and then prove that it is not in my list.> 0.000...> 0.1000...> 0.11000...> 0.111000...> 0.1111000...> 0.11111000...> 0.111111000...> ...> Good luck trying to prove the diagonal number is> not in the list using a countable number of operations. Seems too easy, surely? If I understand you correctly the diagonal> number is: 0.11111.... Every number in your list consists of a ?ite string of 1s followed> by zeros (000...). The diagonal number doesn't. Ergo it isn't in the> list.I can ?d an entry in my list that matches the diagonal number to any?ite number, n, of positions. This is true for all n.My list is in?ite.There is at least one entry in my list that has a 1 in every ?iteposition.How can you prove the diagonal number is not in my list?Russell
convenience, I've changed the layout very slightly... > 0.111000... > 0.1111000... > 0.11111000...> 0.111111000... ^--------Herc === ----------------------------- <^> <(?)><^> -----------------------------> RM's are a subset of TMs.> Any RM can be emulated by a universal Turing machine (UTM).> We are only concerned with the subset of RM's that output an initial,> ?ite and contiguous string of 1's followed by an in?ite string of0's.So you're not proving there is no complete RM list, 1st you are> proving there is no complete restricted RM list?This is the only subset of RM's anyone has concerns about.I think everyone agrees my method works for all the other RMs.> Is this based on modelling the diagonal number from your previous post?Partly.>
and then prove that it is not in my list.> 0.000...> 0.1000...> 0.11000...> 0.111000...> > 0.1111000...> 0.11111000...> 0.111111000...> ...> Good luck trying to prove the diagonal number is> not in the list using a countable number of operations.> Seems too easy, surely? If I understand you correctly the diagonal> number is:> 0.11111....The diagonal method can be converted into the computable number proof.Of course, when I responded to your thread I was arguing against Cantor'sdiagonal proof. I am arguing for it in this thread.Forcing the diagonal number to be computable shows that invokingin?ity is like killing a ?h a machine gun.All we really need to prove it that the diagonal has more 1's thanany of the real numbers in the list above. The diagonal can havea ?ite number of 1's and still not be in the list.I suspect that the diagonal proof can be modi?d to show thatthe rational numbers are uncountable.Let R be the set of all rational numbers, r, such that 0 <= r < 1.If R can be ordered such that the diagonal is a rational number,the diagonal proof shows the rationals to be uncountable.Most people will argue that the diagonal of this set must bean irrational number. I have never seen a proof of this.It is easy to come up with a list of rationals that have a rationaldiagonal. The set I give above is one such set.Russell- 2 many 2 count === > Let R be the set of all rational numbers, r, such that 0 <= r < 1.> If R can be ordered such that the diagonal is a rational number,> the diagonal proof shows the rationals to be uncountable.And if my grandmother had wheels, she'd be a wagon.There are several ways to put that subset of the rational numbers intoone-to-one correspondence with the positive integers.> Most people will argue that the diagonal of this set must be> an irrational number. I have never seen a proof of this.> It is easy to come up with a list of rationals that have a rational> diagonal. The set I give above is one such set.Of course, that set was not all of the rationals in that range.Here is an example of the beginning of a complete list:01/21/32/31/43/41/52/53/54/51/65/61/7...Identifying a rational given its position (or vice-versa) is probablygoing to require generating the list up to that position, but this listis obviously complete. Therefore, the set of rational numbers in [0,1)is countable.You want a proof that any such complete list has an irrational diagonal?Okay:Assume that a complete list with a rational diagonal can be found. Thediagonalization process would generated a rational number not in thelist. This would contradict the assumption. Therefore, either the listis incomplete or the diagonal is not rational. (My list is complete, sothe diagonal must not be rational. Your list had a rational diagonal,but was obviously incomplete.)When applied to an allegedly complete list of the reals in [0,1), thediagonally-generated number does not have the option of being other thanreal, so the only possible conclusion is that the list was incomplete. -- Daniel W. Johnsonpanoptes@iquest.nethttp://members.iquest.net/~panoptes /039 53 36 N / 086 11 55 W === > Let R be the set of all rational numbers, r, such that 0 <= r < 1.> If R can be ordered such that the diagonal is a rational number,> the diagonal proof shows the rationals to be uncountable. And if my grandmother had wheels, she'd be a wagon. There are several ways to put that subset of the rational numbers into> one-to-one correspondence with the positive integers. > Most people will argue that the diagonal of this set must be> an irrational number. I have never seen a proof of this.> It is easy to come up with a list of rationals that have a rational> diagonal. The set I give above is one such set. Of course, that set was not all of the rationals in that range.Of course.