INTEGRATED MAINS AND PRELIMS MENTORSHIP (IMPM) KEY (06/11/2025)

INTEGRATED MAINS AND PRELIMS MENTORSHIP (IMPM) 2025 Daily KEY

 
 
 
 
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UN Convention on the Law of the Sea (UNCLOS) and  Lunar Module Launch Vehicle (LMLV) its significance for the UPSC Exam? Why are topics like Representation of the People Act, 1950 (RP Act), Quantum advantage, Green hydrogen technologies important for both preliminary and main exams? Discover more insights in the UPSC Exam Notes for November 06, 2025

 
 
 

What are the challenges with the High Seas Treaty?

For Preliminary Examination:  Current events of national and international Significance

For Mains Examination: GS II - International Treaties

Context:

The High Seas Treaty was ratified by over 60 countries in September; it will now be enforced in January 2026. The treaty sets rules to preserve and use marine biodiversity sustainably and addresses threats from climate change, overfishing and pollution.

 

Read about:

High Seas Treaty

UN Convention on the Law of the Sea (UNCLOS)

 

Key takeaways:

 

  • In September 2024, more than 60 nations ratified the High Seas Treaty, paving the way for its enforcement by January 2026. This landmark accord aims to protect and sustainably manage marine biodiversity while addressing challenges such as climate change, overfishing, and pollution.
  • Officially called the Biodiversity Beyond National Jurisdiction (BBNJ) agreement, the treaty establishes a comprehensive global framework to regulate and conserve marine life in areas beyond national boundaries.
  • A major feature of the treaty is the recognition of Marine Genetic Resources (MGRs) as the common heritage of humankind, ensuring equitable sharing of benefits derived from them. Additionally, it introduces Area-Based Management Tools (ABMTs), including Marine Protected Areas (MPAs), which aim to enhance biodiversity protection, climate resilience, and food security by integrating scientific and traditional knowledge.
  • The agreement also mandates Environmental Impact Assessments (EIAs) for any activities likely to affect these ecosystems, particularly considering cumulative or cross-border impacts.
  • The origins of the BBNJ treaty trace back nearly two decades. In 2004, the UN General Assembly set up a working group to address shortcomings in the 1982 UN Convention on the Law of the Sea (UNCLOS), which lacked specific provisions for safeguarding biodiversity in areas beyond national jurisdiction.
  • By 2011, nations had agreed to negotiate on four major themes: MGRs, ABMTs, EIAs, and capacity building with technology transfer. Following four intergovernmental conference sessions (2018–2023), countries reached a final consensus in March 2023, culminating in the treaty’s adoption in June 2023

 

Key Issues and Challenges:

  • Principle Conflict:
    A major concern arises from the tension between the doctrines of “common heritage of humankind” and “freedom of the high seas.” While the former advocates for equitable access and benefit-sharing, the latter emphasizes unrestricted navigation and resource use. The partial application of the common heritage principle—particularly concerning MGRs—reflects compromise rather than clarity, leading to confusion in resource exploration, research, and profit distribution.

  • Governance of MGRs:
    The absence of earlier regulation over MGRs created fears of biopiracy and monopolization by developed countries. Although the treaty proposes a benefit-sharing mechanism (both monetary and non-monetary), it lacks precise criteria for valuation and distribution.

  • Limited Participation by Major Powers:
    The effectiveness of the treaty is uncertain since key global actors like the U.S., China, and Russia have yet to ratify it, limiting its potential impact.

  • Institutional Coordination:
    The BBNJ must work alongside existing organizations—such as the International Seabed Authority (ISA) and Regional Fisheries Management Organisations (RFMOs)—to prevent overlap, legal disputes, and fragmentation of global ocean governance

 

Follow Up Question

Mains

1. Discuss the significance of the High Seas Treaty in promoting sustainable use and conservation of marine biodiversity beyond national jurisdictions. What are the major challenges in its implementation, and how can international cooperation ensure its effective enforcement?

Note: This is a refrence approach to the Question and Model Answer Only
 

Introduction:

    • Briefly define the High Seas Treaty and its context under international maritime law.

    • Mention its adoption and upcoming enforcement timeline.

