In essence, yes, I think so, there's no reason (that I can recall) that you can't keep filling the levels until you reach the continuum, electron-electron interactions are one of the things that complicate the maths for the two electron - one proton system making it unsolvable (so in essence, no).
Don't very good understood, yes or no? You wanna to say, that one proton can't have two electrons? Or you want to say, that one proton can have two electrons in principle, but schrodinger equation can't solve it?
Don't very good understood, yes or no? You wanna to say, that one proton can't have two electrons? Or you want to say, that one proton can have two electrons in principle, but schrodinger equation can't solve it?
Perhaps if you don't understand the theory, or haven't studied chemistry, but otherwise, no, not really.
Think of it this way. Why should they be different? What would make them different?
Aside from the number of nodal surfaces, why should 1s, 2s, 3s, 4s, or 5s be different in shape?
Why should Mn(IV) have a different orbital shape to V(0)?
They both have the same number of electrons in them, the only difference is in the number of protons they have.
Diferent maybe becouse, coloumb force of negative electrons charge becoming too strong and ruling everything and protons charge is ignored almost. But maybe no,becosue electrons becoming farther from each over than from proton each... but outside electrons maybe must be very far or separated, i don't know, id don't know... Maybe you are right...
About spins I was mean, that for example there is 4 electrons, two of them closer to nuclear and two farther from nuclear adn then they spins somehow still afecting each over and then spins tend to align (or antialing) due to they quantizations, thus there must be some proababilistic mumbo jumbo and if you measure (if it is possible), then spins colpase to quantizet state from superposition...
So schrodinger equation is solved for hydrogen and this gives solutions for all over atoms and only need to coregate electrons distance?
But how about molecules? Does schrodinger equaiton for molecules is segmentation of many schrodinger equations for each atom or "new" scrodinger equation for molecule? I think probably segmentation of many atoms becouse schrodinger equation is somthing like quantized, no?
QUOTE
The schroedinger equation (ironically) is no more complicated then modelling a guitar string (in fact, a guitar string is a useful analog to a particle in a 1d box).
You probably mean, that in schrodinger equation mass, scharge, spin and over properties of particles is not precisly so schrodinger equation also not precisly? But I think, that there is work with symbols like m, e, Z and not with real values so scrodinger equation itself should be very precisly, but as I say, there saying some 'physicists' that scrodinger equation solution is unprecisly or somthing, maybe he mean unprecision of particles properties like charge value? Does scrodinger equation was solved with exact solution and only need to put all know values instead letters? Vibration of strings can't be solved of course do to errors and noise and so on...
AlphaNumeric
25th June 2008 - 01:48 PM
QUOTE (DavidD+Jun 25 2008, 01:41 PM)
Don't very good understood, yes or no?
The problem is that
you don't understand. In this thread you have repeated questions you have had answered before. You claimed not to know the solutions to the electron orbitals, Yet I had
provided you with a lengthy explaination on precisely that previously. Heck, you'd even asked it
twice. Both Trippy and I had
previously corrected you about your comments on the Schrodinger equation and chemistry.
So either
you don't understand or you're a troll.
QUOTE (DavidD+Jun 25 2008, 01:41 PM)
Vibration of strings can't be solved of course do to errors and noise and so on...
http://hyperphysics.phy-astr.gsu.edu/hbase/waves/waveq.html#c2
Time and again you show you either do no research or you're too stupid to understand what a simple Google provides you.
DavidD
25th June 2008 - 06:35 PM
So quantum number m represents orbits. Thus atom with say 12 protons have 6 orbits somthing like 2*s+2*d=12 electrons. Thus in orbit s there is 2 electrons and in orbits coctale d there is 10 electrons, this orbit d can be divided into 5 shells or somthing, which are like orbits. Maybe even half of those orbits have the same distance efrom nuclear...
This strings maybe have infinity many harmonics, so schrodinger equation perhaps also. I sow in math-phys book about strings and there is very long bullshit integration and derivation for some stupid strings vibrations and somthing, very hard solution, who care it, anyway? So probably if you will take string of guetar then physicaly mathematicaly even with ideal theoretical conditions-parameters imposible to solve such vibrating string of guetar equation, becouse of infinity harmonics, was I think tripy the same was mean for schrodinger equation and thus scrodinger equation is not precesly very if it is precisly at all! Becouse how I know from integration, it is imposible to predict what value bigger or smaller - less imprortant or more important will show up, thus schrodinger equation can be very very roughly and maybe able to explain only very primitive interactinos of molecules and for macromolecules maybe is totaly wrong!
