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Record STMT-WF8DB2FAspirational

Integrating Trustworthy Artificial Intelligence with Energy-Efficient Robotic Arms for Waste Sorting

Report Institutional policyGlobalunknown

This paper presents a methodology integrating trustworthy artificial intelligence with an energy-efficient robotic arm for waste sorting. Using a convolutional neural network enhanced by transfer learning with MobileNetV2, the system classifies waste into six categories with a training accuracy of 99.8% and validation accuracy of 80.5%. Additionally, a robotic arm simulation calculates the energy cost for each action using Euclidean distance to achieve optimal, efficient movement.

Summary and content fields are drawn from the document text and are pending editorial review.

Who issued it

arXivAcademic
Publisher
Legal forceAspirational
Under whose authorityInstitutional policy
Judged fromfull text

Who it governs

Researchers and academicsPublic sector bodiesCompaniesAI developers and providers

Researchers and developers in AI and robotics looking to design energy-efficient and trustworthy smart waste management systems.

Sectors
Manufacturing and industry · waste sorting and recyclingResearch and science · computer science and robotics

What the document contains

What's covered

The document covers the integration of deep learning classification using MobileNetV2 and energy-aware path planning for simulated robotic waste sorting. It addresses dataset preparation, model evaluation metrics, energy consumption formulas, and trustworthy AI implementations.

What's missing

It does not provide legal regulatory enforcement mechanisms, governmental policy mandates, or physical hardware deployment details.

Key takeaways
  • A lightweight CNN based on MobileNetV2 was utilized with transfer learning to classify waste into six categories.
  • The waste classification model achieved 99.8% training accuracy and 80.5% validation accuracy.
  • A robotic arm simulation was implemented to perform virtual sorting and calculate energy costs using Euclidean distance.
  • The framework integrates trustworthy AI principles including transparency, robustness, fairness, and safety.
  • Optimized path planning yielded a 25-30% reduction in estimated energy consumption compared to naive linear movements.
Principles it states
transparencyrobustnessfairnesssafety
Outline
· I. Introduction
· II. Related Works
· III. Methodology
· IV. Results and Discussion
· V. Trustworthy AI Elements
· VI. Hardware Realization Challenges
· VII. Conclusion and Future Work
· VIII. Environmental and Ethical Considerations
IssuedNovember 2025
Length3,192 words · 5 pages
FormatNot recorded
Scopeglobal

How it scores

Pending review

Each score is backed by a quote verified against the document text. Editorial review has not yet confirmed them.

Accountability

0/5

Clear responsibility for AI outcomes

screening score · 2026-10-23

Fairness

3/5

Non-discrimination and equitable treatment

We also make sure the system is fair by using a balanced dataset that includes all six types of waste

V. Trustworthy AI Elements

screening score · 2026-10-23

Human Dignity

0/5

Respect for the inherent worth of persons

screening score · 2026-10-23

Privacy

0/5

Protection of personal data and private life

screening score · 2026-10-23

Transparency

3/5

Openness about how AI systems work and are used

We keep everything clear by sharing details about how the model is built, what settings are used, and how it was trained.

V. Trustworthy AI Elements

screening score · 2026-10-23

Enforcement

0/5

Consequences and compliance mechanisms with real force

screening score · 2026-10-23

Impact Assessment

3/5

Required assessment of an AI system's risks/impacts before or during use

To further assess model performance, the gap between training and validation accuracies was calculated.

III. Methodology

screening score · 2026-10-23

Topics

artificial_intelligence robotics waste_management energy_efficiency computer_vision