activity
20182022
most citedX-CAL: Explicit Calibration for Survival Analysis

13 citations · 18 across the 4 of their papers we have counts for

collaborators

7 papers

eess.SP20223 cited

Electrocardiographic Deep Learning for Predicting Post-Procedural Mortality

David Ouyang, John Theurer, Nathan R. Stein +21

Background. Pre-operative risk assessments used in clinical practice are limited in their ability to identify risk for post-operative mortality. We hypothesize that electrocardiogr…

stat.ME2021

Causal Estimation with Functional Confounders

Aahlad Puli, Adler J. Perotte, Rajesh Ranganath

Causal inference relies on two fundamental assumptions: ignorability and positivity. We study causal inference when the true confounder value can be expressed as a function of the…

cs.LG202113 cited

X-CAL: Explicit Calibration for Survival Analysis

Mark Goldstein, Xintian Han, Aahlad Puli +2

Survival analysis models the distribution of time until an event of interest, such as discharge from the hospital or admission to the ICU. When a model's predicted number of events…

cs.CL20202 cited

Zero-Shot Clinical Acronym Expansion via Latent Meaning Cells

Griffin Adams, Mert Ketenci, Shreyas Bhave +2

We introduce Latent Meaning Cells, a deep latent variable model which learns contextualized representations of words by combining local lexical context and metadata. Metadata can r…

cs.LG2020

The Counterfactual -GAN

Amelia J. Averitt, Natnicha Vanitchanant, Rajesh Ranganath +1

Causal inference often relies on the counterfactual framework, which requires that treatment assignment is independent of the outcome, known as strong ignorability. Approaches to e…

cs.LG2018

Phenotype Inference with Semi-Supervised Mixed Membership Models

Victor Rodriguez, Adler Perotte

Disease phenotyping algorithms process observational clinical data to identify patients with specific diseases. Supervised phenotyping methods require significant quantities of exp…