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2018 IEEE 28th International Workshop on Machine Learning for Signal Processing (MLSP) 2018
DOI: 10.1109/mlsp.2018.8517083
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Label Propagation for Learning With Label Proportions

Abstract: Learning with Label Proportions (LLP) is the problem of recovering the underlying true labels given a dataset when the data is presented in the form of bags. This paradigm is particularly suitable in contexts where providing individual labels is expensive and label aggregates are more easily obtained. In the healthcare domain, it is a burden for a patient to keep a detailed diary of their daily routines, but often they will be amenable to provide higher level summaries of daily behavior. We present a novel and… Show more

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Cited by 5 publications
(6 citation statements)
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References 11 publications
(9 reference statements)
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“…In this section we present our algorithm for performing Active Learning with an LLP-oracle. Our approach is based on the method of Label Propagation (LP) which was developed for semi-supervised learning [21] and which was later adopted to cope with the Label Proportions level of supervision in [11]. We start with a very brief overview of LP, then proceed to present how it is adopted to learn with label proportions and finally how it could be employed within the Active Learning setting.…”
Section: Active Learning With Bag Proportionsmentioning
confidence: 99%
See 1 more Smart Citation
“…In this section we present our algorithm for performing Active Learning with an LLP-oracle. Our approach is based on the method of Label Propagation (LP) which was developed for semi-supervised learning [21] and which was later adopted to cope with the Label Proportions level of supervision in [11]. We start with a very brief overview of LP, then proceed to present how it is adopted to learn with label proportions and finally how it could be employed within the Active Learning setting.…”
Section: Active Learning With Bag Proportionsmentioning
confidence: 99%
“…Although this relaxes the assumption of infallibility of the oracle, we argue that exploring varying degrees of supervision can lead to an easier and simpler interaction in between the algorithm and the oracle. In this paper, we cast our problem as an instance of the Learning from Label Proportions (LLP) setting [8,9,10,11,12]. Figure 1 illustrates this idea.…”
Section: Introductionmentioning
confidence: 99%
“…However, annotating such large datasets promptly became a bottleneck in supervised learning, as it is a time-consuming and labor-intensive task. Additionally, various applied areas such as healthcare or democratic elections struggle with labels, which are often not available (Qi et al 2016). In many scenarios, despite the unavailability of instance-level annotations, approximate group-level labels like class proportions are readily obtainable from other sources, like the census or even common knowledge.…”
Section: Introductionmentioning
confidence: 99%
“…In many scenarios, despite the unavailability of instance-level annotations, approximate group-level labels like class proportions are readily obtainable from other sources, like the census or even common knowledge. In this sense, efficient learning from group-level labels would have an important impact in many real-life applications, such as demographic classification (Ardehaly and Culotta 2017), presidential elections (Sun, Sheldon, and O'Connor 2017;Qi et al 2016), remote sensing (Ding, Li, and Yu 2017), image analysis in medicine (Bortsova et al 2018), activity recognition (Poyiadzi, Santos-Rodriguez, and Twomey 2018), and others.…”
Section: Introductionmentioning
confidence: 99%
“…Each bag contains unlabeled instances and is annotated with the proportion of instances arising from each class. Various methods for LLP have been developed, including those based on support vector machines and related models [32,44,43,30,9,19,36], Bayesian and graphical models [18,14,40,29,15], deep learning [21,1,12,22,41], clustering [7,39], and random forests [37]. In addition, LLP has found various applications including image and video analysis [8,19], high energy physics [10], vote prediction [40], remote sensing [21,11], medical image analysis [5], activity recognition [29], and reproductive medicine [15].…”
Section: Introductionmentioning
confidence: 99%