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University of Groningen Structure-property relations of gold and graphene nanoporous actuators Saane, Siva Shankar Reddy IMPORTANT NOTE: You are advised to consult the publisher's version (publisher's PDF) if you wish to cite from it. Please check the document version below. Document Version Publisher's PDF, also known as Version of record Publication date: 2015 Link to publication in University of Groningen/UMCG research database Citation for published version (APA): Saane, S. S. R. (2015). Structure-property relations of gold and graphene nanoporous actuators. [Groningen]: University of Groningen. Copyright Other than for strictly personal use, it is not permitted to download or to forward/distribute the text or part of it without the consent of the author(s) and/or copyright holder(s), unless the work is under an open content license (like Creative Commons). Take-down policy If you believe that this document breaches copyright please contact us providing details, and we will remove access to the work immediately and investigate your claim. Downloaded from the University of Groningen/UMCG research database (Pure): http://www.rug.nl/research/portal. For technical reasons the number of authors shown on this cover page is limited to 10 maximum. Download date: 17-06-2020
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Page 1: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

University of Groningen

Structure-property relations of gold and graphene nanoporous actuatorsSaane, Siva Shankar Reddy

IMPORTANT NOTE: You are advised to consult the publisher's version (publisher's PDF) if you wish to cite fromit. Please check the document version below.

Document VersionPublisher's PDF, also known as Version of record

Publication date:2015

Link to publication in University of Groningen/UMCG research database

Citation for published version (APA):Saane, S. S. R. (2015). Structure-property relations of gold and graphene nanoporous actuators.[Groningen]: University of Groningen.

CopyrightOther than for strictly personal use, it is not permitted to download or to forward/distribute the text or part of it without the consent of theauthor(s) and/or copyright holder(s), unless the work is under an open content license (like Creative Commons).

Take-down policyIf you believe that this document breaches copyright please contact us providing details, and we will remove access to the work immediatelyand investigate your claim.

Downloaded from the University of Groningen/UMCG research database (Pure): http://www.rug.nl/research/portal. For technical reasons thenumber of authors shown on this cover page is limited to 10 maximum.

Download date: 17-06-2020

Page 2: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

Bibliography

[1] J Biener, A Wittstock, TF Baumann, J Weissmuller, M Baumer, and AV Hamza. Sur-face chemistry in nanoscale materials. Materials, 2(4):2404–2428, 2009.

[2] J Erlebacher and R Seshadri. Hard materials with tunable porosity. MRS bulletin,34(8):561–568, 2009.

[3] K Koga, T Ikeshoji, and K Sugawara. Size-and temperature-dependent structuraltransitions in gold nanoparticles. Physical Review Letters, 92(11):115507, 2004.

[4] A Eychmuller. Structure and photophysics of semiconductor nanocrystals. The Jour-

nal of Physical Chemistry B, 104(28):6514–6528, 2000.

[5] Y Nakae, Y Seino, T Teranishi, M Miyake, S Yamada, and H Hori. Anomalous spinpolarization in Pd and Au nano-particles. Physica B: Condensed Matter, 284:1758–1759, 2000.

[6] U Kreibig and M Vollmer. Optical properties of metal clusters. Springer-Verlag,1995.

[7] LH Qian, XQ Yan, T Fujita, A Inoue, and MW Chen. Surface enhanced raman scatter-ing of nanoporous gold: Smaller pore sizes stronger enhancements. Applied Physics

Letters, 90(15):153120–153120, 2007.

[8] G Ouyang, X Tan, and G Yang. Thermodynamic model of the surface energy ofnanocrystals. Physical Review B, 74(19):195408, 2006.

Page 3: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

96 Bibliography

[9] G Ouyang, XL Li, X Tan, and GW Yang. Anomalous Youngs modulus of a nanotube.Physical Review B, 76(19):193406, 2007.

[10] G Ouyang, XL Li, and GW Yang. Superheating and melting of nanocavities. Applied

Physics Letters, 92(5):051902, 2008.

[11] E Roduner. Size matters: why nanomaterials are different. Chemical Society Reviews,35(7):583–592, 2006.

[12] J Diao, K Gall, and ML Dunn. Atomistic simulation of the structure and elastic prop-erties of gold nanowires. Journal of the Mechanics and Physics of Solids, 52(9):1935–1962, 2004.

[13] J Diao, K Gall, ML Dunn, and JA Zimmerman. Atomistic simulations of the yieldingof gold nanowires. Acta Materialia, 54(3):643–653, 2006.

[14] RC Cammarata. Surface and interface stress effects in thin films. Progress in Surface

Science, 46(1):1–38, 1994.

[15] H Ibach. The role of surface stress in reconstruction, epitaxial growth and stabilizationof mesoscopic structures. Surface Science Reports, 29(5):195–263, 1997.

[16] HJ Jin and J Weissmuller. A material with electrically tunable strength and flow stress.Science, 332(6034):1179–1182, 2011.

[17] D Eaves. Handbook of Polymer Foams. Rapra Technology, Shrewsbury, 2004.

[18] MF Ashby, T Evans, NA Fleck, JW Hutchinson, HNG Wadley, and LJ Gibson. Metal

Foams: A Design Guide. Butterworth-Heinemann, Massachusetts, 2000.

[19] HP Degischer and B Kriszt. Handbook of cellular metals: production, processing,

applications. Wiley-VCH, Weinheim, 2002.

[20] J Banhart. Manufacture, characterisation and application of cellular metals and metalfoams. Progress in Materials Science, 46(6):559–632, 2001.

[21] I Zuburtikudis and H Saltsburg. Linear metal nanostructures and size effects of sup-ported metal catalysts. Science, 258(5086):1337–1339, 1992.

[22] M Haruta, T Kobayashi, H Sano, and N Yamada. Novel gold catalysts for the oxida-tion of carbon monoxide at a temperature far below 0◦C. Chemistry Letters, (2):405–408, 1987.

Page 4: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

Bibliography 97

[23] C Huang, C Li, and G Shi. Graphene based catalysts. Energy & Environmental

Science, 5(10):8848–8868, 2012.

[24] H Falsig, B Hvolbæk, IS Kristensen, T Jiang, T Bligaard, CH Christensen, andJK Nørskov. Trends in the catalytic CO oxidation activity of nanoparticles. Ange-

wandte Chemie, 120(26):4913–4917, 2008.

[25] G Ouyang, G Yang, C Sun, and W Zhu. Nanoporous structures: smaller is stronger.Small, 4(9):1359–1362, 2008.

[26] J Zhang and CM Li. Nanoporous metals: fabrication strategies and advanced elec-trochemical applications in catalysis, sensing and energy systems. Chemical Society

Reviews, 41(21):7016–7031, 2012.

