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CHAPTER 15
INTELLIGENT TUTORING SYSTEMS FOR ENHANCING
ACADEMIC PERFORMANCE OF SECONDARY STUDENTS
IN INDIA
Dr. Rimmi Datta
Resource Person, Department of Education, Murshidabad University,
Berhampore, Murshidabad, West Bengal- 742101, India
Prof. Jayanta Mete
Former Professor & Dean, Department of Education,
Faculty of Education, University of Kalyani, West Bengal-741235, India
rimmidatta3@gmail.com & jayanta_135@yahoo.co.in
Abstract
Background:
The secondary education system in India is opening access and digital infrastructure, but a
significant portion of classrooms have large within-grade learning dispersion, which limits teacher-centered instruction
and leads to poor academic performance.
Objective:
In order to synthesize evidence on Intelligent Tutoring Systems (ITS) and PAL to enhance academic
performance in secondary-stage students in India, a combination of national official data and a multiple-case case
study of published PAL/ITS applications.
Methods:
Explanatory multiple-case design that is desk-based and has embedded units (school contexts). The
researcher triangulated: (i) national statistics and assessments (UDISE+, ASER 2024, National Council of
Educational Research and Training large-scale assessment systems); (ii) peer-reviewed and working-paper RCTs
evidence of PAL/ITS; (iii) program documentation and registry data. The researcher took out sample
characteristics, measures, outcome measures (standardized test scores, exam results, use), and implementation
processes and proceeded to within- and cross-case synthesis, taking into account measurement alignment and
scalability threats.
Results:
In 2024-25, national indicators provide secondary GER 68.5% and secondary dropout 8.2%; schools
with computer and internet access were 64.7% and 63.5% respectively. Evidence of the cases shows that large
learning gains can be obtained on independent tests (math: 0.22-0.43 SD at scale; 0.37 SD in an efficacy trial)
and grade level school tests might fail to reflect such gains when instruction aims several years below grade norms.
Conclusions:
ITS/PAL is capable of significantly enhancing learning among post-primary students in India
under realistic conditions of the public-system, but the improvement in performance requires dosage, device access,
teacher integration, governance and redesigning of assessment. Existing ICT funding under Samagra Shiksha must
be the policy pathways, in line with NDEAR interoperability, and meet child-data protection requirements in the
then-developing data protection laws.
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Keywords:
Intelligent Tutoring Systems; Personalized Adaptive Learning; Learning Outcomes; Randomized
Controlled Trial; Digital Infrastructure.
Introduction
Context and problem statement: In India, secondary education is at a crossroads: Grade 9-
10 of every school is a turning point of leaving and a determining factor of further labour-market
and higher-education life course. Most of the recent national school statistics (reported as key
findings of UDISE+ 202425) demonstrate positive change in access and retention indicators-
secondary GER increasing to 68.5% in 202425 (66.5 in 202324), and secondary dropout decreasing
to 8.2 (10.9 in 202324). As shown by large-scale survey learning, however, and experimental results,
in post-primary grades, a significant fraction of students are several years below the norms of the
curriculum, suggesting that coverage of syllabus can not necessarily mean that students have
mastered the pre-requisite skills, particularly in mathematics and language. [2,11] [19]
Why ITS now? ITS/PAL is especially timely in India in 2026, as there are two conditions. To
begin with, digital accessibility among schools is on the rise: the number of schools that report
having access to computers has expanded to 64.7% and access to internet to 63.5% in 202425
(compared to 57.3% and 53.6% in 202325). Second, the national digital educational ecosystem is
converging to interoperable platforms and reusable building blocks (e.g., NDEAR; DIKSHA),
allowing assessment services, identity services, content services, analytics services, etc., to be
similarly modularly integrated. [20]
Research aim and questions: This research article asks:
1) What is the evidence that ITS/PAL improves academic performance for secondary-stage
learners in India, and how do effect sizes vary by delivery model (after-school vs in-school;
laptops vs tablets)?
2) Which implementation mechanisms (dosage, teacher role, monitoring, device access) appear
most influential for learning gains at scale?
3) What policy design features—financing, interoperability, assessment alignment, and data
governance—are required for durable gains in India’s public secondary education system?
