module __float32__from_int32_internal(
  input wire sign,
  input wire [31:0] fraction,
  input wire [7:0] lz,
  output wire [31:0] out
);
  wire literal_225;
  wire [7:0] add_228;
  wire [32:0] fraction__1;
  wire [25:0] fraction__2;
  wire [2:0] normal_chunk;
  wire [1:0] half_way_chunk;
  wire [22:0] literal_244;
  wire [23:0] add_248;
  wire [7:0] bexp_associative_element;
  wire [7:0] bexp;
  wire [7:0] sub_253;
  wire [7:0] bexp__1;
  wire [22:0] fraction__4;
  wire or_260;
  wire [31:0] result__1;
  assign literal_225 = 1'h0;
  assign add_228 = lz + 8'h03;
  assign fraction__1 = add_228 >= 8'h21 ? 33'h0_0000_0000 : {literal_225, fraction} << add_228;
  assign fraction__2 = fraction__1[32:7] | {25'h000_0000, fraction__1[6:0] != 7'h00};
  assign normal_chunk = fraction__2[2:0];
  assign half_way_chunk = fraction__2[3:2];
  assign literal_244 = 23'h00_0000;
  assign add_248 = {literal_225, fraction__2[25:3]} + {literal_244, normal_chunk > 3'h4 | half_way_chunk == 2'h3};
  assign bexp_associative_element = 8'h9d;
  assign bexp = bexp_associative_element - lz;
  assign sub_253 = 8'h9e - lz;
  assign bexp__1 = add_248[23] ? sub_253 : bexp;
  assign fraction__4 = add_248[22:0];
  assign or_260 = bexp__1[7] | (&bexp__1[6:0]) | fraction__4 != literal_244;
  assign result__1 = {or_260 & sign, bexp__1 & {8{or_260}}, fraction__4};
  assign out = result__1;
endmodule