[27] XY Lang, HT Yuan, Y Iwasa, and MW Chen. Three-dimensional nanoporous goldfor electrochemical supercapacitors. Scripta Materialia, 64(9):923–926, 2011.

[28] J Xiao, D Mei, X Li, W Xu, D Wang, GL Graff, WD Bennett, Z Nie, LV Saraf,IA Aksay, J Liu, and JG Zhang. Hierarchically porous graphene as a lithium–airbattery electrode. Nano Letters, 11(11):5071–5078, 2011.

[29] J Weissmuller, RN Viswanath, D Kramer, P Zimmer, R Wurschum, and H Gleiter.Charge-induced reversible strain in a metal. Science, 300(5617):312, 2003.

[30] J Biener, S Dasgupta, L Shao, D Wang, MA Worsley, A Wittstock, JRI Lee, MM Bi-ener, CA Orme, SO Kucheyev, BC Wood, TM Willey, AV Hamza, J Weissmuller,H Hahn, and TF Baumann. Graphene: Macroscopic 3d nanographene with dynami-cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012.

[31] E Detsi, ZG Chen, WP Vellinga, PR Onck, and JTM De Hosson. Actuating andsensing properties of nanoporous gold. Journal of nanoscience and nanotechnology,12(6):4951–4955, 2012.

[32] JD Grade and H Jerman. MEMS electrostatic actuators for optical switching appli-cations. In Optical Fiber Communication Conference, volume 3. Optical Society ofAmerica, 2001.

[33] JH Jeon and IK Oh. Selective growth of platinum electrodes for MDOF IPMC actua-tors. Thin Solid Films, 517(17):5288–5292, 2009.

Page 5: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

98 Bibliography

[34] SW Yeom and IK Oh. A biomimetic jellyfish robot based on ionic polymer metalcomposite actuators. Smart Materials and Structures, 18(8):085002, 2009.

[35] W Trimmer and R Jebens. Actuators for micro robots. In Robotics and Automa-

tion, 1989. Proceedings., 1989 IEEE International Conference on, pages 1547–1552.IEEE, 1989.

[36] N Chaillet, M Hafez, and P Lambert. Actuators for microrobotics. Microrobotics for

Micromanipulation, pages 99–178, 2010.

[37] J Lu, SG Kim, S Lee, and IK Oh. A biomimetic actuator based on an ionic networkingmembrane of poly (styrene-alt-maleimide)-incorporated poly (vinylidene fluoride).Advanced Functional Materials, 18(8):1290–1298, 2008.

[38] A Buguin, M Li, P Silberzan, B Ladoux, and P Keller. Micro-actuators: When artifi-cial muscles made of nematic liquid crystal elastomers meet soft lithography. Journal

of the American Chemical Society, 128(4):1088–1089, 2006.

[39] RH Baughman. Conducting polymer artificial muscles. Synthetic Metals, 78(3):339–353, 1996.

[40] JH Jeon, TH Cheng, and IK Oh. Snap-through dynamics of buckled IPMC actuator.Sensors and Actuators A: Physical, 158(2):300–305, 2010.

[41] AD Eskuri. Electroactive polymer actuated medical devices, November 29 2005. USPatent 6,969,395.

[42] K Ullakko. Magnetically controlled shape memory alloys: a new class of actuatormaterials. Journal of materials Engineering and Performance, 5(3):405–409, 1996.

[43] AJEC Baz, K Imam, and J McCoy. Active vibration control of flexible beams usingshape memory actuators. Journal of Sound and Vibration, 140(3):437–456, 1990.

[44] C Asckler, GA Lesieutre, GH Koopmann, and CL Davis. Inertial piezoceramic actu-ators for smart structures. In Smart Structures & Materials’ 95, pages 14–25. Interna-tional Society for Optics and Photonics, 1995.

[45] J Qiu, H Ji, and K Zhu. Semi-active vibration control using piezoelectric actuators insmart structures. Frontiers of Mechanical Engineering in China, 4(3):242–251, 2009.

Page 6: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

Bibliography 99

[46] CR de Lima, SL Vatanabe, A Choi, PH Nakasone, RF Pires, and EC Nelli Silva.A biomimetic piezoelectric pump: Computational and experimental characterization.Sensors and Actuators A: Physical, 152(1):110–118, 2009.

[47] RH Baughman, C Cui, AA Zakhidov, Z Iqbal, JN Barisci, GM Spinks, GG Wallace,A Mazzoldi, D. DR, AG Rinzler, O Jaschinski, S Roth, and Kertesz M. Carbonnanotube actuators. Science, 284(5418):1340–1344, 1999.

[48] M Tahhan, VT Truong, GM Spinks, and GG Wallace. Carbon nanotube and polyani-line composite actuators. Smart Materials and Structures, 12(4):626, 2003.

[49] L-H Shao, J Biener, HJ Jin, MM Biener, TF Baumann, and J Weissmuller. Electri-cally tunable nanoporous carbon hybrid actuators. Advanced Functional Materials,22(14):3029–3034, 2012.

[50] VK Varadan, KJ Vinoy, and S Gopalakrishnan. Smart Material Systems and MEMS:

Design and Development Methodologies. John Wiley & Sons Ltd., Chichester, 2006.

[51] SC Minne, SR Manalis, and CF Quate. Parallel atomic force microscopy using can-tilevers with integrated piezoresistive sensors and integrated piezoelectric actuators.Applied Physics Letters, 67(26):3918–3920, 1995.

[52] CJ Chen. Introduction to scanning tunneling microscopy, volume 227. Oxford Uni-versity Press New York, 1993.

[53] SE Park and TR Shrout. Characteristics of relaxor-based piezoelectric single crystalsfor ultrasonic transducers. Ultrasonics, Ferroelectrics and Frequency Control, IEEE

Transactions on, 44(5):1140–1147, 1997.

[54] A Safari and EK Akdogan. Piezoelectric and acoustic materials for transducer appli-

cations. Springer, 2008.

[55] LE Cross, SJ Jang, RE Newnham, S Nomura, and K Uchino. Large electrostrictiveeffects in relaxor ferroelectrics. Ferroelectrics, 23(1):187–191, 1980.

[56] X Zhu and Z Meng. Actuators, Piezoelectric Ceramic, Functional Gradient. WileyOnline Library, 2002.

[57] MM Schwartz. Encyclopedia of Smart Materials, volume 1. Wiley-Interscience,2002.

Page 7: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

100 Bibliography

[58] B Yang, Q Liu, T Zhang, Y Cao, Z Feng, and G Meng. Non-contact translation-rotation sensor using combined effects of magnetostriction and piezoelectricity. Sen-

sors, 12(10):13829–13841, 2012.

