* Stage 1: 512 bit phase, the boot loader should do this but we integrate it
			in the OS
* Stage 2: load Stage 3
* Stage 3: The rest of the kernel, all the magic is here

* Stage 1 must only load Stage 2 and start the protected mode
* Stage 2 will load stage 3 and init paging
* Stage 3 will ... (to be completed)

* 0 - 511 -> Stage 1, here the MBR should reside along the boot loader
* 512 - 2560 -> gpt
* 2560 - 3584 -> superblock of ext2
* 3584 - 64k -> stage 2
* 64k ... -> stage 3

* 0x0 - not a part of kernel
* 0x7c00 - boot loader (its size is 512 bytes andd will be loaded from disk)
* 0xA000 + the stack growing downoards, this stack is only for real mode
* 0xA000 - the kernel loader (stage 2), maximum 63k
* 0x0100000 - the kernel page directory followed by the page tables
* 0x0e00000 + the kernel and kernel loader stack, it can grow till 0x0a00000
	from 0x0a00000 to 0x0800000 there is the interrupt stack
* 0x1000000 - the kernel - maximum 16 MB
* 0x2000000 - kernel structures:
	- physical pages
* 0x3000000 - the kernel heap
* 0x4000000 - kernel end, other programs
# Obdervation the first 8MB are identity mapped and the rest of the kernel
	resides at 0xc0800000, the kernel starts at 0xc1000000
# 0x0600000 - the stack of stage 2 (1MB)
# 0x0100000 - kernel paging

* 0x500:0x503 - ram size as returned by mov ax, 0xE801; int 0x15;
	ax is at 0x500 and bx at 0x502 (ax + bx * 64 is size in KB)
* 0x504:0x505 - vesa modes saved
* 0x506:0x507 - vesa current mode
* 0x1000:0x6000 - vesa bios info and modes info

* item1
* item2

1. item1
2. item2

code block ? 
if (x == 0)
	return y;
else 
	while (true)
		yield 2;