Competitive Hebbian Learning Rule Forms Perfectly Topology Preserving Maps
By Thomas Martinetz. 1993
Subfields: Statistical Learning Theory
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In Statistical Learning Theory
- Jun Liu
- Yihong Gong
- Osamu Hasegawa
- Stephan K. Chalup
- Shen Furao
- Stefan Wermter
- Michael Beetz
- Jun Tani
Citations in the corpus
- Lifelong learning of human actions with deep neural network self-organization (2017, background): “In this case, the learning parameters are kept fixed and map topology develops through competitive Hebbian learning (Martinetz, 1993).”
- A self-organizing neural network architecture for learning human-object interactions (2017, methodology): “such as the GNG [50] and the GWR networks [17] are characterized by a dynamic topological structure able to adapt toward the input data space through the mechanism of the competitive Hebbian learning [66]. Unlike the GNG, where the network grows at a constant rate, the GWR algorithm is equipped with”
- Recent Advances of Continual Learning in Computer Vision: An Overview (2021, positive): “EHG is constructed based on competitive Heb-Recent bian learning [119] and represents the topology of the feature space.”
- Few-Shot Class-Incremental Learning (2020, positive): “NG maps the feature space F to a finite set of feature vectors V = {vj}j=1 and preserves the topology of F by competitive Hebbian learning [28], as shown in Figure 2.”
- Emergence of multimodal action representations from neural network self-organization (2017, background): “During the training, the network dynamically changes its topological structure to better match the input space following competitive Hebbian learning (Martinetz, 1993).”
- Self-organizing neural integration of pose-motion features for human action recognition (2015, methodology): “During the training, Growing When Required networks (Marsland et al., 2002) dynamically change their topological structure through competitive Hebbian learning (Martinetz, 1993) to incrementally match the input space.”
- An incremental growing neural gas learns topologies (2005, methodology): “Hebbian Learning [ Mar93 ] tobuild upatopology during self-organizatio n. Theprinciple oftheCompetitive Hebbian Learning (CHL)method issimply tocreate anedgebetween thewinning andthesecond winning unit ateachadaptation step.”
- A Growing Neural Gas Network Learns Topologies (1994, methodology): “Then we propose a new network model which also makes use of CHL.”
- Ltd Registered in England and Wales Registered Number : 1072954 Registered office : (2004, background): “That is, the case of the self-organizing map (SOM) [9], growing neural gas [9], growing cell structure (GCS) [11], or enhanced self-organizing incremental neuronal network (ESOINN) [6].”
- Human motion assessment in real time using recurrent self-organization (2016, methodology): “A general approach for updating the weight and context vectors is using the competitive Hebbian learning rule [10].”
- A self-organising network that grows when required (2002, methodology): “This has been formalised by Martinetz (1993) , through the definition of the perfectly topology-preserving map.”
- Topology-Preserving Class-Incremental Learning (2020, methodology): “An effective way to model the topology of a feature space is to perform Competitive Hebbian learning (CHL) [28] on the feature space manifold.”
- Multi-modal integration of dynamic audiovisual patterns for an interactive reinforcement learning scenario (2016, background): “During the training, the network starts with two neurons and then dynamically changes its topological structure to better match the input space following competitive Hebbian learning [22].”
- An incremental network for on-line unsupervised classification and topology learning (2006, methodology): “Martinetz and Schulten (1994) prove some theorems and reach the conclusion that the competitive Hebbian rule is suitable for forming a path preserving representations of a given manifold.”
- Incremental Unsupervised Time Series Analysis Using Merge Growing Neural Gas (2009, background): “Connections between neurons are created by topology preserving Competitive Hebbian Learning [ 20 ].”
- Incremental Learning in Biological and Machine Learning Systems (2002, background): “In Growing Neural Gas(54) the network topology is generated incrementally by competitive Hebbian learning.(89) The dimensionality depends on the input data and can be locally different.”
- Class-Incremental Learning with Topological Schemas of Memory Spaces (2021, background): “Competitive Hebbian learning [37] (CHL) rule is an effective way to form perfectly topology preserving maps in the feature space.”
- Clustering: A neural network approach (2010, unknown): “The induced Delaunay triangulation is optimally topologypreserving in a general sense (Martinetz, 1993).”