path := $libdir/macro,.

# ==== setting output and test-flag ====
output      := gNhsqc_wide
test_ft     := n         # test-ft for phasing with XEASY
reduce_flag := n         # reduce size for test-ft by factor of 2
np          := 512 
ni          := 276 

# ==== reading of data ====
read vnmr  fid {$np}c {$ni}c byteswap    # byteswap is needed on Linux
write integer tmp
readkay integer tmp {$np}c {$ni}c        # gradsort for echo/anti-echo


# ==== setting of parameters ====
#DIMENSION: 1 (1H)
si(1)      = 2048         # frequency domain size
aqm(1)    := RSHc             # acquisition mode (ST/TP, TPPI, RSH)
w0(1)      = 750.5725085      # frequency 
delta(1)   = 0.000095000      # increment in time domain 
ppmmax(1)  = 11.769        # maximum ppm for calibration 

#DIMENSION: 2 (15N)
si(2)      = 1024        # frequency domain size
aqm(2)    := RSH              # acquisition mode (ST/TP, TPPI, RSH)
w0(2)      = 76.0548503      # frequency
delta(2)   = 0.000144613      # increment in time domain
ppmmax(2)  = 163.427        # maximum ppm for calibration


set n_dim= 2


window1 := "window sin 90"
window2 := "window sin 90"

ph0_d(1) = -77.3
ph1_d(1) = 0.0
ph0_d(2) = 90
ph1_d(2) = -180

# ==== processing ====

dim 1
phase 90
#suppress cos 64      # optional solvent suppression
dim 2
phase 90
mul 1.0 1

# ==== ft ====
strip_ft 1 1..$si(1)/2     # FT and extract left half
strip_ft 2 1..$si(2)

if ('$test_ft'!='y') then
   dim 1
   cflatt iterative polynom 5
   dim 2
   cflatt iterative polynom 5
end if

dim 1 2

scale noise

if ('$test_ft'=='y') then
   write easy16 $output.rr r r byteswap
   write easy16 $output.ri r i byteswap
   write easy16 $output.ir i r byteswap
else
   write easy16 $output byteswap
   system echo 'Identifier for dimension w1 ... N15' >> $output.3D.param
   system echo 'Identifier for dimension w2 ... H1'  >> $output.3D.param
end if