b G.

The / identity function / on A (written idA ) :- ( A ).

From Kant's 'Critique of Pure Reason,' I, Transcendental doctrine of elements, Second Part, Division 1, Book I, Chapter I, third section: On the pure concepts of the understanding or categories, translated by Paul Guyer and Allen W. Wood.

Any view of Kant's 'Critique of Pure Reason' as an impregnable edifice (rather than a magnificent one) would be mistaken, of course. Kant's list of twelve categories in four groups has been widely criticized. I maintain that his list is confused, in fact chaotic.

My {themes} are Kantian to the extent that the human mind uses and must use {themes} if it is to make sense of the world, the inner world as well as the outer world. The {themes} are fundamental and are distinguished from spheres, which include their application-spheres. ® :- (application-spheres) (contingent non-contingent spheres). I don't give a criticism in detail of Kant's scheme here, since my {theme} theory provides a clear and systematic approach to reality which eliminates the confusions in Kant's Table of Categories.

The inclusion of 'reality' with 'negation' and 'limitation' in Kant's group 'Of Quality' is particularly confused. Reality is the most general sphere. Particular spheres (in my terminology) belong to 'reality,' including the application-spheres. [Kantian 'reality'] < > [Kantian 'totality']. For some reason, these are placed in separate groups in Kant's scheme.

The application of {restriction} 'tidies up' some of Kant's Table. == :- (totality) (plurality). [{restriction}] < > [Kantian 'limitation'} is obvious.

Kant's 'causality' and 'dependence' should be subject to ®, since causality belongs only to the contingent sphere and dependence (my ) is at a higher, and different, level of generality, including the non-contingent as well as the contingent. The Kantian possibility and impossibility are very different in their application to the contingent and the non-contingent spheres.

are instances of generalized factorization, which has as other instances the Factors involved in human diet (these are not only the factors needed for a balanced diet), the factors involved in a moral choice - and innumerable other examples.

// :- (Mendelian factors) easily, eg, long or short pea plants, red or white flower colour in pea plants. These are sharply distinguished.

meta- is from the Greek which means (with the accusative, with reference to sequence or succession) 'after' or 'next to,' and para- is from the Greek which means (with the accusative) 'to the side of,' beside.'

The established use of
'meta-' has reference, in my terminology, to {ordering}. So, a metalanguage
'comes after' a language and has {post-ordering}: a language used to describe
another language, the *object language. *In my terminology, the object
language is the sphere of application of the metalanguage, metalanguage :-
(object language.)

Metamathematics is the study of such aspects of mathematics as consistency and reliability. Tarski included questions of {completion} (in my terminology) and axiomatizability. Tarski referred to the 'methodology of the deductive sciences.)

Metaphysics has an application-sphere with less {restriction}. Metaphysics is much broader in scope than physics - it has less {restriction} - and goes far beyond examining the methodology of physics. Its scope includes non-physical entities. But {ordering} is as applicable to metaphysics as to metalanguage and metamathematics. Metaphysics, for example, can be regarded as more fundamental than physics.

The term para-study isn't established. I use it for studies which aren't given {ordering} but which are 'alongside.'

{theme} theory is applied to language, mathematics, metaphysics and innumerable other areas. These are regarded as un-ordered for the purposes of this examination. They are application-spheres for {theme} theory.

'Every body continues
in its state of rest or uniform motion in a straight line, unless compelled
to change its state by an external force.'

'Every body:' ==
: - (°
P) where 'bodies' are P.

® :- state
rest
motion.

® : - motion
uniform
non-uniform motion
rectilinear curvilinear motion.

the state, the agent of {modification} being an external force.

The law is subsumed under generalized thematic action whilst retaining all its empirical testability and falsifiability.

Action and reaction are
equal and opposite.

Force is a vector quantity.

(( vector quantities, eg force )) :- (magnitude
direction).

bodies,
pairs of bodies, eg P and Q,
Ô (magnitude of forces, force of P on Q and Q on P.)

bodies,
pairs of bodies, eg P and Q, if
:-
(force of P on Q) is
(1) then
:- (force of Q on P) is **» **:- (1).

== :- (space) so that
there are boundary conditions

== :- (wavefunctions, found by solving the Schrödinger equation for the
system) so that only certain wavefunctions are acceptable.

== :- (observables) so that only discrete, not continuous, values are observable.

The energy of the particle is quantized - i- == .

