We investigate wave-front reconstruction in remote sensing using the synthetic aperture radar (SAR) interferometry on the basis of Bayesian inference both using the method of maximum entropy (ME) and the Maximum A Posteriori (MAP) estimation due to the conjugate gradient method (CGM). From a theoretical viewpoint, we first confirm that the method of ME is successful in phase unwrapping with high degree of accuracy around the Bayes-optimal condition, using Monte Carlo simulations for a set of wave-fronts generated by the assumed true prior enhancing smooth structures in the pattern of wave-fronts. Next, from the practical viewpoint, we utilized the MAP estimation using the CGM to construct a practical and useful method for phase unwrapping i...
One of the most critical stages in height reconstruction from Synthetic Aperture Radar (SAR) interfe...
Phase unwrapping (PU) is one of the key processing steps in reconstructing the digital elevation mod...
The ionospheric propagation path delay is a major error source in synthetic aperture radar (SAR) int...
We investigated statistical performance of Bayesian inference using maximum entropy and MAP estimati...
Abstract—SAR interferograms are affected by a strong noise component which often prevents correct ph...
On the basis of Bayesian inference using the maximizer of the posterior marginal estimate, we carry ...
Phase unwrapping, also known as ambiguity resolution, is an underdetermined problem in which assumpt...
In order to minimize the influence of decorrelation noise on multi-temporal interferometric syntheti...
We constructed a method of phase unwrapping for a typical wave-front by utilizing the maximizer of t...
On the basis of Bayesian inference using the maximizer of the posterior marginal estimate, we carry ...
Phase unwrapping is a critical step in synthetic aperture radar interferometry (InSAR) data processi...
SAR Interferometry (InSAR) has emerged in recent years as a promising technology for topographic map...
Abstract. A new fused Bayesian maximum entropy–variational analysis (BMEVA) method for enhanced rada...
Interferometric synthetic aperture radar (InSAR) systems are capable of providing an estimate of the...
One of the most critical stages in height reconstruction from Synthetic Aperture Radar (SAR) interfe...
Phase unwrapping (PU) is one of the key processing steps in reconstructing the digital elevation mod...
The ionospheric propagation path delay is a major error source in synthetic aperture radar (SAR) int...
We investigated statistical performance of Bayesian inference using maximum entropy and MAP estimati...
Abstract—SAR interferograms are affected by a strong noise component which often prevents correct ph...
On the basis of Bayesian inference using the maximizer of the posterior marginal estimate, we carry ...
Phase unwrapping, also known as ambiguity resolution, is an underdetermined problem in which assumpt...
In order to minimize the influence of decorrelation noise on multi-temporal interferometric syntheti...
We constructed a method of phase unwrapping for a typical wave-front by utilizing the maximizer of t...
On the basis of Bayesian inference using the maximizer of the posterior marginal estimate, we carry ...
Phase unwrapping is a critical step in synthetic aperture radar interferometry (InSAR) data processi...
SAR Interferometry (InSAR) has emerged in recent years as a promising technology for topographic map...
Abstract. A new fused Bayesian maximum entropy–variational analysis (BMEVA) method for enhanced rada...
Interferometric synthetic aperture radar (InSAR) systems are capable of providing an estimate of the...
One of the most critical stages in height reconstruction from Synthetic Aperture Radar (SAR) interfe...
Phase unwrapping (PU) is one of the key processing steps in reconstructing the digital elevation mod...
The ionospheric propagation path delay is a major error source in synthetic aperture radar (SAR) int...