    • Highlight its aim of conserving marine biodiversity beyond national boundaries.

Body:
A. Significance of the Treaty:

  • Explain how it fills the legal gap in UNCLOS.

  • Mention key provisions — Marine Genetic Resources (MGRs), Marine Protected Areas (MPAs), and Environmental Impact Assessments (EIAs).

  • Discuss its role in promoting equity, climate resilience, and sustainable resource use.

B. Major Challenges:

  • Legal ambiguities: clash between “common heritage of humankind” vs “freedom of high seas.”

  • Lack of clarity in benefit sharing of MGRs.

  • Non-ratification by major powers (US, China, Russia).

  • Coordination issues with existing bodies like the International Seabed Authority (ISA) and RFMOs.

  • Implementation and monitoring difficulties.

C. Way Forward / Role of International Cooperation:

    • Strengthen institutional mechanisms under UNCLOS.

    • Promote scientific collaboration and capacity building for developing countries.

    • Establish transparent frameworks for benefit-sharing and monitoring MPAs.

    • Ensure synergy between BBNJ and existing treaties to avoid governance overlap.

Conclusion:

    • Conclude with a balanced note emphasizing that while the treaty is a landmark in ocean governance, its success depends on inclusive participation, scientific monitoring, and global cooperation for sustainable and equitable marine resource management.

Introduction:

The High Seas Treaty, formally known as the Biodiversity Beyond National Jurisdiction (BBNJ) Agreement, was ratified by over 60 countries in 2024 and is set to be enforced by January 2026. It builds upon the United Nations Convention on the Law of the Sea (UNCLOS), 1982, to protect marine biodiversity beyond national boundaries, addressing global challenges such as climate change, overfishing, and marine pollution.

Body:

Significance of the Treaty:

The BBNJ Agreement marks a major step in global ocean governance, establishing a legal framework to conserve and sustainably use biodiversity in areas beyond national jurisdiction, which cover nearly two-thirds of the world’s oceans.

  • It recognizes Marine Genetic Resources (MGRs) as the common heritage of humankind, ensuring equitable benefit sharing.

  • The introduction of Area-Based Management Tools (ABMTs), including Marine Protected Areas (MPAs), enhances climate resilience, protects ecosystems, and strengthens food security.

  • Mandatory Environmental Impact Assessments (EIAs) make development projects more transparent and accountable.

  • The treaty bridges the legal gap in UNCLOS, integrating scientific research with indigenous knowledge for better ocean management.

Major Challenges:

Despite its promise, the treaty faces several hurdles:

  • Legal ambiguity: Tension persists between the principles of common heritage and freedom of the high seas, creating confusion over ownership and exploitation rights.

  • Unclear benefit-sharing mechanisms: Developing nations fear unequal access to marine genetic discoveries.

  • Non-ratification by major powers like the U.S., China, and Russia undermines its global legitimacy.

  • Institutional overlaps with the International Seabed Authority (ISA) and Regional Fisheries Management Organizations (RFMOs) risk policy fragmentation.

  • Implementation issues such as enforcement, financing, and monitoring remain unresolved.

Conclusion:

The High Seas Treaty is a landmark step towards a fair and sustainable global ocean governance regime. However, its success hinges on universal ratification, clear implementation frameworks, and scientific cooperation. By harmonizing conservation with equitable access, the treaty can transform the high seas from a global commons of competition into one of shared stewardship for humanity and future generations.

 

Prelims

1.Concerning the United Nations Convention on the Law of Sea, consider the following statements: ( UPSC 2022)

  1. A coastal state has the right to establish the breadth of its territorial sea up to a limit not exceeding 12 nautical miles, measured from a baseline determined by the convention.
  2. Ships of all states, whether coastal or landlocked, enjoy the right of innocent passage through the territorial sea.
  3. The Exclusive Economic Zone shall not extend beyond 200 nautical miles from the baseline from which the breadth of the territorial sea is measured.

Which of the statements given above is correct?

