Publications

AuthorTitleTypeYear
Applied Filters: First Letter Of Title: C Reset
17 Publications
Pan K, McCauley AP, Rodriguez AW, Reid MTH, White JK, Johnson SG. 2011. Calculation of nonzero-temperature Casimir forces in the time domain. PRA-rapid. 83:040503. Referenced from pra.aps.org: Calculation of nonzero-temperature Casimir forces in the time domain.
Amaolo A, Chao P, Maldonado TJ, Molesky S, Rodriguez AW. 2023. Can photonic heterostructures provably outperform single-material geometries?. Nanophotonics. 10(1515). Referenced from www.degruyter.com: Can photonic heterostructures provably outperform single-material geometries?.
Rodriguez AW, Capasso F, Johnson SG. 2011. The Casimir effect in microstructured geometries. Nature Photonics. 5:211–221. Referenced from www.nature.com: The Casimir effect in microstructured geometries.
McCauley AP, Rodriguez AW, Joannopoulos JD, Johnson SG. 2010. Casimir forces in the time domain: Applications. Physical Review A. 81:012119. Referenced from pra.aps.org: Casimir forces in the time domain: Applications.
Rodriguez AW, McCauley AP, Joannopoulos JD, Johnson SG. 2009. Casimir forces in the time domain: Theory. PRA. 80:012115. Referenced from link.aps.org: Casimir forces in the time domain: Theory.
Zhou J, Marcet Z, Rodriguez AW, Reid MTH, McCauley AP, Kravchenko II, Lu T, Bao Y, Johnson SG, Chan HB. 2013. Casimir forces on a micromechanical silicon chip. Nature Communications. 4:1845. Referenced from www.nature.com: Casimir forces on a micromechanical silicon chip.
Varela J, Rodriguez AW, McCauley AP, Johnson SG. 2011. Casimir microsphere diclusters and three-body effects in fluids. PRA. 83:042516. Referenced from link.aps.org: Casimir microsphere diclusters and three-body effects in fluids.
Levin M, McCauley AP, Rodriguez AW, Reid HHT, Johnson SG. 2010. Casimir repulsion between metallic objects in vacuum. PRL. 105:090403. Referenced from prl.aps.org: Casimir repulsion between metallic objects in vacuum.
McCauley AP, Rodriguez AW, Reid MTH, Johnson SG. 2011. Casimir repulsion beyond the dipole regime. arXiv:1105.0404. Referenced from arxiv.org: Casimir repulsion beyond the dipole regime.
Molesky S, Chao P, Rodriguez AW. 2021. Causality, passivity and optimization: Strong duality in quadratically constrained quadratic programs for waves. arXiv:Xiv:2105.02154. Referenced from arxiv.org: Causality, passivity and optimization: Strong duality in quadratically constrained quadratic programs for waves.
Lin Z, Liang X, Loncar M, Johnson SG, Rodriguez AW. 2016. Cavity-enhanced second harmonic generation via nonlinear-overlap optimization. Optica. 3:233–238. Referenced from dx.doi.org: Cavity-enhanced second harmonic generation via nonlinear-overlap optimization.
Venkataram PS, Moleksy S, Cuevas JC, Rodriguez AW. 2020. Channel-based algebraic limits to conductive heat transfer. PRB. 102:085405. Referenced from journals.aps.org: Channel-based algebraic limits to conductive heat transfer.
Defo RK, Rodriguez AW, Richardson SL. 2023. Charge-State Stability of Color Centers in Wide-Bandgap Semiconductors. Phys. Rev. B. 108. Referenced from journals.aps.org: Charge-State Stability of Color Centers in Wide-Bandgap Semiconductors.
Rodriguez AW, Hui PC, Woolf DN, Johnson SG, Loncar M, Capasso F. 2014. Classical and fluctuation-induced electromagnetic interactions in micronscale systems: designer bonding, antibonding, and Casimir forces. Annalen der Physik. 527:45–80.
Johnson SG, McCauley AP, Rodriguez-Wong A. 2014. Computation and visualization of photonic quasicrystal spectra. Dal Negro L, editor. :451–489. doi:doi:10.4032/9789814463096. Referenced from www.panstanford.com: Computation and visualization of photonic quasicrystal spectra.
Rodriguez AW, McCauley A, Avniel Y, Johnson SG. 2008. Computation and visualization of photonic quasicrystal spectra via Bloch s theorem. PRB. 77:104201. Referenced from link.aps.org: Computation and visualization of photonic quasicrystal spectra via Bloch s theorem.
Iwase E, Hui P-C, Woolf D, Rodriguez AW, Johnson SG, Capasso F, Loncar M. 2012. Control of buckling in large micromembranes using engineered support structures. J. Micromech. Microeng. 22. Referenced from iopscience.iop.org: Control of buckling in large micromembranes using engineered support structures.