{-# LANGUAGE CPP #-}
{-# LANGUAGE UndecidableInstances #-}
{-# LANGUAGE TypeOperators #-}
{-# LANGUAGE DeriveDataTypeable #-}
module Main

where

import qualified Data.Number.ER.Real as AERN
import qualified Data.Number.ER.RnToRm as AERNFunc
import Data.Number.ER.BasicTypes
import Data.Number.ER.Misc
import Data.Number.ER.RnToRm.TestingDefs

import Data.Maybe
import qualified Data.List as List
import qualified Data.Map as Map

#ifdef USE_MPFR
type B = AERN.BMPFR -- use MPFR floats
#else
type B = AERN.BAP -- use pure Haskell floats
--type B = AERN.BMAP -- use combination of double and pure Haskell floats
#endif
type RA = AERN.RA B
type IRA = AERN.IRA B

main =
    do
    AERN.initialiseBaseArithmetic (0 :: RA)
    putStrLn $ "ix = " ++ show ix ++ "; deg = " ++ show deg ++ "; gran = " ++ show gran
--    putStrLn $ "sin(sin(sin(x))) = " ++ show sin3
--    putStrLn $ "integ(sin(sin(sin(x)))dx = " ++ show integrSin3
    putStrLn $ "integ_0^1(sin(sin(sin(x)))dx] = " ++ show result
    putStrLn $ " precision = " ++ show (AERN.getPrecision result)
    where
    result = 
        head $ AERNFunc.eval (AERNFunc.unary 1) integrSin3
    integrSin3 = 
        AERNFunc.integrateUnary 0 sin3 (0 AERN.\/ 1) 0 [0]
    ix = 100
    deg = 50
    size = 1000
    gran = 5000
    depth = 0
    sin3 = 
        AERN.sin ix $ 
            AERN.sin ix $ 
                AERN.sin ix $ 
                    AERNFunc.bisectUnbisectDepth depth $ 
                        AERNFunc.bisectUnbisectDepth depth $ 
                            AERNFunc.setMaxSize size $ 
                                AERNFunc.setMaxDegree deg fapwUPX0