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Namangan Institute of Engineering and Technology
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| bet | 407/693 | | Sana | 13.05.2024 | | Hajmi | 15,56 Mb. | | #228860 |
Bog'liq ТўпламNamangan Institute of Engineering and Technology
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10.25.2023
Pg.378
Simulations - Immersive simulations powered by virtual reality and augmented reality
provide safe environments for students to engage in hands-on learning. Simulations allow students
to interact with models of real-world systems [3].
Robotics - Robots are being used as tutors and peer learners to make STEM education more
interactive. Students also learn robotics and coding skills by building and programming robots [4].
Remote labs - Automated remote labs give students online access to expensive lab
equipment. Students can remotely conduct experiments and collect data for analysis [3].
These applications utilize mechatronics and automation to create responsive, individualized
learning experiences. They also help develop student competencies needed for 21st century
careers.
Emerging Trends and Technologies.Ongoing advances in mechatronics and automation will
enable more futuristic education technologies. Some emerging trends include:
Immersive learning environments powered by extended reality. Students will learn in
interactive virtual and augmented worlds [2].
AI-driven adaptive learning apps and software. Machine learning will help personalize
educational content and pace [3].
Automated classroom and campus management. Smart campus infrastructures will remove
routine tasks and optimize operations [1].
Big data analytics to discern learning patterns. Data gathered on student learning will
continuously improve teaching strategies [3].
Challenges and Opportunities.Implementing mechatronics and automation technologies
poses certain key challenges for educators:
Managing costs of acquisition, maintenance, and training. Budget constraints have to be
balanced.
Addressing ethical and privacy concerns responsibly. Student data collection and use policies
need review.
Rethinking curricula and assessments to integrate new technologies. More interdisciplinary
collaboration is required [3].
Supporting teachers through technology-focused professional development. Continuous
upskilling on new tools is needed [3].
However, the opportunities are greater. Benefits include increased student engagement,
more personalized instruction, and gaining tech-ready skills. These technologies can also make
education equitable. Automated systems, smart devices, and remote labs can be provided at scale
in all communities. The COVID-19 pandemic revealed the crucial need for investments in edtech
infrastructure and solutions. More mechatronics and automation applications will emerge to make
education resilient to future disruptions [1][3].
Conclusion.Machine learning algorithms like supervised learning, unsupervised learning,
reinforcement learning, and deep learning are powerful tools for enhancing predictive maintenance
and process optimization. When applied to industrial data, machine learning models can uncover
insights that optimize maintenance schedules, avoid equipment failures, improve yield, reduce cycle
times, and cut costs. Machine learning will become a key competitive advantage for manufacturers.
However, challenges related to data, talent, and model robustness must be addressed. Overall,
machine learning holds tremendous potential to make manufacturing and industrial operations
more efficient, resilient, and intelligent.
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