Assumptions and scope: Since no particular state/region/site was given, the researcher (i)
considers this to be a national-level synthesis using official, all-India indicators; and (ii) uses two
exemplary school-level cases using documented pilots an urban after-school model (Delhi
catchment) and a rural-heavy in-school model (Rajasthan Adarsh schools) supplemented with a
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government-led scale model (Andh These include mostly Classes 6 9; we explain our relevance to
secondary education by (a) Class 9 is in secondary and (b) the accumulated deficit of skills in Class
8 9 has a material effect on secondary academic achievement and readiness to pass board exams.
Literature review and theoretical framework
Definition and architecture of ITS: ITS are computer-based teaching systems that change
content, feedback, and sequence of problems based on the changing knowledge state of a
particular learner. In the majority of traditional formulations, an ITS consists of: a domain model
(skills/knowledge components), a student model (probabilistic estimate of mastery), a
pedagogical/tutor model (rules to give hints, remediation and sequencing), and a user interface.
One of the earliest methods is the knowledge tracing - probabilistic updating of mastery beliefs in
the attempt of a learner to solve items, first mathematically modeled by Albert T. Corbett and John
R. Anderson in Bayesian form. [18]
Effectiveness evidence: what the global literature says? Meta-analytic research in
educational psychology shows that ITS tend to be effective, although the sizes of effects differ
depending on outcome measure, comparison condition and context. Wenting Ma and colleagues
combined 107 effect sizes (14,321 participants) and found positive effects in education levels and
areas. According to James A. Kulik and J. D. Fletcher, a median effect of about 0.66 SD was
observed in 50 controlled ITS assessments, and they point out that measured gains were strongly
dependent on the fit between assessment and instructional objectives- a problem that lies at the
heart of the Indian scale cases discussed here. Kurt VanLehn also defines families of design based
on the interaction granularity (answer-based and step-based), claiming that human tutoring is
sometimes as effective as computer tutoring when it comes to certain conditions. [16]
Why India is a high-variance setting for ITS: The focal pedagogical limitation in most
Indian classrooms is not just time scarcity, but extreme within grade heterogeneousness of learning
levels. In the assessment of Adarsh schools in Rajasthan, before the introduction of Mindspark
instruction, the average performance of Grade 8 students in math was about Grade 4, with
students of various grades of achievement in one classroom. As a result of this heterogeneity, the
efficacy of one-pace instruction is diminished and focused remediation is a realistic high-leverage
intervention.
Theoretical framework: mastery learning and teaching at the right level: The mastery
learning and curricular-right-sizing are integrated in the theoretical lens. Mastery learning,
popularised by Benjamin S. Bloom[36], argues that the majority of learners can attain high levels
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of mastery with adequate time, good feedback and corrective instructions that is, the processes of
diagnostics and personalization are not peripheral tools. PAL/ITS puts this mechanism into
practice: they are diagnosing followed by providing customized practice with instant feedback. The
India PAL evidence base is consistent with this theory: massive gains are seen in independent
adaptive tests despite small change seen in grade-level tests, which are in line with learning recovery
on below-grade baselines.
Policy and system alignment: The policy architecture in India also favors the fairness of
technology and digital ecosystem construction. NEP 2020 contains a specific concern of
technology use and online/digital education in order to assist fair learning. NEP 2020 goals, such
as breaking the overemphasizing on memorization and shifting to competency development, the
orientation that adaptive diagnostics and practice is compatible with, are operationalized by the
National Curriculum Framework (NCF) of school education ([6]]. ICT funding and digital targets
under the samagra Shiksha expressly facilitate the Government and aided schools; in Classes VI
through to Class X; this provides a financing mechanism through which ITS/PAL labs can be
funded. [4] Interoperability aspirations in NDEAR also mean that ITS/PAL must be viewed as
being modular services that are combined with national platforms and not pilots. [5]
Methodology
Design: The study design implemented by the researcher was an explanatory and embedded
multiple-case study (desk-based) which is appropriate in situations where (i) causal findings are
obtained by the rigorous quantitative appraisal, but (ii) the uptake of the policy would require
insights into the implementation processes and contextual contingencies. The cases were chosen
to differ on: the delivery model (after-school vs in-school), technology substrate (computer lab vs
tablets), and the governance model (NGO supported vs state-run).
