@conference {14034,
	title = {Computation of Green{\textquoteright}s function for finite-size photonic crystals by boundary element method},
	booktitle = {Antennas and Propagation Society International Symposium, 2004. IEEE},
	volume = {4},
	year = {2004},
	month = {2004/06//},
	pages = {4320 - 4323 Vol.4 - 4320 - 4323 Vol.4},
	abstract = {We have derived a new integral equation method for computing the Green{\textquoteright}s function for 2D electromagnetic wave propagation in a finite size photonic crystal. The method is also used for deriving the multipole expansions for the case of circular cylinders. This derivation is different from the ones in the literature. Our numerical results show an excellent agreement of the two algorithms. In the future we would like to expand the method to the numerical solution of the three-dimensional electromagnetic problem.},
	keywords = {2D, boundary, boundary-elements, circular, crystals;, cylinders;, electromagnetic, element, equation, equations;, expansions;, finite-size, function, function;, Green, Green{\textquoteright}s, integral, method;, methods;, multipole, photonic, propagation;, wave},
	doi = {10.1109/APS.2004.1330307},
	author = {Seydou,F. and Ramahi,O. and Duraiswami, Ramani and Seppdnen,T.}
}
@conference {12697,
	title = {View independent human body pose estimation from a single perspective image},
	booktitle = {Computer Vision and Pattern Recognition, 2004. CVPR 2004. Proceedings of the 2004 IEEE Computer Society Conference on},
	volume = {2},
	year = {2004},
	month = {2004/07/02/june},
	pages = {II-16 - II-22 Vol.2 - II-16 - II-22 Vol.2},
	abstract = {Recovering the 3D coordinates of various joints of the human body from an image is a critical first step for several model-based human tracking and optical motion capture systems. Unlike previous approaches that have used a restrictive camera model or assumed a calibrated camera, our work deals with the general case of a perspective uncalibrated camera and is thus well suited for archived video. The input to the system is an image of the human body and correspondences of several body landmarks, while the output is the set of 3D coordinates of the landmarks in a body-centric coordinate system. Using ideas from 3D model based invariants, we set up a polynomial system of equations in the unknown head pitch, yaw and roll angles. If we are able to make the often-valid assumption that the torso twist is small, there are finite numbers of solutions to the head-orientation that can be computed readily. Once the head orientation is computed, the epipolar geometry of the camera is recovered, leading to solutions to the 3D joint positions. Results are presented on synthetic and real images.},
	keywords = {3D, analysis;, biomechanics;, body, body-centric, camera;, capture, coordinate, coordinates;, detection;, epipolar, equation, estimation;, geometry;, human, image, image;, images;, model-based, models;, MOTION, object, optical, perspective, physiological, polynomial, polynomials;, pose, real, single, synthetic, system;, systems;, torso, tracking;, twist;, uncalibrated},
	doi = {10.1109/CVPR.2004.1315139},
	author = {Parameswaran, V. and Chellapa, Rama}
}
@article {15402,
	title = {RF scattering and radiation by using a decoupled Helmholtz equation approach},
	journal = {Magnetics, IEEE Transactions on},
	volume = {29},
	year = {1993},
	month = {1993/03//},
	pages = {2040 - 2042},
	abstract = {A novel finite-element formulation for the solution of 3-D RF scattering and radiation problems is presented. This formulation is based on the solution of a set of decoupled Helmholtz equations for the Cartesian components of the field vectors. This results in a robust, computer-efficient method that eliminates previous difficulties associated with {\textquoteleft}curl-curl{\textquoteright} type partial differential equations. Although it is presented in the frequency domain, the method is easily extendible to the time domain},
	keywords = {3D, analysis;, approach;, computer-efficient, computing;, decoupled, domain;, electrical, electromagnetic, element, engineering, equation, finite, finite-element, formulation;, Frequency, frequency-domain, Helmholtz, method;, Physics, problems;, propagation;, radiation, radiowave, RF, scattering;, wave},
	isbn = {0018-9464},
	doi = {10.1109/20.250811},
	author = {D{\textquoteright}Angelo,J. and Mayergoyz, Issak D}
}
