ShowHowTo: Generating Scene-Conditioned Step-by-Step Visual Instructions
Tomáš Souček, Prajwal Gatti, Michael Wray, Ivan Laptev, Dima Damen, Josef Sivic
TL;DR
This work tackles generating step-by-step visual instructions grounded in a user’s environment by combining large-scale automatic data collection from instructional videos with a latent video diffusion model conditioned on an input image and per-step prompts. It introduces the ShowHowTo dataset (≈0.6M sequences, 4.5M image-text pairs across 25K tasks) via a four-stage extraction pipeline (transcription, filtering, step extraction, frame alignment) and trains a variable-length, per-step conditioned diffusion model. Evaluations across Step Faithfulness, Scene Consistency, and Task Faithfulness show state-of-the-art performance, supported by quantitative metrics, FID, and user studies, with strong generalization in zero-shot settings. The work enables realistic, scene-aware visual guidance for everyday tasks and has implications for assistive technologies and robot planning.
Abstract
The goal of this work is to generate step-by-step visual instructions in the form of a sequence of images, given an input image that provides the scene context and the sequence of textual instructions. This is a challenging problem as it requires generating multi-step image sequences to achieve a complex goal while being grounded in a specific environment. Part of the challenge stems from the lack of large-scale training data for this problem. The contribution of this work is thus three-fold. First, we introduce an automatic approach for collecting large step-by-step visual instruction training data from instructional videos. We apply this approach to one million videos and create a large-scale, high-quality dataset of 0.6M sequences of image-text pairs. Second, we develop and train ShowHowTo, a video diffusion model capable of generating step-by-step visual instructions consistent with the provided input image. Third, we evaluate the generated image sequences across three dimensions of accuracy (step, scene, and task) and show our model achieves state-of-the-art results on all of them. Our code, dataset, and trained models are publicly available.
