Authors

  • Gulnora Najmiddinova
    Navoi State University

DOI:

https://doi.org/10.71337/inlibrary.uz.jmsi.109186

Abstract

Artificial intelligence (AI) is transforming education, but its integration into teacher preparation remains underdeveloped. This article reviews current approaches to AI in teacher training and proposes a structured framework for embedding AI technologies into pre-service and in-service teacher education. We outline a staged methodology – from foundational AI literacy to immersive practice and reflective assessment – aligned with emerging competency frameworks. The model leverages adaptive learning systems, AI tutors, chatbots, and simulations to personalize and enrich methodological training. Benefits include individualized instruction and increased efficiency, while challenges involve equity, privacy, and ethical use of AI. We discuss implications for pedagogy (e.g. data-driven teaching), curriculum design (incorporating AI literacy and AI-enabled tools), and teacher competencies (drawing on UNESCO’s five AI dimensions). Finally, we highlight the need for ongoing research and policy support to realize an AI-augmented future for teacher preparation.


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UDK 004.852

AI-ENHANCED METHODOLOGICAL TRAINING FOR FUTURE TEACHERS

Najmiddinova Gulnora Najmiddin kizi,

PhD Student of Navoi State University

Email:

najmiddinovagulnora01@gmail.com

ORCID ID:

0009-0004-2958-5441

Abstract:

Artificial intelligence (AI) is transforming education, but its integration into teacher

preparation remains underdeveloped. This article reviews current approaches to AI in teacher

training and proposes a structured framework for embedding AI technologies into pre-service

and in-service teacher education. We outline a staged methodology – from foundational AI

literacy to immersive practice and reflective assessment – aligned with emerging competency

frameworks. The model leverages adaptive learning systems, AI tutors, chatbots, and simulations

to personalize and enrich methodological training. Benefits include individualized instruction

and increased efficiency, while challenges involve equity, privacy, and ethical use of AI. We

discuss implications for pedagogy (e.g. data-driven teaching), curriculum design (incorporating

AI literacy and AI-enabled tools), and teacher competencies (drawing on UNESCO’s five AI

dimensions). Finally, we highlight the need for ongoing research and policy support to realize an

AI-augmented future for teacher preparation.

Keywords:

Equity of access, Bias and Ethics, Teacher attitudes, technical limitations,

Curriculum integration

,

Limitations and Challenges, AI pedagogy.

Introduction

Rapid advances in artificial intelligence (AI) offer unprecedented opportunities in education. AI-

driven platforms can analyze learning data, adapt content, and provide real-time feedback,

fundamentally changing how instruction and training occur. To leverage these tools, future

teachers must be prepared to use and understand AI in teaching. Yet research indicates a gap:

only about 35% of studies on AI in education address teacher professional development, with

most focusing on student learning. Likewise, UNESCO notes few countries have defined AI

competencies for educators. This growing consensus suggests a need for systematic AI

integration into teacher education. In response, we review existing approaches – from adaptive

learning systems to AI tutors – and propose a comprehensive methodological framework for AI-

enhanced teacher training. We then examine the benefits, limitations, and challenges of AI-based

teacher education, and discuss implications for pedagogy, curriculum design, and teacher

competency frameworks.

LITERATURE REVIEW.


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Recent practice and research reveal several ways AI is already entering teacher education.

1

On

the technology side, adaptive learning systems (e.g. Knewton, Squirrel AI) and AI tutors (e.g.

Carnegie Learning, DreamBox) provide models of personalized instruction that teachers can

study and emulate. Chatbots and language models like ChatGPT are used informally by

educators for tasks such as lesson planning or answering content questions. Some teacher-

training programs have begun introducing AI literacy courses or modules, following

international guidelines (for example, the UNESCO AI competency framework). Innovative field

experiences use AI-based simulations: e.g. mixed-reality classroom simulators (such as

TeachLivE) let trainee teachers practice managing virtual students as in a “flight simulator” for

teaching​ .
On the professional development side, models are emerging that blend AI tools with teacher

learning. Tammets and Ley (2023) propose teacher-centered design: teachers co-design and

interact with AI tools that support classroom decision-making, noticing student needs and

adapting instruction.

2

In-service programs increasingly use AI analytics for reflection – for

instance, recording a lesson and using AI to analyze teaching moves. However, reports indicate

that teacher preparation programs often treat AI as an add-on rather than integrated content, and

few curricula systematically address AI’s pedagogical use. Notably, global surveys (e.g.

