Current Issues and Analysis 10th June 2026

The recent nationwide celebrations marking “10 Years of PMSMA – A Decade of Care” highlight the program’s role in transforming India’s maternal and child health landscape. For UPSC aspirants, understanding the operational mechanisms, milestones, and statistical impacts of PMSMA is highly relevant for analyzing government interventions in the health sector.

Core Framework of PMSMA

Launched by the Ministry of Health and Family Welfare, PMSMA addresses structural gaps in maternal healthcare by establishing a predictable, fixed-day service delivery model to ensure quality antenatal care (ANC).

FeatureDetails
Launch DateJune 9, 2016
Primary MandateFree, specialist-led antenatal care on the 9th of every month.
Focus AreaSecond and third-trimester care; High-Risk Pregnancy (HRP) management.
Extended PMSMAIntroduced Jan 2022 to track HRPs up to 45 days post-delivery.

The program ensures that pregnant women receive essential diagnostics, clinical check-ups, and counseling under a single roof, aiming to prevent complications before they become life-threatening.

Extended PMSMA: Securing the Postpartum Window

While the original PMSMA focused heavily on pre-natal screening, Extended PMSMA (e-PMSMA) was introduced to secure the critical postpartum period.

Its defining feature is the name-based line listing and individual tracking of High-Risk Pregnancies. Rather than treating delivery as the endpoint of maternal care, the extended protocol monitors vulnerable mothers up to 45 days post-delivery. This active surveillance is supported by SMS alerts and continuous groundwork by ASHA workers, ensuring interventions during the window when postpartum complications are most lethal.

Evaluating the Impact

Over its decade of operation, PMSMA has been a primary driver in improving India’s demographic health indicators, significantly outpacing global averages in mortality reduction.

Maternal Health and Institutional Access

  • Maternal Mortality Ratio (MMR): India recorded a steep decline from 130 (2014–16) to 87 (2022–24) per lakh live births. Since 1990, India has achieved an 86% decline in maternal mortality, vastly exceeding the global average decline of 48%.
  • Clinical Reach: The scheme has facilitated over 7.5 crore antenatal check-ups and successfully identified 1.2 crore high-risk pregnancies for targeted medical intervention.
  • NFHS Indicators: Institutional deliveries have surged to 90.6%. Overall ANC coverage stands at 95.9%, with first-trimester registration climbing to 76.2%. The share of women receiving the recommended minimum of four ANC visits has risen to 65.2%.

Child Health Outcomes

  • Under-Five Mortality Rate (U5MR): India achieved a 79% decline, outperforming the global decline of 61%.
  • Neonatal Mortality: Dropped by 70% between 1990 and 2024, directly correlating with improved maternal nutrition, early risk detection, and higher rates of safe, institutional deliveries.

The Grassroots Engine: ASHA Workers

The statistical success of PMSMA is fundamentally rooted in community mobilization. Accredited Social Health Activists (ASHA) provide the critical “last-mile” linkage. By tracking identified high-risk pregnancies, facilitating transport to health centers, and ensuring mandatory post-delivery follow-ups, ASHAs bridge the gap between institutional policies and localized patient outcomes. Their involvement transitions the scheme from a passive clinical offering into an active maternal surveillance network.

The legal friction in paternity disputes centers on balancing two competing fundamental rights:

  • The Child’s Right to Identity: The legitimate need and right of a child to know their biological parentage for psychological closure and social standing.
  • The Father’s Right to Privacy: Cemented as a fundamental right under Article 21 by the landmark Justice K.S. Puttaswamy v. Union of India (2017) decision. Compulsory DNA testing is recognized as a direct interference with an individual’s bodily autonomy and privacy.

The Statutory Presumption of Legitimacy

Before scientific testing is even considered, courts must navigate the established evidentiary laws regarding marriage and legitimacy:

  • The Legal Rule: Under Section 112 of the Indian Evidence Act, 1872 (now Section 116 of the Bharatiya Sakshya Adhiniyam), a child born during a valid marriage is legally presumed legitimate.
  • The Burden of Proof: To contest this paternity, the husband bears the heavy burden of proving absolute “non-access” (the physical impossibility of intercourse) during the relevant period of conception.

Evolution of Supreme Court Jurisprudence

The Supreme Court’s stance has shifted over the last three decades from strict reliance on legal presumptions to a more nuanced balancing test that acknowledges scientific accuracy.

