专利
1.20CrMnTi钢获得双峰晶粒尺寸分布超细晶组织的工艺方法. 王天生. 发明专利ZL 200410104244.0, 申请日2004.12.18, 公开号CN1632138, 公开日2005.6.25
2.含硅高碳钢9SiCr表面纳米化方法. 王天生, 杨静, 张福成. 发明专利已授权, 专利号ZL 200710062207.1, 公开号CN101078036, 公开日2007.11.28, 授权公告号 CN100588722C, 授权公告日2010.2.10
3. 高塑性超细晶微合金低碳钢的制造方法. 王天生, 杨静, 张福成. 发明专利 ZL 200810009135.9,申请日2008.1.22, 授权公告日2009.9.9,公开号CN101225459, 公开日2008年7月23日
4. 600 MPa级高塑性亚微米晶粒铁素体低碳钢板材及制造方法. 王天生, 李真, 张福成. 发明专利已授权, 专利号ZL 200910074082.3, 申请日2009.4.1, 公开号CN101514389, 公开日2009.8.26, 授权公告号CN 101514389 B, 授权公告日2010.10.27
5. 超细贝氏体耐磨钢及其制造工艺. 张福成, 王天生, 郑炀曾, 吕博. 发明专利 ZL200510079346.6, 申请日2005.7.6, 公开号CN1710134, 公开日2005.12.21
6.表面具有硬贝氏体组织齿轮的制造工艺. 张福成,郑炀曾,赵品,王天生,张明。发明专利 ZL 200610102027.7, 申请日2006.10.13, 公开号CN1944715, 公开日2007.4.11, 授权公告号CN101693981 B, 授权公告日2011.04.06
7. 高强度高塑性超细晶铁素体和纳米碳化物低碳钢制备方法. 王天生, 雷文, 李真, 张福成. 发明专利ZL 200910075646.5, 申请日2009.09.29, 公开日2010.3.17, 公开号 CN101671771, 授权(公告)号CN101671771, 授权(公告)日2011.12.14
8. 超细晶铁素体和纳米碳化物低碳钢板材的制备方法. 王天生, 雷文, 李真, 张福成. 发明专利CN200910075647.X, 申请日2009-09-29, 公开日2010.3.17, 公开号CN101671772, 授权(公告)号CN101671772B, 授权(公告)日2011.5.4
9. 高强度高韧性纳米结构低合金高碳钢的制备方法. 王天生, 杨静, 张冰, 张福成. 发明专利ZL200910075788.1, 申请日2009.10.23, 公开号CN101693981A, 公开日2010.4.14, 授权(公告)号CN101693981B, 授权公告日2011年4月6日
10. 高强度超细晶弹簧钢的制造方法. 王天生, 张心金, 张福成. 发明专利 201010535292.0, 申请日2010.11.9, 受理发文日2010.11.12, 公开(公告)号CN101974671A, 公开(公告)日2011.02.16, 授权公告号CN 101974671 B, 授权公告日2012.07.04
11. 高性能纳米晶弹簧板材的制造方法. 王天生, 张心金, 张福成. 发明专利申请号 201010535305.4, 申请日2010.11.9, 受理发文日2010.11.12, 公开(公告)号CN102071299A, 公开(公告)日2011.05.25, 授权公告号CN 102071299 B, 授权公告日2012.10.03
12. 一种纳米结构无碳化物贝氏体中碳合金钢及制备方法. 王天生, 张淼, 张福成. 发明专利ZL 201110255203.1, 申请日2011.09.01, 公开(公告)号CN102321852A, 公开(公告)日2012.01.18, 授权公告号CN 102321852 B, 授权公告日2012.10.24
获奖
1. 2002年,耐磨奥氏体锰钢化学成分和热加工工艺优化,国家科技进步二等奖,第六
2. 2001年,YBCO高温超导薄膜生长与器件研究,中国高校科学技术奖一等奖,第五
3. 2001年,耐磨奥氏体锰钢化学成分和热加工工艺优化,中国高校科学技术奖一等奖,第六
4. 2000年,复合强韧化中锰奥氏体耐磨钢,河北省科学技术进步奖三等奖,第五
5. 1998年,系列耐磨奥氏体锰钢及其微观结构,国家机械工业局科技进步二等奖,第六
6. 2005年,Ti3Al基合金的加氢热化学处理,河北省自然科学三等奖,第二
7. 2009年,长寿命提速/高速铁路辙叉热加工关键技术,教育部技术发明奖一等奖,第五
8. 2012年,超高强度贝氏体耐磨钢及其热加工技术,河北省技术发明奖一等奖,第四
9. 2008年,“材料科学基础”教材体系及教学方法改革成效,河北省教学成果二等奖,第四
代表论文
(1) T.S. Wang, M. Zhang, Y.H. Wang, J. Yang, F.C. Zhang. Martensitic transformation behaviour of deformed supercooled austenite. Scripta Materialia, 2013, 68(2): 162−165(通讯作者)
(2)M. Zhang, T.S. Wang,Y.H. Wang, J. Yang, F.C. Zhang. Preparation of nanostructured bainite in medium-carbon alloy steel. Materials Science & Engineering A, 2013, 568:123−126 (通讯作者)
(3) J. Yang, T.S. Wang, B. Zhang, F.C. Zhang. Microstructure and mechanical properties of high-carbon Si–Al-rich steel by low-temperature austempering. Materials & Design, 2012, 35: 170-174 (通讯作者)
(4) J. Yang, T.S. Wang, B. Zhang, F.C. Zhang. High-cycle bending fatigue behaviour of nanostructured bainitic steel. Scripta Materialia, 2012, 66(6): 363−366 (通讯作者)
(5)J. Yang, T.S. Wang, B. Zhang, F.C. Zhang. Sliding wear resistance and worn surface microstructure of nanostructured bainitic steel. Wear, 2012, 282−283: 81−84 (通讯作者)