Case sampling and units of analysis: Purposeful sampling (maximum variation) yielded three
evidence-rich cases:
Case A (Urban efficacy): Delhi after-school PAL/ITS program (Mindspark) was the
strategy tested through a scholarship/lottery allocation system among learners in Grades 69 among
public middle schools. [10]
Case B (Scale adaptation): The Rajasthan in-school Mindspark program was part of the
Programs in the schedules of “Adarsh” integrated public schools (Grades 112) in both rural and
urban in four districts. [11]
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Case C (Government-led PAL labs): Andhra Pradesh PAL implementation with Grades
6-9 students through 1-to-1 implementation of tablets in special purpose PAL laboratories over a
period of approximately 17 months (120 schools (60 treatment/60 control) in a randomized
design).
Embedded units were “school implementation contexts(urban sample, rural-heavy sample,
and statewide government lab model). In cases where school-specifics were not publicly listed, we
documented only features that were available and made clear what had been assumed in operation
(e.g. timetabling norms), without fabricating it.
Data sources: The researcher triangulated four source classes:
1) Official national statistics and infrastructure indicators from UDISE+ 2024–25 key
findings. [1] [2]
2) Learning and enrolment benchmarks from Annual Status of Education Report 2024[46]
(ASER 2024). [2]
3) National assessment system documentation from NCERT/PARAKH resources (NAS
2021 page; PRS 2024 national report).
4) Peer-reviewed RCT results (Delhi Mindspark), working-paper scale evidence (Rajasthan
Mindspark), program evaluation summary Andhra Pradesh, registration documentation (AEA
RCT registry).
Instruments and extraction protocol: The researcher applied a structured evidence
extraction template that included: (i) sample frame; (ii) randomization unit and timeline; (iii)
measurement instruments (independent assessments vs school exams; item ranges; standardization
method); (iv) implementation model (hardware, staffing, teacher role, monitoring); and (v)
outcomes (effect sizes, usage, subgroup heterogeneity, exam impacts, cost parameters). Threats to
scale (dose reduction, displacement of instructional time, teacher adaptation) were also extracted
by the researcher.
Analysis strategy: The within-case synthesis generated logic models between implementation
features and learning outcomes; the cross-case synthesis compared the effect sizes and
mechanisms. The researcher report standardized treatment effects (SD units) as the key similar
measure, noting that tests in different cases are not identical; therefore, cross-case comparisons
are interpretive, but not mechanistically the same (assumption mentioned). The researcher also
report conversions of equivalent years of schooling used by authors of studies where it is available.
[17]
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Source: Press Release Page | Press Information Bureau
Figure 1
Results
National context: access, retention, and digital readiness: Table 1 contains a summary of
the latest reported all-India indicators applicable to ITS feasibility and secondary performance
constraints. Secondary GER is still below 70, and secondary retention is still low compared to the
previous levels, which means that academic support in Classes 8-10 can be consequential to
performance and persistence. The digital infrastructure has been enhanced at a high pace implying
that the properly designed ITS/PAL models can be provided by the available ICT labs or tablet
labs, yet, a nontrivial connectivity gap remains. [13]
Table 1. Selected national indicators relevant to secondary ITS/PAL deployment (All-
India)
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Indicator (All-
India)
2023–
24
2024–
25
Interpretation for
ITS/PAL
Source
Secondary GER
(%)
66.5 68.5 Expanding target cohort; still
substantial unmet enrolment at
secondary level
[1], [2]
Secondary dropout
rate (%)
10.9 8.2 Improved retention;
remediation may further reduce
attrition
[1], [2]
Middle→Secondary
transition rate (%)
83.3 86.6 Transition improving;
bridging learning gaps at Class
8–9 remains critical
[1], [2]
Schools with
computer access (%)
57.2 64.7 ICT labs expanding; supports
lab-based ITS where available
[1], [2]
Schools with
internet facility (%)
53.9 63.5 Connectivity improving;
offline-capable ITS still needed
for residual gaps
[1], [2]
Out-of-school (age
15–16) (%)
7.9
(2024)
Even among older
adolescents, non-enrolment
persists; targeted support may
aid re-engagement
[2]
Policy timeline and enabling ecosystem: Figure 2 situates ITS/PAL feasibility in the policy
and infrastructure journey of India: digital ecosystem blueprinting (NDEAR), national
teacher/student platform (DIKSHA) and financing norms of ICT labs in Samagra Shiksha provide
a viable system pathway between pilots and scale, in case learning measures and data management
are standardized.
