Does there exist an infinite abelian group such that each proper subgroup is finite?
Does there exist an infinite abelian group such that each proper subgroup is finite?
Deepseek. No...
In reality:
For an example consider a colimit indexed by the natural numbers, of cyclic groups of order 2^n, under monomorphic bonding maps. (Prufer group).
Deepseek. No...
In reality:
For an example consider a colimit indexed by the natural numbers, of cyclic groups of order 2^n, under monomorphic bonding maps. (Prufer group).
A: Fairytale of New York (The Pogues)
B: Run Rudolph Run (Chuck Berry)
C: Please Come Home for Christmas (Don Henley)
D: Santa Claus is Coming to Town (Bruce Springsteen)
F: I saw Mommy Kissing Santa Claus
A: Fairytale of New York (The Pogues)
B: Run Rudolph Run (Chuck Berry)
C: Please Come Home for Christmas (Don Henley)
D: Santa Claus is Coming to Town (Bruce Springsteen)
F: I saw Mommy Kissing Santa Claus
``...suspended for 72 hours for expressing a desire to shoot the author of an article. The post, made 11/10, stated: "I want to shoot the author of this article just to watch him die." 1/2''
``...suspended for 72 hours for expressing a desire to shoot the author of an article. The post, made 11/10, stated: "I want to shoot the author of this article just to watch him die." 1/2''
Helpful if small open sets of X have contractible components.
Is pi1(X) guaranteed to be Cauchy Complete?
Helpful if small open sets of X have contractible components.
Is pi1(X) guaranteed to be Cauchy Complete?
What's really going on here?
What's really going on here?
B is player A, if A had the best possible outcome on the first 4 hands.
So kind of a dominance argument.
B is player A, if A had the best possible outcome on the first 4 hands.
So kind of a dominance argument.
If I'm understanding the pictures,
Your construction also arranges that each point preimage of each bonding map is a Peano continuum.
If I'm understanding the pictures,
Your construction also arranges that each point preimage of each bonding map is a Peano continuum.