Instead of writing 'this notation places the operators before their arguments' or 'this notation places the operators in front of the schemata over which they are ranging' or 'constants precede the variables they govern' I use consistent (common) 'application-sphere.' I retain 'operator: ' the operator has an application sphere. Ô:- (operators, application-spheres of operators).

[Established infix notation,
eg p
q (+
'inclusive'] *( Ô* of operator-application-sphere of operator*)
*[Polish (prefix) notation) Apq] and

[Established infix notation,
eg p
q (+
'exclusive')] *( Ô* of operator-application-sphere of operator*)
*[Polish (prefix) notation Jpq]

Reverse (postfix) notation, » :- ( Ô operator-application-sphere of operator). So, » (Apq) (pqA).

**Referents
(ambiguity of in similes)**

Seamus Heaney, 'Blackberry-Picking,' 'At first, just one, [blackberry] a glossy purple clot / Among others, red, green, hard as a knot.'

[
primary
subject** **] <
>
[ secondary subject** **
S1, knot
in string/rope
secondary subject 2, knot in wood]

See also
**Region
poetry and zoning **in the page 'Glossary of literary linkage terms'
and **
Regional differences
**in the page 'Web design.'

The concept of region
has a high degree of generality and,

® :- (this generalized concept of region)
(these regions of region poetry
these regions of Web design
.) Obviously, this ((survey)) is far from complete. A fuller ((survey)) would
include geographical regions of a country, region in Heidegger's 'Sein und
Zeit' (German 'Gegend') the present belonging to a different region from the
future, 'regions of the mind,' regions in scientific knowledge and 'tonal
regions' in music. 'any large, indefinite, and continuous part of a surface
or space' but in my interpretation, ['region'] < > [{distance}] and
{distance} i(spatial and non-spatial distance). /Geometrical distance/ i-spatial
distance, contrary to very many accepted conceptions.

The concept of region
includes the mathematical concept of region, but not simply because the word
'region' is established in mathematics. The mathematical conception of 'region'
makes reference to a connected subset of *two* dimensional space. 'Space'
should not be interpreted as physical space here. Again contrary to many accepted
conceptions, [Euclidean space with Cartesian coordinates] // [the 3-dimensional
space of our common-sense world]. Here, '//' as always does not imply lack
of all < >.

The 'containment' in this diagram can be regarded as the containment of number-regions. The natural numbers N are contained in the integers Z which are contained in the rational numbers R which are contained in the complex numbers C.

Heidegger's conception
of 'region' is not at all mine. For example, ' 'In the region of ' means not
only 'in the direction of ' but also within the range [Umkreis] of something
that lies in that direction.' (1, 3: 103. Translation of John Macquarrie and
Edward Robinson.) The view of 'direction' here has very little in common with
my own {direction}. Although Heidegger's view seems to have great generality,
this is only an appearance. He writes, ' ... Dasein itself is 'spatial' with
regard to its Being-in-the-world.' (1, 3, 104). Space shares the concreteness
of Dasein and Heidegger's ontology. Just as Heidegger's 'concrete epistemology'
attempts to displace Cartesian epistemology rather than accommodate it - find
(non-spatial) 'room' for it - his understanding of space finds no room for
such mathematical conceptions as the Euclidean. He writes, 'When we let entities
within-the-world be encountered in the way which is constitutive for Being-in-the-world,
we 'give them space'. This 'giving space', which we also call '*making
room*' for them, consists in freeing the ready-to-hand for its spatiality.'
(1, 3: 111.) Here, 'giving space' translates 'Raum-geben' and 'making room'
translates 'Einräumen.' But the nature of his philosophy - cramped rather
than spacious - had the effect of imposing {restriction} to a very great degree.

Heidegger's conception of region is too limited, and shares the limitations of his philosophy. I think it important that a ((survey)) of regions should include scientific instances. Regions i-regions of phase diagrams, which, in the case of a pure substance, show regions of pressure and temperature where the states solid, liquid and gas are thermodynamically stable. And i-regions of relative negative potential and relative positive potential on the surfaces of molecules, shown by an electrostatic potential surface.

In connection with geographical regions, 'boundary experiences' are of particular interest to me - the extent to which, often, those within a boundary but near to it identify more with those beyond the boundary, rather than giving weighting to the < > with those deeper within the boundary.

**Selection:
natural and artificial**

Natural and artificial
selection are instances of selection, which is an aspect of *filtering,
*the non-systematic term which gives {substitution} for the more systematic
== :- (x), the term which in this case refers to genotypes. In the case of
natural selection, the filtering is *bound*. In the case of artificial
selection, the filtering is *free*.