[59] S Karunanidhi and M Singaperumal. Design, analysis and simulation of magnetostric-tive actuator and its application to high dynamic servo valve. Sensors and Actuators

A: Physical, 157(2):185–197, 2010.

[60] SM Spearing. Materials issues in microelectromechanical systems (MEMS). Acta

Materialia, 48(1):179–196, 2000.

[61] H Miyajima and M Mehregany. High-aspect-ratio photolithography for MEMS appli-cations. Journal of Microelectromechanical Systems, 4(4):220–229, 1995.

[62] C Marxer, C Thio, MA Gretillat, NF de Rooij, R Battig, O Anthamatten, B Valk,and P Vogel. Vertical mirrors fabricated by deep reactive ion etching for fiber-opticswitching applications. Journal of Microelectromechanical Systems, 6(3):277–285,1997.

[63] N Maluf and K Williams. Introduction to microelectromechanical systems engineer-

ing. Artech House, 2004.

[64] CTC Nguyen. Frequency-selective mems for miniaturized low-power communicationdevices. Microwave Theory and Techniques, IEEE Transactions on, 47(8):1486–1503,1999.

[65] AA Berlin and KJ Gabriel. Distributed mems: New challenges for computation. Com-

putational Science & Engineering, IEEE, 4(1):12–16, 1997.

[66] LM Low, S Seetharaman, KQ He, and MJ Madou. Microactuators toward mi-crovalves for responsive controlled drug delivery. Sensors and Actuators B: Chemical,67(1):149–160, 2000.

[67] L Zhang, KE Peyer, and BJ Nelson. Artificial bacterial flagella for micromanipulation.Lab on a Chip, 10(17):2203–2215, 2010.

[68] S Namdeo. Flagellar hydrodynamics of biological and biomimetic micro-swimmers.PhD Thesis, University of Groningen, 2014.

Page 8: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

Bibliography 101

[69] CQ Gao, WW Zhang, J Zhai, and XB Liu. Characteristic of unsteady aerodynamicloads with a synthetic jet at airfoil trailing edge. Advanced Engineering and Technol-

ogy, page 347, 2014.

[70] GM Spinks, GG Wallace, TW Lewis, LS Fifield, L Dai, and RH Baughman. Electro-chemically driven actuators from conducting polymers, hydrogels, and carbon nan-otubes. In Smart Materials and MEMS, pages 223–231. International Society forOptics and Photonics, 2001.

[71] JN Barisci, GM Spinks, GG Wallace, JD Madden, and RH Baughman. Increasedactuation rate of electromechanical carbon nanotube actuators using potential pulseswith resistance compensation. Smart Materials and Structures, 12(4):549, 2003.

[72] Y Dai, W Guo, Z Zhang, B Zhou, and C Tang. Electric-field-induced deformation inboron nitride nanotubes. Journal of Physics D: Applied Physics, 42(8):085403, 2009.

[73] HJ Jin, S Parida, D Kramer, and J Weissmuller. Sign-inverted surface stress-chargeresponse in nanoporous gold. Surface Science, 602(23):3588–3594, 2008.

[74] E Detsi, MS Selles, PR Onck, and JTM De Hosson. Nanoporous silver as electro-chemical actuator. Scripta Materialia, 69(2):195–198, 2013.

[75] R Liu, S Zheng, JK Baldwin, M Kuthuru, N Mara, and A Antoniou. Synthesis andmechanical behavior of nanoporous nanotwinned copper. Applied Physics Letters,103(24):241907, 2013.

[76] BC Tappan, SA Steiner, and EP Luther. Nanoporous metal foams. Angewandte

Chemie International Edition, 49(27):4544–4565, 2010.

[77] I Vukovic, S Punzhin, Z Vukovic, PR Onck, JTM De Hosson, G ten Brinke, andKU Loos. Supramolecular route to well-ordered metal nanofoams. ACS Nano,5(8):6339–6348, 2011.

[78] R Pelrine, R Kornbluh, Q Pei, and J Joseph. High-speed electrically actuated elas-tomers with strain greater than 100%. Science, 287(5454):836–839, 2000.

[79] QM Zhang, V Bharti, and X Zhao. Giant electrostriction and relaxor ferroelectricbehavior in electron-irradiated poly (vinylidene fluoride-trifluoroethylene) copolymer.Science, 280(5372):2101–2104, 1998.

Page 9: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

102 Bibliography

[80] Z Cheng and Q Zhang. Field-activated electroactive polymers. MRS bulletin,33(03):183–187, 2008.

[81] W Haiss. Surface stress of clean and adsorbate-covered solids. Reports on Progress

in Physics, 64(5):591, 2001.

[82] J Weissmuller and JW Cahn. Mean stresses in microstructures due to interfacestresses: A generalization of a capillary equation for solids. Acta Materialia,45(5):1899–1906, 1997.

[83] RN Viswanath, D Kramer, and J Weissmuller. Adsorbate effects on the surface stress–charge response of platinum electrodes. Electrochimica Acta, 53(6):2757–2767, 2008.

[84] D Kramer, RN Viswanath, and J Weissmuller. Surface-stress induced macroscopicbending of nanoporous gold cantilevers. Nano Letters, 4(5):793–796, 2004.

[85] T Mirfakhrai, J Oh, M Kozlov, ECW Fok, M Zhang, S Fang, RH Baughman, andJDW Madden. Electrochemical actuation of carbon nanotube yarns. Smart Materials

and Structures, 16(2):S243, 2007.

[86] L Qu, Q Peng, L Dai, GM Spinks, GG Wallace, and RH Baughman. Carbon nan-otube electroactive polymer materials: Opportunities and challenges. MRS bulletin,33(03):215–224, 2008.

[87] S Lu and B Panchapakesan. Hybrid platinum/single-wall carbon nanotube nanowireactuators: metallic artificial muscles. Nanotechnology, 17(3):888, 2006.

[88] Y Umeno, C Elsasser, B Meyer, P Gumbsch, and J Weißmuller. Reversible relaxationat charged metal surfaces: An ab initio study. EPL (Europhysics Letters), 84:13002,2008.

[89] HJ Jin, XL Wang, S Parida, K Wang, M Seo, and J Weissmuller. Nanoporous Au-Ptalloys as large strain electrochemical actuators. Nano Letters, 10(1):187–194, 2009.

[90] E Detsi, S Punzhin, J Rao, PR Onck, and JTM De Hosson. Enhanced strain in func-tional nanoporous gold with a dual microscopic length scale structure. ACS Nano,6(5):3734, 2012.

