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Ranking Madhya Pradesh's Districts on Maternal and Child Health: What a Neural Network Confirms

  • Ranking all 45 districts of Madhya Pradesh on 32 maternal and child health indicators, this study found Indore has the highest development index and Tikamgarh the lowest — with 12 districts classified 'backward,' 10 'underdeveloped,' 11 'developing,' and 12 'developed.'
  • The district rankings were derived from Principal Component Analysis (six components explaining 81.7% of variance) and then independently confirmed by a neural network, which classified districts into the same four categories with 100% accuracy on both training and test data.
  • One counterintuitive finding stands out: sex ratio at birth was actually worse in 'developed' districts (886 girls per 1,000 boys) than in 'backward' districts (935) — suggesting economic development alone does not fix, and may even worsen, sex-selection pressures.
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EconoLens Research Desk
Academic Research Review, Econometrics, Applied Economics
25 August 2026Journal Review — Credit: B S Kambo, Dr. Kulwinder Kaur, Gurinder Singh

Data source

The study uses secondary data from the Annual Health Survey (AHS) Factsheet 2012-13 and the AHS Second Updation Bulletin 2012-13 for Madhya Pradesh, published by the Office of the Registrar General & Census Commissioner, India — publicly available government data. The AHS covers all 284 districts across nine "Empowered Action Group" (EAG) states (Bihar, Jharkhand, Madhya Pradesh, Chhattisgarh, Odisha, Rajasthan, Uttar Pradesh, Uttarakhand, and Assam), which together constitute roughly 50% of India's population but a disproportionate 60% of births, 71% of infant deaths, and 72% of maternal deaths nationally. For Madhya Pradesh specifically, the AHS sampled 2,557 units (villages in rural areas, blocks in urban areas), covering about 2.284 million people across an average of 456,800 households.

Indicator selection: 7 sectors, 32 indicators

Following the framework proposed by Ram and Chander Sekhara (2006) and Swain et al. (2010), the study grouped indicators into seven broad sectors of human wellbeing: fertility reduction; health status of women and children; educational status of women; hygiene and sanitation; electrification; maternal and childcare status; and family welfare. Thirty-two specific indicators were drawn from these sectors, including Birth Rate, Death Rate, Maternal Mortality Rate/Ratio, Neo-Natal/Post-Neo-Natal/Infant/Under-Five Mortality Rates, Sex Ratio at Birth and Sex Ratio (0-4), Effective (Female) Literacy, household access to electricity/safe drinking water/toilets/LPG/pucca housing/computer or telephone connectivity, and a range of maternal and child healthcare-utilization measures (antenatal checkups, tetanus injections, IFA supplementation, immunization coverage by vaccine type).

Principal Component Analysis

PCA is a multivariate statistical technique that reduces a set of correlated variables into a smaller number of uncorrelated ("orthogonal") components, each a weighted linear combination of the original variables, ordered so the first component captures the largest share of total variation. Applied to the 32 standardized indicators across 45 districts, six components had eigenvalues at or above 1 (the standard retention threshold) and together explained 81.7% of total variance:

123456
ComponentEigenvalue% of VarianceCumulative %
113.8443.2543.25
24.6514.5257.77
33.119.7167.49
41.795.8973.08
51.544.8177.89
61.243.8681.75
Table 2 — Eigenvalues and variance explained by the six retained principal componentsSource: reproduced from the paper's Table 2.

Each district's scores on these six components (d1-d6) were confirmed normally distributed via a Kolmogorov-Smirnov test, then averaged into a single mean score per district and rescaled into a 0-100 index using min-max normalization: I_i = [(d(i) - Min(i)) / (Max(i) - Min(i))] × 100.

Classification thresholds

Backward: less than (mean − 0.6745σ) → index range [-5.43 to -1.71]

Underdeveloped: (mean − 0.6745σ) to mean → index range [-1.71 to 0.0]

Developing: mean to (mean + 0.6745σ) → index range [0.0 to 1.71]

Developed: more than (mean + 0.6745σ) → index range [more than 1.71]

Full district ranking (all 45 districts)