> Here is an example of the beginning of a complete list: 0> 1/2> 1/3> 2/3> 1/4> 3/4> 1/5> 2/5> 3/5> 4/5> 1/6> 5/6> 1/7> ... Identifying a rational given its position (or vice-versa) is probably> going to require generating the list up to that position, but this list> is obviously complete. Therefore, the set of rational numbers in [0,1)> is countable.Maybe. That is the point of the proof.> You want a proof that any such complete list has an irrational diagonal?> Okay: Assume that a complete list with a rational diagonal can be found. The> diagonalization process would generated a rational number not in the> list. This would contradict the assumption. Therefore, either the list> is incomplete or the diagonal is not rational. (My list is complete, so> the diagonal must not be rational. Your list had a rational diagonal,> but was obviously incomplete.)How are you proving your list is complete?To prove that the set contains all rational numbersyou will have to show there is no way to orderthe set such that the diagonal is rational.There are a lot of ways to order a set of rationals.Russell- 2 many 2 count === > How are you proving your list is complete?Any rational in [0,1) can be uniquely written as a ratio between twocoprime nonnegative integers m/n. That is an entry among the ?stn(n-1)/2 + 1 entries on the list, although specifying the exact locationinvolves a summation on the Euler phi-function. Anyway, that entry onthe list corresponds to no other rational. (This last proviso ismoderately important, because some people like to present completelists of reals in which a given list entry can have more than one realnumber associated with it.)> To prove that the set contains all rational numbers> you will have to show there is no way to order> the set such that the diagonal is rational.I just proved that the set contains all rational numbers in [0,1).To prove that a given integer is even, is it necessary to show both thatits units digit in base two is 0 and that its units digit in base ten isin {0,2,4,6,8}?> There are a lot of ways to order a set of rationals.If you are talking about the complete set of rationals, the number ofways is the same as the number of real numbers. If you think a relevantordering exists, either point out a ? my proof or describe theordering.Otherwise, you might as well quibble with a proof that the sum of any?ite set if even numbers is not odd by pointing out that there are alot of ways to choose a set of even numbers.-- Daniel W. Johnsonpanoptes@iquest.nethttp://members.iquest.net/~panoptes /039 53 36 N / 086 11 55 W <-sOdnVAq4PkNeXGiRVn-sA@comcast.com><8aGdnb0k8ZEW73CiRVn-jA@comcast.com> <1g6p2lp.1nq0zj71e3df92N%panoptes@iquest.net> <9tCdnYk507_tD3KiRVn-hQ@comcast.com> === > Let R be the set of all rational numbers, r, such that 0 <= r < 1.> If R can be ordered such that the diagonal is a rational number,> the diagonal proof shows the rationals to be uncountable.> And if my grandmother had wheels, she'd be a wagon.> There are several ways to put that subset of the rational numbers into> one-to-one correspondence with the positive integers.> Here is an example of the beginning of a complete list:> 0> 1/2> 1/3> 2/3> 1/4> 3/4> 1/5> ...> Identifying a rational given its position (or vice-versa) is probably> going to require generating the list up to that position, but this list> is obviously complete. Therefore, the set of rational numbers in [0,1)> is countable. Maybe. That is the point of the proof.et cetera, et cetera. It's equivalent to the abbreviation Q.E.D.There's no reason to say Maybe. [I repeat my opinion that you should search Google before continuingto post in this thread. Pedagogy is fun, and I'll be the ?st to admitI have bene?ted greatly from it, but it tends to clutter up the groupsif it's let run amok, IMHO.]> How are you proving your list is complete? Actually, he didn't -- he just said, It's obvious, and moved on.A rigorous proof would use the traditional diagonal method -- NOTCantor's diagonalization, but a different kind of diagonal analogyI think attributed to Godel. It involves laying out the plane of(positive) rational numbers as follows: 1/1--1/2 1/3--1/4 ... .' .' .' 2/1 2/2 2/3 2/4 ... | .' .' 3/1 3/2 3/3 3/4 ... .' 4/1 4/2 4/3 4/4 ... | ... ...You'll need a ?ed-width font to see the ASCII-art line thatI've drawn zigzagging across the diagonals of the grid. This lineobviously passes through every number in the grid. And everypositive rational number is *somewhere* on that grid, as you cansee from the way it's laid out. So the line passes through everypositive rational number, in sequence. Straighten out theline, and remove duplicates, and add zero and the negative rationals,and you're done -- you have a complete list of all the rationals.It begins 0, 1, -1, 1/2, -1/2, 2, -2, 3, -3, 1/3, -1/3, 1/4, -1/4, 2/3, ...and continues to in?ity. Now match up the elements of thatlist, one-to-one, with the positive integers 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, ...Ta-da! [The next bit has been re-ordered for clarity.]> To prove that the set contains all rational numbers> you will have to show there is no way to order> the set such that the diagonal is rational.> There are a lot of ways to order a set of rationals. > You want a proof that any such complete list has an irrational diagonal?> Okay:> Assume that a complete list with a rational diagonal can be found. The> diagonalization process would generated a rational number not in the> list. This would contradict the assumption. Therefore, either the list> is incomplete or the diagonal is not rational.