Content

1. A journey to the moon: a mission to understand the dawn of the universe
2. ECI transfer controversy: top court’s clarifications

A journey to the moon: a mission to understand the dawn of the universe

Why in News ?

• Artemis II is launched on April 1, 2026 and became the first crewed lunar flyby since 1972 (Apollo 17), marking revival of human deep-space missions after ~50 years.
• Renewed focus due to confirmed presence of water ice in lunar polar regions (Chandrayaan-1/2 inputs), enabling fuel production and long-term habitation prospects.
• India’s PRATUSH mission (ISRO–RRI) highlights Moon’s role in detecting low-frequency signals from early universe, advancing study of “cosmic dawn”.It is currently in pre-RO studies / proposal phase

Relevance

GS I (Geography / Astronomy)

• Moon’s physical features: PSRs, lack of atmosphere/ionosphere → unique observational advantages.
• Origin of Moon (Giant Impact Hypothesis) supported by Apollo samples.
• Cosmic dawn studies → evolution of universe (early structure formation).

GS III (Science & Tech / Space / Economy)

• ISRU (In-Situ Resource Utilisation): water ice → hydrogen fuel.
• Deep-space tech: SLS, Orion, reusable systems (SpaceX).
• Space economy: mining, logistics, habitats → multi-billion industry potential.

Practice Question

Q1.“The Moon is no longer just a destination, but a gateway to deep-space exploration.”Examine the strategic and scientific significance of recent lunar missions such as Artemis and PRATUSH. (250 words)

What is Artemis Programme ?

• NASA-led programme aiming to establish sustainable human presence on Moon, transitioning from short-term exploration (Apollo) to long-term habitation and deep-space missions.
• Artemis II is a crewed flyby mission using Orion spacecraft and Space Launch System (SLS), testing life-support, navigation and radiation shielding systems.
• Serves as precursor to Artemis III/IV missions targeting human landing and lunar base development.

Strategic Significance: Moon as a Gateway

• Water ice in Permanently Shadowed Regions (PSRs) near South Pole can be split into hydrogen and oxygen → rocket fuel and life support (ISRU model).
• Lower lunar gravity (~1/6th Earth) reduces launch costs, enabling Moon to function as refuelling hub for Mars and deep-space missions.
• Example: Chandrayaan missions identified hydroxyl/water signatures, triggering global interest in lunar resource utilisation.

Scientific Significance

• Earth’s ionosphere blocks low-frequency radio waves (>10 m wavelength), preventing observation of first billion years after Big Bang.
• Moon lacks ionosphere → enables detection of primordial hydrogen signals from epoch of reionisation (“cosmic dawn”).
• PRATUSH mission aims to capture these signals; potential to answer origin of first stars and structure formation in early universe.
• Absence of atmosphere allows sharper optical astronomy; lunar telescopes can outperform Earth-based telescopes affected by atmospheric distortion.

Data & Evidence

• Artemis programme cost > $90 billion; Artemis II mission alone ~ $4 billion, reflecting scale of investment in deep-space infrastructure.
• Lunar South Pole identified as key region due to high concentration of water ice and “peaks of eternal light” for solar energy.
• Chandrayaan-1 (2008) provided first definitive evidence of water molecules on lunar surface; Chandrayaan-2 strengthened polar ice mapping.

Governance & Geopolitics

• Artemis Accords led by US vs China-Russia International Lunar Research Station (ILRS) reflect emerging geopolitical competition in space.
• Moon’s South Pole emerging as “strategic real estate” for resource extraction and energy generation.
• Outer Space Treaty (1967) prohibits sovereignty claims, but lacks clarity on commercial mining → regulatory vacuum.

Technological Dimensions

• Orion spacecraft features advanced avionics, autonomous navigation and radiation shielding compared to Apollo-era systems.
• Space Launch System (SLS) is more powerful than Saturn V, enabling heavier payloads and deep-space missions.
• Future docking with lunar landers (e.g., Starship) and long-duration habitation systems are key technological milestones.