(6)Z. Li, T.S. Wang, X.J. Zhang, F.C. Zhang. Annealing softening behaviour of cold-rolled low-carbon steel with a dual-phase structure and the resulting tensile properties. Materials Science & Engineering A, 2012, 552: 204−210(通讯作者)
(7) T.S. Wang, Z. Li, B. Zhang, X.J. Zhang, J.M. Deng, F.C. Zhang. High tensile ductility and high strength in ultrafine-grained low-carbon steel. Materials Science & Engineering A, 2010, 527: 2798–2801
(8) Li Qun, Wang Tian-sheng, Li Hong-biao, Gao Yu-wei, Li Ning, Jing Tian-fu. Warm deformation behavior of steels containing carbon of 0.45% to 1.26% with martensite starting structure. Journal of Iron and Steel Research, International, 2010, 17(5): 34-37(第一作者为博士生)
(9)W. Lei, T.S. Wang, Z. Li, X.J. Zhang, Q.F. Wang, F.C. Zhang. A new process to fabricate ultrafine-grained low-carbon steel with high strength and high elongation. Materials Science & Engineering A, 2010, 528(2): 784-787 (通讯作者)
(10)T.S. Wang, J. Yang, C.J. Shang, X.Y. Li, B. Zhang, F.C. Zhang. Microstructures and impact toughness of low-alloy high-carbon steel austempered at low temperature. Scripta Materialia, 2009, 61(4): 434-437(通讯作者)
(11) Q. Li, T.S. Wang, T.F. Jing, Y.W. Gao, J.F. Zhou, J.K. Yu, H.B. Li. Warm deformation behavior of quenched medium carbon steel and its effect on microstructure and mechanical properties. Materials Science & Engineering A, 2009, 515: 38-42 (通讯作者)
(12)T.S. Wang, B. Lv, M. Zhang, F.C. Zhang. A novel process to obtain ultrafine-grained low carbon steel with bimodal grain size distribution for potentially improving ductility. Materials Science & Engineering A, 2008, 485(1-2): 456-460
(13)T.S. Wang, J. Yang, C.J. Shang, X.Y. Li, B. Lv, M. Zhang, F.C. Zhang. Sliding friction surface microstructure and wear resistance of 9SiCr steel with low-temperature austempering treatment. Surface & Coatings Technology, 2008, 202: 4036-4040
(14) T.S. Wang, R.J. Hou, B. Lv, M. Zhang, F.C. Zhang. Microstructure evolution and deformation mechanism change in 0.98C–8.3Mn–0.04N steel during compressive deformation. Materials Science & Engineering A, 2007, 465: 68-71
(15) T.S. Wang, B. Lu, M. Zhang, R.J. Hou, F.C. Zhang. Nanocrystallization and a martensite formation in the surface layer of medium-manganese austenitic wear-resistant steel caused by shot peening. Materials Science & Engineering A, 2007, 458: 249-252
(16) Tiansheng Wang, Jinku Yu, Bingfeng Dong. Surface nanocrystallization induced by shot peening and its effect on corrosion resistance of 1Cr18Ni9Ti stainless steel. Surface & Coatings Technology, 2006, 200: 4777-4781
(17)T.S. Wang, X.Y. Li, F.C. Zhang, Y.Z. Zheng. Microstructures and mechanical properties of 60Si2CrVA steel by isothermal transformation at low temperature. Materials Science & Engineering A, 2006, 438-440: 1124-1127
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