[Q.E.D.]-Arthur === ----------------------------- <^> <(?)> <^> -----------------------------> RM's are a subset of TMs.> Any RM can be emulated by a universal Turing machine (UTM).> We are only concerned with the subset of RM's that output an initial,> ?ite and contiguous string of 1's followed by an in?ite string of> 0's.> So you're not proving there is no complete RM list, 1st you are> proving there is no complete restricted RM list? This is the only subset of RM's anyone has concerns about.> I think everyone agrees my method works for all the other RMs. > Is this based on modelling the diagonal number from your previous post? Partly. > and then prove that it is not in my list.> 0.000...> 0.1000...> 0.11000...> 0.111000...> 0.1111000...> 0.11111000...> 0.111111000...> ...> Good luck trying to prove the diagonal number is> not in the list using a countable number of operations.> Seems too easy, surely? If I understand you correctly the diagonal> number is:> 0.11111.... The diagonal method can be converted into the computable number proof. Of course, when I responded to your thread I was arguing against Cantor's> diagonal proof. I am arguing for it in this thread. Forcing the diagonal number to be computable shows that invoking> in?ity is like killing a ?h a machine gun. All we really need to prove it that the diagonal has more 1's than> any of the real numbers in the list above. The diagonal can have> a ?ite number of 1's and still not be in the list. I suspect that the diagonal proof can be modi?d to show that> the rational numbers are uncountable. Let R be the set of all rational numbers, r, such that 0 <= r < 1.> If R can be ordered such that the diagonal is a rational number,> the diagonal proof shows the rationals to be uncountable. Most people will argue that the diagonal of this set must be> an irrational number. I have never seen a proof of this.This is my argument against the diagonal. I can ?d a rationalon the list of computables that equals any speci? representation (?ite)of the ?irrational' diagonal construct number.If the rational number equals the irrational number then its the same number.I'm pretty sure Cantor falls on its head, I can give an algorithm for all numbersUTM(Z), and increasing portions of the list it makes. That is all anyone canask, and from that noone can make an ?in?ite' diagonal construct at all in practicality.Every number is on the list because the most they can differ by is (0..9)/oo.Herc> It is easy to come up with a list of rationals that have a rational> diagonal. The set I give above is one such set.> Russell> - 2 many 2 count> === > I give a constructive method of creating a RM computable number, x,> that is not in S. How can my method fail to produce x?> Because every x would be of the form (0)11..1, and because of the> de?ition of S, any such RM number is contained in S.The de?ition of S leads to contradiction.> S can not contain every natural number.> You assume that every string that corresponds to a ?ite number is> in S. This is not true if my proof is correct.> That was how S was de?ed : it contains all the strings of the form> (0)11..1 (this can be considered as all unary representations of> natural numbers).I show that there exists an RM computable number of the form (0)11...1> that is not in set S. I can even show how this number can be> constructed by a Turing machine.RM's are a subset of TMs.> Any RM can be emulated by a universal Turing machine (UTM).> We are only concerned with the subset of RM's that output an initial,> ?ite and contiguous string of 1's followed by an in?ite string of> 0's. The UTM can generate the output tape for each of these RM's.> These tapes are then read by a second TM I will call a Comparator> (CTM). The CTM compares each input tape with the CTM's output tape.> If the input tape has a longer initial string of 1's, the CTM rewinds> additional 1.After all of the RM tapes have beed read by the CTM we examine the> output of the CTM. This tape must contain the representation of a> natural number.Every tape read by the CTM represents a natural number.> The CTM output tape contains the representation of the successor> of some member of S. The successor of a natural number is a> natural number.S can not contain a representation of every natural number.> I can only think of two reasons why I would not be able to compute> x. > 1) S contains a member with in?itely many 1's> 2) S contains a member with so many 1's that adding> one more 1 results in an in?itely long string of 1's.> If you can think of another reason why x can not be computed,> please post it.> 3) for any s in S, s-with-a-1-added-to-the-back is also contained in> S Not true. I show how to construct such a number that is not in S.> Can you show that x is impossible to compute?> As there can not exist an element which is both member of a set and> not contained in the set, yes.The de?ition of S leads to contradiction.