Machine Learning Research Projects

(ICASSP) International Conference on Acoustics, Speech and Signal Processing: (Papers)

(ICML) International Conference on Machine Learning: (Papers)

(CVPR) IEEE Conference on Computer Vision and Pattern Recognition: (Papers)

(AISTATS) International Conference on Artificial Intelligence and Statistics: (Papers)

(KDD) International Conference on Knowledge Discovery and Data Mining: (Papers)

(NIPS) Conference on Neural Information Processing Systems: (Papers)

(UAI) Conference on Uncertainty in Artificial Intelligence: (Papers)

Alternative Splicing: The coding capacity of the vertebrate genome is greatly expanded by alternative splicing, which enables a single gene to produce more than one distinct protein.The Frey and Blencowe labs at the University of Toronto have combined forces to develop a 'splicing code' that accurately predicts how hundreds of RNA features work together to regulate tissue-dependent alternative splicing for thousands of exons. It has been used to predict how alternative splicing may play important roles in development and neurological processes, and has provided insights into mechanisms of splicing regulation. The code has also been incorporated into a web tool.

Audio, Speech and Language Processing: (papers)

Affinity Propagation: An algorithm that identifies exemplars among data points and forms clusters of data points around these exemplars. It operates by simultaneously considering all data point as potential exemplars and exchanging messages between data points until a good set of exemplars and clusters emerges.

Neural Processing:

Protein Sequence Classification and Motif Discovery:

Symbolic Reasoning and Learning:

Cumulative Distribution Networks:

Inverting Generative Black Boxes:

Mimicking Go Experts with Convolutional Neural Networks:

Temporal Kernel Recurrent Neural Networks:

Language Modeling:

Combining Discriminative Features To Infer Complex Trajectories: A conditional model for time-series regression.

Identification of microRNA Targets:

Modeling Human Motion:

Multiple-Cause Vector Quantization: Learning parts-based models of data.

Inferring Motor Programs from Images of Handwritten Digit:

Dimensionality Reduction, Embedding, and Data Visualization:

Restricted Boltzmann Machines and Deep Belief Networks: The group does a significant amount of work on the unsupervised discovery of data representations using Restricted Boltzmann Machines and Deep Belief Networks.

Glove-Talk: A neural network that converts gestures into real-time speech.

Helmholtz Machines: Unsupervised learning using bottom-up recognition models.

Elastic Models: Using deformable models to recognize hand-written digits.