2ERDIM H, LAZOGLU I, ozTURK B. Feedrate scheduling strategies for 5tee-form surfacesJ3. International Journal of Machine Tools and Manufacture, 2005,46 (7) 747-757.
3SHARMAN A, ASPINWALL D, DEWES R, et al. The eff- ects of machined workpiece surface integrity on the fatigue life of )'-titanium aluminide[J]. International Journal of MachineTools and Manufacture, 2001,41(11) : 1681-1685.
4CHOMIENNE V, VERDU C, RECH J, et al. Influence of sur{ace integrity of 15-SPH on the fatigue |ifeEJJ. Procedia Engineering, 2013,66 (I) .. 274-28 I.
5SHARMAN A, HUGES ], RIDGWAY K. Surface integrity and tool life when turning inconel 718 using ultra-high pres- sure and flood coolant systems[J]. Proceedings of the Institu- tion of Mechanical Engineers,2008,222(B6) : 653-664.
6SUH C M, HWANG B W, MURAKAMI R I. Behaviors of residual stress and high-temperature fatigue life in ceramic coatings produced by PVD[J]. Materials Science and Engi- neering : A, 2003,343(I/2) : I-7.
7ERIKSSON R, SJOSTROM S, BRODIN H, et al. TBC bo- nd coat-top coat interface roughness: influence on fatigue life and modelling aspects[J]. Surface and Coatings Technology, 2013,236( 1 ) : 230-238.
8SURARATCHAI M, LIMIDO J, MABRU C, et al. Model- ling the influence of machined surface roughness on the fa- tigue life of aluminium alloy[J]. International Journal of Fa- tigue,2008,30(12) :2119-2126.
9MATHEW M D, KIM D W, WOO S R. A neural network model to predict low cycle fatigue life o nitrogen-alloyed 316L stainless steel[J]. Materials Science and Engineering: A,2007,474(1) :247-253.
10Lu S D, Wang Z B, Lu K. Enhanced chromizing kinetics of tool steel by means of surface mechanical attrition treatment [J]. Materials Science and Engineering,2010,527:995-1002.
