So this already created world is B. How is it that the following is not saying that God creating a different world is not even possible? — wonderer1
Would you agree that there is no possible world in which God creates B and therefore it was necessary that God create A? — wonderer1
So. the Will of God is a property of God and this Will of God is the same, whether A of B is created?
And God's action to create A is the very same as God's action to create B? — Walter
Does an inch exist on a ruler without someone looking at it? — jgill
Long ago, one of the regulars here insisted that Mount Everest did not have a height until it was measured. The prognosis was advanced pragmatism, unfortunately incurable. — Banno
I have been talking about God's Will to create A and God's Will to create B.
Are they different or is God's Will to create A the same as God's Will to create B? — Walter
If they are different, then they are contingent properties. — Walter
The measures simply are. — jgill
Oh, I was thinking of the height, say above sea level, decreasing as one moves away from the peak - not the apparent height of the hill. Interesting take. — Banno
The example I gave was the height of a hill with regard to distance from the peak. The height changes over distance, not over time. — Banno
So the mother both of and prior to all human mothers is not human, or not material? — tim wood
Um, science has determined that there is not an infinite regress of material things? — tim wood
I'll take your insistence that change requires time as axiomatic, then. — Banno
God is simple and immutable, but He can be red of blue?
The redness or blueness of God is a contingent property. But if God is necessary and simple He is identical to all His properties. But how can a necessary being be identical to a contingent property? — Walter
I had a brief look, but came up empty apart from anti-left, anti covid, anti philosophy; I don't feel like it is a great loss to the forum, but someone could show me some gems if I have missed them. — unenlightened
. Consider it proved that either there is an infinite supply of mothers, or there must be a first motherless mother. The matter settled; we just don't know which. — tim wood
Which reminds me of Russell's joke that while every individual human being has a mother, it is a fallacy to supose that therefore the human species has a mother...
The mother of the race is a limit, not an item in the sequence...
But Mitochondrial Eve ruined the joke. — Banno
That means there are two Gods — Walter
Various quantum effects, for a start. — Banno
The bowling ball causes the depression in the cushion. — Banno
Cause is not always prior to effect. Indeed sometimes it is impossible to decide which event is the cause and which the result. — Banno
The question is: was it possible for God to create B instead of A? The Thomist's answer is yes. — Walter
Well, we are not talking about God creating A at t1 and B at t2, we are talking about God creating B instead of A, which, according to most Thomists, is prefectly possible. — Walter
Well, I am not saying that God can will conficting things. But God's will to create A cannot be identical to God's will to create B, unless God is not simple or has no control over what He creates.
A Will, no matter what it exactly is, is intrinsic to a person. — Walter
Possible worlds are simply a way of saying if God what could be/have been the case.
According to most Christians, including Thomists, it could have been that God created a completely different world or even no world at all.
My question is if God's essence is his existence , how can He end up xiiling to create different things? — Walter
But that's the problem. God's intention to actualize A does conflict with God's intention to actualize B.
So, ther can be no intention to actualiz A or B in God's mind. How can God have control over whther A occurs in that case? If God's will is is unified and consistent, then it cannot lead to A in one possible world and B in another, at least not if God is supposed to be in control. — Walter
Points and continuums, space and time . . . . . remain beyond complete understanding, although we manipulate them confidently. When I asked an old friend, an analytic number theorist, what he thinks of real analysis, he says, "It's very, very complicated and it starts with a metaphysical notion, points." — jgill
The result comes out of consideration of speed 'relative to our position.' It is not an actual speed. — universeness
And perhaps a newer, emerging math replaces that which has served so well up to this point. — jgill
Remember that the proposal that the edge of the universe may be expanding at a superluminal speed, is a 'relative' measure. The result comes out of consideration of speed 'relative to our position.' It is not an actual speed. If you were at the edge of the universe, you would not be travelling at a superluminal speed. — universeness
The more we learn about it, the more complicated the expansion of the universe seems to be. In the region near our galaxy, the expansion seems less rapid than for the universe as a whole. In fact, it appears that the combined gravitational pull of a very large cluster of galaxies in the constellation Virgo is actually retarding the local rate of expansion to half the rate for the universe as a whole. We're finding evidence of how gravity attracts even over distances of hundreds of millions of light years. Although there must be many very distant galaxies and quasars that we are not yet able to detect, astronomers have observed radiation from an even more remote source, literally at the edge of the observable universe. — https://history.nasa.gov/EP-177/ch4-9.html
Does "simply move apart" imply motion in the common sense? Can something move without motion? — jgill
If we were to ask, from our perspective, what this means for the speed of this distant galaxy that we're only now observing, we'd conclude that this galaxy is receding from us well in excess of the speed of light. But in reality, not only is that galaxy not moving through the Universe at a relativistically impossible speed, but it's hardly moving at all! Instead of speeds exceeding 299,792 km/s (the speed of light in a vacuum), these galaxies are only moving through space at ~2% the speed of light or less.