UNESCO 2024) call for restructuring teacher training around AI competency, emphasizing

ethical, human-centered use.
Overall, current approaches are piecemeal. Many educators recognize AI’s future importance – a

Walton Family Foundation survey found 71% of U.S. teachers agree AI tools will be essential

for student success – but training lags behind. To address this, we outline below a structured

methodology that systematically embeds AI into teacher education.

METHODOLOGY.

We propose a multi-phase framework for “AI-augmented teacher education” that aligns with

emerging competency standards. This approach ensures teachers

acquire

AI knowledge,

deepen

practical skills, and eventually

create

AI-informed teaching innovations. The framework has

four main stages:

1.Foundational AI Literacy (Acquire):

Pre-service teachers begin with the basics of AI – what

AI is, how it works, and its ethical implications. Coursework covers AI concepts (e.g. machine

learning, chatbots), data literacy, and AI ethics, reflecting UNESCO’s dimensions of

human-

centered mindset

and

ethics of AI

. Role-playing and case studies can illustrate real-world

scenarios (e.g. bias in algorithms, privacy issues) to develop critical perspectives.

2.Integration of AI Tools (Deepen):

Trainees learn to use specific AI-enabled educational tools

as part of their methodological training. For example, they might interact with adaptive learning

systems or AI tutoring platforms to see how content can be tailored to individual students.

Chatbots (e.g. GPT-driven conversational agents) can serve as practice partners – for instance,

posing as a student asking subject questions, while the teacher practices responding. During

pedagogy courses, AI tools are incorporated in lesson design exercises: teachers might use

generative AI to draft lesson plans or get feedback on activity scripts. Throughout this phase,

instructors model a

human-AI collaboration

approach, where the teacher guides and interprets AI

outputs.

1

Najmiddinova G.N. “The Integration of Artificial Intelligence (AI) into education system”.34-37 b. Tamaddun

Nuri ,ISSN 2181-8258,12-son (63) Ilmiy, ijtimoiy-falsafiy, madaniy-ma’rifiy, adabiy-badiiy jurnal,12.12.2024.

https://doi.org/10.69691/r1bx4f56

2

Tammets, K., & Ley, T. (2023). Integrating AI tools in teacher professional learning: A conceptual model and

illustrative case. Frontiers in Artificial Intelligence, 6, 1255089. https://doi.org/10.3389/frai.2023.1255089


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3.Immersive Practice and Simulation (Deepen/Create):

Building on AI tool experience,

teachers engage in interactive simulations. Immersive environments (such as virtual/augmented

reality classrooms) provide risk-free settings. For instance, using a virtual classroom simulator

(like TeachLivE​ ), a trainee can practice classroom management and receive AI-driven

feedback on their prompts and responses. This stage emphasizes reflective practice: AI analytics

from the simulation (e.g. a log of teacher questions, student engagement metrics) are used to help

teachers refine strategies. Peer collaboration can be enhanced by AI co-facilitators or automated

discussion moderators in group projects.

4.Reflective Evaluation and Continuous PD (Create):

Finally, teachers use AI-driven

analytics to assess their own learning and plan further growth. E-portfolios and video logs of

teaching can be analyzed by AI for insights (e.g. frequency of student talk, use of inclusive

language). This aligns with UNESCO’s “AI for professional development” dimension. Teachers

also learn to critically evaluate AI systems themselves – seeking “explainable, overridable” AI as

recommended by education authorities. The framework encourages a feedback loop: trainers

collect data on trainee performance and iterate the curriculum using design-based research

methods, ensuring tools and content adapt to teacher needs.
This structured progression (Acquire–Deepen–Create) mirrors international AI competency

frameworks and allows for assessment at each level (e.g. through AI-themed capstone projects or

practicum evaluations). In sum, the methodology integrates AI not as a side topic but as a core

element of methodological training: teachers learn

with

AI and

about

AI in parallel.

RESULTS AND DISCUSSION.
Benefits:

AI-enhanced teacher training offers notable advantages. First,

personalization

: AI-

driven platforms can adapt training content to each trainee’s knowledge and pace, addressing

individual strengths and gaps. Just as AI tutors tailor lessons to students, an AI-powered learning

environment could provide extra practice on topics where a trainee is weak. Second,

efficiency

:

repetitive tasks (e.g. auto-grading microteaching exercises, generating quizzes) can be offloaded

to AI, freeing instructors to focus on higher-level mentoring. Pardos (EdWeek) notes AI can

“save time and money… not by doing away with teaching roles but by cutting down on…

instructional materials”. Third,

enhanced feedback loops

: AI provides immediate formative

feedback (e.g. on lesson plan drafts or practice teaching), allowing trainees to iterate quickly. For

example, an AI tutor might score a mock lesson and highlight areas for improvement, much

faster than a human observer. Fourth,

safe practice environments

: simulated classroom AI

(avatars, VR) lets teachers rehearse challenging scenarios (e.g. handling disruptions) without risk

to real students​ . Studies have shown that such simulations can improve teachers’ skills and

confidence. Collectively, these benefits point to more engaged, confident trainees who receive

data-informed support throughout their preparation.

