method part
The 50 most recent episodes and tracks on this topic.
Saves to your Listen and Watch queue, to pick up on another day or another device.
Pick anything below and it plays in the bar at the foot of the window — and keeps playing while you go on browsing the directory.
- Cooked tomato sauce | part oneSupertastersNotes
- Context-free grammars, part 1Computational Psycholinguistics – MIT (Undergraduate/Graduate course)Notes
- Multiple center embedding, the pumping lemma, and limitations of finite-state automataComputational Psycholinguistics – MIT (Undergraduate/Graduate course)Notes
- Finite-state transducersComputational Psycholinguistics – MIT (Undergraduate/Graduate course)Notes
- Introduction to psycholinguistic methods, part 3: readingComputational Psycholinguistics – MIT (Undergraduate/Graduate course)Notes
- Introduction to psycholinguistic methods, part 4: neural methodsComputational Psycholinguistics – MIT (Undergraduate/Graduate course)Notes
- Introduction to psycholinguistic methods, part 2: the visual world paradigmComputational Psycholinguistics – MIT (Undergraduate/Graduate course)Notes
- Introduction to psycholinguistic methods, part 1Computational Psycholinguistics – MIT (Undergraduate/Graduate course)Notes
- Finite-state models, regular languages, English syntax, and strong vs. weak generative capacityComputational Psycholinguistics – MIT (Undergraduate/Graduate course)Notes
- Regular expressions and their relation with finite-state modelsComputational Psycholinguistics – MIT (Undergraduate/Graduate course)Notes
- Introductory language models, part 1Computational Psycholinguistics – MIT (Undergraduate/Graduate course)Notes
- 1.1 IntroductionCombinatorial OptimizationNotes
- 2.4 The Simplex Method, Part IIICombinatorial OptimizationNotes
- 3.1 LP Duality, Part ICombinatorial OptimizationNotes
- 3.4 The Primal Dual Framework, Part ICombinatorial OptimizationNotes
- 3.5 The Primal Dual Framework, Part IICombinatorial OptimizationNotes
- 2.3 The Simplex Method, Part IICombinatorial OptimizationNotes
- 4.4 Ford Fulkerson, Part ICombinatorial OptimizationNotes
- 4.5 Ford Fulkerson, Part IICombinatorial OptimizationNotes
- 3.3 LP Duality, Part IIICombinatorial OptimizationNotes
- 4.2 Primal Dual Applied to Shortest PathCombinatorial OptimizationNotes
- Software Engineering - Lecture 07 - Design Patterns - Part 2Software Engineering LecturesNotes
- Software Engineering - Lecture 07 - Design Patterns - Part 1Software Engineering LecturesNotes
- Software Engineering - Lecture 06 - Design Patterns - Part 2Software Engineering LecturesNotes
- Software Engineering - Lecture 06 - Design Patterns - Part 1Software Engineering LecturesNotes
- Software Engineering - Lecture 05 - Agile Methods - Part 3Software Engineering LecturesNotes
- Software Engineering - Lecture 05 - Agile Methods - Part 2Software Engineering LecturesNotes
- Software Engineering - Lecture 05 - Agile Methods - Part 1Software Engineering LecturesNotes
- Software Engineering - Lecture 04 - Software Processes - Part 2Software Engineering LecturesNotes
- Software Engineering - Lecture 04 - Software Processes - Part 1Software Engineering LecturesNotes
- Software Engineering - Lecture 03 - Part 2 - TestingSoftware Engineering LecturesNotes
- Software Engineering - Lecture 03 - Part 1 - UMLSoftware Engineering LecturesNotes
- Software Engineering - Lecture 02 - Part 2 - OOPSoftware Engineering LecturesNotes
- Software Engineering - Lecture 02 - Part 1 - git & RCSSoftware Engineering LecturesNotes
- Software Engineering - Lecture 01 - IntroductionSoftware Engineering LecturesNotes
- Lecture 01 IntroductionCMU: 2018 Fall: 10-703 Deep Reinforcement Learning and ControlNotes
- Lecture 02 Markov Decision ProcessesCMU: 2018 Fall: 10-703 Deep Reinforcement Learning and ControlNotes
- Lecture 03 Solving known MDPsCMU: 2018 Fall: 10-703 Deep Reinforcement Learning and ControlNotes
- Lecture 04 Solving Known MDPsCMU: 2018 Fall: 10-703 Deep Reinforcement Learning and ControlNotes
- Lecture 05 Monte Carlo MethodsCMU: 2018 Fall: 10-703 Deep Reinforcement Learning and ControlNotes
- Lecture 06 Temporal Difference MethodCMU: 2018 Fall: 10-703 Deep Reinforcement Learning and ControlNotes
- Lecture 07 Neural Networks Architectures for RLCMU: 2018 Fall: 10-703 Deep Reinforcement Learning and ControlNotes
- Lecture 08 Function Approximation for PredictionCMU: 2018 Fall: 10-703 Deep Reinforcement Learning and ControlNotes
- Lecture 09 Value FunctionCMU: 2018 Fall: 10-703 Deep Reinforcement Learning and ControlNotes
- Lecture 10 Policy Gradient MethodsCMU: 2018 Fall: 10-703 Deep Reinforcement Learning and ControlNotes
- What is Machine Learning - Bernhard Schölkopf - MLSS 2017Machine Learning Summer School 2017 TübingenNotes
- Learning Digital Humans by Capturing Real Ones - Michael Black - MLSS 2017Machine Learning Summer School 2017 TübingenNotes
- Implicit Generative Models - Ilya Tolstikhin - MLSS 2017Machine Learning Summer School 2017 TübingenNotes
- Reinforcement Learning - Jan Peters - MLSS 2017Machine Learning Summer School 2017 TübingenNotes
- Marrying Graphical Models & Deep Learning - Max Welling - MLSS 2017Machine Learning Summer School 2017 TübingenNotes
This playlist:.m3u.plsAll the feeds behind it