Trippy
25th June 2008 - 06:46 PM
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
Don't very good understood, yes or no? You wanna to say, that one proton can't have two electrons? Or you want to say, that one proton can have two electrons in principle, but schrodinger equation can't solve it?
Oh for the love of... I've already clearly and plainly answered that question. Go back and read through my posts again.
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
Diferent maybe becouse, coloumb force of negative electrons charge becoming too strong and ruling everything and protons charge is ignored almost. But maybe no,becosue electrons becoming farther from each over than from proton each...
No.
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
but outside electrons maybe must be very far or separated, i don't know, id don't know...
Yes.
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
Maybe you are right...
Yes.
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
About spins I was mean, that for example there is 4 electrons, two of them closer to nuclear and two farther from nuclear adn then they spins somehow still afecting each over and then spins tend to align (or antialing) due to they quantizations, thus there must be some proababilistic mumbo jumbo and if you measure (if it is possible), then spins colpase to quantizet state from superposition...
No. There is no probabilistic mumbojumbo. The situation you're talking about is analagous to Beryllium (4 protons, 4 electrons) All of Berylium's electrons occupy s orbitals (1s2 2s2). The only effect that core electrons have on valence electrons that anyone has been able to discern is to reduce the effective nuclear charge that the valence electrons see.
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
So schrodinger equation is solved for hydrogen and this gives solutions for all over atoms and only need to coregate electrons distance?
I've already answered this.
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
But how about molecules? Does schrodinger equaiton for molecules is segmentation of many schrodinger equations for each atom or "new" scrodinger equation for molecule?
This is, in essence what Molecular Orbitals are, and what hybridization means. Because the orbitals represent electron standing waves they can add to each other, constructively or destructively, to form molecular orbitals, some of which can result in electrons being delocalized over the entire length and breadth of a molecule.
In essence, yes, this means that the schroedinger equation for a molecule represents the sum of the equations of it's components.
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
I think probably segmentation of many atoms becouse schrodinger equation is somthing like quantized, no?
This doesn't make a whole lot of sense.
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
You probably mean, that in schrodinger equation mass, scharge, spin and over properties of particles is not precisly so schrodinger equation also not precisly?
Spin, and charge are precise, discrete values. This is what quantization means.
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
But I think, that there is work with symbols like m, e, Z and not with real values so scrodinger equation itself should be very precisly, but as I say, there saying some 'physicists' that scrodinger equation solution is unprecisly or somthing, maybe he mean unprecision of particles properties like charge value?
Wrong. The symbols represent measured or observed values.
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
Does scrodinger equation was solved with exact solution and only need to put all know values instead letters?
That's generally what solving means.
QUOTE (DavidD+Jun 26 2008, 12:41 AM)
Vibration of strings can't be solved of course do to errors and noise and so on...
Wrong. String vibration can be solved classically, it simply represents a useful analogy.
DavidD
26th June 2008 - 06:17 AM
QUOTE
Spin, and charge are precise, discrete values. This is what quantization means.
I was mean, that you don't know precisly mass due to imposibility of measure it with infinity precision and even if you can measure it, you still can't to put it into computer, becouse you can't put inside computer infinity long number...
QUOTE (->
| QUOTE |
| Spin, and charge are precise, discrete values. This is what quantization means. |
I was mean, that you don't know precisly mass due to imposibility of measure it with infinity precision and even if you can measure it, you still can't to put it into computer, becouse you can't put inside computer infinity long number...
Wrong. String vibration can be solved classically, it simply represents a useful analogy.
But strings have infinity many harmonics, which can resonate after long time and create big numbers AND ERRORS. I think the same is with schrodinger equation. Scrodinger equation solution is infinity long, but some less important "number" is removed. No?
Trippy
26th June 2008 - 06:51 AM
QUOTE (DavidD+Jun 26 2008, 06:17 PM)
I was mean, that you don't know precisly mass due to imposibility of measure it with infinity precision and even if you can measure it, you still can't to put it into computer, becouse you can't put inside computer infinity long number...
And for the umpteenth time I'm telling you that spin does not work that way. It's an exact number.
And mass can be known exactly. The easiest example is the photon - it has exactly zero mass.
Zero is the most precise thing we can measure.
