diff --git a/src/fpu/divremsqrt/divremsqrtshiftcorrection.sv b/src/fpu/divremsqrt/divremsqrtshiftcorrection.sv
index c03f1b5df..92b96fc3e 100644
--- a/src/fpu/divremsqrt/divremsqrtshiftcorrection.sv
+++ b/src/fpu/divremsqrt/divremsqrtshiftcorrection.sv
@@ -58,7 +58,7 @@ module divremsqrtshiftcorrection import cvw::*;  #(parameter cvw_t P) (
   // correct the shifting error caused by the LZA
   //  - the only possible mantissa for a plus two is all zeroes 
   //      - a one has to propigate all the way through a sum. so we can leave the bottom statement alone
-  mux2 #(P.NORMSHIFTSZ-2) lzacorrmux(Shifted[P.NORMSHIFTSZ-3:0], Shifted[P.NORMSHIFTSZ-2:1], LZAPlus1, CorrSumShifted);
+  //mux2 #(P.NORMSHIFTSZ-2) lzacorrmux(Shifted[P.NORMSHIFTSZ-3:0], Shifted[P.NORMSHIFTSZ-2:1], LZAPlus1, CorrSumShifted);
 
   // correct the shifting of the divsqrt caused by producing a result in (2, .5] range
   //    condition: if the msb is 1 or the exponent was one, but the shifted quotent was < 1 (Subnorm)
@@ -70,7 +70,8 @@ module divremsqrtshiftcorrection import cvw::*;  #(parameter cvw_t P) (
   // if the result of the divider was calculated to be subnormal, then the result was correctly normalized, so select the top shifted bits
   always_comb
     //if(FmaOp)                       Mf = {CorrSumShifted, {P.CORRSHIFTSZ-(3*P.NF+4){1'b0}}};
-    if (DivOp&~DivResSubnorm)  Mf = CorrQmShifted;
+    //if (DivOp&~DivResSubnorm)  Mf = CorrQmShifted;
+    if (~DivResSubnorm)  Mf = CorrQmShifted;
     else                       Mf = Shifted[P.NORMSHIFTSZ-1:P.NORMSHIFTSZ-P.CORRSHIFTSZ];
     
   // Determine sum's exponent