은 플레이크 분말의 입자크기에 미치는 기계적 밀링공정변수의 영향
Effect of Mechanical Milling Parameters on the Particle Size of Silver Flake
1
조회
0
다운로드
1
인용
0
참고문헌
키워드
초록
This study is focused on investigating the relation between the particle size of silver flake powder andmechanical milling parameters. Mechanical milling parameters such as ball size, impeller rotation speed and millingtime of the attrition ball-mill were controlled to produce silver flake powder. The particle size of the silver flake powderincreased with increasing ball size and impeller rotation speed. The change of the particle size of the silver flake powderwith mechanical milling parameters was analyzed based on balls motion in the mill container of the attrition ballmill. The silver flake particles were formed at the elastic deformation area of the ball due to the collision between balls. The change of the particle size of the silver flake powder with mechanical milling parameters well consists with thechange of the collision energy of ball with parameters mentioned above.
Abstract
This study is focused on investigating the relation between the particle size of silver flake powder andmechanical milling parameters. Mechanical milling parameters such as ball size, impeller rotation speed and millingtime of the attrition ball-mill were controlled to produce silver flake powder. The particle size of the silver flake powderincreased with increasing ball size and impeller rotation speed. The change of the particle size of the silver flake powderwith mechanical milling parameters was analyzed based on balls motion in the mill container of the attrition ballmill. The silver flake particles were formed at the elastic deformation area of the ball due to the collision between balls. The change of the particle size of the silver flake powder with mechanical milling parameters well consists with thechange of the collision energy of ball with parameters mentioned above.
참고문헌 (25)
- J. Oprosky, "US 5,346,651", ~ (1993)
- R. G. Reed, "US 4,964,948", ~ (1989)
- N. I. Liu, "US 4,566,990", ~ (1983)
- S. M. Towlson, "US 5,653,918", ~ (1996)
- V. Paneccasio, "US 6,013,203", ~ (1998)
- H. W. Cui, , Int. J. Adhes. Adhes., 44, pp.232~ (2013)
- H. H. Lee, , Int. J. Adhes. Adhes., 25, pp.437~ (2005)
- H. W. Cui, , Int. J. Adhes. Adhes., 48, pp.177~ (2014)
- H. W. Cui, , Int. J. Adhes. Adhes., 44, pp.220~ (2013)
- D. Lu, , Int. Sym. Adv. Packag. Mater., 10, pp.48~ (1998)
- D. L. Markley, , :Int. Sym. Adv. Packag. Mater., 12, pp.16~ (1999)
- W. Songping, , J. Mater. Sci. Mater. Electr., 18, pp.447~ (2007)
- C. Suyanarayana, , Prog. Mater. Sci., 46, pp.1~ (2001)
- ASM International Handbook Committee, "Powder Metal Technologies and Application", pp.134~ (1998), ASM International
- J. Kano, , Powd. Tech., 98, pp.166~ (1998)
- A. Theodore, , Kona, 24, pp.83~ (2006)
- P. R. Santhanam, , Powd. Tech., 221, pp.403~ (2012)
- R. Watananbe, , Mater. Trans. JIM, 36, pp.102~ (1995)
- G. G. Lee, , J. Jpn. Soc. Powd. Met., 43, pp.1253~ (1996)
- D. W. Lee, , J. Kor. Powd. Met. Inst., 3, pp.159~ (1996)
- S. H. Hong, , Mater. Lett., 51, pp.139~ (2001)
- R. A. Serway, "Physics for Scientists and Engineers with Modern Physics", pp.292~ (2005), Cengage Learning Korea Ltd
- H. Hashimoto, , J. Chem. Eng. Jpn., 20, pp.380~ (1987)
- S. P. Timoshenko, "Theory of Elasticity", pp.420~ (1970), McGraw-Hill
- K. S. Venkataraman, , Powd. Tech., 96, pp.190~ (1998)