1 files changed, 3 insertions, 3 deletions

diff --git a/src/lib/libcrypto/modes/asm/ghash-x86.pl b/src/lib/libcrypto/modes/asm/ghash-x86.pl
index 83c727e07f..27492597ad 100644
--- a/src/lib/libcrypto/modes/asm/ghash-x86.pl
+++ b/src/lib/libcrypto/modes/asm/ghash-x86.pl
@@ -86,7 +86,7 @@
 # where Tproc is time required for Karatsuba pre- and post-processing,
 # is more realistic estimate. In this case it gives ... 1.91 cycles.
 # Or in other words, depending on how well we can interleave reduction
-# and one of the two multiplications the performance should be betwen
+# and one of the two multiplications the performance should be between
 # 1.91 and 2.16. As already mentioned, this implementation processes
 # one byte out of 8KB buffer in 2.10 cycles, while x86_64 counterpart
 # - in 2.02. x86_64 performance is better, because larger register
@@ -700,7 +700,7 @@ sub mmx_loop() {
     &pxor       ($red[1],$red[1]);
     &pxor       ($red[2],$red[2]);
 
-    # Just like in "May" verson modulo-schedule for critical path in
+    # Just like in "May" version modulo-schedule for critical path in
     # 'Z.hi ^= rem_8bit[Z.lo&0xff^((u8)H[nhi]<<4)]<<48'. Final 'pxor'
     # is scheduled so late that rem_8bit[] has to be shifted *right*
     # by 16, which is why last argument to pinsrw is 2, which
@@ -1087,7 +1087,7 @@ my ($Xhi,$Xi) = @_;
         &movdqu         (&QWP(0,$Xip),$Xi);
 &function_end("gcm_ghash_clmul");
 
-} else {                # Algorith 5. Kept for reference purposes.
+} else {                # Algorithm 5. Kept for reference purposes.
 
 sub reduction_alg5 {    # 19/16 times faster than Intel version
 my ($Xhi,$Xi)=@_;