> S can not exist.OK, consider the set of natural numbers, N.Also consider the operation + 1.Is it not true that for each n in N, n + 1 is also in N ?Now, consider the function f : N -> RM-numbers :f(0) = (0)f(1) = (0)1f(2) = (0)11...and so on, with f(n) corresponding to its own RM-number for each natural number n.Clearly, not all the different RM-numbers are reached by this function f. Consider the set F = f(N) of numbers which are. For each element s of F, we can ?d a unique natural number n such that s = f(n). This means we can give the inverse function of f, call this g.Now, for each s in F, there can not be an x which is s followed by an extra 1, which is not already in F : this would mean that g(x)=g(s)+1, with g(s) a natural number, would not be a natural number.If you still consider this line of thinking to be wrong, please give me the exact x for which value it goes wrong.-- PentoDe wereld was soep, en het denken meestal een vork,tot smakelijk eten leidde dat zelden. - H. Mulisch === OK, consider the set of natural numbers, N.> Also consider the operation + 1. Is it not true that for each n in N, n + 1 is also in N ?Maybe.I might not be the person you want to ask this question to.My proof shows that no set can contain every computablenatural number. If N does not contain every computablenatural number, how can we say N contains all natural numbers?> Now, consider the function f : N -> RM-numbers : f(0) = (0)> f(1) = (0)1> f(2) = (0)11> ...> and so on, with f(n) corresponding to its own RM-number for each natural> number n. Clearly, not all the different RM-numbers are reached by this function f.> Consider the set F = f(N) of numbers which are. For each element s of F,we> can ?d a unique natural number n such that s = f(n). This means we can> give the inverse function of f, call this g.> Now, for each s in F, there can not be an x which is s followed by anextra> 1, which is not already in F : this would mean that g(x)=g(s)+1, with g(s)> a natural number, would not be a natural number.Since g() is the inverse of f(), and x was not generated by f(),g(x) may not be de?ed.x is RM computable so there exists a RM that will output it.This means f() can not emulate every possible RM.Russell- 2 many 2 count === > OK, consider the set of natural numbers, N.> Also consider the operation + 1.> Is it not true that for each n in N, n + 1 is also in N ?Maybe.>I might not be the person you want to ask this question to.>My proof shows that no set can contain every computable>natural number. If N does not contain every computable>natural number, how can we say N contains all natural numbers?(I haven't been following this thread, so please make allowances if what I say here is either redundant or irrelevant.)The standard de?itions of computable are equivalent to computable by some Turing machine. Now clearly, each particular natural number K can be generated by some TM; indeed, it's even computable by a ?ite-state machine (with K states).Furthermore, the in?ite sequence of all natural numbers together (e.g., in base 1, 010110111011110111110...) can be generated by a (non-halting) TM -- the algorithm repeatedly copies the last string of 1's (which can be done ?itely by temporarily replacing the most recent 1 copied with some other symbol, to keep track of how much has already So in what sense isn't every natural number computable?[snip]-- ---------------------------| B B aa rrr b || BBB a a r bbb | | B B a a r b b | | BBB aa a r bbb | ----------------------------- === ----------------------------- <^> <(?)> <^> ----------------------------- > OK, consider the set of natural numbers, N.> Also consider the operation + 1.> Is it not true that for each n in N, n + 1 is also in N ?> >Maybe.>I might not be the person you want to ask this question to.>My proof shows that no set can contain every computable>natural number. If N does not contain every computable>natural number, how can we say N contains all natural numbers? (I haven't been following this thread, so please make allowances if what> I say here is either redundant or irrelevant.) The standard de?itions of computable are equivalent to computable> by some Turing machine. Now clearly, each particular natural number K> can be generated by some TM; indeed, it's even computable by a> ?ite-state machine (with K states). Furthermore, the in?ite sequence of all natural numbers together> (e.g., in base 1, 010110111011110111110...) can be generated by a> (non-halting) TM -- the algorithm repeatedly copies the last string of> 1's (which can be done ?itely by temporarily replacing the most recent> 1 copied with some other symbol, to keep track of how much has already So in what sense isn't every natural number computable?>Check out this 3 state TM that counts from 0 upwards in binary. Everysecond position on the tape represents the number.Hercknock knock knock on the door, feet still bleeding === >message> OK, consider the set of natural numbers, N.> Also consider the operation + 1.> Is it not true that for each n in N, n + 1 is also in N ?>Maybe.>I might not be the person you want to ask this question to.