Challenges

• High cost (~$90+ billion) raises sustainability concerns and opportunity cost debates.
• Technical risks: radiation exposure, life-support reliability, docking failures and lunar dust (abrasive, electrostatic).
• Legal ambiguity over resource ownership and risk of geopolitical tensions.
• Environmental concerns: potential degradation of lunar ecosystem and space debris accumulation.

Way Forward

• Develop international legal regime for equitable and sustainable lunar resource utilisation.
• Strengthen global collaboration (NASA–ISRO–ESA) for cost-sharing and scientific advancement.
• Invest in reusable launch systems and ISRU technologies to reduce mission costs.
• Expand India’s role via Chandrayaan follow-up missions and deep-space scientific payloads like PRATUSH.

Prelims Pointers

• Artemis II: first crewed lunar mission since 1972 (Apollo 17).
• Moon lacks ionosphere → enables detection of low-frequency radio waves.
• Lunar South Pole rich in water ice and solar energy potential.
• PRATUSH: ISRO–RRI mission to study early universe via hydrogen signals.

Value Addition: Global Lunar Exploration Milestones

Soviet Union (Luna Programme): Robotic Firsts

• Luna 2 (1959) became first human-made object to impact Moon, while Luna 3 (1959) captured first images of far side, revealing previously unknown lunar geography.
• Luna 9 (1966) achieved first soft landing, proving surface could support spacecraft; Luna 16 (1970) conducted first robotic sample return mission.
• Lunokhod rovers (Luna 17 & 21) pioneered robotic mobility on extraterrestrial surfaces, laying foundation for modern planetary rover missions.

United States (Apollo Programme): Human Exploration

• Apollo 8 (1968) marked first human orbit of Moon, capturing iconic “Earthrise” image, transforming environmental consciousness globally.
• Apollo 11 (1969) achieved first human landing; Apollo 17 (1972) was last mission, ending crewed exploration for ~50 years.
• 12 astronauts walked on Moon; 382 kg lunar samples enabled Giant Impact Hypothesis, explaining Moon’s origin scientifically.

China (Chang’e Programme): Technological Leadership

• Chang’e 3 (2013) marked China’s first soft landing with Yutu rover, demonstrating indigenous deep-space capability.
• Chang’e 4 (2019) achieved first-ever far-side landing using Queqiao relay satellite, solving communication barrier challenge.
• Chang’e 5 (2020) and Chang’e 6 (2024) returned youngest and first far-side samples respectively, advancing lunar geological chronology.

India (Chandrayaan Programme): Cost-effective Innovation

• Chandrayaan-1 (2008) confirmed presence of water molecules on Moon, a paradigm-shifting discovery influencing global lunar missions.
• Chandrayaan-2 orbiter continues to provide high-resolution data, supporting international lunar mapping and mission planning.
• Chandrayaan-3 (2023) made India first country to land near lunar South Pole, strategically significant for water ice exploration.

Japan (SLIM Mission): Precision Landing

• SLIM (2024) demonstrated “pinpoint landing” capability within ~100 metres accuracy, compared to conventional landing ellipses of several kilometres.
• Enhances future missions targeting specific resource-rich or scientifically critical lunar locations.

ECI transfer controversy

Why in News ?

• In run-up to 2026 Assembly elections (Assam, Kerala, Tamil Nadu, West Bengal, Puducherry), ECI transferred top officials including Chief Secretary and DGP without State consent.
• Actions triggered debate on federalism vs electoral integrity, with States alleging administrative paralysis and constitutional overreach.
• Calcutta High Court (31 March 2026) dismissed a PIL challenging the transfers in West Bengal, observing no public injury was caused. Old Supreme Court precedents (Mohinder Singh Gill 1978 and A.C. Jose 1984) are being revisited to examine the scope and limits of Article 324.

Relevance

GS II (Polity & Governance)

• Constitutional body: Election Commission (Article 324).
• Federalism vs central authority during elections.
• Civil services control: AIS rules vs ECI powers.

GS II (Constitutional Law)

• Doctrine of “occupied field”.
• Judicial precedents:
  • Mohinder Singh Gill (1978)
  • A.C. Jose (1984)
• Limits of plenary powers under Article 324.

