Showing posts with label Chuck. Show all posts
Showing posts with label Chuck. Show all posts

Sunday, 12 October 2008

Chuck is a cat

The other night I caught Chuck drinking water from a bowl... I think he or she was a little drunk.

Wednesday, 2 July 2008

The house is ours!

So, we've owned the house for 24 hours now - and we're still all talking to each other... (Well I doubt that anybody other than Chuckspresence have talked to each other today as we're all miles apart from each other, but at least nobody is actively not talking to anybody else... (Well I assume that you're not, although to be fair I haven't heard anything from any of you today, so maybe you are all avoiding me?))

In other news, I managed to fix my new computer this evening, so I am now officially unpacked.

Sunday, 15 June 2008

Brutal Snake's crew have the greatest cox

Just thought that I'd post a quick note to congratulate Brutal Snake on his victory today... Well done!

Also, I've been hearing rumours from Number Six that Chuck has turned to the darkside, and purchased an inferior computer. I am disappointed.

Friday, 13 June 2008

Chapter 1: Introduction

Definition 1.1:
i) Let Armstrong be me.
ii) Let {Armstrong} be the set containing me.

Proposition 1.2:
P({Armstrong})={{},{Armstrong}}

Remark: I like to think of myself as an element of my own power set... It's less lonely with the empty set for company.

Definition 1.3:
i) Let Eden be Eden.
ii) Let Chuck be Chuck.
iii) Let Brutal Snake be Brutal Snake.
iv) Let Boozy be Boozy.
v) Let Sparky be Sparky.
vi) Let Number Six be Number Six.

Lemma 1.4:
Number Six is not a number.

Proof: c.f. The Prisoner.

Proposition 1.5:
The integers do not exist.

Proof: Assume that there is an integer with the existence property, (i.e. the integer exists), let's call this integer x. Either x=6 or x is greater than 6 or x is less than 6.
In the first case we immediately have a contradiction, since x is not a number, (Lemma 1.4).
Consider the case that x is greater than 6, we show first that 7 is not an integer, for if it were, then 7 - 1 would also be an integer, yet we have already demonstrated that this is not the case.
Furthermore, we observe that if k is not an integer then neither is k+1, and we invoke the principal of mathematical induction to show that no integers greater than 6 can exist.
The case of x less than 6 is left as an exercise

Remark: If the integers do not exist, then my degree may prove to be pretty worthless. We must therefore conclude that our definitions are not self-consistent, and reluctantly abandon all rigour in future blogs.