2.56Mo) is melted by a 30 kg vacuum induction furnace and the tested adding nitrogen-saving nickel 316 steel (/% : 0. 04C
0.25Si
1.86Mn
0.012P
0.021S
16.90Cr
8.18Ni
2.64Mo
0.36N) is melted by nitrogen filled at ambient pressure and adding nitriding alloy
forged and rolled to 4 mm strip and solid-solution treated at 1 100℃ for 1 h. The erosion rate and the morphology of surface of steel erosion-tested are characterized and analyzed by electronic balance
SEM and homemade slurry erosion wear-erosion device. Results show that with increasing erosion impact angle the erosion rate of both tested austenite stainless steel increases and appears to rise-fall-rise
two peaks of erosion rate occur at erosion impact angle 45° and 90° and the max erosion rate occurs at 90°; with increasing velocity and time of erosion impact the erosion rate of both steels increases. At same conditions of erosion
the adding nitrogen-saving nickel 316 austenite stainless steel has better wear-erosion performance and lower erosion rate.