nponeccop

Minimal Cloud Management Interface

We assume it's for OpenVZ scenario, so chroot isolation level is used.

The images are self-contained - they include enough metadata for starting and configuration. No incremental imaging and persistence are necessary for a minimal production-ready run. Stopping can delete the chroot as well, and packed images can be deleted just after unpacking.

No provision for per-deployment configuration is required for initial operations. If the same image is to be deployed with slightly different configurations, many different images should be prepared instead.

A rate-limited infinite auto-restart is a reasonable default that is enough for initial production operations.

	var io = require('socket.io-client')

	var count = 0

	function makeClient()
	{

	var socket = new io.Socket({
	handshakeHeaders : { Cookie: 'connect.sid=XM77nAGuFBKumz6EtcK3buNN.RaRD21zOWZnwYNdX1QhQszvyT8K4uQHl1Qz2mNPv6kc' }
	, host : 'localhost'

	#include <windows.h>

	HANDLE f;

	void my_open(char *fileName)
	{
	f = CreateFile(
	fileName,
	GENERIC_WRITE,
	0,

	foo = let
	bar = 5
	in case True of
	True -> 1

	{-# LANGUAGE DeriveFunctor #-}
	import Data.Functor.Foldable
	import qualified Data.Set as S

	data Solve a x = Conquer a \| Bottom \| Divide x x deriving (Functor)

	data Problem = Solution [Int] \| Problem [([Int], S.Set Int)]

	g n m = hylo phi psi $ Problem [([i], S.singleton i) \| i <- [1..n-1]] where
	psi (Solution is) = Conquer is

	#!/bin/bash

	function list ()
	{
	cblrepo --db $1/cblrepo.db list $2 $3 \| awk 'BEGIN{OFS="\t"}; { match($2, /(.)-(.)/, a);$2=a[1];$3=a[2]; print $1, $2, $3 };'
	}

	function mkjoin()
	{
	join <(list . $2 $3) <(list upstream-repos/$1)

	{-# LANGUAGE GADTs, NoMonomorphismRestriction, StandaloneDeriving, Rank2Types #-}

	import Compiler.Hoopl
	import Prelude hiding ((<*>))

	data Node e x where
	Entry :: Label -> Node C O
	Exit :: [Label] -> Node O C

	instance NonLocal Node where

	#include <new>
	template <typename T>
	struct cons
	{
	cons<T> *next;
	char fake;
	};

	class evil
	{

	{-# LANGUAGE DeriveFunctor #-}
	import Data.Functor.Foldable
	import Data.Function

	unfold1 :: Unfold Int [Int]
	unfold1 = xana coalgebra1

	xana :: Unfoldable b => Coalgebra a b -> Unfold a b
	xana = ana