>My proof shows that no set can contain every computable>natural number. If N does not contain every computable>natural number, how can we say N contains all natural numbers? (I haven't been following this thread, so please make allowances if what> I say here is either redundant or irrelevant.) The standard de?itions of computable are equivalent to computable> by some Turing machine. Now clearly, each particular natural number K> can be generated by some TM; indeed, it's even computable by a> ?ite-state machine (with K states). Furthermore, the in?ite sequence of all natural numbers together> (e.g., in base 1, 010110111011110111110...) can be generated by a> (non-halting) TM -- the algorithm repeatedly copies the last string of> 1's (which can be done ?itely by temporarily replacing the most recent> 1 copied with some other symbol, to keep track of how much has already So in what sense isn't every natural number computable?Consider all TM's that write an initial, ?ite and contiguous strings of1'sand then halt. Let S be the set of all output tapes from these TM's.De?e another TM I call a comparator (CTM).CTM compares the input tape to its output tape.If the input tape has more 1's, the CTM rewindsto the beginning of its output tape, copies the input tape,We let CTM read all the tapes in S.What is on the output tape of CTS?The output of CTM must have a ?ite number of 1's.Every tape read by CTM was ?ite in length.The output of CTM has exactly one more 1 thansome input tape in S.S can not contain every possible string thatrepresents a natural number.Russell- 2 many 2 count === comp.theory and sci.math need to come off the list of newsgroupsfor this thread. Those groups surely have more important thingsto discuss. : : Consider all TM's that write an initial, ?ite and contiguous strings of : 1's : and then halt.OK. There is one of these TMs for every natnum. : Let S be the set of all output tapes from these TM's.That's basically the set of all natural numbers. : De?e another TM I call a comparator (CTM). : CTM compares the input tape to its output tape.CTM *DOES* *NOT* *HAVE* an output tape.CTM is a TM. In general, TMs DO NOT HAVE output tapes.TMs have ONE tape. They use it for input.They also write on it, but that does not make it an output tape.It is at best an input/output tape. : If the input tape has more 1's,This is ridiculous. The input tape IS the output tape, if CTMis a TM. It can NEVER have a DIFFERENT number of 1's from itself. : the CTM rewinds to the beginning of its output tape, copies the input tape,That is not how TMs work. What actually happens is that the TM readsat the end, and then halts. : We let CTM read all the tapes in S.No, we don't, because S has an in?ite number of tapes, so CTM(if it really is a TM, which, as you have de?ed it, IT ISN'T,because it has an output tape) will never ?ish reading allthese tapes. : What is on the output tape of CTS?That's a typo; CTS does not exist; do you mean CTM? : The output of CTM must have a ?ite number of 1's.Right. : Every tape read by CTM was ?ite in length.Right. : The output of CTM has exactly one more 1 than : some input tape in S.Wrong.S has in?itely many input tapes and there is no upper bound onhow long they are. : S can not contain every possible string that : represents a natural number.As you de?ed it, it does indeed contain exactly that;it represents the natnums in unary.-- --- It's dif?ult ... you need to be united to have any strength, but internal issues have to be addressed. --- E. Ray Lewis, on liberalism in America <-sOdnVAq4PkNeXGiRVn-sA@comcast.com><8aGdnb0k8ZEW73CiRVn-jA@comcast.com> <19idnd3Ywuot6HKiRVn-sA@comcast.com> === > [ Obviously, every natural number N is computable by an N-state FSM. ]> So in what sense isn't every natural number computable? Consider all TM's that write an initial, ?ite and contiguous strings of> 1's and then halt. Let S be the set of all output tapes from these TM's. S is an in?ite set which is also countable.> De?e another TM I call a comparator (CTM).> CTM compares the input tape to its output tape.> If the input tape has more 1's, the CTM rewinds> to the beginning of its output tape, copies the input tape, We let CTM read all the tapes in S. What do you mean read all the tapes in S? S has in?itelymany members. If CTM tries to read all the members of S, itwill never ?ish.> What is on the output tape of CTS? Nothing -- CTM never halts, as it never ?ishes reading itsinput tapes.> The output of CTM must have a ?ite number of 1's.> Every tape read by CTM was ?ite in length.> The output of CTM has exactly one more 1 than> some input tape in S. Non sequitur.> S can not contain every possible string that> represents a natural number. Non sequitur. Surely you've had this explained to you in the past,about how some in?ities are bigger than others, and whichones, and how? Check Google Groups if you haven't, or don'tremember -- I'm sure there's plenty of tutorial informationon there. Check sci.math's archives, too.-Arthur === What are the parameteric coordinates of closed loops generated by intersection point F between b and c and intersection point I between a and c extensions in a quadrilateral of sides a,b,c,d ( side a smallest,side d largest,angle th variable/parameter between a and d )? These occur in a fourbar linkage mechanism . The book 4 Bar Atlas(by Hrones and Nelson)does not include parameteric equations. TIA. === I need to know how to calculate x^y where y is not an integer. Anyhelp in this matter would be appreciated. === > I need to know how to calculate x^y where y is not an integer. Any> help in this matter would be appreciated.If y is rational, i.e. y = a/b, then b th root (x^a). For example,x^2/3 = cube root of (x^2). Otherwise, check out:http://mathworld.wolfram.com/Power.htmlLurch === > I need to know how to calculate x^y where y is not an integer. Any> help in this matter would be appreciated.If y is rational, i.e. y = a/b, then b th root (x^a). For example,x^2/3 = cube root of (x^2). Otherwise, check out:http://mathworld.wolfram.com/Power.html??? I don't see a mathematical de?ition of x^y on thatpage, nor anything else that might be what he's lookingfor when he asks how to calculate it...