[91] KS Novoselov, AK Geim, SV Morozov, D Jiang, Y Zhang, SV Dubonos, IV Grig-orieva, and AA Firsov. Electric field effect in atomically thin carbon films. Science,306(5696):666–669, 2004.

Page 10: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

Bibliography 103

[92] P Avouris, Z Chen, and V Perebeinos. Carbon-based electronics. Nature Nanotech-

nology, 2(10):605–615, 2007.

[93] AA Balandin, S Ghosh, W Bao, I Calizo, D Teweldebrhan, F Miao, and CN Lau.Superior thermal conductivity of single-layer graphene. Nano Letters, 8(3):902–907,2008.

[94] J Xia, F Chen, J Li, and N Tao. Measurement of the quantum capacitance of graphene.Nature Nanotechnology, 4(8):505–509, 2009.

[95] C Lee, X Wei, JW Kysar, and J Hone. Measurement of the elastic properties andintrinsic strength of monolayer graphene. Science, 321(5887):385–388, 2008.

[96] TJ Booth, P Blake, RR Nair, D Jiang, EW Hill, U Bangert, A Bleloch, M Gass,KS Novoselov, MI Katsnelson, and AK Geim. Macroscopic graphene membranesand their extraordinary stiffness. Nano Letters, 8(8):2442–2446, 2008.

[97] AK Geim and KS Novoselov. The rise of graphene. Nature Materials, 6(3):183–191,2007.

[98] JS Bunch, AM Van Der Zande, SS Verbridge, IW Frank, DM Tanenbaum, JM Parpia,HG Craighead, and PL McEuen. Electromechanical resonators from graphene sheets.Science, 315(5811):490–493, 2007.

[99] L Qiu, JZ Liu, SLY Chang, Y Wu, and D Li. Biomimetic superelastic graphene-basedcellular monoliths. Nature Communications, 3:1241, 2012.

[100] OD Velev, PM Tessier, AM Lenhoff, and EW Kaler. Materials: a class of porousmetallic nanostructures. Nature, 401(6753):548–548, 1999.

[101] Y Ding and J Erlebacher. Nanoporous metals with controlled multimodal pore sizedistribution. Journal of the American Chemical Society, 125(26):7772–7773, 2003.

[102] M Terrones, F Banhart, N Grobert, JC Charlier, H Terrones, and PM Ajayan. Molec-ular junctions by joining single-walled carbon nanotubes. Physical Review Letters,89(7):075505, 2002.

[103] BQ Wei, R Vajtai, Y Jung, J Ward, R Zhang, G Ramanath, and PM Ajayan. Assem-bly of highly organized carbon nanotube architectures by chemical vapor deposition.Chemistry of Materials, 15(8):1598–1606, 2003.

Page 11: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

104 Bibliography

[104] D Srivastava, M Menon, and PM Ajayan. Branched carbon nanotube junctions pre-dicted by computational nanotechnology and fabricated through nanowelding. Jour-

nal of Nanoparticle Research, 5(3-4):395–400, 2003.

[105] M Menon, AN Andriotis, D Srivastava, I Ponomareva, and LA Chernozatonskii. Car-bon nanotube T junctions: formation pathways and conductivity. Physical Review

Letters, 91(14):145501, 2003.

[106] S Zhang, SL Mielke, R Khare, D Troya, RS Ruoff, GC Schatz, and T Belytschko. Me-chanics of defects in carbon nanotubes: atomistic and multiscale simulations. Physical

Review B, 71(11):115403, 2005.

[107] A Cao, PL Dickrell, WG Sawyer, MN Ghasemi-Nejhad, and PM Ajayan. Super-compressible foamlike carbon nanotube films. Science, 310(5752):1307–1310, 2005.

[108] Y Umeno, C Elsasser, B Meyer, P Gumbsch, M Nothacker, J Weissmuller, and F Ev-ers. Ab initio study of surface stress response to charging. EPL (Europhysics Letters),78:13001, 2007.

[109] F Weigend, F Evers, and J Weissmuller. Structural Relaxation in Charged MetalSurfaces and Cluster Ions. Small, 2(12):1497, 2006.

[110] GW Rogers and JZ Liu. Graphene actuators: quantum-mechanical and electrostaticdouble-layer effects. Journal of the American Chemical Society, 133(28):10858–10863, 2011.

[111] M Verissimo-Alves, B Koiller, H Chacham, and RB Capaz. Electromechanical effectsin carbon nanotubes: Ab initio and analytical tight-binding calculations. Physical

Review B, 67(16):161401, 2003.

[112] R Liu and A Antoniou. A relationship between the geometrical structure of ananoporous metal foam and its modulus. Acta Materialia, 61:2390–2402, 2013.

[113] N Leventis, N Chandrasekaran, C Sotiriou-Leventis, and A Mumtaz. Smelting in theage of nano: iron aerogels. Journal of Materials Chemistry, 19(1):63–65, 2009.

[114] N Leventis, N Chandrasekaran, AG Sadekar, C Sotiriou-Leventis, and H Lu.One-pot synthesis of interpenetrating inorganic/organic networks of cuo/resorcinol-formaldehyde aerogels: nanostructured energetic materials. Journal of the American

Chemical Society, 131(13):4576–4577, 2009.

Page 12: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

Bibliography 105

[115] AJ Forty and P Durkin. A micromorphological study of the dissolution of silver-goldalloys in nitric acid. Philosophical Magazine A, 42(3):295–318, 1980.

[116] RC Newman, SG Corcoran, J Erlebacher, MJ Aziz, and K Sieradzki. Alloy corrosion.MRS bulletin-Materials Research Society, 24:24–28, 1999.

[117] J Erlebacher, MJ Aziz, A Karma, N Dimitrov, and K Sieradzki. Evolution ofnanoporosity in dealloying. Nature, 410(6827):450–453, 2001.

[118] BC Tappan, MH Huynh, MA Hiskey, DE Chavez, EP Luther, JT Mang, and SF Son.Ultralow-density nanostructured metal foams: combustion synthesis, morphology,and composition. Journal of the American Chemical Society, 128(20):6589–6594,2006.

[119] A Dursun, DV Pugh, and SG Corcoran. Dealloying of Ag-Au alloys in halide-containing electrolytes affect on critical potential and pore size. Journal of the Elec-

trochemical Society, 150(7):B355–B360, 2003.

[120] R Li and K Sieradzki. Ductile-brittle transition in random porous Au. Physical Review

Letters, 68(8):1168–1171, 1992.

[121] Y Ding, YJ Kim, and J Erlebacher. Nanoporous gold leaf:ancient technol-ogy/advanced material. Advanced Materials, 16(21):1897–1900, 2004.