And as far as the HUP goes, there are ways of manipulating it so that you can measure the variable you want (if it's one of the linked pairs).
QUOTE (DavidD+Jun 26 2008, 06:17 PM)
But strings have infinity many harmonics, which can resonate after long time and create big numbers AND ERRORS.
Irrelevant - the errors can be taken into account as harmonics.
It's called Fourier Analysis.
QUOTE (DavidD+Jun 26 2008, 06:17 PM)
I think the same is with schrodinger equation. Scrodinger equation solution is infinity long, but some less important "number" is removed. No?
Well, as I have said more then once, you're thinking is wrong.
DavidD
26th June 2008 - 07:30 AM
QUOTE
And mass can be known exactly. The easiest example is the photon - it has exactly zero mass.
But photon moment (presure into matter) can't be known exactly... And electrons and protons and have mass and charge, which can't be know exaclty. Spin magnitude or magnetic moment can't be know exaclty 0.5*e*hbar/m - there so much unprecise values... On the over hand maybe for schrodinger equation there don't need to know precise value and all molecules interaction can't be understooded from any values, which don't have big impact in though also you saying, that schrodinger equation is segemented of each atoms for molecules...
QUOTE (->
| QUOTE |
| And mass can be known exactly. The easiest example is the photon - it has exactly zero mass. |
But photon moment (presure into matter) can't be known exactly... And electrons and protons and have mass and charge, which can't be know exaclty. Spin magnitude or magnetic moment can't be know exaclty 0.5*e*hbar/m - there so much unprecise values... On the over hand maybe for schrodinger equation there don't need to know precise value and all molecules interaction can't be understooded from any values, which don't have big impact in though also you saying, that schrodinger equation is segemented of each atoms for molecules...
And as far as the HUP goes, there are ways of manipulating it so that you can measure the variable you want (if it's one of the linked pairs).
What is HUP?
QUOTE
Well, as I have said more then once, you're thinking is wrong.
So schrodinger equation don't have infinity number of "harmonics"? And have exacly solution, yes?
But you must agree, that if your will to move theoretical guitar string, then it vibration will still spread over all metal with many small waves-resonanses and so on and it vibration will be infinity complex, no?
Thus I thinking with schridnger equation maybe is the same, you searching solution and it have infinity "tail", no?
AlphaNumeric
26th June 2008 - 07:48 AM
QUOTE (DavidD+Jun 26 2008, 08:30 AM)
ut you must agree, that if your will to move theoretical guitar string, then it vibration will still spread over all metal with many small waves-resonanses and so on and it vibration will be infinity complex, no?
No. Anyone who can do partial differential equations can solve it. It's covered in
introductory courses on PDE methods.
Trippy
26th June 2008 - 10:03 AM
My god.
Did somebody put your brain in a paper bag, set it on fire, and leave it on someone's doorstep?
QUOTE (DavidD+Jun 26 2008, 07:30 PM)
But photon moment (presure into matter) can't be known exactly...
Irrelevant (and if memory serves, wrong).
QUOTE (DavidD+Jun 26 2008, 07:30 PM)
And electrons and protons and have mass and charge, which can't be know exaclty.
Irrelevant, and wrong.
QUOTE (DavidD+Jun 26 2008, 07:30 PM)
Spin magnitude or magnetic moment can't be know exaclty 0.5*e*hbar/m - there so much unprecise values...
Wrong.
QUOTE (DavidD+Jun 26 2008, 07:30 PM)
On the over hand maybe for schrodinger equation there don't need to know precise value and all molecules interaction can't be understooded from any values, which don't have big impact in though also you saying, that schrodinger equation is segemented of each atoms for molecules...
Largely meaningless.
QUOTE (DavidD+Jun 26 2008, 07:30 PM)
What is HUP?
Heisenberg Uncertainty Principle.
QUOTE (DavidD+Jun 26 2008, 07:30 PM)
So schrodinger equation don't have infinity number of "harmonics"? And have exacly solution, yes?
For a one proton, one electron system there exist infinitely many energy levels, eventually these energy levels so closely spaced, they look like a continuum.
QUOTE (DavidD+Jun 26 2008, 07:30 PM)
But you must agree, that if your will to move theoretical guitar string, then it vibration will still spread over all metal with many small waves-resonanses and so on and it vibration will be infinity complex, no?
No, I do not have to agree to any such thing.
