Page 67 - 摩擦学学报2025年第4期
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第 4 期              于涵, 等: 基于大豆基础油的聚多巴胺改性黑磷纳米添加剂的摩擦学性能研究                                      555


                (a)                              (b)                     C 1s    (c)                    O 1s
                           C-H/O-H/-NH
                        D G  I D /I G =0.97                         3                           C-O-C
               Intensity/a.u.  BP P-O-C  D  G  I D /I G =0.93  PDA  Intensity/a.u.  sp (C-C)  sp (C-C)  Intensity/a.u.  P-O-C P=O
                                                        2

                      P=O
                 BP  P=O  D G I D /I G =0.86  BP-PDA  C-O  P-O-C                                  Fe 2 O 3
                                          BP

                     1 000  2 000  3 000   4 000  288  286  284  282  280  278    534   532  530   528  526
                        Raman shift/cm −1                Binding energy/eV              Binding energy/eV
                                  (d)                    P 2p     (e)                    N 1s
                                                                                    -C≡N

                                          P x O y
                                Intensity/a.u.  P-O-C  P         Intensity/a.u.  N-H






                                140  138  136  134  132  130  128 126  410  406  402  398  394  390
                                         Binding energy/eV                Binding energy/eV
             Fig. 7    (a) Raman spectra of friction debris at the PDA, BP and BP-PDA sliding interface; XPS spectra of friction debris at the BP-
                                           PDA friction interface: (b) C; (c) O; (d) P; (e) N
                  图 7    (a) PDA、BP和BP-PDA摩擦界面处摩擦碎屑的Raman光谱;BP-PDA摩擦界面处摩擦碎屑的XPS光谱图:
                                                    (b) C;(c) O;(d) P;(e) N


                                                      Load
                                                                            Amorphous carbon
                                                                               C



                                                             Tribo-film
                                                                            Additive molecules and
                                                                              friction products
                                                                                         P

                                           Friction substrate                           OH
                                                                                   HO HO
                                                                                 HO
                                                                                          NH
                                                                                   HN
                                           Fig. 8    Friction mechanism diagram of BP-PDA
                                                 图 8    BP-PDA的摩擦机理图

            界面隔开,从而减小摩擦磨损. 摩擦系数低和耐磨性                               and  for  sustainability[J].  Wear,  2021,  474–475:  203768.
            好的原因是由于在摩擦界面形成由非晶碳、BP及磷的                               doi:10.1016/j.wear.2021.203768.
                                                               [  2  ]   Wu Bi, Zhang Zhenbo, Li Shu. Advances in tribology of aero-engine
            碳氧化物组成的复合摩擦膜. 研究结果揭示了BP-PDA
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            作大豆油润滑添加剂的润滑机理,在一定程度上完善                                彼, 张振波, 李曙. 航空发动机材料摩擦学研究进展[J]. 摩擦学学
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            参 考 文 献
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