← Search

Xiao-Feng Gong

9 accepted papers

2025

A Block Term Decomposition Model Based Algorithm for Tensor Completion of Multidimensional Harmonic Signals

ICASSP 2025accepted

We consider tensor data completion of an incomplete observation of multidimensional harmonic (MH) signals. Unlike existing tensor-based techniques for MH retrieval (MHR), which mostly adopt the canonical polyadic decomposition (CPD) to model the simple "one-to-one" correspondence among harmonics acr…

Cited by 0SourceScholar
2025

A Parametric Non-Negative Coupled Canonical Polyadic Decomposition Algorithm for Hyperspectral Super-Resolution

ICASSP 2025accepted

Recently, coupled tensor decomposition has been widely used in data fusion of a hyperspectral image (HSI) and a multispectral image (MSI) for hyperspectral super-resolution (HSR). However, exsiting works often ignore the inherent non-negative (NN) property of the image data, or impose the NN constra…

Cited by 0SourceScholar
2025

Target Localization With a Coprime Multistatic MIMO Radar via Coupled Canonical Polyadic Decomposition Based on Joint EVD

ICASSP 2025accepted

This paper addresses target localization using a multistatic multiple-input multiple-output (MIMO) radar system with coprime L-shaped receive arrays (CLsA). A target localization method is proposed by modeling the observed signals as tensors that admit a coupled canonical polyadic decomposition (C-C…

Cited by 0SourceScholar
2024

An Adaptive Algorithm for Tracking Third-Order Coupled Canonical Polyadic Decomposition

ICASSP 2024accepted

Coupled canonical polyadic decomposition (C-CPD) of multiple tensors is a fundamental tool for multi-set data fusion. Existing C-CPD works are mainly limited to batch processing techniques for stationary models, yet in practice the C-CPD model may be dynamic and thus adaptive C-CPD tracking techniqu…

Cited by 0SourceScholar
2024

Target Localization Based on Multistatic Mimo Radar via Double Coupled Canonical Polyadic Decomposition

ICASSP 2024accepted

This paper considers target localization with a multistatic MIMO radar system of multiple transmit arrays and multiple receive arrays. We formulate the matched filtered output data into tensors that admit the double coupled canonical polyadic decomposition (DC-CPD) model, which efficiently character…

Cited by 0SourceScholar
2021

Tucker Decomposition for Extracting Shared and Individual Spatial Maps from Multi-Subject Resting-State fMRI Data

ICASSP 2021accepted

Tucker decomposition (TKD) has been utilized to identify functional connectivity patterns using processed fMRI data, but seldom focuses on originally acquired fMRI data. This study proposes to decompose multi-subject fMRI data in a natural three-way of voxel × time × subject via TKD. Different from…

Cited by 0SourceScholar
2017

Post-ICA phase de-noising for resting-state complex-valued FMRI data

ICASSP 2017accepted

Magnitude-only resting-state fMRI data have been largely investigated via independent component analysis (ICA) for exacting spatial maps (SMs) and time courses. However, the native complex-valued fMRI data have rarely been studied. Motivated by the significant improvements achieved by ICA of complex…

Cited by 0SourceScholar
2016

An adaptive fixed-point IVA algorithm applied to multi-subject complex-valued FMRI data

ICASSP 2016accepted

Independent vector analysis (IVA) has exhibited great potential for the group analysis of magnitude-only fMRI data, but has rarely been applied to native complex-valued fMRI data. We propose an adaptive fixed-point IVA algorithm by taking into account the extremely noisy nature, large variability of…

Cited by 0SourceScholar
2016

Coupled rank-(Lm, Ln, •) block term decomposition by coupled block simultaneous generalized Schur decomposition

ICASSP 2016accepted

Coupled decompositions of multiple tensors are fundamental tools for multi-set data fusion. In this paper, we introduce a coupled version of the rank-(L <inf xmlns:mml="http://www.w3.org/1998/Math/MathML" xmlns:xlink="http://www.w3.org/1999/xlink">m</inf> , L <inf xmlns:mml="http://www.w3.org/1998/M…

Cited by 0SourceScholar