But space itself is expanding, and that accounts for the overwhelming majority of the redshift we see. And space doesn't expand at a speed; it expands at a speed-per-unit-distance: a very different kind of rate. When you see numbers like 67 km/s/Mpc or 73 km/s/Mpc (the two most common values that cosmologists measure), these are speeds (km/s) per unit distance (Mpc, or about 3.3 million light-years).
The restriction that "nothing can move faster than light" only applies to the motion of objects through space. The rate at which space itself expands — this speed-per-unit-distance — has no physical bounds on its upper limit. — https://www.forbes.com/sites/startswithabang/2020/06/12/ask-ethan-how-does-the-fabric-of-spacetime-expand-faster-than-the-speed-of-light/?sh=1753c4723b5f
The very real problem, is your irrational worldview of the past, current and future efficacy of all scientific endeavours. — universeness
Again we see your lies. We all know we can assign point A and B and we can traverse the distance between them. You accept that demonstration but you will not accept that demonstration as proof that your statement of: — universeness
You can define "point A" and "point B" in any way that you please. But if you stray from the mathematical definition of "point", then you argue by equivocation, because problems of mathematics is what we are discussing here. Therefore your argument is bogus, and irrelevant, as being nothing but an equivocation fallacy. — Metaphysician Undercover
A point is a 0-dimensional mathematical object which can be specified in n-dimensional space using an n-tuple (x_1, x_2, ..., x_n) consisting of n coordinates. In dimensions greater than or equal to two, points are sometimes considered synonymous with vectors and so points in n-dimensional space are sometimes called n-vectors. Although the notion of a point is intuitively rather clear, the mathematical machinery used to deal with points and point-like objects can be surprisingly slippery. This difficulty was encountered by none other than Euclid himself who, in his Elements, gave the vague definition of a point as "that which has no part."
The basic geometric structures of higher dimensional geometry--the line, plane, space, and hyperspace--are all built up of infinite numbers of points arranged in particular ways.
These facts lead to the mathematical pun, "without geometry, life is pointless."
The decimal point in a decimal expansion is voiced as "point" in the United States, e.g., 3.1415 is voiced "three point one four one five," whereas a comma is used for this purpose in continental Europe. — https://mathworld.wolfram.com/Point.html
You have already agreed that the point you made about 'uncertainty' in science is trivial, and it also may be simply down to the currently available tech, methodology or understanding needed to completely solve most or all levels/manifestations of uncertainty. — universeness
Despite this, you continue to way overblow the significance of such points and you also hold up esoteric style shinies to distract from your unimportant points, such as: — universeness
I have bolded some of the utter piffle from the quote above, as an example of the type of nonsense shiny you hold up! — universeness
My understanding is that two objects move further apart with time; space itself (whatever it is) doesn't change. — jgill
My opinion remains that he shot you down in flames, and you have been trying to pick up little trivial pieces since. — universeness
What is laughable, is that you really do think you are making a really important statement here!