123456789101112131415161718192021222324252627282930313233343536373839404142434445
RankDistrictMean of dRanking Index
1Tikamgarh-5.4330.0
2Sidhi-4.8255.5
3Sheopur-4.15211.5
4Umaria-3.81214.6
5Jhabua-3.67415.8
6Shahdol-3.32618.9
7Panna-3.23019.8
8Datia-2.27328.4
9Damoh-2.15129.5
10Chhatarpur-1.99330.9
11Mandla-1.97131.1
12Dindori-1.85832.1
13Satna-1.61934.3
14Bhind-1.25737.5
15Barwani-1.14338.6
16Shivpuri-1.13438.6
17Sagar-0.95940.2
18Rewa-0.57743.6
19Morena-0.52544.1
20Guna-0.48844.4
21Rajgarh-0.34045.8
22East Nimar-0.32945.9
23Raisen-0.09148.0
24Dhar0.84956.5
25Sehore0.97557.6
26Harda1.06658.4
27Mandsaur1.16459.3
28Ujjain1.26660.2
29Chhindwara1.27260.3
30Shajapur1.35961.1
31Katni1.38761.3
32Seoni1.41961.6
33Dewas1.51062.4
34Vidisha1.71364.2
35West Nimar1.76564.7
36Neemuch2.07567.5
37Narsimhapur2.17468.4
38Ratlam2.52971.6
39Betul2.74173.5
40Hoshangabad2.75673.6
41Jabalpur2.83474.3
42Balaghat2.98475.7
43Gwalior3.07376.5
44Bhopal4.55589.8
45Indore5.691100.0
Table 7 — Ranking of all 45 districts of Madhya Pradesh by mean PCA score and 0-100 indexSource: reproduced from the paper's Table 7.

Neural network architecture and validation

The confirmatory model was a three-layer feedforward Multilayer Perceptron (MLP): 32 input units (one per standardized indicator), one hidden layer of 10 units using a hyperbolic tangent activation function, and an output layer of 4 units (one per development category) using softmax activation with a cross-entropy error function. The network's classification accuracy against the PCA-based categories:

TrainingTrainingTrainingTrainingTestingTestingTestingTesting
SampleCategoryPredicted DevelopedPredicted DevelopingPredicted UnderdevelopedPredicted Backward% Correct
TrainingDeveloped10000100.0
TrainingDeveloping0900100.0
TrainingUnderdeveloped0090100.0
TrainingBackward0006100.0
TestingDeveloped2000100.0
TestingDeveloping0200100.0
TestingUnderdeveloped0010100.0
TestingBackward0006100.0
Table 6 — Neural network observed vs. predicted district classification, training and testing samplesSource: reproduced from the paper's Table 6. Note the small test-sample cell counts (e.g., 1 underdeveloped district in the test set) — 100% accuracy on a single-district cell is a much weaker statistical claim than 100% accuracy on the 9-10 district training cells.

Limitations worth flagging

This is a single-state (Madhya Pradesh), single-time-point (AHS 2012-13 data, published 2019) study using secondary government survey data rather than primary data collection, and the 45-district boundaries reflect Madhya Pradesh's administrative geography at that time (the state has since seen some district reorganization). The neural network's "100% accuracy" is validation against the PCA classification's own categories, not against an independent ground truth of actual district development — meaning the two methods agreeing strongly suggests the grouping is statistically robust, but does not independently prove either method captures "true" development correctly. The test-set cell sizes are also very small (as few as one district in a category), which limits how much confidence the accuracy figures alone can support.

Global Context

This study is itself an India-focused piece of applied development economics, but its broader relevance lies in the method, not just the Madhya Pradesh numbers: the same PCA-plus-neural-network approach could be replicated using more recent National Family Health Survey (NFHS) or Annual Health Survey data to produce updated, methodologically cross-validated district rankings for any Indian state, feeding directly into the district-level planning mandate created by the 73rd and 74th constitutional amendments. With India still working toward Sustainable Development Goal targets on maternal mortality (SDG 3.1) and under-five mortality (SDG 3.2), and with total public health expenditure only reaching about 1.2% of GDP by 2017-18 against goals of 2.5%, district-level targeting tools like this one are directly relevant to how limited public health resources get allocated across India's states. The sex-ratio paradox this paper surfaces is also a live national policy issue — India's child sex ratio has been a persistent concern nationally, not just in Madhya Pradesh, and this study's finding that 'developed' districts fare worse on this specific measure lines up with similar patterns documented in Punjab, Haryana, and other relatively prosperous states.

Cite This Article

EconoLens Research Desk. (2026, August 25). Ranking Madhya Pradesh's Districts on Maternal and Child Health: What a Neural Network Confirms. EconoLens. https://www.econolens.co.in/news/madhya-pradesh-districts-maternal-child-health-ranking

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EconoLens Research Desk
Academic Research Review, Econometrics, Applied Economics

The EconoLens Research Desk reviews academic papers in economics and econometrics, translating cutting-edge research into accessible analysis. Full credit is given to original authors in every review.

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