Hey bro no problem! Sweet gallery!
Opeth rules xD

--
Where the depths of Human Depravity have No Bounds

Ah now, that's one thing that afflicts us all.

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

Of course i do - i just have the lack of attention to do it xD

--
" Are you gonna sit there all day and bark little doggie, or are you gonna bite? "

Ah, I'm sure you'll get better.

_{If you want to get better, that is}

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

It was well deserved.

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

--
--

It's on Saturday Night Wrist.
=]

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

Oh yesss indeed!

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

oh yeah what album is
"beware" on?

deftones is simply the highest in vocal and instrumental quality.... as morpheous would say.... yesssss!

Your signature confuses me XD im horrible at maths XD

--
" Are you gonna sit there all day and bark little doggie, or are you gonna bite? "

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

_{But I can't! I WUV you!}

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

we are ALL leaving you.

--
Narsism Laws:

Path 103 - Good looking guys are either:

1. Taken
2. Gay
3. Dead
4. Lost but not found...
5. Animated
6. Are narcissists and are WAY too in love with themselves

deal with it you wuss.

--
Narsism Laws:

Path 103 - Good looking guys are either:

1. Taken
2. Gay
3. Dead
4. Lost but not found...
5. Animated
6. Are narcissists and are WAY too in love with themselves

You're welcome. and thank you too.

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

You're quite welcome.

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

Thanks for the Ion!!!



--
Stuff Rules!

I'm never coming back...

--
Narsism Laws:

Path 103 - Good looking guys are either:

1. Taken
2. Gay
3. Dead
4. Lost but not found...
5. Animated
6. Are narcissists and are WAY too in love with themselves

Thanks for the on my film Reykjavík

--
ÍSLAND! BEST Í HEIMI!

or maybe not.

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

Updates coming up in the next 24 hours.

--
:
E^2= (p^2c^2)+([Δm^2]c^4)
which implies that
E= [mc^2]/[<sq. root>1-(v^2/c^2)]
when p=0 (in eq 1, or in 2 rearranged to 1])
E=mc^2
[as rest mass cannot be attained, p can never=0, so E should, not always be calculated as = mc^2].

you're welcome!!^^

--
d0nt b0th3r...i just l00v3 say!n "^^"