[122] J Biener, AM Hodge, AV Hamza, LM Hsiung, and JH Satcher. Nanoporous Au: Ahigh yield strength material. Journal of Applied Physics, 97(2):024301–024301, 2005.

[123] NJ Briot, T Kennerknecht, C Eberl, and TJ Balk. Mechanical properties of bulk singlecrystalline nanoporous gold investigated by millimetre-scale tension and compressiontesting. Philosophical Magazine, 94(8):847–866, 2014.

[124] AM Hodge, J Biener, JR Hayes, PM Bythrow, CA Volkert, and AV Hamza. Scal-ing equation for yield strength of nanoporous open-cell foams. Acta Materialia,55(4):1343–1349, 2007.

[125] M Hakamada and M Mabuchi. Microstructural evolution in nanoporous gold by ther-mal and acid treatments. Materials Letters, 62(3):483–486, 2008.

[126] E Seker, JT Gaskins, H Bart-Smith, J Zhu, ML Reed, G Zangari, R Kelly, and MR Be-gley. The effects of post-fabrication annealing on the mechanical properties of free-standing nanoporous gold structures. Acta Materialia, 55(14):4593–4602, 2007.

Page 13: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

106 Bibliography

[127] T Fujita, L-H Qian, K Inoke, J Erlebacher, and M-W Chen. Three-dimensional mor-phology of nanoporous gold. Applied Physics Letters, 92(25):251902, 2008.

[128] X Lu, E Bischoff, R Spolenak, and TJ Balk. Investigation of dealloying in Au–Ag thinfilms by quantitative electron probe microanalysis. Scripta Materialia, 56(7):557–560, 2007.

[129] E Detsi, M Van de Schootbrugge, S Punzhin, PR Onck, and JTM De Hosson. Ontuning the morphology of nanoporous gold. Scripta Materialia, 64(4):319–322, 2011.

[130] S Parida, D Kramer, CA Volkert, H Rosner, J Erlebacher, and J Weissmuller. Volumechange during the formation of nanoporous gold by dealloying. Physical Review

Letters, 97(3):035504, 2006.

[131] CA Volkert and ET Lilleodden. Size effects in the deformation of sub-micron Aucolumns. Philosophical Magazine, 86(33-35):5567–5579, 2006.

[132] YCK Chen, YS Chu, J Yi, I McNulty, Q Shen, PW Voorhees, and DC Dunand. Mor-phological and topological analysis of coarsened nanoporous gold by x-ray nanoto-mography. Applied Physics Letters, 96(4):043122–043122, 2010.

[133] O Zinchenko, HA De Raedt, E Detsi, PR Onck, and JTM De Hosson. Nanoporousgold formation by dealloying: A metropolis monte carlo study. Computer Physics

Communications, 184(6):1562–1569, 2013.

[134] N Huber, RN Viswanath, N Mameka, J Markmann, and J Weißmuller. Scaling laws ofnanoporous metals under uniaxial compression. Acta Materialia, 67:252–265, 2014.

[135] H Rosner, S Parida, D Kramer, CA Volkert, and J Weissmuller. Reconstructing ananoporous metal in three dimensions: An electron tomography study of dealloyedgold leaf. Advanced Engineering Materials, 9(7):535–541, 2007.

[136] Y Xu, K Sheng, C Li, and G Shi. Self-assembled graphene hydrogel via a one-stephydrothermal process. ACS Nano, 4(7):4324–4330, 2010.

[137] Z Niu, J Chen, HH Hng, J Ma, and X Chen. A leavening strategy to prepare reducedgraphene oxide foams. Advanced Materials, 24(30):4144–4150, 2012.

[138] Q Chen, L Zhang, and G Chen. Facile preparation of graphene-copper nanoparticlecomposite by in situ chemical reduction for electrochemical sensing of carbohydrates.Analytical Chemistry, 84(1):171–178, 2011.

Page 14: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

Bibliography 107

[139] Y Xu and G Shi. Assembly of chemically modified graphene: methods and applica-tions. Journal of Materials Chemistry, 21(10):3311–3323, 2011.

[140] C Li and G Shi. Three-dimensional graphene architectures. Nanoscale, 4(18):5549–5563, 2012.

[141] Z Chen, W Ren, L Gao, B Liu, S Pei, and H-M Cheng. Three-dimensional flexible andconductive interconnected graphene networks grown by chemical vapour deposition.Nature Materials, 10(6):424–428, 2011.

[142] JL Vickery, AJ Patil, and S Mann. Fabrication of graphene–polymer nanocompositeswith higher-order three-dimensional architectures. Advanced Materials, 21(21):2180–2184, 2009.

[143] L Estevez, A Kelarakis, Q Gong, EH Daas, and EP Giannelis. Multifunctionalgraphene/platinum/nafion hybrids via ice templating. Journal of the American Chem-

ical Society, 133(16):6122–6125, 2011.

[144] H Sun, L Cao, and L Lu. Bacteria promoted hierarchical carbon materials forhigh-performance supercapacitor. Energy & Environmental Science, 5(3):6206–6213,2012.

[145] BG Choi, M Yang, WH Hong, JW Choi, and YS Huh. 3D macroporous grapheneframeworks for supercapacitors with high energy and power densities. ACS Nano,6(5):4020–4028, 2012.

[146] X Cao, Y Shi, W Shi, G Lu, X Huang, Q Yan, Q Zhang, and H Zhang. Preparationof novel 3D graphene networks for supercapacitor applications. Small, 7(22):3163–3168, 2011.

[147] KS Kim, Y Zhao, H Jang, SY Lee, JM Kim, KS Kim, J-H Ahn, P Kim, J-Y Choi, andBH Hong. Large-scale pattern growth of graphene films for stretchable transparentelectrodes. Nature, 457(7230):706–710, 2009.

[148] L Zhang, F Zhang, X Yang, G Long, Y Wu, T Zhang, K Leng, Y Huang, Y Ma, A Yu,and Y Chen. Porous 3D graphene-based bulk materials with exceptional high surfacearea and excellent conductivity for supercapacitors. Scientific Reports, 3, 2013.

Page 15: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

108 Bibliography

[149] Y Li, Z Li, and PK Shen. Simultaneous formation of ultrahigh surface area andthree-dimensional hierarchical porous graphene-like networks for fast and highly sta-ble supercapacitors. Advanced Materials, 25(17):2474–2480, 2013.

[150] X Huang, K Qian, J Yang, J Zhang, L Li, C Yu, and D Zhao. Functional nanoporousgraphene foams with controlled pore sizes. Advanced Materials, 24(32):4419–4423,2012.