Practice Question

Q1.“Article 324 provides wide powers to the Election Commission, but not unlimited authority.”Critically examine this statement in the context of recent controversies over transfer of officials. (250 words)

Static Background and Basics

• Election Commission of India (ECI) is a constitutional body under Article 324 responsible for conduct of free and fair elections to Parliament, State Legislatures, President and Vice-President.
• Composition: Chief Election Commissioner (CEC) + Election Commissioners; enjoys security of tenure similar to Supreme Court judges (CEC removable via impeachment).
• ECI does not have independent administrative machinery; relies on State and Union government officials for election conduct.
• Representation of the People Acts (1950 & 1951) provide statutory framework for elections, including electoral rolls, conduct of polls and dispute resolution.

Constitutional and Legal Framework

• Article 324 provides plenary powers of “superintendence, direction and control” of elections, interpreted as wide but not unlimited.
• Article 324(6) obligates Union/State governments to provide staff to ECI for election duties.
• Section 28A, RPA 1951: officials on election duty deemed to be under ECI’s control, superintendence and discipline during elections.

Key Legal Issue: Scope of Article 324

• Supreme Court in Mohinder Singh Gill (1978) termed Article 324 a “reservoir of power”, usable only when statutory law is silent.
• Limitation: ECI must act in conformity with existing laws and cannot override legislative provisions governing service matters.
• Must adhere to rule of law, act bona fide and follow principles of natural justice.

Conflict: “Occupied Field” Doctrine

• Transfers of AIS officers governed by All India Services Act and rules; States have administrative control over officers serving them.
• As service matters fall under an “occupied field”, ECI cannot bypass statutory provisions using Article 324.
• A.C. Jose (1984): ECI cannot override law; can only supplement where law is silent.

Federalism vs Electoral Integrity

• ECI justification: transfers ensure neutrality and “level playing field” by removing potentially biased officials.
• State argument: sudden removal of top officials disrupts governance (law & order, disaster response) and violates federal autonomy.
• Raises issue of “imperium in imperio”—whether ECI functions as parallel authority over State governments.

Data, Facts and Examples

• ECI has conducted elections since 1951-52, traditionally relying on State machinery for logistics and administration.
• 2026 example: overnight transfer of Chief Secretary and DGP in West Bengal seen as unprecedented expansion of ECI intervention.
• Earlier practice limited to mid-level officials (District Magistrates, SPs), not highest administrative positions.

Governance and Administrative Implications

• Creates dual control over civil servants, leading to conflict of accountability between State government and ECI.
• Risk of administrative disruption during elections, affecting essential public services beyond electoral domain.
• May expand scope of ECI powers without clear legal backing, impacting institutional balance.

Ethical and Institutional Concerns

• Presumption of bias without transparent procedure undermines neutrality and morale of civil services.
• Absence of due process violates natural justice principles (no hearing, no reasoned orders).
• Risk of politicisation of ECI, affecting credibility of electoral process.

Judicial Position and Limits

• Mohinder Singh Gill: ECI powers broad but subject to law and fairness.
• A.C. Jose: ECI cannot act contrary to statutory provisions.
• Kanhiya Lal Omar: ECI must act bona fide and not arbitrarily.
• SC caution: “No one is an imperium in imperio” → ECI not above constitutional limits.

Challenges

• Lack of explicit statutory provisions defining ECI’s power over transfer of senior officials.
• Increasing politicisation of administrative decisions during elections.
• Balancing electoral integrity with federal structure remains unresolved.

Way Forward

• Enact clear statutory guidelines defining limits of ECI’s power over transfer/posting of officials.
• Introduce transparent procedures (recorded reasons, consultation with States) to ensure accountability.
• Strengthen cooperative federalism through institutional dialogue between ECI and State governments.
• Judicial clarification needed to resolve “occupied field vs plenary power” conflict.
• Safeguard neutrality of civil services through codified norms and protections.

Prelims Pointers

• Article 324: plenary but not absolute powers of ECI.
• Section 28A, RPA 1951: election duty officials under ECI control.
• All India Services Act governs transfer and service conditions of IAS/IPS officers.
• “Occupied field doctrine”: statutory law prevails over constitutional residuary powers.