Thermal conductivity properties and heat transfer analysis of Multi-re-entrant auxetic honeycomb structures

Journal of Composite Materials

Volumn 43, Issue 21, 2009, Pages 2419-2439

  Innocenti, P ^a   Scarpa, F ^a  

^a UNIVERSITY OF BRISTOL   (United Kingdom)

Author keywords

Auxetic; Conductivity; Honeycomb; Radiation.; Transient and steady state

Indexed keywords

AUXETIC; CONDUCTIVITY; EQUIVALENT THERMAL; FE ANALYSIS; FINITE ELEMENT MODELS; GEOMETRY PARAMETER; HEAT TRANSFER ANALYSIS; HONEYCOMB; HONEYCOMB CELLS; HONEYCOMB PANELS; IN-PLANE; MAXIMUM TEMPERATURE; NONDIMENSIONAL; OUT-OF-PLANE; PARAMETRIC ANALYSIS; PEAK TEMPERATURES; PRINCIPAL DIRECTIONS; SANDWICH PANEL; STEADY-STATE CONDITION; THEORETICAL APPROACH; THEORETICAL MODELS; THEORETICAL RESULT; THERMAL ANALOGY; THERMAL ANISOTROPY; THERMAL PROTECTION SYSTEM; TRANSIENT CONDUCTIVITY; TRANSIENT THERMAL ANALYSIS; UNIT CELLS;

CELL MEMBRANES; COMPUTATIONAL GEOMETRY; FINITE ELEMENT METHOD; HEAT EXCHANGERS; HEAT TRANSFER; RADIATION PROTECTION; THERMAL CONDUCTIVITY; THERMOANALYSIS;

HONEYCOMB STRUCTURES;

EID: 70349485887     PISSN: 00219983     EISSN: 1530793X     Source Type: Journal    
DOI: 10.1177/0021998309344636     Document Type: Article

References (31)

1. W.L. Ko. Heat Shielding Characteristics and Thermostructural Performance of a Superalloy Sandwich Thermal Protection System (TPS), NASA/TP-2004-212024 (2004).
2. Williams, A.D. and Palo, S.T. (2006). Issues and Implications of the Thermal Control Systems on the ĝ€ĝ€'six-days Spacecraftgg, In: 4th Responsive Space Conference, 24-27 April, Los Angeles, CA.
3. Kabashima, S. and Ozaki, T. (2000). Numerical Approach to Calculate the Thermal Expansion of Honeycomb Sandwich Panel with Composite Face Sheets, Advanced Composite Materials, 9 (4). 387-400.
4. Darfler, S.C. (1996). United States Patent 5498462.
5. Wen, T., Tian, J., Lu, T.J., Queheillalt, D.T. and Wadley, H.N.G. (2006). Forced Convection in Metallic Honeycombs Structures, International Journal of Heat and Mass Transfer, 49: 3313-3324.
6. Wadley, H.N.G. (2006). Multifunctional Periodic Cellular Metals, Philosophical Transactions of the Royal Society A, 364: 31-68.
7. Dempsey, B.M., Eisele, S. and McDowell, D.L. (2006). Heat Sink Applications of Extruded Metal Honeycombs, International Journal of Heat and Mass Transfer, 48: 527-535.
8. Seepersad, C.C., Dempsey, B.M., Allen, J.K., Mistree, F. and McDowell, D.L. (2004). Design of Multifunctional Honeycomb Materials, AIAA Journal, 42 (5). 1025-1033.
9. Evans, K.E. (1997). Auxetic Polymers: A New Range of Materials, Endeavour, New Series, 15 (4). 170-174.
10. Lakes, R.S. (1987). Foam Structures with a Negative Poissong's Ratio, Science, 253: 1038-1040.
11. Abd El-Sayed, F.K., Jones, R. and Burgens, I.W. (1979). Theoretical Approach to the Deformation of Honeycomb Based Composite-materials, Composites, 10: 209-214.
12. Scarpa, F. and Tomlinson, G. (2000). Theoretical Characteristics of the Vibration of Sandwich Plates with In-plane Negative Poissong's Ratio Values, Journal of Sound and Vibration, 230 (1). 45-67.
13. Wojciechowski, K.W. (1989). Two-dimensional Isotropic Systems with a Negative Poissong's Ratio, Physics Letters A, 137: 60-64.
14. Prall, D. and Lakes, R.S. (1996). Properties of a Chiral Honeycomb with a Poissonsg Ratio -1, International Journal of Mechanical Sciences, 39: 305-314.
15. Scarpa, F., Blain, S., Lew, T., Perrott, D., Ruzzene, M. and Yates, J.R. (2007). Elastic Buckling of Hexagonal Chiral Cell Honeycombs, Composites A: Applied Science and Manufacturing, 38 (2). 380-389.
16. Grima, J.N., Gatt, R., Alderson, A. and Evans, K.E. (2005). On the Potential of Connected Stars as Auxetic Systems, Molecular Simulations, 31 (13). 925-935.
17. Bezazi, A., Scarpa, F. and Remillat, C. (2005). A Novel Centresymmetric Honeycomb Composite Structure, Composite Structures, 71: 356-364.
18. Gibson, L.J. and Ashby, M.F. (1997). Cellular Solids: Structure and Properties, Cambridge University Press, Cambridge.
19. Bezazi, A., Remillat, C., Innocenti, P. and Scarpa, F. (2008). In-plane Mechanical and Thermal Conductivity Properties of a Rectangular-hexagonal Honeycomb Structure, Composite Structures, 84 (3). 248-255.
20. Zenkert, D. (1997). The Handbook of Sandwich Constructions, Emas Publishing, UK.
21. Torquato, S., Gibiansky, L.V., Silva, M.J. and Gibson, L.J. (1998). Effective Mechanical and Transport Properties of Cellular Solids, International Journal of Mechanical Sciences, 40 (1). 71-82.
22. Lu, T.J. and Chen, C. (1999). Thermal Transport and Fire Retardance Properties of Cellular Aluminium Alloys, Acta Materialia, 47 (5). 1469-1485.
23. Leach, A.G. (1993). The Thermal Conductivity of Foams. I. Models for Heat Conduction, Journal of Physics D: Applied Physics, 26: 733-739.
24. Antsiferov, V.N., Kunevich, A.P., Basanov, V.A. and Mevdev, A.P. (1988). Electric Resistance and Thermal Conductivity of Highly Porous Permeable Cellular Materials, Powder Metallurgy and Metal Ceramics, 27 (8). 668-672.
25. Swann, R.T. and Pittman, C.M. (1961). Analysis of Effective Thermal Conductivities of Honeycomb-Core and Corrugated-Core Sandwich Panels, NASA TN D-714.
26. Kreith, F. and Bohn, M.S. (1993). Principles of Heat Transfer, 5 th edn, West Publishing Company, New York.
27. Hyun, S. and Torquato, S. (2000). Effective Elastic and Transport Properties of Regular Honeycombs for all Densities, Journal of Materials Research, 15 (9). 1985-1993.
28. Hashin, Z. and Shtrikman, S. (1962). A Variational Approach to the Theory of Effective Magnetic Permeability of Multiphase Materials, Journal of Applied Physics, 33 (10). 3125-3131.
29. ANSYS Release 10.0 Userg's Manual, Swanson Inc., Canongsburg, PA.
30. Available at: http://www.hightempmetals.com/techdata/ hitempInconel617data.php(accessed April 9, 2008).
31. Kreyszig, E. (1962). Advanced Engineering Mathematics, John Wiley and Sons, Inc, New York.