Digital Reversed Order VI

Owning Palette: Signal Operation VIs

Requires: Full Development System

Modifies the input array according to the digital-reversed order of the index.

Wire data to the X input to determine the polymorphic instance to use or manually select the instance.

Details  

Use the pull-down menu to select an instance of this VI.

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Digital Reversed Order (DBL)

X is the real input array the VI modifies. The length of X must be an integer power of radix.
radix is the base of the exponent. radix must be greater than or equal to 2. The default value is 2.
Reversed {X} returns X with permuted elements.
Reversed Index returns the corresponding index of X for each element in Reversed {X}.
error returns any error or warning from the VI. You can wire error to the Error Cluster From Error Code VI to convert the error code or warning into an error cluster.

Digital Reversed Order (CDB)

X is the complex input array the VI modifies. The length of X must be an integer power of radix.
radix is the base of the exponent. radix must be greater than or equal to 2. The default value is 2.
Reversed {X} returns X with modified elements.
Reversed Index returns the corresponding index of X for each element in Reversed {X}.
error returns any error or warning from the VI. You can wire error to the Error Cluster From Error Code VI to convert the error code or warning into an error cluster.

Digital Reversed Order (I32)

X is the integer input array the VI modifies. The length of X must be an integer power of radix.
radix is the base of the exponent. radix must be greater than or equal to 2. The default value is 2.
Reversed {X} returns X with modified elements.
Reversed Index returns the corresponding index of X for each element in Reversed {X}.
error returns any error or warning from the VI. You can wire error to the Error Cluster From Error Code VI to convert the error code or warning into an error cluster.

Digital Reversed Order Details

When the index of a sequence has the radix-base digits (a0a1an), the VI modifies the sequence X into the digital-reversed sequence Y according to the following equation.

For examples of radix-base digits, 2-base is binary and 16-base is hexadecimal.

The following illustration shows the 2-base reversed order (bit-reversed order) of 8 elements.