[151] J-S Lee, H-J Ahn, J-C Yoon, and J-H Jang. Three-dimensional nano-foam of few-layer graphene grown by CVD for DSSC. Physical Chemistry Chemical Physics,14(22):7938–7943, 2012.

[152] X Xiao, TE Beechem, MT Brumbach, TN Lambert, DJ Davis, JR Michael, CM Wash-burn, J Wang, SM Brozik, DR Wheeler, DB Burckel, and R Polsky. Lithographicallydefined three-dimensional graphene structures. ACS Nano, 6(4):3573–3579, 2012.

[153] NA Fleck and JW Hutchinson. Strain gradient plasticity. Advances in Applied Me-

chanics, 33:295–361, 1997.

[154] NA Fleck, GM Muller, MF Ashby, and JW Hutchinson. Strain gradient plasticity:theory and experiment. Acta Metallurgica et Materialia, 42(2):475–487, 1994.

[155] JS Stolken and AG Evans. A microbend test method for measuring the plasticitylength scale. Acta Materialia, 46(14):5109–5115, 1998.

[156] P Shrotriya, SM Allameh, J Lou, T Buchheit, and WO Soboyejo. On the measurementof the plasticity length scale parameter in LIGA nickel foils. Mechanics of Materials,35(3):233–243, 2003.

[157] WD Nix and H Gao. Indentation size effects in crystalline materials: a law for straingradient plasticity. Journal of the Mechanics and Physics of Solids, 46(3):411–425,1998.

[158] NI Tymiak, DE Kramer, DF Bahr, TJ Wyrobek, and WW Gerberich. Plastic strain andstrain gradients at very small indentation depths. Acta Materialia, 49(6):1021–1034,2001.

[159] M Zhao, WS Slaughter, M Li, and SX Mao. Material-length-scale-controlled nanoin-dentation size effects due to strain-gradient plasticity. Acta Materialia, 51(15):4461–4469, 2003.

Page 16: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

Bibliography 109

[160] A Schaefer, D Ragazzon, A Wittstock, LE Walle, A Borg, M Baumer, and A Sandell.Toward controlled modification of nanoporous gold. a detailed surface science studyon cleaning and oxidation. The Journal of Physical Chemistry C, 116(7):4564–4571,2012.

[161] AI Frenkel, R Vasic, B Dukesz, D Li, M Chen, L Zhang, and T Fujita. Thermalproperties of nanoporous gold. Physical Review B, 85(19):195419, 2012.

[162] J Biener, AM Hodge, JR Hayes, CA Volkert, LA Zepeda-Ruiz, AV Hamza, andFF Abraham. Size effects on the mechanical behavior of nanoporous Au. Nano Let-

ters, 6(10):2379–2382, 2006.

[163] A Mathur and J Erlebacher. Size dependence of effective Youngs modulus ofnanoporous gold. Applied Physics Letters, 90(6):061910–061910, 2007.

[164] A Wittstock, J Biener, and M Baumer. Nanoporous gold: a new material for catalyticand sensor applications. Physical Chemistry Chemical Physics, 12(40):12919–12930,2010.

[165] EM Bringa, JD Monk, A Caro, A Misra, L Zepeda-Ruiz, M Duchaineau, F Abraham,Michael Nastasi, ST Picraux, YQ Wang, and D Farkas. Are nanoporous materialsradiation resistant? Nano Letters, 12(7):3351–3355, 2011.

[166] I Cheng and AM Hodge. Strength scale behavior of nanoporous Ag, Pd and Cu foams.Scripta Materialia, 69(4):295–298, 2013.

[167] LJ Gibson and MF Ashby. Cellular Solids: Structure and Properties. CambridgeUniversity Press, 1999.

[168] MD Uchic, DM Dimiduk, JN Florando, and WD Nix. Sample dimensions influencestrength and crystal plasticity. Science, 305(5686):986–989, 2004.

[169] DM Dimiduk, MD Uchic, and TA Parthasarathy. Size-affected single-slip behavior ofpure nickel microcrystals. Acta Materialia, 53(15):4065–4077, 2005.

[170] JR Greer and WD Nix. Size dependence of mechanical properties of gold at the sub-micron scale. Applied Physics A, 80(8):1625–1629, 2005.

[171] JR Greer, WC Oliver, and WD Nix. Size dependence of mechanical properties of goldat the micron scale in the absence of strain gradients. Acta Materialia, 53(6):1821–1830, 2005.

Page 17: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

110 Bibliography

[172] B Wu, A Heidelberg, and JJ Boland. Mechanical properties of ultrahigh-strength goldnanowires. Nature Materials, 4(7):525–529, 2005.

[173] RN Viswanath, SR Polaki, R Rajaraman, S Abhaya, VA Chirayath, G Amarendra,and CS Sundar. On the scaling behavior of hardness with ligament diameter ofnanoporous-Au: Constrained motion of dislocations along the ligaments. Applied

Physics Letters, 104(23):233108, 2014.

[174] D Lee, X Wei, M Zhao, X Chen, SC Jun, J Hone, and JW Kysar. Plastic deformationin nanoscale gold single crystals and open-celled nanoporous gold. Modelling and

Simulation in Materials Science and Engineering, 15(1):S181, 2007.

[175] R Xia, X-Q Feng, and G-F Wang. Effective elastic properties of nanoporous materialswith hierarchical structure. Acta Materialia, 59(17):6801–6808, 2011.

[176] X-Q Feng, R Xia, X Li, and B Li. Surface effects on the elastic modulus of nanoporousmaterials. Applied Physics Letters, 94(1):011916, 2009.

[177] AM Hodge, RT Doucette, MM Biener, J Biener, O Cervantes, and AV Hamza.Ag effects on the elastic modulus values of nanoporous Au foams. J. Mater. Res,24(4):1601, 2009.

[178] E Seker, JT Gaskins, H Bart-Smith, J Zhu, ML Reed, G Zangari, R Kelly, and MR Be-gley. The effects of annealing prior to dealloying on the mechanical properties ofnanoporous gold microbeams. Acta Materialia, 56(3):324–332, 2008.

[179] TJ Balk, C Eberl, Y Sun, KJ Hemker, and DS Gianola. Tensile and compressivemicrospecimen testing of bulk nanoporous gold. JOM, 61(12):26–31, 2009.

[180] HJ Jin, L Kurmanaeva, J Schmauch, H Rosner, Y Ivanisenko, and J Weissmuller. De-forming nanoporous metal: Role of lattice coherency. Acta Materialia, 57(9):2665–2672, 2009.

[181] D Farkas, A Caro, E Bringa, and D Crowson. Mechanical response of nanoporousgold. Acta Materialia, 61(9):3249–3256, 2013.

