#! /bin/sh
#
#  This is a short shell script to test the 256-bit
#  4-pass (SECURITY_LEVEL set to 4) version of the hash function.
#
<<EOF /bin/cat | ./snefru256 >snefru256Output

EOF
<<EOF /bin/cat | ./snefru256 >>snefru256Output
1
EOF
<<EOF /bin/cat | ./snefru256 >>snefru256Output
12
EOF
<<EOF /bin/cat | ./snefru256 >>snefru256Output
123
EOF
<<EOF /bin/cat | ./snefru256 >>snefru256Output
1234
EOF
<<EOF /bin/cat | ./snefru256 >>snefru256Output
12345
EOF
<<EOF /bin/cat | ./snefru256 >>snefru256Output
123456
EOF
<<EOF /bin/cat | ./snefru256 >>snefru256Output
1234567
EOF
<<EOF /bin/cat | ./snefru256 >>snefru256Output
12345678
EOF
<<EOF /bin/cat | ./snefru256 >>snefru256Output
123456789
EOF
<<EOF /bin/cat | ./snefru256 >>snefru256Output
The theory of quantum electrodynamics has now lasted for
more than fifty years, and has been tested more and more
accurately over a wider and wider range of conditions.
At the present time I can proudly say that there is no
significant difference between experiment and theory!

Just to give you an idea of how the theory has been put
through the wringer, I'll give you some recent numbers:
experiments have Dirac's number at 1.00115965221 (with
an uncertainty of about five times as much). To give you
a feeling for the accuracy of these numbers, it comes
out something like this:  If you were to measure the
distance from Los Angeles to New York to this accuracy,
it would be exact to the thickness of a human hair.
That's how delicately quantum electrodynamics has, in the
past fifty years, been checked -- both theoretically and
experimentally.
EOF
diff snefru256Output correctSnefru256Output
if [ $? -eq 0 ] ;  then
	/bin/echo Test Passed
else
	/bin/echo Test Failed
fi