Limitations and Challenges:

Despite promise, AI-based training faces obstacles.

Equity of

access

is a major concern: high-end AI tools and infrastructure may be available only in well-

funded programs. WEF warns that without deliberate policy, AI resources could widen gaps

between schools, especially in under-resourced regions.

Bias and Ethics

are critical issues: AI

systems trained on limited data may give skewed feedback, and their use in teaching must

respect student privacy and fairness. The U.S. Department of Education cautions about

“examples of discrimination from algorithmic bias,” underscoring the need for oversight. This

means teacher training must include safeguarding against biased AI and respecting data rights.

Teacher attitudes

are another challenge: some educators fear AI may replace their role. In

practice, most experts reject this fear, emphasizing augmentation over replacement, but

overcoming skepticism requires careful PD and evidence of AI’s assistive role.

Curriculum

integration

is nontrivial: deciding where and how to embed AI in already-crowded teacher


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education programs demands strategic planning. As one AI researcher notes, heavy reliance on

vendor platforms could risk ceding curriculum control to tech companies​ . Finally, there are

technical limitations

: not all teacher skills are easily measured or supported by AI (e.g. empathy,

creativity), and current chatbots may generate inaccurate or superficial suggestions.
In summary, AI-based teacher training can greatly enrich learning, but must be implemented

with attention to digital divides, ethical safeguards, and alignment with educators’ goals.

Implications for Pedagogy, Curriculum, and Competencies

Integrating AI into teacher preparation will have ripple effects on pedagogy and program design.

Pedagogically, educators must model a

human-AI collaboration

mindset: teachers’ roles shift

toward mentoring, interpreting AI feedback, and focusing on social-emotional support while

routine tasks are automated. Classrooms are likely to become more data-driven; teachers learn to

use learning analytics to inform instruction (for example, spotting trends in student engagement)

which requires new analytic and reflective skills.

3

Therefore, teacher educators should emphasize

21st-century pedagogies (inquiry, project-based learning) that complement AI tools, rather than

traditional lecture-only methods.
Curriculum design in teacher education should embed AI literacy throughout. Instead of a single

workshop, AI concepts can be threaded into methods courses, technology courses, and clinical

experiences. For example, a mathematics methods class might include sessions on AI-driven

math tutors and have trainees compare AI-generated problems with their own. Institutes might

partner with edtech providers to give students access to adaptive learning platforms. Assessment

of trainees should likewise evolve: in addition to observation by human supervisors, AI analytics

(such as evaluation of lesson plans by an AI rubric) could become part of proficiency checks.
Key teacher competencies must expand. UNESCO’s framework identifies five AI-related areas.

We can summarize these as follows:

4

Human-centered mindset:

Teachers should value human agency and be prepared to

make final decisions in teaching, with AI as a support. They must advocate for equity and

inclusivity when using AI.

Ethics of AI:

Educators need competence in ethical principles, such as understanding

privacy, consent, and avoiding bias. Teacher training must build this ethical orientation.

AI foundations and applications:

Teachers require basic AI knowledge (how

algorithms work) and awareness of current tools. This technical foundation allows them to

critically evaluate new technologies.

AI pedagogy:

This is the skill of using AI as a teaching resource. It includes designing

lessons that effectively integrate AI-driven activities (e.g. personalized learning modules) and

interpreting AI-provided insights about student learning.

AI for professional learning:

Finally, teachers need to leverage AI for their own growth

– for instance, using AI-curated resources for self-study or analyzing peer teaching videos with

AI tools.

3

Najmiddinova M.N., Najmiddinova G.N. “Pedagogical mechanisms for improving student knowledge with the

help of Artificial Intelligence”. International journal of scientific researchers”. www.wordlyknowledge.uz. Volume:

2, Issue: 1, 2023.

4

UNESCO. (2024). AI competency framework for teachers: Guiding teachers on artificial intelligence use and

misuse in education (F. Miao & M. Cukurova, Eds.). United Nations Educational, Scientific and Cultural

Organization.


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Table 1 (below) aligns these competencies with training activities in our methodology. This

competence-based approach ensures that AI training supports teachers’ professional growth, not

just tool usage.

Table 1: AI-Related Teacher Competencies and Training Activities

(Example Framework)

Human-Centered Mindset & Ethics: Classroom debates on AI equity; reflective journals

on AI scenarios.

