toplogo
Zaloguj się

AMUSE: Adaptive Multi-Segment Encoding for Dataset Watermarking


Główne pojęcia
The author proposes AMUSE, an adaptive multi-segment encoding-decoding method for dataset watermarking, aiming to improve message extraction accuracy and watermarked dataset quality.
Streszczenie

The paper introduces AMUSE, a method that adaptively maps the original watermark into shorter sub-messages to enhance ownership protection of datasets. By distributing the message over multiple samples, AMUSE improves extraction accuracy and dataset quality. The proposed method is evaluated against existing image watermarking techniques through extensive experiments.

Key points:

  • Curating high-quality datasets requires effective ownership protection.
  • Existing watermarking methods lead to redundancy and reduced quality.
  • AMUSE encodes the original message into shorter sub-messages adaptively.
  • The encoder adjusts the protection level based on user needs.
  • Extensive experiments show improved extraction accuracy and dataset quality with AMUSE.
edit_icon

Customize Summary

edit_icon

Rewrite with AI

edit_icon

Generate Citations

translate_icon

Translate Source

visual_icon

Generate MindMap

visit_icon

Visit Source

Statystyki
Applying AMUSE improves overall message extraction accuracy up to 28%. Image dataset quality enhanced by approximately 2 dB on average.
Cytaty
"The proposed encoder and decoder are plug-and-play modules that can easily be added to any watermarking method." "AMUSE improves both the extraction accuracy and the quality of the watermarked dataset."

Kluczowe wnioski z

by Saeed Ranjba... o arxiv.org 03-12-2024

https://arxiv.org/pdf/2403.05628.pdf
AMUSE

Głębsze pytania

How does AMUSE compare to other existing watermarking methods in terms of robustness against attacks

AMUSE demonstrates superior robustness against attacks compared to other existing watermarking methods. The adaptive multi-segment encoding-decoding approach of AMUSE allows for the mapping of the original watermark message into shorter sub-messages, enhancing its resilience against various types of attacks. By distributing the message over multiple samples and adjusting the protection level according to specific requirements, AMUSE reduces vulnerability to subset attacks and ensures accurate extraction even in challenging scenarios. This adaptability sets AMUSE apart from traditional watermarking techniques, making it more effective in maintaining data integrity and ownership protection.

What implications does AMUSE have for data marketplaces seeking ownership protection

For data marketplaces seeking ownership protection, AMUSE offers a valuable solution by providing an efficient and adaptable method for dataset watermarking. With the increasing importance of curating high-quality datasets as intellectual assets, effective ownership protection is crucial in preventing unauthorized use or distribution. By incorporating AMUSE into their processes, data marketplaces can enhance security measures by embedding ownership information imperceptibly into individual samples while maintaining dataset quality and extraction accuracy. This not only safeguards intellectual property rights but also enables traceability and verification of dataset ownership, addressing key challenges faced by data marketplaces in ensuring data integrity.

How might applying AMUSE impact the scalability of dataset watermarking processes

Applying AMUSE can have significant implications for the scalability of dataset watermarking processes by optimizing efficiency and resource utilization. The plug-and-play nature of AMUSE allows for seamless integration with existing watermarking methods, streamlining the implementation process across large-scale datasets without compromising performance or quality. By adaptively mapping original messages into shorter sub-messages based on protection requirements, AMUSE enhances scalability by reducing redundancy in embedded information while improving extraction accuracy. This results in more efficient processing workflows that are better equipped to handle diverse datasets at scale without sacrificing security or effectiveness.
0
star