QUOTE (DavidD+Jun 26 2008, 07:30 PM)
Thus I thinking with schridnger equation maybe is the same, you searching solution and it have infinity "tail", no?
No.
DavidD
26th June 2008 - 10:27 AM
QUOTE
For a one proton, one electron system there exist infinitely many energy levels, eventually these energy levels so closely spaced, they look like a continuum.
I aws asking not this, but ok... you say it already... Also I wonder why whose levels are closly spaced if coloumb force decrese quadraticaly in distance and if those levels going like (highest) level->c, where c is constant of distance, then how this electrons can not be not pushed by over electrons (it's mean that can't exist infinity energy levels then)?
Does for example a little bit diferent properties of mass and charge don't changing schrodinger equation shape of orbits and thus interaction between atoms (chemical properties)?
As I understood schrodinger equation is solved like for strings vibration in ideal guitar like somthing with infinity long divergations and so on like tailor series or somthing, but they of course solution is exaclty, but to calculate untill infinity precision there no chance. So anyway is it possible that due to unprecise values of mass charge and schrodinger equation limitation of calculate all tails, there imposible to precisly simulate molecules?
As far as I know for example elctron mass is known only some ten decimal didgits precision. OR more? How much?
But maybe I am wrong and all chemical reactions more based on segmented known structure of each atom and it is not the limitation for understanding DNA or maybe even proteins or cells... Like protein folding... What you would say about it, who is responsible for it? I think that thermal motions of molecules
DavidD
26th June 2008 - 10:34 AM
Particularly I don't know how to calculate magnetisation "power" of spin and how to compare magnetisation with orbital electron amgnetisation. Nor gyromagnetic nor magnetic moments comparition don't seems right, becouse in both used mass and it is irelevant with magnetism. In magnetism description of orbital moment must at least be used charge or particle and speed... And not mass for sure! So how I can compare magnetic power (like to compare charges) of orbital electron magnetisation creating (of say hydrogen atom in ground energy level) and spin magnetisation? Which is bigger?
Trippy
26th June 2008 - 11:11 AM
QUOTE (DavidD+Jun 26 2008, 10:27 PM)
I aws asking not this, but ok... you say it already... Also I wonder why whose levels are closly spaced if coloumb force decrese quadraticaly in distance and if those levels going like (highest) level->c, where c is constant of distance, then how this electrons can not be not pushed by over electrons (it's mean that can't exist infinity energy levels then)?
I don't remember the answer to this off the top of my head. And I didn't say distance, I said energy. I'm too tired to be bothered looking it up and trying to explain it to you.
QUOTE (DavidD+Jun 26 2008, 10:27 PM)
Does for example a little bit diferent properties of mass and charge don't changing schrodinger equation shape of orbits and thus interaction between atoms (chemical properties)?
No. To some extent, this is some of the experimental verifications that I have mentioned several times now. The fact that within a group, chemical and physical properties are predictable, and repeat.
QUOTE (DavidD+Jun 26 2008, 10:27 PM)
As I understood schrodinger equation is solved like for strings vibration in ideal guitar like somthing with infinity long divergations and so on like tailor series or somthing, but they of course solution is exaclty, but to calculate untill infinity precision there no chance.
Then you understood wrong, for the most part.
Did you know that the schrodinger equation (or one form of it) can be applied to macroscopic ocean waves, and provides us with our best explanation for rogue waves?
QUOTE (DavidD+Jun 26 2008, 10:27 PM)
So anyway is it possible that due to unprecise values of mass charge and schrodinger equation limitation of calculate all tails, there imposible to precisly simulate molecules?
mass and charge are known more precisely then you seem to think they are.
QUOTE (DavidD+Jun 26 2008, 10:27 PM)
As far as I know for example elctron mass is known only some ten decimal didgits precision. OR more? How much?
According to NIST:
Elementary charge: 1.602 176 487 x 10^-19 +/- 0.000 000 040
Electron Mass: 9.109 382 15 x 10^-31 kg +/- 0.000 000 45 x 10^-31 kg
As you can see - pretty precise.
QUOTE (DavidD+Jun 26 2008, 10:27 PM)
But maybe I am wrong and all chemical reactions more based on segmented known structure of each atom and it is not the limitation for understanding DNA or maybe even proteins or cells... Like protein folding... What you would say about it, who is responsible for it? I think that thermal motions of molecules
I've already explained this to you, it comes down to the physical properties of the amino acids that make the proteins/enzymes. Amino acid shape, electric dipole, electrophilicity, acidity, physical size (to name a few factors).
