1The Hong Kong University of Science and Technology
2VinAI Research
3Deakin University
European Conference on Computer Vision (ECCV), 2022
Given the empty scene along with bounding boxes or point labels, our model can generate high
quality decorated scene. Generation results using box label format (top row) and point label format (bottom row).
Abstract
Furnishing and rendering indoor scenes has been a long-standing task for interior design, where artists create a
conceptual design for the space, build a 3D model of the space, decorate, and then perform rendering. Although
the task is important, it is tedious and requires tremendous effort. In this paper, we introduce a new problem
of domain-specific indoor scene image synthesis, namely neural scene decoration. Given a photograph of an empty
indoor space and a list of decorations with layout determined by user, we aim to synthesize a new image of the
same space with desired furnishing and decorations. Neural scene decoration can be applied to create conceptual
interior designs in a simple yet effective manner. Our attempt to this research problem is a novel scene
generation architecture that transforms an empty scene and an object layout into a realistic furnished scene
photograph. We demonstrate the performance of our proposed method by comparing it with conditional image
synthesis baselines built upon prevailing image translation approaches both qualitatively and quantitatively. We
conduct extensive experiments to further validate the plausibility and aesthetics of our generated scenes.
Overview of our generator (left) and discriminator (right). Convolution layers labeled with Dn2 halve the
spatial dimensions of input feature maps using stride 2.
Qualitative Results
Generation results of our method and other baselines, using box label format (the first two rows) and point
label format (the last two rows). Best view with zoom.
Quantitative Results
Citation
@inproceedings{pang2022nsd,
title={Neural Scene Decoration from a Single Photograph},
author={Hong-Wing Pang and Yingshu Chen and Phuoc-Hieu Le and Binh-Son Hua and Duc Thanh Nguyen and Sai-Kit Yeung},
booktitle={ECCV},
year={2022}
}
Acknowledgements
This paper was partially supported by an internal grant from HKUST (R9429) and the HKUST-WeBank Joint Lab. The
website is modified from this template.