[182] X-Y Sun, G-K Xu, X Li, X-Q Feng, and H Gao. Mechanical properties and scalinglaws of nanoporous gold. Journal of Applied Physics, 113(2):023505, 2013.

Page 18: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

Bibliography 111

[183] J Livage. Actuator materials: Towards smart artificial muscle. Nature Materials,2(5):297–299, 2003.

[184] J Biener, A Wittstock, LA Zepeda-Ruiz, MM Biener, V Zielasek, D Kramer,RN Viswanath, J Weissmuller, M Baumer, and AV Hamza. Surface-chemistry-drivenactuation in nanoporous gold. Nature Materials, 8(1):47–51, 2008.

[185] HJ Jin and J Weissmuller. Bulk nanoporous metal for actuation. Advanced Engineer-

ing Materials, 12(8):714–723, 2010.

[186] V Fiorentini, M Methfessel, and M Scheffler. Reconstruction mechanism of fcc tran-sition metal (001) surfaces. Physical Review Letters, 71(7):1051–1054, 1993.

[187] RJ Needs and M Mansfield. Calculations of the surface stress tensor and surfaceenergy of the (111) surfaces of iridium, platinum and gold. Journal of Physics: Con-

densed Matter, 1:7555, 1989.

[188] H Ibach. The role of surface stress in reconstruction, epitaxial growth and stabilizationof mesoscopic structures. Surface Science Reports, 29(5-6):195–263, 1997.

[189] MS Daw and MI Baskes. Embedded-atom method: Derivation and application toimpurities, surfaces, and other defects in metals. Physical Review B, 29(12):6443–6453, 1984.

[190] MI Haftel. Surface reconstruction of platinum and gold and the embedded-atommodel. Physical Review B, 48(4):2611–2622, 1993.

[191] MI Haftel and M Rosen. Molecular-dynamics description of early film deposition ofAu on Ag(110). Physical Review B, 51(7):4426–4434, Feb 1995.

[192] MI Haftel and M Rosen. Surface embedded atom model of the electrolyte-metalinterface. Physical Review B, 64(19):195405, 2001.

[193] FA Moller, OM Magnussen, and RJ Behm. Two-dimensional needle growth of elec-trodeposited Ni on reconstructed Au (111). Physical Review Letters, 77(15):3165,1996.

[194] S Rousset, S Chiang, DE Fowler, and DD Chambliss. Epitaxial growth of Au onAg (110) studied by scanning tunneling microscopy. Surface Science, 287:941–945,1993.

Page 19: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

112 Bibliography

[195] SJ Plimpton, P Crozier, and A Thompson. LAMMPS: Large-scale Atomic/MolecularMassively Parallel Simulator. Sandia National Laboratories, 2010.

[196] KE Atkinson. An introduction to numerical analysis. John Wiley & Sons, 2008.

[197] H Liang, M Upmanyu, and H Huang. Size-dependent elasticity of nanowires: Non-linear effects. Physical Review B, 71(24):241403, 2005.

[198] J Diao, K Gall, ML Dunn, and JA Zimmerman. Atomistic simulations of the yieldingof gold nanowires. Acta Materialia, 54(3):643–653, 2006.

[199] VB Shenoy. Atomistic calculations of elastic properties of metallic fcc crystal sur-faces. Physical Review B, 71(9):094104, 2005.

[200] K Gall, J Diao, ML Dunn, M Haftel, N Bernstein, and MJ Mehl. Tetragonal phasetransformation in gold nanowires. Journal of Engineering Materials and Technology,127:417, 2005.

[201] AF Bower. Applied Mechanics of Solids. CRC, 2009.

[202] J Biener, A Wittstock, LA Zepeda-Ruiz, MM Biener, V Zielasek, D Kramer,RN Viswanath, J Weissmuller, M Baumer, and AV Hamza. Surface-chemistry-drivenactuation in nanoporous gold. Nature Materials, 8(1):47–51, 2008.

[203] M Hakamada and M Mabuchi. Mechanical strength of nanoporous gold fabricated bydealloying. Scripta Materialia, 56(11):1003–1006, 2007.

[204] CA Volkert, ET Lilleodden, D Kramer, and J Weissmuller. Approaching the theo-retical strength in nanoporous Au. Applied Physics Letters, 89(6):061920–061920,2006.

[205] E Detsi, PR Onck, and JTM De Hosson. Metallic muscles at work: High rate actuationin nanoporous Au/polyaniline composites. ACS Nano, 2013.

[206] J Weissmuller, RC Newman, HJ Jin, AM Hodge, and JW Kysar. Nanoporous metalsby alloy corrosion: formation and mechanical properties. MRS bulletin, 34(08):577–586, 2009.

[207] I Vukovic, S Punzhin, Z Vukovic, PR Onck, JTM De Hosson, G ten Brinke, andKU Loos. Supramolecular route to well-ordered metal nanofoams. ACS Nano,5(8):6339–6348, 2011.

Page 20: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

Bibliography 113

[208] HY Hsueh, YC Huang, RM Ho, CH Lai, T Makida, and H Hasegawa. Nanoporousgyroid nickel from block copolymer templates via electroless plating. Advanced Ma-

terials, 23(27):3041–3046, 2011.

[209] VB Shenoy, CD Reddy, and Y-W Zhang. Spontaneous curling of graphene sheetswith reconstructed edges. ACS Nano, 4(8):4840–4844, 2010.

[210] ABAQUS Version. 6.11 documentation. Dassault Syst emes Simulia Corp., Provi-

dence, RI, USA, 2011.

[211] A Wittstock, J Biener, J Erlebacher, P O’Brien, and M Baumer. Nanoporous Gold:

From an Ancient Technology to a High-Tech Material, volume 22. Royal Society ofChemistry, 2012.

[212] SSR Saane, JTM De Hosson, and PR Onck. Atomistic modelling of charge-induceddeformation of gold nanowires. Modelling and Simulation in Materials Science and

Engineering, 21(5):055024, 2013.

[213] K Michielsen and JS Kole. Photonic band gaps in materials with triply periodic sur-faces and related tubular structures. Physical Review B, 68(11):115107, 2003.

[214] K Michelsen, HA De Raedt, and JTM De Hosson. Aspects of mathematical morphol-ogy. Advances in Imaging and Electron Physics, 125:119–194, 2003.

[215] C Tekoglu and PR Onck. Size effects in two-dimensional voronoi foams: a compari-son between generalized continua and discrete models. Journal of the Mechanics and

Physics of Solids, 56(12):3541–3564, 2008.

[216] C Tekoglu, LJ Gibson, T Pardoen, and PR Onck. Size effects in foams: Experimentsand modeling. Progress in Materials Science, 56(2):109–138, 2011.