As an example - Hyrophilic Amino acids - those capable of forming hydrogen bonds (for example, Aspartic acid) tend to fold to the outside of the enzyme, where as those that are hydrophobic (for example Alanine) tend to fold towards the inside. However, generally, I would expect larger hydrophobic amino acids to fold to the outside (for example isoleucine).
DavidD
26th June 2008 - 11:26 AM
QUOTE
According to NIST:
Elementary charge: 1.602 176 487 x 10^-19 +/- 0.000 000 040
Electron Mass: 9.109 382 15 x 10^-31 kg +/- 0.000 000 45 x 10^-31 kg
As you can see - pretty precise.
Not enough. If there is bilions atoms then precision becoming +/- ~1. And also precision decreasing after longer simulation of molecules. Thus imposible to simulate precisly molecules... But as you saying schrodinger equation is "quantized"-segmented in molecules and describing only one atom, then maybe there no problem here in this aspect if this aspect is important at all... maybe chmical reactions are very chaotic and noisy and some errors don't have big impact...
Why proteing folding vreating so much problems in simulation and don't craeting problems in nature? Is this becouse very hard to know proteins structure (chemical)? Or maybe just to hard for computer to solve all this schrodinger connections or chemical connections (becouse of too much atoms consist molecule-protein)? Or this all charges suming up and becmoing very complex interactinos between atoms and molecule itself?
Trippy
26th June 2008 - 06:53 PM
QUOTE (DavidD+Jun 26 2008, 11:26 PM)
Not enough.
Too bad, I don't care.
QUOTE (DavidD+Jun 26 2008, 11:26 PM)
If there is bilions atoms then precision becoming +/- ~1.
Wrong.
QUOTE (DavidD+Jun 26 2008, 11:26 PM)
And also precision decreasing after longer simulation of molecules.
Wrong. I must have told you dozens of times. Everything i've said has experimental backing.
QUOTE (DavidD+Jun 26 2008, 11:26 PM)
Thus imposible to simulate precisly molecules...
Wrong.
QUOTE (DavidD+Jun 26 2008, 11:26 PM)
But as you saying schrodinger equation is "quantized"-segmented in molecules and describing only one atom, then maybe there no problem here in this aspect if this aspect is important at all... maybe chmical reactions are very chaotic and noisy and some errors don't have big impact...
Meaningless, and wrong.
QUOTE (DavidD+Jun 26 2008, 11:26 PM)
Why proteing folding vreating so much problems in simulation and don't craeting problems in nature? Is this becouse very hard to know proteins structure (chemical)? Or maybe just to hard for computer to solve all this schrodinger connections or chemical connections (becouse of too much atoms consist molecule-protein)? Or this all charges suming up and becmoing very complex interactinos between atoms and molecule itself?
I've already answered this question for you dozens of times.
Because it depends on the physical properties of each individual amino acid, and how the interact with one another. Not all of which the schroedinger equation can tell us directly.
DavidD
27th June 2008 - 08:24 AM
So schrodinger equation somehow related with waves in strings? Like i*h*df/dx=-(0.5*h/m)*d^2f/dx^2 so there is somthing like two derivatives one single and over double. It's somthing like aceleration and "vibration"? Or like speed firs and over like acceleration, interesting why it is improtant for waves?
Trippy
27th June 2008 - 09:01 AM
QUOTE (DavidD+Jun 27 2008, 08:24 PM)
So schrodinger equation somehow related with waves in strings? Like i*h*df/dx=-(0.5*h/m)*d^2f/dx^2 so there is somthing like two derivatives one single and over double. It's somthing like aceleration and "vibration"? Or like speed firs and over like acceleration, interesting why it is improtant for waves?
Care to try rephrasing that in a meaningful way that's written in English?
DavidD
27th June 2008 - 10:05 AM
Is scrodinger equation coming from all properties of spins. here I see that phase is spins property. And I would say that all this schrodinger equation highly depending on electrons spins (interesting why nuclears spins don't playing any role in sch.eq.?). For example, how would look shells orbits and quantum numbers and schrodinger equation if there wouldn't be electrons spins? Ha? probably everything would be realated with electrons charges and orbital magnetic moments of electrons. And how would look schrodinger equation if there wouldn't be orbital magnetic moments of electrons? If only electron charges and some quantizations of energy levels, huh? There would be interesting. But then probably will be bad for more than two electrons in one orbit.,..
