Update README.md

README.md

@@ -22,8 +22,8 @@ Launch IDA Pro, select the Altera Nios II Classic/Gen2 Processor processor type,
 Decodes instructions and operands, and displays them on screen. Generates comments for commands. Describes both general-purpose registers and control registers. Analyzes execution control instructions. Generates cross-references. Generates references from data also. Simplifies instructions: replaces certain combinations of commands and operands with pseudoinstructions (commands for which there are no separate opcodes). Monitors changes in stack pointer and supports stack variables. Handles situations when the stack pointer is involved in calculating offsets written to other registers by converting to the offsets for stack variables. Generates cross-references from code to separate fields of structures.
 
 ### 32-bit numbers and offsets
-The NIOS II processor does not have a machine command for directly writing a 32-bit value to a register. At maximum, a 16-bit value can be written in a single command. Therefore, writing 32-bit numbers consists of two steps: the upper half of the number is written to the upper part of the register, while the lower part is added, subtracted, or combined with the higher part with the help of bitwise OR. If the 32-bit number is an offset, the lower half can also be implemented in a command as a positive or negative offset relative to the base (the upper half).
-In the processor module, if a 32-bit number is an offset, an operand and cross-references are generated only from the lower half, using the base taken from the upper half. Setting a register to an offset, as well as reading or writing relative to the base, is handled. If a 32-bit number is not an offset, its value is simply output next to the command for writing the lower half.
+The NIOS II processor does not have a machine command for directly writing a 32-bit value to a register. At maximum, a 16-bit value can be written in a single command. Therefore, writing 32-bit numbers consists of two steps: the high half of the number is written to the high part of the register, while the low part is added, subtracted, or combined with the high part with the help of bitwise OR. If the 32-bit number is an offset, the low half can also be implemented in a command as a positive or negative offset relative to the base (the high half).
+In the processor module, if a 32-bit number is an offset, an operand and cross-references are generated only from the low half, using the base taken from the high half. Setting a register to an offset, as well as reading or writing relative to the base, is handled. If a 32-bit number is not an offset, its value is simply output next to the command for writing the low half.
 
 ### Switch
 All encountered schemes for organizing switch constructions are handled. The module recognizes switch variants when the scheme is interrupted by jumps, when instructions not part of the scheme are encountered between the main commands, and when the locations of main commands have been switched. A reverse execution path approach is used that takes into account possible jumps, with setting of internal variables that signal various states of the recognizer. In practice, the module successfully recognizes around 10 different switch organization variants.