[217] F Qianqian and B David. Tetrahedral mesh generation from volumetric binary andgray-scale images. Proceedings of IEEE International Symposium on Biomedical

Imaging 2009, pages 1142–1145, 2009.

[218] H Petrova, J Perez-Juste, Z Zhang, J Zhang, T Kosel, and GV Hartland. Crystalstructure dependence of the elastic constants of gold nanorods. Journal of Materials

Chemistry, 16(40):3957–3963, 2006.

Page 21: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

114 Bibliography

[219] KR Mangipudi, E Epler, L Holzer, and CA Volkert. Effect of reinforcement connec-tivity on the strength of interpenetrating phase composites. In preparation.

[220] L Holzer, F Indutnyi, PH Gasser, B Munch, and M Wegmann. Three-dimensionalanalysis of porous BaTiO3 ceramics using FIB nanotomography. Journal of Mi-

croscopy, 216(1):84–95, 2004.

[221] MJ Silva and LJ Gibson. The effects of non-periodic microstructure and defects onthe compressive strength of two-dimensional cellular solids. International Journal of

Mechanical Sciences, 39(5):549–563, 1997.

[222] EM Savietıskii. Handbook of precious metals. Hemisphere Pub. Corp., 1989.

[223] JR Hayes, AM Hodge, J Biener, AV Hamza, and K Sieradzki. Monolithic nanoporouscopper by dealloying Mn–Cu. Journal of Materials Research, 21(10):2611–2616,2006.

[224] SW Crowder, D Prasai, R Rath, DA Balikov, H Bae, KI Bolotin, and H-J Sung. Three-dimensional graphene foams promote osteogenic differentiation of human mesenchy-mal stem cells. Nanoscale, 5(10):4171–4176, 2013.

[225] Y Huang, J Liang, and Y Chen. The application of graphene based materials foractuators. Journal of Materials Chemistry, 22(9):3671–3679, 2012.

[226] Y Wang, H Chang, H Wu, and H Liu. Bioinspired prospects of graphene: frombiosensing to energy. Journal of Materials Chemistry B, 1(29):3521–3534, 2013.

[227] X Huang, Z Yin, S Wu, X Qi, Q He, Q Zhang, Q Yan, F Boey, and H Zhang.Graphene-based materials: Synthesis, characterization, properties, and applications.Small, 7(14):1876–1902, 2011.

[228] Y Liu, X Dong, and P Chen. Biological and chemical sensors based on graphenematerials. Chemical Society Reviews, 41(6):2283–2307, 2012.

[229] Q He, S Wu, Z Yin, and H Zhang. Graphene-based electronic sensors. Chemical

Science, 3(6):1764–1772, 2012.

[230] J Shen, Y Zhu, X Yang, and C Li. Graphene quantum dots: emergent nanolights forbioimaging, sensors, catalysis and photovoltaic devices. Chemical Communications,48(31):3686–3699, 2012.

Page 22: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

Bibliography 115

[231] P Recher and B Trauzettel. Quantum dots and spin qubits in graphene. Nanotechnol-

ogy, 21(30):302001, 2010.

[232] Y Ito, Y Tanabe, H-J Qiu, K Sugawara, S Heguri, NH Tu, KK Huynh, T Fujita,T Takahashi, K Tanigaki, and M Chen. High-quality three-dimensional nanoporousgraphene. Angewandte Chemie International Edition, 53(19):4822–4826, 2014.

[233] M Verissimo Alves, B Koiller, H Chacham, and RB Capaz. Electromechanical effectsin carbon nanotubes: Ab initio and analytical tight-binding calculations. Physical

Review B, 67(16):161401, 2003.

[234] SJ Stuart, AB Tutein, and JA Harrison. A reactive potential for hydrocarbons withintermolecular interactions. The Journal of Chemical Physics, 112(14):6472–6486,2000.

[235] Y Shen and H Wu. Interlayer shear effect on multilayer graphene subjected to bending.Applied Physics Letters, 100(10):101909, 2012.

[236] DW Brenner, OA Shenderova, JA Harrison, SJ Stuart, B Ni, and SB Sinnott. Asecond-generation reactive empirical bond order (REBO) potential energy expressionfor hydrocarbons. Journal of Physics: Condensed Matter, 14(4):783, 2002.

[237] YY Zhang, VBC Tan, and CM Wang. Effect of chirality on buckling behavior ofsingle-walled carbon nanotubes. Journal of applied physics, 100(7):074304, 2006.

[238] B WenXing, Z ChangChun, and C WanZhao. Simulation of Young’s modulus ofsingle-walled carbon nanotubes by molecular dynamics. Physica B: Condensed Mat-

ter, 352(1):156–163, 2004.

[239] YY Zhang, CM Wang, Y Cheng, and Y Xiang. Mechanical properties of bilayergraphene sheets coupled by sp3 bonding. Carbon, 49(13):4511–4517, 2011.

[240] K Cai, H Yin, Q Qin, and Y Li. Self-excited oscillation of rotating double-walledcarbon nanotubes. Nano letters, 2014.

[241] A Bosak, M Krisch, M Mohr, J Maultzsch, and C Thomsen. Elasticity ofsingle-crystalline graphite: inelastic x-ray scattering study. Physical Review B,75(15):153408, 2007.

Page 23: Structure-property relations of gold and graphene ... · cally tunable bulk properties. Advanced Materials, 24(37):5017–5017, 2012. [31]E Detsi, ZG Chen, WP Vellinga, PR Onck, and

116 Bibliography

[242] CK Gan and DJ Srolovitz. First-principles study of graphene edge properties and flakeshapes. Physical Review B, 81(12):125445, 2010.

[243] VB Shenoy, CD Reddy, A Ramasubramaniam, and YW Zhang. Edge-stress-induced warping of graphene sheets and nanoribbons. Physical Review Letters,101(24):245501, 2008.

[244] Y Liu, Z Xu, and Q Zheng. The interlayer shear effect on graphene multilayer res-onators. Journal of the Mechanics and Physics of Solids, 59(8):1613–1622, 2011.

[245] SSR Saane, KR Mangipudi, KU Loos, JTM De Hosson, and PR Onck. Multiscalemodeling of charge-induced deformation of nanoporous gold structures. Journal of

the Mechanics and Physics of Solids, 66:1–15, 2014.

[246] H William, D Andrew, and S Klaus. VMD – Visual Molecular Dynamics. Journal of

Molecular Graphics, 14:33–38, 1996.

[247] CD Reddy, A Ramasubramaniam, VB Shenoy, and Y-W Zhang. Edge elasticproperties of defect-free single-layer graphene sheets. Applied Physics Letters,94(10):101904, 2009.