AI Foundations & Applications: Intro AI modules; hands-on with a coding-free AI tool.

AI Pedagogy: Lesson plan assignments using AI tutors; observation of AI-enhanced

teaching.

5

AI for PD: Using AI-driven feedback on teaching demonstrations; AI-curated

professional resources.
In summary, teacher education programs must be reoriented around these competencies. In doing

so, curriculum developers and policymakers should engage educators in co-design (as

recommended by Tammets & Ley) to ensure that AI integration supports real teaching needs.

Conclusion

AI holds great promise for transforming teacher preparation, but realizing this requires a

comprehensive, thoughtful approach. We have outlined a structured methodology that starts with

foundational AI understanding, integrates cutting-edge tools into practice, and uses analytics for

continuous improvement. This approach is grounded in emerging frameworks and empirical

insights, and it emphasizes teacher agency and ethics. Benefits of AI-based training include

personalized learning for trainees and greater efficiency, while challenges like equity, bias, and

curricular alignment must be proactively managed.
The implications are broad: teacher educators and institutions will need to update curricula,

invest in technology infrastructure, and develop new assessment strategies. Policymakers should

support these shifts through funding and standards (for example, by promoting UNESCO’s AI

competency framework as a guideline). Future research should evaluate pilot implementations of

this methodology, measuring outcomes such as teacher competence and student learning gains.

By embracing AI as a partner in teacher training, the educational community can prepare a

workforce ready to harness AI for better learning outcomes while upholding human values.

References

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from https://exceptionaleducation.buffalostate.edu/teachlive
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transform

education.

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transform-education
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Schultz, B. (2025, February 14). The new teachers’ aides: AI tutors. Education Week. Retrieved from

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4. Najmiddinova N.G. "Perspective usage of artistic intellect in the educational sphere".

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B.144-147.
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knowledge with the help of Artificial Intelligence". International journal of scientific

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higher education system”. International Conference on Sustainable Development and Economics.

June 24-25.
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society and education”. International scientific and practical conference on “Modern trends in

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conceptual model and illustrative case. Frontiers in Artificial Intelligence, 6, 1255089.

https://doi.org/10.3389/frai.2023.1255089
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intelligence use and misuse in education (F. Miao & M. Cukurova, Eds.). United Nations

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References

Buffalo State University. (n.d.). TeachLivE: Mixed-reality classroom simulation. Retrieved from https://exceptionaleducation.buffalostate.edu/teachlive

Lee, D., & Towne, J. (2025, January 9). How AI and human teachers can collaborate to transform education. World Economic Forum. Retrieved from https://www.weforum.org/stories/2025/01/how-ai-and-human-teachers-can-collaborate-to-transform-education

Najmiddinova G.N. "The role of artificial intelligence in society and education". Til va liyatrat.uz Scientific-methodical electronic journal. - Tashkent. 2025 year. -B. 239-242. https://oak.uz/pages/4802.

Najmiddinova N.G. "Perspective usage of artistic intellect in the educational sphere". Innovative Development in Educational Activities ISSN: 2181-3523. -B. 30-33. openidea.uz.

Najmiddinova G.N. "Introduction of Artificial Intelligence (AI) in Secondary Education School System". Scientific-theoretical, methodical magazine of science, No. 1. 2025 year. -B.144-147.

Najmiddinova M.N., Najmiddinova G.N. "Pedagogical mechanisms for improving student knowledge with the help of Artificial Intelligence". International journal of scientific researchers”. www.wordlyknowledge.uz. Volume: 2, Issue: 1, 2023.

Najmiddinova M.N., Najmiddinova S.N. “Ways to organize the activities of teachers in the process of distance Education” . Asian Journal of Multidimensional Research, ISSN: 2278-4853 Vol. 11, Issue 5, May 2022.

Najmiddinova M.N. “Practical basis of the problem of teaching foreign languages ​​in higher education system”. International Conference on Sustainable Development and Economics. June 24-25.

Najmiddinova G.N. “The role of artificial intelligence technologies in the development of society and education”. International scientific and practical conference on “Modern trends in teaching in the environment of innovation and digital technologies in higher education: prospects, problems and solutions”, November, 29, 2024. https://doi.org/10.5281/zenodo.14305115.

Najmiddinova G.N. "Artificial Intelligence Technologies and How to Use Them Properly in Education." Mejdunarodnoy ochno-ochnoy nauchno-prakticheskoy conference. Aktualnye problemy sovremennoy Tatarsky filologii, Ufa, November 22, 2024. 201-204 str.