doc: use the new jimtcl syntax for 'expr'

[openocd.git] / doc / openocd.texi

diff --git a/doc/openocd.texi b/doc/openocd.texi
index 4d5a844afede2054921325b44d8d7a167bc72b3e..cee54ebf7a26902a56928d476edabb146e926b72 100644 (file)
--- a/doc/openocd.texi
+++ b/doc/openocd.texi
@@ -2009,9 +2009,9 @@ proc setc15 @{regs value@} @{
 
     echo [format "set p15 0x%04x, 0x%08x" $regs $value]
 
-    arm mcr 15 [expr ($regs>>12)&0x7] \
-        [expr ($regs>>0)&0xf] [expr ($regs>>4)&0xf] \
-        [expr ($regs>>8)&0x7] $value
+    arm mcr 15 [expr @{($regs >> 12) & 0x7@}] \
+        [expr @{($regs >> 0) & 0xf@}] [expr @{($regs >> 4) & 0xf@}] \
+        [expr @{($regs >> 8) & 0x7@}] $value
 @}
 @end example
 
@@ -3157,7 +3157,9 @@ the target's supply voltage.
 The result can be converted to Volts (ignoring the most significant bytes, always zero)
 @example
 > set a [st-link cmd 8 0xf7 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0]
-> echo [expr 2*1.2*([lindex $a 4]+256*[lindex $a 5])/([lindex $a 0]+256*[lindex $a 1])]
+> set n [expr @{[lindex $a 4] + 256 * [lindex $a 5]@}]
+> set d [expr @{[lindex $a 0] + 256 * [lindex $a 1]@}]
+> echo [expr @{2 * 1.2 * $n / $d@}]
 3.24891518738
 @end example
 @end deffn
@@ -4523,13 +4525,13 @@ where the mask bit is 1. The following example sets HPROT3 (cacheable)
 and leaves the rest of the pattern intact. It configures memory access through
 DCache on Cortex-M7.
 @example
-set CSW_HPROT3_CACHEABLE [expr 1 << 27]
+set CSW_HPROT3_CACHEABLE [expr @{1 << 27@}]
 samv.dap apcsw $CSW_HPROT3_CACHEABLE $CSW_HPROT3_CACHEABLE
 @end example
 
 Another example clears SPROT bit and leaves the rest of pattern intact:
 @example
-set CSW_SPROT [expr 1 << 30]
+set CSW_SPROT [expr @{1 << 30@}]
 samv.dap apcsw 0 $CSW_SPROT
 @end example
 
@@ -8620,7 +8622,7 @@ In addition the following arguments may be specified:
 proc load_image_bin @{fname foffset address length @} @{
     # Load data from fname filename at foffset offset to
     # target at address. Load at most length bytes.
-    load_image $fname [expr $address - $foffset] bin \
+    load_image $fname [expr @{$address - $foffset@}] bin \
                $address $length
 @}
 @end example
@@ -10402,7 +10404,7 @@ trivial challenge-response protocol could be implemented as follows in a
 configuration file, immediately following @command{init}:
 @example
 set challenge [riscv authdata_read]
-riscv authdata_write [expr $challenge + 1]
+riscv authdata_write [expr @{$challenge + 1@}]
 @end example
 
 @deffn {Command} {riscv authdata_read}
@@ -12111,7 +12113,7 @@ it reads a file and executes as a script.
 @example
     set x 6
     set y 7
-    puts [format "The answer: %d" [expr $x * $y]]
+    puts [format "The answer: %d" [expr @{$x * $y@}]]
 @end example
 @enumerate
 @item The SET command creates 2 variables, X and Y.
@@ -12182,13 +12184,13 @@ proc myproc @{ @} @{
 @b{Dynamic variable creation}
 @example
 # Dynamically create a bunch of variables.
-for @{ set x 0 @} @{ $x < 32 @} @{ set x [expr $x + 1]@} @{
+for @{ set x 0 @} @{ $x < 32 @} @{ set x [expr @{$x + 1@}]@} @{
     # Create var name
     set vn [format "BIT%d" $x]
     # Make it a global
     global $vn
     # Set it.
-    set $vn [expr (1 << $x)]
+    set $vn [expr @{1 << $x@}]
 @}
 @end example
 @b{Dynamic proc/command creation}