Back to Cases
Case ReportPublished curriculum / implementation paper2023
AAB-CASE-2026-RV-101

Autonomous Agents: An Advanced Course on AI Integration and Deployment

A majority of the courses on autonomous systems focus on robotics, despite the growing use of autonomous agents in a wide spectrum of applications, from smart homes to intelli- gent traffic control. Our goal in designing a new senior-level undergraduate course is to teach the integration of a variety of AI techniques in uncertain environments, without the de- pendence on topics such as robotic control and localization.

This page documents an AI literacy or AI education case for registry purposes. It is descriptive and does not imply AAB endorsement of any specific tool, provider, or intervention.
01

Implementation

Source publication / research team or educational organization described in paper

02

Learning context

Higher education

03

AI role

Tutor

04

Outcome signal

Assessment / feedback quality

Registry Facets

0
Education Level
  • Higher education
Subject Area
  • Higher education
  • autonomous agents
  • Robotics / physical AI
  • Assessment / tutoring analytics
Use Case Type
  • Curriculum / course design
  • Learning tool / resource design
  • Assessment support
  • Physical AI / robotics learning
Stakeholder Group
  • Students
AI Capability Type
  • Robotics / physical AI
  • Assessment / tutoring analytics
Implementation Model
  • Higher education
Evidence Type
  • Activity documentation
Outcomes Domain
  • Assessment / feedback quality

Implementing Organization

1
Organization Type

Source publication / research team or educational organization described in paper

Location

USA

Primary Facilitator Role

Researchers, educators, instructors, or facilitators as described in the source publication

Learning Context

2
Setting Type
  • Higher education
Session Format

Course implementation or course design

Duration

3 week grow peri- ods that we had allotted; 2 weeks

Group Size

Not specified in extracted text

Devices

Robotics / physical AI, Assessment / tutoring analytics

Constraints
  • The paper provides limited implementation detail in the extracted abstract; additional manual review may be needed for local replication.

Learner Profile

3
Age Range

Higher education

Prior AI Exposure Assumed

Mixed or not explicitly specified; infer from target learner group and intervention design.

Prior Programming Background Assumed

Varies by intervention; not specified unless the paper explicitly describes prerequisites.

Educational Intent

4
Primary Learning Goals
  • Document the AI education intervention, course, tool, or resource described in the source publication.
  • Extract the learner context, AI role, pedagogy, outcomes, and constraints for AAB registry comparison.
  • A majority of the courses on autonomous systems focus on robotics, despite the growing use of autonomous agents in a wide spectrum of applications, from smart homes to intelli- gent traffic control.
Secondary Learning Goals
  • Support AAB comparison across AI literacy, AI education, teacher training, higher education, and workforce contexts.
  • Capture evidence maturity, transferability, and limitations rather than treating the publication as product endorsement.
What This Was Not
  • Not an AAB endorsement of the tool, curriculum, provider, or result.
  • Not a direct replication record unless the source paper reports implementation details sufficient for replication.

AI Tool Description

5
Tool Type

Robotics / physical AI, Assessment / tutoring analytics

Languages

Not specified in extracted text

AI Role
  • Tutor
  • Automation tool
User Interaction Model
  • Primary interaction pattern inferred from publication: Curriculum / course design, Learning tool / resource design, Assessment support, Physical AI / robotics learning.
  • AI capability focus: Robotics / physical AI, Assessment / tutoring analytics.
Safeguards
  • Apply standard AAB safeguards: privacy, transparency, human oversight, and documentation of limitations.

Activity Design

6
Activity Flow
  • Review the publication’s reported context, learner group, AI tool or curriculum, implementation process, and outcome evidence.
  • Map the case to AAB registry fields for comparison across educational levels and AI capability types.
  • Use the source publication and PDF for any manual verification before public registry release.
Human Vs AI Responsibilities
  • Human educators/researchers remain responsible for instructional design, supervision, interpretation, and ethical safeguards.
  • AI systems or AI concepts provide the learning object, support tool, evaluator, simulator, or automation context depending on the paper.
Scaffolding Strategies
  • Tutoring / feedback-supported learning
  • Registry extraction emphasizes explicit learning goals, observed outcomes, constraints, and safety limitations.

Observed Challenges

7
Educators Reported
  • The paper provides limited implementation detail in the extracted abstract; additional manual review may be needed for local replication.

