Embedded cavities and waveguides in three-dimensional silicon photonic crystals

2007 ◽  
Vol 2 (1) ◽  
pp. 52-56 ◽  
Author(s):  
Stephanie A. Rinne ◽  
Florencio García-Santamaría ◽  
Paul V. Braun
2000 ◽  
Author(s):  
Shawn-Yu Lin ◽  
James G. Fleming ◽  
Mihail M. Sigalas ◽  
Rana Biswas ◽  
Kai M. Ho

Author(s):  
M. Hermatschweiler ◽  
M. Deubel ◽  
M. Wegener ◽  
F. Pérez-Willard ◽  
N. Tétreault ◽  
...  

2009 ◽  
Vol 94 (1) ◽  
pp. 011101 ◽  
Author(s):  
D. Shir ◽  
E. C. Nelson ◽  
Y. C. Chen ◽  
A. Brzezinski ◽  
H. Liao ◽  
...  

Author(s):  
Francesca Carpignano ◽  
Gloria Silva ◽  
Salvatore Surdo ◽  
Valentina Leva ◽  
Alessandra Montecucco ◽  
...  

PLoS ONE ◽  
2012 ◽  
Vol 7 (11) ◽  
pp. e48556 ◽  
Author(s):  
Francesca Carpignano ◽  
Gloria Silva ◽  
Salvatore Surdo ◽  
Valentina Leva ◽  
Alessandra Montecucco ◽  
...  

2004 ◽  
Vol 829 ◽  
Author(s):  
Sriram Venkataraman ◽  
Garrett Schneider ◽  
Janusz Murakowski ◽  
Shouyan Shi ◽  
Dennis W. Prather

ABSTRACTIn this paper, we propose the design and fabrication of buried silicon optical interconnect technology, the sub-surface silicon optical bus (S3B). The proposed approach relies on engineering the dispersion properties of embedded silicon three-dimensional photonic crystals to create sub-micron routing channels and control light propagation. Further, we present a method for the fabrication of buried three-dimensional (3D) photonic-crystal structures using conventional planar silicon micromachining. The method utilizes a single planar etch mask coupled with time-multiplexed, sidewall-passivating, deep anisotropic reactive-ion etching, to create an array of spherical voids with three-dimensional symmetry. Preliminary results are presented that demonstrate the feasibility of realizing chip-scale optical interconnects using our proposed approach.


Author(s):  
S.-Y. Lin ◽  
J.G. Fleming ◽  
D.L. Hetherington ◽  
B.K. Smith ◽  
R. Biswas ◽  
...  

Author(s):  
Ted Janssen ◽  
Gervais Chapuis ◽  
Marc de Boissieu

The law of rational indices to describe crystal faces was one of the most fundamental law of crystallography and is strongly linked to the three-dimensional periodicity of solids. This chapter describes how this fundamental law has to be revised and generalized in order to include the structures of aperiodic crystals. The generalization consists in using for each face a number of integers, with the number corresponding to the rank of the structure, that is, the number of integer indices necessary to characterize each of the diffracted intensities generated by the aperiodic system. A series of examples including incommensurate multiferroics, icosahedral crystals, and decagonal quaiscrystals illustrates this topic. Aperiodicity is also encountered in surfaces where the same generalization can be applied. The chapter discusses aperiodic crystal morphology, including icosahedral quasicrystal morphology, decagonal quasicrystal morphology, and aperiodic crystal surfaces; magnetic quasiperiodic systems; aperiodic photonic crystals; mesoscopic quasicrystals, and the mineral calaverite.


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