Figure 2
Platform comparison: ITS/PAL options and evidence features: Table 2 is a comparison
of three prominent systems in the Indian ITS/PAL landscape: Mindspark (computer-adaptive
PAL with RCT evidence), CG PAL (tablet-based PAL with a reported randomized evaluation),
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and DIKSHA (foundational national platform that will allow distribution, but is not an ITS). The
main policy implication is that the ecosystem in India most probably needs: (i) an interoperable
rail (DIKSHA/NDEAR-aligned services), and (ii) PAL/ITS-based applications (evidence-based)
that are interconnected into rails. [3,5]
Table 2. Comparative features of selected platforms relevant to secondary learners in
India
Platform Delivery
substrate
Core
ITS/PAL
functionalities
Evidence
base (India)
Notes for
secondary
performance
Mindspark (by
Educational
Initiatives)
Computer
labs;
structured
after-school
centers
Adaptive
diagnostics;
individualized
sequencing;
high-frequency
feedback; tracks
within-grade
dispersion
Delhi lottery-
based RCT
(Grades 6–9)
with large short-
run gains;
Rajasthan
cluster RCT
(Grades 5 & 8
in integrated
schools)
showing gains
on independent
tests but not on
school exams
Strong for
remediation and
competency
building; exam
alignment requires
bridging content
and assessment
redesign
CG PAL (by
ConveGenius.AI;
state-led
program)
Tablet labs
(30
tablets/school
reported)
Adaptive
diagnostics and
practice; usage
dashboards;
field support
and monitoring
Andhra
Pradesh
randomized
evaluation
summary
reports 0.43 SD
gain in math
over ~17
months (Grades
6–9) [12]
Reported gains
largest in lower
grades and among
girls; device access
and class-size
constraints affect
usage [12]
DIKSHA
(NCERT/MoE
platform)
Web +
mobile
Repository,
courses,
assessments;
analytics;
multilingual;
open-source
building blocks
(Sunbird)
National
platform
adoption across
most
States/UTs;
enables
teacher/student
programs at
scale [3]
Not an ITS
itself; can serve as
distribution +
identity +
content/assessment
rails for ITS/PAL
integrations
Case sample characteristics: Table 3 summarizes the design of the cases, samples, and
measurements. Two patterns are important in interpreting the effects of academic performance:
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(i) in cases where tests are adaptive or measure a broad range of abilities, the measured effects are
large; (ii) in cases where the measure of performance is based on grade level school exams, the
effects of learning may be insignificant even when learning is higher, because instruction is below
grade-level. [17]
Table 3. Case characteristics: setting, sampling, instruments, and outcomes
Case Setting
and delivery
model
Sample and
grades
Design and
instrument(s)
Primary
outcomes
reported
A: Delhi
urban after-
school PAL
After-
school
PAL/ITS
centers serving
public-school
students
Grades 6–9;
study focused on
middle-school
grades; centers
catered wider
range [10]
Lottery-based
access; independent
standardized tests
in math and Hindi
[10]
+0.37 SD
math; +0.23 SD
Hindi in ~4.5
months (ITT)
[10]
B:
Rajasthan in-
school PAL
at scale
In-school
labs in Adarsh
integrated
public schools
(Grades 1–12),
across rural
and urban
areas
~80 schools;
treated ~40
schools and
~6,500 students
annually; key
grades analyzed
include Grade 5
and Grade 8 [11]
Cluster RCT;
independent tests
with IRT scaling;
school exam
outcomes analyzed
separately [11]
~+0.22 SD
math; ~+0.20 SD
Hindi after 18
months; no
evidence of
improvement on
school exams [11]
C: Andhra
Pradesh
government-
run PAL labs
Tablet-
based PAL
labs; 2×40-
minute weekly
sessions
reported; field
+ government
monitoring
Grades 6–9
across 120
schools in eight
districts (60
treatment/60
control) [12]
Randomized
control design;
tablet-based math
assessment
spanning Grade 2
to current grade
with validated
items [12]
+0.43 SD
(95% CI 0.29–
0.56) ≈ +1.9
equivalent years
of schooling over
~17 months;
higher gains for
girls and lower
grades [12]
Learning gains: cross-case visualization: The standardized learning gains in mathematics in
the three cases in India are visualized in figure 3 (with an accent on the fact that) (a) large short-
run efficacy gains can still decline at scale (usually due to a reduction in dosage), and (b) large
impacts can also be achieved with well-manageable scale models.