Any uncertainty principle shows a current problem that we have no current solution to Sherlock. It does not mean that science is absolutely incapable of ever finding a work around or a direct solution to such issues. You make mundane points that most on TPF are already very familiar with and you think you are being deep and profound. — universeness
We have progressed from Zeno to Heisenberg. Do you really think our scientific findings will end there? — universeness
What significant academic quals do you hold MU and what field of expertise do you have that others may benefit from? — universeness
This is where the uncertainty principle steps in. Instead of pursuing infinite accuracy in either frequency or time, we can harness the uncertainty principle, allowing us to gain insights into both quantities at a reduced resolution, all the while maintaining balance. — https://towardsdatascience.com/how-does-the-uncertainty-principle-limit-time-series-analysis-c94c442ba953
He just points at ever reducing gaps and exclaims 'look! everyone! look, look look! gap there, gap there, gap there! — universeness
He did get on Twitter and told them to be peaceful and go home, to respect law enforcement, etc — NOS4A2
...it is just the vision of some racist cunt... — Ø implies everything
Again, all you do is point out what science does not know for sure yet, and you imagine that in some way, that means you know what you are talking about. — universeness
Yet another example of the absolute BS you offer. There is no infinite rate of acceleration. When I move from A to B I do not need to infinity accelerate to get there, or else I would never get from my seat to the toilet! As I am incapable of infinite acceleration, so stop positing absolute piffle!!!!! — universeness
I create purpose and I create meaning so I can assign point A and point B. — universeness
Hey, you did some research! — Jaded Scholar
But I will read up on it more thoroughly and get back to you. — Jaded Scholar
However, I am going to stick to my other stated principles and am now going to do my best to ignore you until after I have time to fully reply to universeness and jgill, because they seem, like me, to be primarily motivated by the desire to learn, instead of your objective of, like, pwning noobs or whatever it is. — Jaded Scholar
The first multiverse theories (namely, Everett's) were founded wholly on the goal of finding some interpretation of quantum uncertainty that did not result in genuine randomness being a feature of nature. I. E. Reinterpreting quantum randomness not as randomness in the outcomes of physical laws, but in seemingly-randomised measurements actually giving every possible result by bifurcating our universe at every such measurement point, and the true randomness being just in which one of those universes we "observers" happen to be in. — Jaded Scholar
Especially when we all know that you can get from point A to point B, despite Zeno's rather boring thought experiment. All Zeno did, was the very trivial finding that the concept of infinity is problematic. No shit Sherlock! — universeness
To more specifically address Zeno's paradox/es: The mathematical implications of these questions were not solved by adding some extra features, but in the exact opposite of what you claim. These problem(s) emerged from Zeno's problematic and ideologically-motivated additions to the axioms of conventional mathematics (around his opinion that we should actively avoid every treating "the many" and "the one" in similar ways, mathematically - he was specifically trying to attack the mathematical operations of multiplication and division for ideological reasons, not academic reasons). And these problems were solved by removing his deliberately problematic axioms. And this was highlighted not just in modernity, but by Zeno's contemporaries too! — Jaded Scholar
See above. It's one of the earliest integral transforms to be derived, but it's completely ridiculous to claim that the attributes of the general case are derived from the attributes of one narrow specific case, and not vice versa. — Jaded Scholar
https://en.wikipedia.org/wiki/Fourier_transformIndeed, the uncertainty principle has its roots in how we apply calculus to write the basic equations of mechanics. — https://en.wikipedia.org/wiki/Uncertainty_principle
https://math.unm.edu/~crisp/courses/wavelets/fall16/ChrisJasonUncertaintyPple.pdfFunctions that are localized in the time domain have Fourier transforms that are spread out across the frequency domain and vice versa, a phenomenon known as the uncertainty principle. — https://en.wikipedia.org/wiki/Fourier_transform
https://www.math.uga.edu/sites/default/files/uncertainty.pdf1 Introduction
Fourier Analysis is among the largest areas of applied mathematics and can
be found in all areas of engineering and physics. Atomic physicists use the
Fourier transform to characterize and understand molecular structures, optical
physicist use Fourier series to decompose and resconstruct ultrafast photonic
pulses and particle physicsts use the ideas of orthogonal basis and Fourier coefficients to describe the wave functions of particle states.