In diagrams, it's often
convenient to use linkage-lines* *rather than indicate linkage by <
>. < > is at a higher level of generality than {direction}, which
can be indicated in a diagram by direction-lines, formed by {extension} of
.
{direction} has {/derivation}, which can be shown by using dependence-lines
which are extended. {dependence} has {/derivation}. In the diagram below,
< > between some of the base units in the SI system, kg, m, s and some
derived units, acceleration, force, energy and power, are shown by means of
linkage lines. These can be replaced by derivation-lines, at a lower level
of generality. The derivation-lines show that the derived units are derived
from the base units, and show the {direction} of derivation.

The first of the two diagrams above shows the dependence of base units on physical constants with fixed values (values not subject to {modification}). Here, the arrows point in a direction opposite to those shown in typidal graphs of dependency (an aspect of {directionality}.

**Thermodynamic
systems as partitions**

**
**

The need for a generalized theory of partitions. Two partitions can be interpreted as //2 after ®. The differentia of a mathematical partition includes the need for an 'equivalence relation' (+ ... ). At a high level of generality, [ thermodynamic system and surroundings ] < i-generalized partition > [ 2 mathematical partitions ] and (generalized partition) :- (mathematical partition) (thermodynamic system and surroundings).

Mathematically, if A is a collection of subsets of the set S, A is a partition of S iff the union of all the subsets which belong to A is the whole of S, the unequal members of A are disjoint and each subset belonging to A is non-empty.

Thermodynamically, in my notation, ® :- (the universe) (the system its surroundings). (system) // (surroundings) but there are degrees of //. In the case of open systems, matter can be transferred through the system-surroundings boundary. Otherwise, the system is closed.

*In the column to the left, some topics in mathematics, science,
philosophy and other fields are interpreted in terms of {theme} theory.
Other pages of the site give applications for the various themes. The
possible applications aren't limitless, aren't infinite, but very, very
large in number. Here, the pages on these {themes} are listed, with lists of
the instances.*

Managerial work

A scientist and a theory**
**Pseudo-science

Mathematical proof

Other mathematical applications

Truth tables

Digital electronics

Biological taxonomy

Aristotle's 'telos'

Gothic and renaissance architecture

**{direction}
**

Generalised linkage connective

Implication

Material
conditional

Teleological arguments

Trends

Vectors and directed
lines

Ferromagnetism

Entropy

Tractatus Logico-Philosophicus, 3.144

**{distance}
***D*

The key system

{distance} and {modulation} in poetry

The unities of drama

Narrative {distance}

'Du' and 'Sie'

Edward Bullough's aesthetic {distance}

Wordsworth's boy at Windermere

The subjunctive and optative in Thucydides iii, 22

Web design and
{distance}

Mathematical {distance}

The law of negligence

**
{modification}
**

The Journey

James Connolly and the Easter Revolt

Innovation

Nietzsche

Transformation in Rembrandt and Rilke

Mind,
body and the rest of the world

George Orwell: capital and corporal
punishment

Activism and opposition

{modification} by {diversification}

The necessary, the impossible, the contingent

The ship of Theseus

Invariance

Variables and cultural pretensions

Corroboration and
falsification

Typography and action

Variables

Modal properties

Pseudo-science

Philosophy of mind

**{ordering}**
Ô

Ethical decisions

Digital technology

Military medicine: triage

Priorities in politics

Philosophical
dependence

Nietzsche

{ordering} and application-sphere

Derivation

{ordering} and {grouping}

Logic

Concentration

**{restriction}
==**

Limitation and limits

Disappointment and imperfection

Exemption: slavery

Quantum mechanics

Jokes

Linkage schemata

((surveys))

Framing

Linkage isolation

Isolation and abstraction

Isolation and 'The Whole Truth'

Isolation and distortion

Poetry and
prose

Kant and the limits of knowledge

Logic

Allowing and
disallowing

**{reversal} «**

Thermodynamic reversal

Elastic deformation

Negation

Undoing

Inversion (musical intervals)

**{separation}
//**

Of people: Shakespeare

Of people: Auschwitz-Birkenau

Commuters

Between past and present

Vegetables and fruit

Human
characteristics and versatility

Separation techniques in Chemistry

Thermodynamic separation

{separation} and application-sphere

{separation} and separability

Causation

Areas of competence

**{substitution}
***S*

Evaluating the thing itself

Exemption

Mathematical and
scientific {substitution}

**
**