>Lurch>************************David C. Ullrich === >I have another more general question, if you don't mind : is there an>intuitive meaning for a nilpotent group ? Nilpotent groups are closely connected to nilpotent lie algebras,>which is where the name actually comes from, as I understand it, and>where nilpotent actually makes some sense.>As to intuitive meaning, that will depend a lot on you, I guess.[...]>Others think of them as groups constructed through central extensions,>which is not a bad way to think about them either.Some of us just instinctively think, Product of p-groups. RealisticallyI just think about p-groups, period, and then mutter something aboutdirect products at the end of the story. (And if you want an intuitivemeaning of p-groups, think about layers of small vector spaces overthe ?ld of characteristic p, forming the quotients of chains ofnormal subgroups. I don't necessarily think only of central extensions,by the way; in fact one of the prototypes I keep in mind is a semidirectproduct of a Z/p acting on a p-dimensional vector space over GF(p).I'll bet most people don't think about the dihedral group of order 8this way...)Of course, some of us carry along a related intuitive notion thatgroup means ?ite group. You'll have to modify the previous paragraph if you think otherwise.daveX-Received: (from approve@localhost) by support1.mathforum.org (8.11.6/8.11.6/The Math Forum, $Revision: 1.9 primary) id hBSDc1T02534; === [.snip.]J. Willekens === > Notice that the in Noble Verse 57:25 above, Allah Almighty says clearly We> sent down iron.... and He didn't say We created iron from earth....> Allah Almighty's claim was very accurate and precise. We sent down> iron..... clearly states that iron was created outside the earth and was> brought down by the Will of Allah Almighty for a purpose, and that is> (material for) Mighty war, as well as many bene?s for mankind, that Allah> Noble Quran, 57:25)>Hypothetically, if this is proven incorrect, and the iron did not come down,would you be willing to give up on the Quran?Bill X-Cise: tanbanso@iinet.net.auX-CompuServe-Customer: YesX-Coriate: admin@interspeed.co.nzX-Ecrate: tanandtanlawyers.comX-Pose: george_cox@btinternet.comX-Punge: Micro$oft === at 02:12 PM, Mark K. Bilbo said:>There is no down in space. There is if you send a goose up. I don't know if that's enough downfor a jacket.-- Shmuel (Seymour J.) Metz, SysProg and JOATnot reply to spamtrap@library.lspace.org === speak thusly:> at 02:12 PM, Mark K. Bilbo said:> >There is no down in space. There is if you send a goose up. I don't know if that's enough down> for a jacket.The poor goose...-- Mark K. Bilbo X-Cise: tanbanso@iinet.net.auX-CompuServe-Customer: YesX-Coriate: admin@interspeed.co.nzX-Ecrate: tanandtanlawyers.comX-Pose: george_cox@btinternet.comX-Punge: Micro$oft === at 07:30 PM, Goran Jakupovic said:>Like somebody else already said not just iron, but all atoms starting>with helium and heavier now in solar system were products of>supernova.No. Helium is predominantly primordial, Beryllium and Lithium arealmost entirely primordial. The conditions for light elementnucleosynthesis are very different from the conditions for heavierelements. Stars produce Helium, but they destroy Lithium andBeryllium. There's more Helium in the Universe now than right afterthe big bang, but not a lot more.-- Shmuel (Seymour J.) Metz, SysProg and JOATnot reply to spamtrap@library.lspace.org === > > down is relative like meaning closer to core like when you get down> from> bed. but the quran has things being created on earth but for some odd> reason> it diverges with iron. it says we sent down iron. iron was not created> on> earth according to quran. how did the quran know that iron came down?> down> meaning from elsewhere. it was not made on this earth. god caused iron> to> descend. coincidence?> > It's untrue. Iron was here when the earth was formed. It did not come> later.> And if anything, it came up from the core from volcanoes and the like.you are mistaken in a small way. iron not even from this solar system. it> came from other stars and had to land on earth. maybe it was primitive> molten earth but earth was here. if earth was not here what iron land on?> simple logics no offense. the miracle is that quran say many things created> on earth and if this book from man who forging gods word man just say iron> like people and animals and plants and mountains was created on earth. but> for some reason quran treats iron different and say that it is sent down to> earth. why not just say it was created on earth? because that would be> wrong. --> saab siddiqui al mujahed> but you have to change the (a) to @ for it to workIron is an element, copper is an element, carbon is an element, and so on.What scienti? basis do you have for your belief that iron came latter thanthe others? What made up the earth that the iron landed on?Bill === thusly:> thusly:> right. i did not say it came to earth after it ?ished with animals> plants> and all that. i only noted that the quran has many things created on> earth> but for some reason does not have iron created on earth.