Figure 3
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Outcome metrics beyond test scores: exam alignment and productivity: The scale-
adapted study of Rajasthan directly notes no evidence of scale effect on school examinations, with
statistically insignificant effects and small negative point estimates, attributing this to the fact that
instruction was given at the actual learning levels of students (often several years below grade
levels), and that grade-level instruction was reduced since PAL had to replace some of the
classroom time. This gap of measurement is not a failure of PAL as such; it is an indication that
academic performance needs a multiplicity of measures: (i) competency gains on broad-range
measures to correct remediation; and (ii) grade-level competence to board-oriented measures.
The program documentation of Andhra Pradesh also places high attention on access and usage:
students in smaller classes were found to have increased access and usage of tablets (42.3 vs 30.6
hours), and every hour of additional usage was found to be associated with an increase in the
equivalent years of schooling (their conversion). It means that the device-to-student ratios and
time-keeping fidelity are not the operational aspects but the causal levers.
Indicative cost parameters: Andhra Pradesh’s PAL evaluation summary reports an estimated
implementation cost of 1,682 (~US$20) per student annually, inclusive of hardware, software,
monitoring, and field implementation support. [12] Rajasthan’s scale paper reports per-student
annual costs in the adapted model in the range of ~1,718–2,903 across years (assumptions in
the study) and contrasts this to a much higher per-student cost in the earlier Delhi efficacy model.
[11] These figures should be interpreted as program-accounting estimates rather than nationally
standardized costs (assumption: cost comparability varies with procurement norms, amortization,
and vendor pricing), but they reinforce the policy logic of integrating PAL into existing ICT assets
rather than creating parallel infrastructures. [4]
Discussion and implications for policy and practice
Interpretation: why gains are large yet uneven: The India case evidence is consistent with
the mastery-learning hypothesis: when students are far below grade level, individualized diagnosis
and practice can generate rapid learning gains. [17] The Rajasthan evidence adds an
implementation-science nuance: the same software can deliver smaller average effects at scale
when dosage falls, time is displaced, or school routines constrain engagement—yet still produce
meaningful gains on independent measures. [11] This is not merely “implementation weakness”;
it is an expected systems phenomenon when moving from efficacy to effectiveness conditions.
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Mechanism synthesis: what appears to drive impact? Across cases, four mechanisms
appear consistently load-bearing:
1) Diagnosis + adaptive sequencing addresses within-grade dispersion, a defining feature of
post-primary learning gaps in India. [11]
2) Time-on-task (dosage) is a primary mediator; Andhra’s evidence explicitly links higher
usage to larger gains. [12]
3) Teacher-lab integration matters: Rajasthan’s model expected teachers to accompany
students to labs, while local lab-in-charge roles supported maintenance and adherence—illustrating
that “human infrastructure” complements algorithmic personalization. [11]
4) Measurement alignment determines whether academic gains register in “school
performance” metrics; Rajasthan’s null effects on school exams likely reflect misalignment
between remedial gains and grade-level exam content. [15]
Implications for policy design in India
Financing and procurement: The ICT and Digital Initiatives component of Samagra Shiksha
covers Classes VI–XII and provides explicit per-school grants for ICT labs and smart classrooms,
including recurring support over five years. This is a direct financing pathway for ITS/PAL
integration if procurement frameworks move beyond hardware counts to measured learning gains
and uptime/usage KPIs. [4]
Interoperability and platform strategy: NDEAR’s ecosystem policy frames education
technology as interoperable building blocks delivered via open APIs rather than siloed “end-to-
end” systems. ITS/PAL integration should therefore be architected to plug into national rails:
identity/rosters, content registries, multilingual support, and analytics dashboards—all areas where
DIKSHA and allied services already operate at scale. [20] A policy-relevant model is:
DIKSHA/NDEAR for backbone + evidence-backed PAL vendors for tutoring functionality, with
standardized data schemas and evaluation metrics.
