Nature-inspired intelligence, an integral component of computational intelligence curriculum. The integration of nature-inspired intelligence methodologies with robotics has become increasingly prominent in research and education. Among its diverse applications, the utilization of these methods for optimizing robot path planning and enhancing motion control stands out as a significant advancement in the field of computational intelligence. However, the incorporation of these concepts into computational intelligence curricula presents a noteworthy pedagogical challenge. Nature-inspired intelligence draws inspiration from the behaviors and strategies observed in natural systems, including animals, plants, and ecological processes. These approaches strive to create path planning algorithms that are both efficient and adaptive by mimicking the principles found in nature.
In this research, a pedagogy of sparrow-dissection and scaffolding (SDS) integrated with a flipped learning and a milestone on-going project-based method is developed to assist students to comprehend, create, and implement nature-inspired intelligence models for robot path planning optimization and control. In our graduate-level Computational Intelligence curriculum, we introduce students to various nature-inspired intelligence methods such as particle swarm optimization (PSO), genetic algorithms (GA), and bat algorithms (BA). These methods are provided along with their source codes, serving as a 'sparrow' for students to dissect and explore how nature-inspired intelligence can be applied to optimize robot path planning. Working collaboratively with students, we guide them through the process of revising and customizing the provided source codes for the purpose of robot path planning.
Integrating flipped learning and a project-based approach with multiple milestones can establish a dynamic and captivating learning environment. Within this flipped classroom model, students receive nature-inspired intelligence algorithm materials before class, including reading assignments and online resources. This pre-class preparation empowers students to review these materials at their own convenience, enabling them to build a solid foundation in nature-inspired intelligence methods.
These ongoing projects, integrated with the flipped learning pedagogy, serve a dual purpose. They not only aim to improve students' comprehension of nature-inspired intelligence algorithms for robot path planning but also to nurture and sharpen their problem-solving, critical thinking, and problem analysis skills. During in-class time, we utilize flipped learning activities to introduce and discuss these ongoing projects. We provide project guidelines and objectives, and we organize students into groups to collaborate on projects related to nature-inspired intelligence algorithms for robot path planning. We also elaborately design and provide various practice exercises after each lecture. This hybrid pedagogy empowers students to take ownership of their learning in nature-inspired intelligence algorithms, build problem-solving skills and connect these algorithms to practice in robot path planning. It promotes active engagement, critical thinking, and collaborative learning, making the educational experience more dynamic and meaningful for students.
Based on students' performance in homework assignments, Q&A sessions, exams, self-assessment surveys, and their feedback in the official university course evaluation, along with a comparison to the instructor's other teaching experiences, the hybrid pedagogy adopted was highly effective in facilitating meaningful learning of nature-inspired intelligence models. The final assessment and evaluation of this innovative hybrid pedagogy for delivering computational intelligence education, informed by valuable insights, further confirms its effectiveness.
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