BraMBLe: a Bayesian multiple-blob tracker
By Michael Isard, John MacCormick. Proceedings Eighth IEEE International Conference on Computer Vision. ICCV 2001, 2001
739 citations recorded by the source corpus.
Subfields: Artificial Intelligence, Computer Vision and Pattern Recognition
View Paper: https://www.semanticscholar.org/paper/b46da16dca784e66f600cfa05aa3d9d8bc1dee6d
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In Artificial Intelligence
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- Bernt Schiele
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- Xiaogang Wang
- Andrew Zisserman
- Ramkant Nevatia
- Konrad Schindler
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In Computer Vision and Pattern Recognition
- Luc Van Gool
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Citations in the corpus
- Globally-optimal greedy algorithms for tracking a variable number of objects (2011, background): “Classic formulations of multi-object tracking focus on the data association problem of matching instance labels with temporal observations [11, 6, 7, 13 ].”
- Maintaining multimodality through mixture tracking (2003, methodology): “The remainder of this section shows how this non-parametric mixture representation can be updated recursively in the same fashion as the two step approach for standard Bayesian sequential estimation.”
- Unsupervised Bayesian Detection of Independent Motion in Crowds (2006, methodology): “Isard and MacCormick’s BraMBLe system [6] uses a very simple motion model to help with detection in ambiguous situations.”
- Data fusion for visual tracking with particles (2004, methodology): “The model can then be defined in parametric form, using, for instance, mixtures if Gaussians (e.g., [23], [55], [59]).”
- Appearance models for occlusion handling (2006, background): “By comparing the difference between the background image and the current image, a given pixel is classified into one of four categories: original background, shaded background or shadow, highlighted background, and foreground objects. thresholds are calculated automatically, details can be found in…”
- Segmentation and Tracking of Multiple Humans in Crowded Environments (2008, methodology): “When objects are highly interoccluded, their image observations are far from independent; hence, a joint likelihood for multiple objects is necessary [46], [27], [19], [35], [30], [51].”
- Variational inference for visual tracking (2003, background): “Depending on the application a wide variety of objects may be of interest, including people [6], cars [7], etc.”
- Color-Based Probabilistic Tracking (2002, methodology): “In the case where a background model is used for multiple object tracking, our Monte Carlo tracker bears connections with the “Bramble” tracker introduced in [11].”
- Tracking multiple objects with particle filtering (2002, background): “In the same context, a Bayesian multiple-blob tracker called BraMBLe [14] has just been proposed.”
- An MCMC-Based Particle Filter for Tracking Multiple Interacting Targets (2004, background): “BraMBLe [19] addresses tracking and initializing multiple targets in a variable-dimension framework.”
- Detection and Tracking of Multiple, Partially Occluded Humans by Bayesian Combination of Edgelet based Part Detectors (2007, neutral): “Because the joint hypotheses space is usually of high dimension, an efficient optimization algorithm, such as a particle filter ( Isard and MacCormick, 2001 ), MCMC (Zhao and Nevatia, 2004a; Smith et al., 2005) or EM (Peter et al., 2005) is used.”
- MCMC-based particle filtering for tracking a variable number of interacting targets (2005, methodology): “To model this, we can introduce a new variable, namely, the set of identifiers k t of targets currently in view [18].”
- A Boosted Particle Filter: Multitarget Detection and Tracking (2004, background): “1 Introduction Automated tracking of multiple objects is still an open prob lem in many settings, including car surveillance [10], sports [12, 13] and smart rooms [6] am ong many others [5, 7, 11].”
- Dissimilarity-based people re-identification and search for intelligent video surveillance (2013, background): “• on-line tracking of the movements of a person or an object of interest [70, 100, 137];”
- Counting Crowded Moving Objects (2006, neutral): “For example, we do not plan to solve tracking through occlusions [7], which frees us from complex manual inputs such as initializations [3, 17] or intricate model definitions [9].”
- a CAPpella: programming by demonstration of context-aware applications (2004, methodology): “To determine the number of people in a scene and their location, we built a simplified implementation of a multihypothesis framework – Bramble [13].”
- Robust Object Tracking with Online Multiple Instance Learning (2011, neutral): “Although there has been some success with building trackers for specific object classes (e.g., faces [1], humans [2], mice [3], rigid objects [4]), tracking generic objects has remained challenging because an object can drastically change appearance when deforming, rotating out of plane, or when…”