Goutam Kundu v. State of West Bengal

1993

The Court ruled that scientific tests cannot be ordered as a first resort. The party disputing paternity must establish a strong prima facie case of “non-access” before a court can direct medical testing.

Banarsi Dass v. Teeku Dutta

2005

Established that DNA testing should not be directed as a matter of routine and must only be utilized in exceptional circumstances.

Nandlal Wasudeo Badwaik v. Lata Nandlal Badwaik

2014

A pivotal shift: The Court ruled that when conclusive legal presumptions (like Section 112) conflict directly with accurate scientific evidence (DNA tests), the scientific truth must prevail.

Rohit Shekhar v. Narayan Dutt Tiwari

2014

The Court legally compelled the administration of a DNA test, prioritizing the rights of a child born out of wedlock over the biological father’s claims of privacy violation.

Ivan Rathinam v. Milan Joseph

2025

Established the “Eminent Need” Doctrine. The Court ruled it cannot grant an unrestricted right to a child to demand tests, nor completely shield a father behind privacy. Courts must rigorously evaluate the specific need for the test, balancing the social stigma of illegitimacy against the child’s psychological closure.

The recent magnitude 7.8 offshore earthquake near Mindanao in the southern Philippines serves as a stark reminder of the intense tectonic volatility that characterizes the Pacific Rim. Understanding the mechanics of such seismic events and their geographical distribution is essential for analyzing global tectonic hazards.

The Mindanao Event: A Case Study in Tectonic Hazards

On June 8, 2026, a devastating 7.8 magnitude earthquake struck off the coast of Sarangani province in Mindanao. The event perfectly illustrates the multi-hazard nature of major tectonic movements in this region:

  • Seismic Impact: Severe ground shaking caused widespread structural damage, building collapses, and triggered landslides across the mountainous terrain.
  • Tsunamigenic Nature: The vertical displacement of the seafloor triggered a localized tsunami, with waves reaching approximately 1 meter along the nearby coasts, and smaller anomalies detected as far away as Indonesia, Palau, and southern Japan.
  • Tectonic Cause: The rupture occurred due to subduction along the Cotabato Trench, a major active fault system where tectonic plates violently interact.

Decoding the Pacific Ring of Fire

The 40,000 km Circum-Pacific Belt, AI generated

The Philippines’ high vulnerability to earthquakes and volcanic activity—compounded by its exposure to roughly 20 typhoons annually—is fundamentally linked to its position on the Pacific Ring of Fire (also known as the Circum-Pacific Belt).

This 40,000 km horseshoe-shaped, continuous series of oceanic trenches, volcanic arcs, and tectonic margins is the Earth’s most seismically active region.

FeatureGlobal Significance
SeismicityRecords approximately 90% of all global earthquakes.
VolcanismContains roughly 75% of the world’s active and dormant volcanoes (over 450).
Geographic RouteRuns along the western coasts of the Americas, across the Aleutian Islands, down the eastern coast of Asia (Japan, Philippines, Indonesia), to New Zealand.
Major Plates InvolvedPacific, Juan de Fuca, Cocos, Indo-Australian, Nazca, North American, and Philippine Plates.

The Mechanism: Subduction Zones

Mechanics of a Subduction Zone, AI generated

The intense geological activity along the Ring of Fire is primarily driven by convergent plate boundaries, specifically subduction zones.

When a dense oceanic plate collides with a lighter continental plate (or another oceanic plate), it is forced downward into the Earth’s mantle.

  1. Trench Formation: This downward bending creates deep topographic depressions known as oceanic trenches, such as the Cotabato Trench near Mindanao.
  2. Earthquakes: As the subducting plate grinds past the overriding plate, immense friction locks them together. When the built-up stress finally exceeds the frictional strength of the rock, it snaps, releasing energy as a massive earthquake. These specific boundaries produce the world’s most powerful tremors, known as megathrust earthquakes.
  3. Volcanic Arcs: As the subducting plate descends, the immense heat and pressure force water out of the rock, which lowers the melting point of the surrounding mantle. The resulting magma rises through the overlying crust, erupting to form chains of volcanoes.

Key Insight: While the Ring of Fire is a cohesive geographical concept, the tectonic plates that comprise it move independently. A major earthquake in the Philippines releases local fault stress but does not directly trigger an earthquake across the ocean in Chile, even though both lie on the same continuous belt.

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