Machining, assembly, and characterization of a mesoscale double shell target

Journal of Manufacturing Processes

Volumn 6, Issue 1, 2004, Pages 97-106

  Bono, Matthew J ^a   Hibbard, Robin L ^a  

^a LAWRENCE LIVERMORE NATIONAL LABORATORY   (United States)

Author keywords

Aerogel; Diamond Turning; Double Shell Target; Mesoscale Machining; Microassembly; Micromechanical Machining; Precision Bonding; Vacuum Chucks

Indexed keywords

AEROGELS; ASSEMBLY; BONDING; CHARACTERIZATION; COMPOSITE MICROMECHANICS; LATHES; MANUFACTURE; POLYMERS; SHELL MOLD CASTING; VACUUM;

DIAMOND TURNING; DOUBLE SHELL TARGET; MESOSCALE MACHINING; MICROASSEMBLY; PRECISION BONDING; VACUUM CHUCKS;

MACHINING;

EID: 4043122549     PISSN: 15266125     EISSN: None     Source Type: Journal    
DOI: 10.1016/S1526-6125(04)70063-8     Document Type: Article

References (13)

1. Adams, D.P.; Vasile, M.J.; Benavides, G.; and Campbell, A.N. (2001). "Micromilling of metal alloys with focused ion beam-fabricated tools." Precision Engg. (v25), pp107-113.
2. Adams, D.P.; Vasile, M.J.; and Krishnan, A.S.M. (2000). "Microgrooving and microthreading tools for fabricating curvilinear features." Precision Engg. (v24), pp347-356.
3. Weck, M.; Fischer, S.; and Vos, M. (1997). "Fabrication of microcomponents using ultraprecision machine tools." Nanotechnology (v8), pp145-148.
4. Vasile, M.J.; Friedrich, C.R.; Kikkeri, B.; and McElhannon, R. (1996). "Micrometer-scale machining: tool fabrication and initial results." Precision Engg. (v19), pp180-186.
5. Yuan, Z.J.; Zhou, M.; and Dong, S. (1996). "Effect of diamond tool sharpness on minimum cutting thickness and cutting surface integrity in ultraprecision machining." Journal of Materials Processing Technology (v62), pp327-330.
6. Ikawa, N.; Shimada, S.; and Tanaka, H. (1992). "Minimum thickness of cut in micromachining." Nanotechnology (v3), pp6-9.
7. Schultz, K.R.; Kaae, J.L.; Miller, W.J.; Steinman, D.A.; and Stephens, R.B. (1999). "Status of inertial fusion target fabrication in the USA." Fusion Engg. and Design (v44), pp441-448.
8. Hatcher, C.W.; Lorensen, L.E.; and Weinstein, B.W. (1981). "Double-shell inertial confinement fusion target fabrication." Journal of Vacuum Science & Technology (v8, n3), pp1187-1190.
9. Duke, J.R.; Elliott, N.E.; Moore, J.E.; Gomez, V.M.; Manzanares, R.; Rivera, G.; Watt, R.; Varnum, W.S.; and Gobby, P.L. (1999). "The fabrication of double shell targets for Nova." Fusion Technology (v35, n2), pp90-94.
10. Nobile, A.; Bartos, J.J.; Day, R.D.; Delamater, N.D.; Elliott, J.E.; Elliott, N.B.; Gomez, V.M.; Hatch, D.J.; Kyrala, G.A.; Manzanares, R.; Pierce, T.H.; Sandoval, D.L.; Schmidt, D.W.; and Steckle, W.P. (2003). "Recent developments in fabrication of double shell targets for experiments at the OMEGA laser." 15th Target Fabrication Specialists Meeting, June 1-5, 2003, Gleneden Beach, OR.
11. Norimatsu, T.; Furusawa, A.; Yoshida, M.; Izawa, Y.; and Yamanaka, C. (1981). "Fabrication of double shell targets for laser fusion." Journal of Vacuum Science & Technology (v18, n3), pp1288-1289.
12. Pekala, R.W. (1989). "Organic aerogels from the polycondensation of resorcinol with formaldehyde." Journal of Materials Science (v24, n9), pp3221-3227.
13. Lambert, S.M.; Overturf, G.E.; Wilemski, G.; Letts, S.A.; SchroenCarey, D.; and Cook, R.C. (1997). "Fabrication of low-density foam shells from resorcinol-formaldehyde aerogel." Journal of Applied Polymer Science (v65, n11), pp2111-2122.