Creating Adversarial Attacks on Object Detectors to Develop an Invisibility Cloak, (from page 20221016.)
External link
Keywords
- adversarial attacks
- object detectors
- YOLOv2
- COCO dataset
- invisibility cloak
Themes
- adversarial attacks
- object detection
- invisibility cloak
- machine learning
- computer vision
Other
- Category: science
- Type: research article
Summary
This paper explores adversarial attacks on object detectors, focusing on the challenges of deceiving these systems compared to classifiers. It presents a systematic study of attacks on state-of-the-art detection frameworks, aiming to create an ‘invisibility’ cloak that makes wearers undetectable to object detectors. The researchers train patterns that suppress objectness scores using standard detection datasets, specifically targeting the YOLOv2 detector with patterns generated from the COCO dataset. The approach involves manipulating images with various deformations and employing a gradient descent algorithm to minimize objectness scores for all potential object locations. A video demonstration showcases initial tests, although full-scale demos have been delayed due to COVID.
Signals
name |
description |
change |
10-year |
driving-force |
relevancy |
Adversarial Attacks on Object Detectors |
Research focuses on creating adversarial examples to fool object detection systems. |
Shifting focus from traditional classifiers to complex object detectors in AI security. |
In 10 years, adversarial attack technology could lead to enhanced privacy measures in public spaces. |
The increasing need for privacy and security in an interconnected world drives this research. |
4 |
Wearable Invisibility Cloak |
Development of a wearable technology that renders the user imperceptible to object detectors. |
Transitioning from static invisibility techniques to dynamic, wearable solutions for personal security. |
Wearable invisibility technology may become mainstream for personal privacy and security applications. |
The growing demand for personal privacy solutions in surveillance-heavy environments fuels innovation. |
5 |
Integration of AI in Clothing |
Combining fashion with advanced technology to create smart clothing capable of evading detection. |
Moving towards the fusion of AI technologies with everyday wearables for enhanced functionality. |
Clothing may evolve to integrate AI features for protection and personalization in various contexts. |
The trend of merging technology with everyday life drives innovation in smart textiles. |
3 |
Impact of COVID on Tech Demonstrations |
Delays in demonstrating advanced technologies due to global health crises like COVID-19. |
Highlighting vulnerabilities in tech development and public demonstrations during crises. |
Future tech demonstrations might adapt to virtual formats, reducing reliance on physical gatherings. |
The need for adaptability in technology presentation methods due to unforeseen global events. |
3 |
Concerns
name |
description |
relevancy |
Adversarial Attacks on Object Detection |
The rise of techniques to fool object detectors could undermine safety and security systems relying on such technologies. |
5 |
Wearable Invisibility Technology |
The development of wearable cloaking devices makes it easier for individuals to evade surveillance, raising ethical and security concerns. |
4 |
Misuse of Adversarial Patterns |
Adversarial patterns designed to evade detection may be exploited for malicious purposes, such as criminal activities or terrorism. |
5 |
Impact on AI Trustworthiness |
Increasing effectiveness of adversarial attacks may lead to decreased trust in AI systems and their applications in critical areas. |
4 |
Regulatory Challenges |
As adversarial attacks evolve, regulatory frameworks may struggle to catch up, leading to vulnerabilities in AI usage. |
4 |
Behaviors
name |
description |
relevancy |
Adversarial Attack Development |
Creating targeted adversarial patterns that specifically deceive object detection systems, enhancing the complexity of attacks beyond traditional classifiers. |
5 |
Wearable Invisibility Technology |
Designing clothing equipped with patterns that render the wearer undetectable by object detection algorithms, merging fashion with advanced technology. |
4 |
Dynamic Image Manipulation |
Using real-time algorithms to alter images and suppress object detection scores based on environmental factors like perspective and lighting. |
4 |
Collaborative Research in AI |
Engaging with tech companies like Facebook AI to advance the study and application of adversarial machine learning in real-world scenarios. |
3 |
Integration of AI in Everyday Objects |
Embedding advanced AI techniques in consumer products, such as clothing, to provide enhanced privacy and concealment. |
4 |
Technologies
description |
relevancy |
src |
Techniques designed to create inputs that deceive object detection systems, complicating their ability to recognize and localize objects. |
5 |
76e3d69311e52896aa5c56f01119652f |
A wearable technology that uses adversarial patterns to render the wearer imperceptible to object detection systems. |
5 |
76e3d69311e52896aa5c56f01119652f |
An advanced object detection framework known for real-time processing and accuracy, used as a benchmark in adversarial studies. |
4 |
76e3d69311e52896aa5c56f01119652f |
An optimization technique used to minimize confidence scores in object detection, enhancing adversarial effectiveness. |
4 |
76e3d69311e52896aa5c56f01119652f |
Issues
name |
description |
relevancy |
Adversarial Attacks on Object Detectors |
The increasing sophistication of adversarial attacks targeting object detection systems could pose significant security risks in various applications. |
4 |
Development of Invisibility Cloaks |
The potential for wearable technology that can evade detection may have implications for privacy, security, and law enforcement. |
5 |
Challenges in Object Detection Technology |
The difficulty of fooling object detectors reveals vulnerabilities in current detection technologies that need addressing. |
4 |
Impact of COVID-19 on Technology Demos |
Delays in technology demonstrations due to COVID-19 highlight the pandemic’s impact on research and development timelines. |
3 |