Trippy
30th June 2008 - 09:07 AM
QUOTE (DavidD+Jun 27 2008, 10:05 PM)
Is scrodinger equation coming from all properties of spins.
No, it's controlled by other properties of the electron, for example, its angular momentum.
QUOTE (DavidD+Jun 27 2008, 10:05 PM)
here I see that phase is spins property.
No, phase is a wave property, the schrodinger equation represents a standing wave in 3d, Ψ² - the square of the wave function, represents the probability of finding the electron at that location when you look for a particle (even though the electron really exists everywhere within the orbital.
QUOTE (DavidD+Jun 27 2008, 10:05 PM)
And I would say that all this schrodinger equation highly depending on electrons spins (interesting why nuclears spins don't playing any role in sch.eq.?).
No, and no. Do you see a term for nuclear spin in the equation? No. Does nuclear spin influence chemistry? No, otherwise isotopes would be easier to seperate (different isotopes have different spins).
QUOTE (DavidD+Jun 27 2008, 10:05 PM)
For example, how would look shells orbits and quantum numbers and schrodinger equation if there wouldn't be electrons spins? Ha?
It wouldn't look all that different, at most, taking away the electrons spin might influence the electrons magnetic moment, which might influence the end results, but as I have already stated, spin is (largely) irrelevant.
QUOTE (DavidD+Jun 27 2008, 10:05 PM)
probably everything would be realated with electrons charges and orbital magnetic moments of electrons.
You've already had it explained to you that this is the case.
QUOTE (DavidD+Jun 27 2008, 10:05 PM)
And how would look schrodinger equation if there wouldn't be orbital magnetic moments of electrons?
That would be impossible because then the electron would be stationary.
QUOTE (DavidD+Jun 27 2008, 10:05 PM)
If only electron charges and some quantizations of energy levels, huh? There would be interesting. But then probably will be bad for more than two electrons in one orbit.,..
Unless you're dealing with Lewis diagrams there are NEVER more then two electrons in one orbit.
Farsight
30th June 2008 - 09:18 AM
Whoa, what's this? The electron isn't some little billiard ball particle in an orbit. It's an extended entity, a soliton that exhibits wave/particle duality, the wave function is the particle and all that. Schrodinger was right. The "winning" Copenhagen interpretation was wrong. And it grieves me greatly to think that Schrodinger is remembered for the now-miraculous cat that he intended to show how ridiculous the Copenhagen interpretation was.
Trippy
30th June 2008 - 09:27 AM
QUOTE (Farsight+Jun 30 2008, 09:18 PM)
<Useless drivel snipped>
Go away, nobody asked you.
DavidD
30th June 2008 - 10:46 AM
QUOTE
No, it's controlled by other properties of the electron, for example, its angular momentum.
Is it becouse angular magnetic moment is roughly 10 times bigger than spin magnetic moment? Charge probably also playing not last role?
BTW, I recently understood (read) that nucleons magnetic moment is abou 2000 times smaller than electrons, thus protons/neutrons almost don't have magnetism properties (compare with electron spin magnetism).
QUOTE (->
| QUOTE |
| No, it's controlled by other properties of the electron, for example, its angular momentum. |
Is it becouse angular magnetic moment is roughly 10 times bigger than spin magnetic moment? Charge probably also playing not last role?
BTW, I recently understood (read) that nucleons magnetic moment is abou 2000 times smaller than electrons, thus protons/neutrons almost don't have magnetism properties (compare with electron spin magnetism).
No, phase is a wave property, the schrodinger equation represents a standing wave in 3d, Ψ² - the square of the wave function, represents the probability of finding the electron at that location when you look for a particle (even though the electron really exists everywhere within the orbital.
Why schrodinger equation can't be without such component like quantized (2 levels) phase, from where coming phase in schrodinger equation? From wave-particle duality of electron or from electron spin? If from wave-particle duality then why phase is quantized?
QUOTE
No, and no. Do you see a term for nuclear spin in the equation? No. Does nuclear spin influence chemistry? No, otherwise isotopes would be easier to seperate (different isotopes have different spins).
You taling about isotops nuclear spins, probably. But as I read, nuclear spins magnetic field is ~2000 weaker than electrons spin magnetic field. Thus it would be very strange if nuclear spin in hemistry can play some role (except very small role).
QUOTE (->