> What about all the *other elements that weren't formed here?what about them? are you trying to raise an argument ex silentio? if it> turns out on usenet you never once say your mothers maiden name does that> necessarily mean you did not know your mothers maiden name? as for the> elements other than iron i will be agnostic on what the author of the quran> knew about them for now.So this is like one of those christian arguments. God failed to mentionanything *useful like penicillin but seems to have mumbled something vagueabout iron.-- Mark K. Bilbo <245fb07.0312261913.713872dc@posting.google.com>X-Cise: tanbanso@iinet.net.auX-CompuServe-Customer: YesX-Coriate: admin@interspeed.co.nzX-Ecrate: tanandtanlawyers.comX-Pose: george_cox@btinternet.comX-Punge: Micro$oft === at 07:13 PM, raynand@netzero.net (Jefferson Rourke) said:>Atheism is simply a lack of belief in gods.No, that's Agnosticism. Atheism is the belief in the lack of a god.-- Shmuel (Seymour J.) Metz, SysProg and JOATnot reply to spamtrap@library.lspace.org === > at 07:13 PM, raynand@netzero.net (Jefferson Rourke) said:>Atheism is simply a lack of belief in gods.No, that's Agnosticism. Atheism is the belief in the lack of a god.How about un-theist. Does that work for you? I think the god-conceptis a nonexistant mind created reality that it is used as a tool todupe the gullible.I think religious mysticism is a form of mental illness and madnessthat is unique to the human mind on this planet. This still work foryou?I think the god-concept and religion have held back the development ofthe human race by 2000 to 3000 years. Instead of looking for thenonexistent afterlife the human race should be working to build abetter life here and now. If not for religion and the god-concept itis a possible that we could be on other planets by now and havelifespans of over 500 years. The loss and waste of potential in thehuman race because of the god-concept is immense.Still working for you?If all of this does not ? within your de?ition parameters pleaselet me know about my ill-de?ed thought processess.Jefferson RourkeLaissez-Faire! <245fb07.0312261913.713872dc@posting.google.com> <3fee0f44$21$fuzhry+tra$mr2ice@news.patriot.net> <245fb07.0312272002.3afa03c1@posting.google.com>X-Cise: tanbanso@iinet.net.auX-CompuServe-Customer: YesX-Coriate: admin@interspeed.co.nzX-Ecrate: tanandtanlawyers.comX-Pose: george_cox@btinternet.comX-Punge: Micro$oft === at 08:02 PM, raynand@netzero.net (Jefferson Rourke) said:>How about un-theist. Does that work for you?It's not a question of whether it works for me; it's a question ofwhether it works for the English language. The English terms areagnostic and atheist. What would work for me is honesty, which you arenot exhibiting.>I think religious mysticism is a form of mental illness and madness>that is unique to the human mind on this planet. Then you were lying when you stated that Atheism is simply a lack ofbelief in gods. You have gone beyond not believing in a god tobelieving that there is no god. >I think the god-concept and religion have held back the development>of the human race by 2000 to 3000 years.Perhaps it did. And perhaps it had the oposite effect. Do you haveevidence, or is it just a matter of faith for you?>Still working for you?Nope. But if your faith works for you, . . .>If all of this does not ? within your de?ition parameters please>let me know about my ill-de?ed thought processess.You might start with post hoc ergo propter hoc.-- Shmuel (Seymour J.) Metz, SysProg and JOATnot reply to spamtrap@library.lspace.org === speak thusly:> at 08:02 PM, raynand@netzero.net (Jefferson Rourke) said:> >How about un-theist. Does that work for you?It's not a question of whether it works for me; it's a question of> whether it works for the English language. The English terms are> agnostic and atheist. What would work for me is honesty, which you are> not exhibiting.Nope. Wrong.Some of the colloquial connotations that have accreted to the words aresimilar to what you're claiming but colloquial meaning shifts around allthe time.Atheism is lacking belief in any gods. The word was coined to mean that.That is what atheists use the word to mean. That is the meaning.-- Mark K. Bilbo === thusly:> at 07:13 PM, raynand@netzero.net (Jefferson Rourke) said:>Atheism is simply a lack of belief in gods.> No, that's Agnosticism. Atheism is the belief in the lack of a god.How about un-theist. Does that work for you? I think the god-concept> is a nonexistant mind created reality that it is used as a tool to> dupe the gullible.Actually, there's no point to trying to change terms. Theists would trashany term used.And atheism actually *is un- or maybe more accurately non- theism.Since a- means without. As in amoral means *without morals ascontrasted to immoral which is *not moral. The in- pre? meaningopposite of or not.What they try to claim is atheism is, is more something you might callintheism (to coin a word). That would be opposite of theism. Atheism works ?e. Fits the way we do things in the language (hence theword was brought into the language to mean without theism). Theistmisunderstanding or even deliberate obfuscation notwithstanding...-- Mark K. Bilbo === > thusly:> at 07:13 PM, raynand@netzero.net (Jefferson Rourke) said:>Atheism is simply a lack of belief in gods.