activity
20172026
most citedPredicting Future Lane Changes of Other Highway Vehicles using RNN-based Deep Models

30 citations · 62 across the 11 of their papers we have counts for

collaborators

16 papers

cs.CV2026

The Label Imitation Game: Turing Test Network for Zero-Shot Pseudo-Label Pruning

Brent A. Griffin, Jason J. Corso

Foundation model pseudo-labeling - labeling data strictly via zero-shot inference - enables massive scale, but performance is undermined by hallucinations that evade standard thres…

cs.CV2025

Auto-Labeling Data for Object Detection

Brent A. Griffin, Manushree Gangwar, Jacob Sela +1

Great labels make great models. However, traditional labeling approaches for tasks like object detection have substantial costs at scale. Furthermore, alternatives to fully-supervi…

cs.LG2024

Class-wise Autoencoders Measure Classification Difficulty And Detect Label Mistakes

Jacob Marks, Brent A. Griffin, Jason J. Corso

We introduce a new framework for analyzing classification datasets based on the ratios of reconstruction errors between autoencoders trained on individual classes. This analysis fr…

cs.CV2024

Zero-Shot Coreset Selection via Iterative Subspace Sampling

Brent A. Griffin, Jacob Marks, Jason J. Corso

Deep learning increasingly relies on massive data with substantial storage, annotation, and training costs. To reduce costs, coreset selection finds a representative subset of data…

cs.CV2022

Mobile Robot Manipulation using Pure Object Detection

Brent Griffin

This paper addresses the problem of mobile robot manipulation using object detection. Our approach uses detection and control as complimentary functions that learn from real-world…

cs.CV2021

Depth from Camera Motion and Object Detection

Brent A. Griffin, Jason J. Corso

This paper addresses the problem of learning to estimate the depth of detected objects given some measurement of camera motion (e.g., from robot kinematics or vehicle odometry). We…

cs.CV2020

Learning Object Depth from Camera Motion and Video Object Segmentation

Brent A. Griffin, Jason J. Corso

Video object segmentation, i.e., the separation of a target object from background in video, has made significant progress on real and challenging videos in recent years. To levera…

cs.RO2019

Robot-Supervised Learning for Object Segmentation

Victoria Florence, Jason J. Corso, Brent Griffin

To be effective in unstructured and changing environments, robots must learn to recognize new objects. Deep learning has enabled rapid progress for object detection and segmentatio…

cs.CV2019

BubbleNets: Learning to Select the Guidance Frame in Video Object Segmentation by Deep Sorting Frames

Brent A. Griffin, Jason J. Corso

Semi-supervised video object segmentation has made significant progress on real and challenging videos in recent years. The current paradigm for segmentation methods and benchmark…

cs.RO2019

Video Object Segmentation-based Visual Servo Control and Object Depth Estimation on a Mobile Robot

Brent A. Griffin, Victoria Florence, Jason J. Corso

To be useful in everyday environments, robots must be able to identify and locate real-world objects. In recent years, video object segmentation has made significant progress on de…

cs.RO2019★ 4 cited

Kinematically-Informed Interactive Perception: Robot-Generated 3D Models for Classification

Abhishek Venkataraman, Brent Griffin, Jason J. Corso

To be useful in everyday environments, robots must be able to observe and learn about objects. Recent datasets enable progress for classifying data into known object categories; ho…

cs.CV2018

Tukey-Inspired Video Object Segmentation

Brent A. Griffin, Jason J. Corso

We investigate the problem of strictly unsupervised video object segmentation, i.e., the separation of a primary object from background in video without a user-provided object mask…

cs.CV2018★ 1 cited

Learning Kinematic Descriptions using SPARE: Simulated and Physical ARticulated Extendable dataset

Abhishek Venkataraman, Brent Griffin, Jason J. Corso

Next generation robots will need to understand intricate and articulated objects as they cooperate in human environments. To do so, these robots will need to move beyond their curr…

cs.RO2018★ 22 cited

A Critical Investigation of Deep Reinforcement Learning for Navigation

Vikas Dhiman, Shurjo Banerjee, Brent Griffin +2

The navigation problem is classically approached in two steps: an exploration step, where map-information about the environment is gathered; and an exploitation step, where this in…

cs.RO2018★ 30 cited

Predicting Future Lane Changes of Other Highway Vehicles using RNN-based Deep Models

Sajan Patel, Brent Griffin, Kristofer Kusano +1

In the event of sensor failure, autonomous vehicles need to safely execute emergency maneuvers while avoiding other vehicles on the road. To accomplish this, the sensor-failed vehi…

cs.CV2017★ 5 cited

Video Object Segmentation using Supervoxel-Based Gerrymandering

Brent A. Griffin, Jason J. Corso

Pixels operate locally. Superpixels have some potential to collect information across many pixels; supervoxels have more potential by implicitly operating across time. In this pape…