One of the most well known concepts in modern physics is the Heisenberg
Uncertainty Principle which tells us that we cannot know both the position and
momentum of a subatomic particle within a certain accuracy. To understand
this principle in some detail, we look to the subject of Fourier analysis. We
begin by motivating the idea that such a mathematical relationship exists and
then proceed to derive and describe the uncertainty principle in the formal setting of Fourier analysis. After this, we discuss Fourier analysis as it is used and
understoof by physicists in quantum mechanics for several simple examples. Finally, we will attempt to see the relationship between our formal discussion of
the principle and some of the physical laws that govern the natural world. — https://math.unm.edu/~crisp/courses/wavelets/fall16/ChrisJasonUncertaintyPple.pdf
https://www.linkedin.com/pulse/uncertainty-principle-derivation-from-fourier-emanuele-pesaresIn Harmonic Analysis, the uncertainty principle can be succinctly stated as follows: a nonzero function and its Fourier transform cannot both be sharply localised. That is, if a function is restricted to a narrow region of the physical space, then its Fourier transform must spread (be essentially constant) over a broad region of the frequency space. It then expresses a limitation on the extent to which a signal can be both time-limited and band-limited. — https://www.math.uga.edu/sites/default/files/uncertainty.pdf
https://towardsdatascience.com/how-does-the-uncertainty-principle-limit-time-series-analysis-c94c442ba953When applying this reasoning to filters, it is not possible to achieve high temporal resolution and frequency resolution at the same time; a common exemplification is the resolution issues of the short-time Fourier transform. Namely, if one uses a wide window, it is possible to achieve good frequency resolution at the cost of temporal resolution, while a narrow window has the opposite characteristics. — https://www.linkedin.com/pulse/uncertainty-principle-derivation-from-fourier-emanuele-pesaresi
https://mathworld.wolfram.com/FourierSeries.html]However, the Fourier Transform (FT) comes with a trade-off: it strips away temporal information as the uncertainty principle shows, rendering us unaware of when these frequencies manifest in the series. This is where the uncertainty principle steps in. Instead of pursuing infinite accuracy in either frequency or time, we can harness the uncertainty principle, allowing us to gain insights into both quantities at a reduced resolution, all the while maintaining balance. — https://towardsdatascience.com/how-does-the-uncertainty-principle-limit-time-series-analysis-c94c442ba953
A Fourier series is an expansion of a periodic function f(x) in terms of an infinite sum of sines and cosines. Fourier series make use of the orthogonality relationships of the sine and cosine functions. The computation and study of Fourier series is known as harmonic analysis and is extremely useful as a way to break up an arbitrary periodic function into a set of simple terms that can be plugged in, solved individually, and then recombined to obtain the solution to the original problem or an approximation to it to whatever accuracy is desired or practical. Examples of successive approximations to common functions using Fourier series are illustrated above.
In particular, since the superposition principle holds for solutions of a linear homogeneous ordinary differential equation, if such an equation can be solved in the case of a single sinusoid, the solution for an arbitrary function is immediately available by expressing the original function as a Fourier series and then plugging in the solution for each sinusoidal component. In some special cases where the Fourier series can be summed in closed form, this technique can even yield analytic solutions.
Any set of functions that form a complete orthogonal system have a corresponding generalized Fourier series analogous to the Fourier series. For example, using orthogonality of the roots of a Bessel function of the first kind gives a so-called Fourier-Bessel series. — https://mathworld.wolfram.com/FourierSeries.html
Fair enough, mate. It was an interesting exchange and I appreciate your contributions to my thread. I will be honest: I ran out of ideas and arguments to keep posting and replying to you. So, instead of wasting your time, I think I must stop because I am ending up in a meaningless circle, the victim of my own comments. — javi2541997
My only, I promise the last, conclusion (regarding our exchange on the perception of suicide by the receivers) is that if I kill myself, people in the 'real' (outside the internet) world would not care. Maybe you will care cohabiting with me on the world and reality of The Philosophy Forum. — javi2541997
Is it a contradiction or a paradox? I don't know which one to pick up. This is why I used the example of the falling tree. The main point is as it follows: If I were absent for many months here, I think that some of you would wonder and ask what is going on with Javi. If, in this case, you noticed my death, you would care, even if you haven't even seen my face yet. But, paradoxically, it will not have the same impact on the people who see me every day.
My suicide would be like the tree which fell down unnoticed in the physical (non-virtual) world.
I hope I explained myself a bit better this time... — javi2541997
And, as you highlighted, I also want to know with more detail the thoughts of Fosse regarding suicide after reading some of his novels. — javi2541997