Assessment reform and accountability: If PAL/ITS primarily remediates below-grade skills,
then expecting immediate improvements on grade-level school exams can understate impact and
misallocate accountability. Policymakers should adopt dual-metric dashboards: (i) adaptive
competency progression (foundational-to-grade-level trajectories), and (ii) grade-level readiness
indices aligned with board exam frameworks. Rajasthan’s findings demonstrate that without this
duality, systems risk interpreting genuine learning gains as “no impact.” [15]
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Equity and gender: Andhra’s reported results show larger gains among girls and younger
grades, suggesting that PAL can be an equity amplifier when access and usage are protected. [12]
However, equity depends on operational design: device access (class size, device ratio), teacher
encouragement, and monitoring. Targeted design for girls’ participation and safe lab environments
should be built into implementation protocols, especially in settings where adolescent girls face
higher out-of-school risks (ASER shows girls’ non-enrolment at age 15–16 slightly above boys at
all-India rural levels). [2]
Data governance and child safety: ITS/PAL systems process granular student performance
data. India’s digital regulatory environment—referenced in official government communication—
includes the Digital Personal Data Protection Act, 2023, with specific safeguards for children such
as verifiable consent and restrictions on tracking/behavioral monitoring and targeted advertising
directed at children. [20] Public procurement and school-level deployment protocols should
therefore require: data minimization, transparent consent workflows, role-based access,
auditability, and strict separation between learning analytics and commercial profiling. The DPDP
Rules notification timeline (as summarized in legal analysis) suggests phased compliance horizons;
education systems should treat compliance as a design constraint, not an afterthought. [21]
Implications for practice (school leadership and teachers): Effective PAL/ITS use
requires structured timetabling, lab management, and teacher engagement. The Andhra case
indicates that scheduled periodic usage (two 40-minute weekly sessions) plus school and state-level
monitoring can sustain time-on-task. [12] Teacher professional development can be delivered
through DIKSHA’s large-scale training capabilities and multilingual resources, lowering marginal
costs of capacity building. [3] Schools should implement “PAL instruction protocols” specifying:
device allocation rules, attendance/usage targets, practice-to-classroom bridging activities, and
remediation-to-grade-level transition paths.
Limitations and conclusion
Limitations: This study is a desk-based case synthesis; we did not conduct primary fieldwork
(classroom ethnography, direct observations, interviews) and therefore rely on published
evaluation documentation and official statistics. The three cases use different tests and scaling
conventions; standardized effect sizes improve comparability but do not fully equate constructs
(e.g., different item pools, language domains, and stakes). Additionally, much of the strongest India
evidence is concentrated in Grades 6–9; while directly relevant to Class 9 (secondary),
generalization to Classes 10–12—where curriculum complexity and exam stakes intensify—
requires further evaluation. [21] Finally, some recent policy and legal details (e.g., DPDP Rules
235
commencement schedules) are summarized through secondary legal reporting rather than direct
gazette text in this article (constraint of accessible primary PDFs in this workflow). [21]
Conclusion: India’s secondary education system is increasingly positioned to absorb ITS/PAL
interventions because access, ICT infrastructure, and national digital platform architecture are
improving. The best available India evidence indicates that PAL/ITS can produce meaningful
learning gains for post-primary students—including class 9—especially by remediating
foundational gaps that conventional instruction struggles to address in heterogeneous classrooms.
[17] For Scopus-indexed-journal-quality policy relevance, the central design implication is not
“adopt AI tutors,” but “institutionalize evidence-backed personalization within system
constraints”: finance through existing Samagra ICT norms, integrate through NDEAR/DIKSHA
interoperability, measure with dual metrics that reflect both remediation and grade-level readiness,
and embed child-data safeguards under India’s data protection regime.
236
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