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Development of AI Literacy Instruments to Map Elementary School Students' Abilities

The development of digital technology necessitates the strengthening of artificial intelligence literacy in elementary education as part of 21st-century skills. This study aims to develop a feasible and reliable AI literacy instrument for elementary school students. The research method employs a Research and Development (R&D) approach with the ADDIE model, encompassing the stages of analysis, design, development, im…

Licence
OPEN CC-BY-4.0
Authors
Siregar, Torang
Published
2026-03-31 · Zenodo
Language
en detected
Length
13669 words
Type
narrative text

Cites 25 works

inferred
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Challenges in Assessing AI Literacy in Elementary Schools

Assessing AI literacy, particularly among young learners, presents unique challenges. The abstract nature of AI concepts, such as machine learning and algorithms, can be difficult for elementary students to grasp (Williams et al., 2019). Furthermore, there is a scarcity of validated instruments designed specifically for this age group that can reliably measure the multifaceted dimensions of AI literacy. Many existing studies rely on qualitative methods or focus on older students (Kong et al., 2021). This gap underscores the need for robust, empirically tested instruments that are developmentally appropriate and can provide reliable quantitative data on elementary students' AI literacy levels, which is the central focus of this research.

Assessing AI literacy among elementary school students presents a range of conceptual and methodological challenges that distinguish it from assessment at higher educational levels. One of the primary difficulties lies in the abstract nature of core AI concepts, such as machine learning, algorithms, and data processing. These ideas often require a level of cognitive abstraction that may not yet be fully developed in young learners. As noted by Williams et al. (2019), elementary students may struggle to comprehend invisible processes that occur behind digital interfaces. Consequently, educators must translate complex AI concepts into simplified, concrete representations that align with students’ developmental stages. This requires careful instructional design as well as appropriate assessment strategies. Without such adaptation, assessments may fail to capture students’ true understanding. Therefore, the challenge is not only in teaching AI but also in measuring its comprehension accurately.

In addition to conceptual barriers, the limited availability of validated assessment instruments specifically designed for elementary students poses a significant challenge. Most existing AI literacy instruments are developed for secondary or higher education contexts, where learners possess more advanced cognitive and technical skills. As a result, these instruments may not be suitable for younger students due to differences in language complexity, task demands, and contextual relevance. Kong et al. (2021) highlight that many studies in AI education still rely heavily on qualitative approaches, such

as observations and interviews, to assess students’ understanding. While these methods provide rich insights, they often lack the scalability and objectivity required for large-scale evaluation. The absence of standardized quantitative instruments limits the ability to compare results across studies. This creates a gap in the literature regarding reliable measurement tools for early AI literacy. Hence, there is a pressing need for instruments tailored to the characteristics of elementary learners.

Another challenge in assessing AI literacy is the multidimensional nature of the construct itself. AI literacy encompasses not only knowledge and understanding but also practical skills, critical evaluation, creativity, and ethical awareness. Capturing all these dimensions within a single instrument requires a comprehensive and well-structured framework. Each dimension must be operationalized into measurable indicators that are both valid and reliable. However, designing such indicators for young learners is complex, as it must balance simplicity with conceptual accuracy. Overly simplistic items may fail to capture meaningful differences in ability, while overly complex items may confuse students. Additionally, ensuring consistency in responses across different contexts adds another layer of difficulty. Therefore, instrument development must involve rigorous validation and reliability testing प्रक्रيا. This ensures that the instrument accurately reflects the multifaceted nature of AI literacy.

Given these challenges, the development of robust and empirically tested instruments becomes a critical आवश्यकता in AI education research. Instruments must be developmentally appropriate, using language and contexts that are familiar to elementary students. They should also be capable of generating reliable quantitative data to support evidence-based decision-making. Such data are essential for evaluating the effectiveness of instructional interventions and for informing curriculum design. Furthermore, a validated instrument enables educators to identify specific areas where students need additional support. This aligns with the broader goal of fostering comprehensive AI literacy from an early age. By addressing the existing gaps in assessment tools, this research contributes to advancing the field of AI education. Ultimately, it supports the creation of more effective and inclusive learning environments in the digital era.