Design Adaptations

8
Adaptations
  • Case classified under: Published curriculum / implementation paper.
  • Pedagogical pattern: Tutoring / feedback-supported learning.
  • Any additional adaptations should be verified against the full paper before public-facing publication.

Reported Outcomes

9
Engagement
  • Engagement evidence should be interpreted according to the source paper’s reported method and sample.
  • Fi- nally, we present some student feedback about the course and opportunities for future improvement.
Learning Signals
  • Fi- nally, we present some student feedback about the course and opportunities for future improvement.
Educators Reflection

A majority of the courses on autonomous systems focus on robotics, despite the growing use of autonomous agents in a wide spectrum of applications, from smart homes to intelli- gent traffic control. Our goal in designing a new senior-level undergraduate course is to teach the integration of a variety of AI techniques in uncertain environments, without the de- pendence on topics such as robotic control and localization.

Ethical & Privacy Considerations

10
Privacy
  • Apply standard AAB safeguards: privacy, transparency, human oversight, and documentation of limitations.

Evidence Type

11
Evidence
  • Activity documentation

Relevance to Research

12
Potential Research Use
  • Can be used as an AAB evidence record for cross-case comparison, standards drafting, and evidence-maturity mapping.
  • Supports identification of recurring patterns in AI literacy, AI education implementation, teacher preparation, assessment, and responsible AI learning.
Relevant Research Domains
  • Assessment / feedback quality
  • Curriculum / course design
  • Learning tool / resource design
  • Assessment support
  • Physical AI / robotics learning
  • Robotics / physical AI
  • Assessment / tutoring analytics

Case Status

13
Case Status
  • Completed

AAB Classification Tags

14
Age

Higher education

Setting

Higher education

AI Function

Robotics / physical AI, Assessment / tutoring analytics

Pedagogy

Tutoring / feedback-supported learning

Risk Level

Low to Medium

Data Sensitivity

Medium

Source Publication

15
Title

Autonomous Agents: An Advanced Course on AI Integration and Deployment

Authors
  • Stephanie Rosenthal
  • Reid Simmons
Venue

Proceedings of the AAAI Conference on Artificial Intelligence, Vol. 37 No. 13, EAAI-23

Year

2023

Doi

10.1609/aaai.v37i13.26881

Source URL

https://ojs.aaai.org/index.php/AAAI/article/view/26881

Pdf URL

https://ojs.aaai.org/index.php/AAAI/article/view/26881/26653

Pdf Filename

072_Autonomous Agents_ An Advanced Course on AI Integration and Deployment.pdf

Page Count

8

Abstract

A majority of the courses on autonomous systems focus on robotics, despite the growing use of autonomous agents in a wide spectrum of applications, from smart homes to intelli- gent traffic control. Our goal in designing a new senior-level undergraduate course is to teach the integration of a variety of AI techniques in uncertain environments, without the de- pendence on topics such as robotic control and localization. We chose the application of an autonomous greenhouse to frame our discussions and our student projects because of the greenhouse’s self-contained nature and objective metrics for successfully growing plants. We detail our curriculum design, including lecture topics and assignments, and our iterative process for updating the course over the last four years. Fi- nally, we present some student feedback about the course and opportunities for future improvement.

Transferability

16
Best Fit Contexts
  • Higher education
Likely Failure Modes
  • The paper provides limited implementation detail in the extracted abstract; additional manual review may be needed for local replication.

Cost And Operations

17
Time Cost Notes

Not specified in extracted text unless noted in duration field.

Staffing Notes

Requires educators/researchers/facilitators with sufficient AI literacy and pedagogy knowledge for the target learners.

Infra Notes

Infrastructure depends on AI tool type, learner devices, data access, and institutional policy context.

Extraction Notes

18
Confidence

High

Missing Information
  • group_size
Reasoning Limits

This entry was automatically extracted from the PDF text and manifest metadata. Fields should be manually verified before public registry publication, especially group size, location, duration, and outcome claims.

Duplicate Check Against Uploaded Cases Json
Closest Existing Title

A Differentiated Discussion About AI Education K‑12

Similarity Score

0.413

Likely Duplicate

false

Registry Metadata

19
Case ID
AAB-CASE-2026-RV-101
Publication Status
Published curriculum / implementation paper
Tags
caseHigher educationUSAHigher educationRobotics / physical AIHigher educationautonomous agentsRobotics / physical AIAssessment / tutoring analyticsCurriculum / course designLearning tool / resource designAssessment supportPhysical AI / robotics learning