> No, that's Agnosticism. Atheism is the belief in the lack of a god.How about un-theist. Does that work for you? I think the god-concept> is a nonexistant mind created reality that it is used as a tool to> dupe the gullible.Actually, there's no point to trying to change terms. Theists would trash> any term used.And atheism actually *is un- or maybe more accurately non- theism.> Since a- means without. As in amoral means *without morals as> contrasted to immoral which is *not moral. The in- pre? meaning> opposite of or not.What they try to claim is atheism is, is more something you might call> intheism (to coin a word). That would be opposite of theism. Atheism works ?e. Fits the way we do things in the language (hence the> word was brought into the language to mean without theism). Theist> misunderstanding or even deliberate obfuscation notwithstanding...Hey Mark:I was just trying to have a bit of fun with the guy and see what hisresponse would be. I thought I had the de?ition right the ?st timeand I was writing off of the top of my head without double checking.Hope you had a happy Winter Solstice,Jefferson Rourke === thusly:> thusly:> > at 07:13 PM, raynand@netzero.net (Jefferson Rourke) said:>Atheism is simply a lack of belief in gods.> > No, that's Agnosticism. Atheism is the belief in the lack of a god.> How about un-theist. Does that work for you? I think the god-concept> is a nonexistant mind created reality that it is used as a tool to> dupe the gullible.> Actually, there's no point to trying to change terms. Theists would trash> any term used.> And atheism actually *is un- or maybe more accurately non- theism.> Since a- means without. As in amoral means *without morals as> contrasted to immoral which is *not moral. The in- pre? meaning> opposite of or not.> What they try to claim is atheism is, is more something you might call> intheism (to coin a word). That would be opposite of theism. > Atheism works ?e. Fits the way we do things in the language (hence the> word was brought into the language to mean without theism). Theist> misunderstanding or even deliberate obfuscation notwithstanding...Hey Mark:I was just trying to have a bit of fun with the guy and see what his> response would be. I thought I had the de?ition right the ?st time> and I was writing off of the top of my head without double checking.No big thing. I was just rattling along on an interesting (to me at least)subject.I can't help it. I'm moving more and more into linguistics as (if thingshold together) will be my next ?ld.Words fascinate me to no end...-- Mark K. Bilbo === speak thusly:> at 07:13 PM, raynand@netzero.net (Jefferson Rourke) said:>Atheism is simply a lack of belief in gods.No, that's Agnosticism. Atheism is the belief in the lack of a god.No, atheism is lacking belief in gods.We know, we're atheists.-- Mark K. Bilbo X-Cise: tanbanso@iinet.net.auX-CompuServe-Customer: YesX-Coriate: admin@interspeed.co.nzX-Ecrate: tanandtanlawyers.comX-Pose: george_cox@btinternet.comX-Punge: Micro$oft === at 11:42 AM, Saab Siddiqui said:>im snipping mr metz points that i have no response to at this>time.Good; that is proper quoting style for Usenet. You'll see peopleis generally something to avoid and not to imitate.>not that star collide with earth but that matter from star like iron>collide with earth.The Earth was formed by the accretion of matter. Much of that matterwas Iron. There was already a substantial amount of Iron when theEarth was very small. The material that fell later included a lot ofelements besides Iron, and had no higher percentage of Iron than theinitial material. Given the outgassing of lighter elements, theprimordial proto-Earth probably had a higher concentration of Ironthan the new material falling on it did.-- Shmuel (Seymour J.) Metz, SysProg and JOATnot reply to spamtrap@library.lspace.org
X-Cise: tanbanso@iinet.net.auX-CompuServe-Customer: YesX-Coriate: admin@interspeed.co.nzX-Ecrate: tanandtanlawyers.comX-Pose: george_cox@btinternet.comX-Punge: Micro$oft === at 04:56 PM, Mark K. Bilbo said:>The process is that iron forms in stars. The stars go nova and eject>material which includes iron. No. Iron forms in signi?ant quantities only in stars that gosupernova. A simple nova is not hot enough or dense enough.-- Shmuel (Seymour J.) Metz, SysProg and JOATnot reply to spamtrap@library.lspace.org X-Cise: tanbanso@iinet.net.auX-CompuServe-Customer: YesX-Coriate: admin@interspeed.co.nzX-Ecrate: tanandtanlawyers.comX-Pose: george_cox@btinternet.comX-Punge: Micro$oft === >Not just large, but dense. A white dwarf star is about the size of>the Earth,Well, I prefer a yellow dwarf, but would rather that it remain a safe93,000,000 miles away ;-)>I do wonder what would happen if the impacting object was a neutron star,Lethal. The details would depend on the size, but I imagine that theradiation would kill us before we had a chance to observe the rest.-- Shmuel (Seymour J.) Metz, SysProg and JOATnot reply to spamtrap@library.lspace.orgX-Cise: tanbanso@iinet.net.auX-CompuServe-Customer: YesX-Coriate: admin@interspeed.co.nzX-Ecrate: tanandtanlawyers.comX-Pose: george_cox@btinternet.comX-Punge: Micro$oft === at 01:51 AM, Steve Knight said:> Great. Some camel ing, rag head, sand muncher, At least he is not a racist xenophobe like you. *PLONK*-- Shmuel (Seymour J.) Metz, SysProg and JOATnot reply to spamtrap@library.lspace.org === >How do you prove what the (imaginary) zeroes of the Fibonacci