A. 1 and 2 only
B. 2 and 3 only
C. 1 and 3 only
D. 1, 2 and 3

 

Answer (D)
 

Statement 1: ✔️ Correct

  • Under Article 3 of the United Nations Convention on the Law of the Sea (UNCLOS), 1982, every coastal state has the right to establish the breadth of its territorial sea up to 12 nautical miles from its baseline.

Statement 2: ✔️ Correct

  • As per Article 17 of UNCLOS, all ships, whether belonging to coastal or landlocked states, enjoy the right of innocent passage through the territorial sea of a coastal state, provided such passage is not prejudicial to the peace, good order, or security of the coastal state.

Statement 3: ✔️ Correct

  • According to Article 57 of UNCLOS, the Exclusive Economic Zone (EEZ) shall not extend beyond 200 nautical miles from the baseline from which the breadth of the territorial sea is measured

 
 
 
 
 
 
For Preliminary Examination:  Current events of national and international Significance
 
For Mains Examination: GS III - Science and technology
 
Context:
 
In its first launch in three months, ISRO will use its biggest rocket LVM-3 to send a communication satellite CMS-03 to space Sunday evening. This is the first time that ISRO will put a satellite weighing over 4,000 kg in the distant geosynchronous transfer orbit (GTO) from the Indian soil.
 
Read about:
 
What are the various launch vehicles of ISRO and what are their specifications?
 
What is a cryogenic engine?
 
 
Key takeaways:
 
 
  • The Small Satellite Launch Vehicle (SSLV) developed by ISRO is a compact, three-stage rocket powered by solid fuel in all its main stages. It also features a Velocity Trimming Module (VTM) — a liquid propulsion-based system used in the final phase of flight to fine-tune the rocket’s speed and precisely position satellites in orbit.
  • The Polar Satellite Launch Vehicle (PSLV), introduced in 1994, represents the third generation of Indian launch vehicles. Having completed over 50 successful missions, it has earned the title of “ISRO’s workhorse” for its reliability in deploying satellites into Low Earth Orbit (LEO) — typically below 2,000 kilometres altitude.
  • For launching heavier payloads into higher orbits, ISRO developed the Geosynchronous Satellite Launch Vehicle (GSLV). These rockets are used primarily to place communication satellites into Geosynchronous Transfer Orbit (GTO) — a transitional path leading to Geostationary Earth Orbit (GEO), located roughly 35,786 kilometres above the equator.
  • Since placing satellites in such distant orbits demands greater energy, GSLVs employ cryogenic engines, which use liquid hydrogen and liquid oxygen as propellants. These engines provide significantly higher thrust than earlier liquid-fuel engines, making them ideal for long-distance missions.
  • As per NASA, to reach a geosynchronous orbit, a spacecraft first enters an elliptical GTO, with its farthest point (apoapsis) near 37,000 km from Earth. Once it reaches that point, the spacecraft fires an apogee motor to circularize its orbit — a process that determines the final geostationary position.
  • One of ISRO’s recent communication satellites, CMS-03, weighing 4,410 kg, was placed in a transfer orbit of 29,970 km × 170 km. Historically, ISRO had to rely on foreign launch providers — such as Arianespace or SpaceX — for placing such heavy satellites in orbit.
  • However, this situation is changing with the rise of Launch Vehicle Mark-3 (LVM-3), previously known as GSLV Mk-III. This rocket is capable of carrying up to 8,000 kg to Low Earth Orbit and about 4,000 kg to Geosynchronous Orbit.
  • It uses a combination of solid, liquid, and cryogenic engines, and a modified version will power India’s Gaganyaan mission, which aims to send humans into space.
  • In earlier missions, India’s heaviest satellites — such as GSAT-11 (5,854 kg) and GSAT-24 (4,181 kg) — were launched by Arianespace, while the 4,700-kg GSAT-20 was deployed by SpaceX.
  • To launch heavier payloads domestically, ISRO has been optimizing the LVM-3 by slightly lowering the orbit altitude, thereby compensating for mass beyond its 4,000-kg GTO limit.
  • To further enhance payload capacity, ISRO is upgrading the cryogenic upper stage, which contributes nearly half of the velocity needed to achieve GTO. The current C25 stage carries 28,000 kg of propellant and produces 20 tonnes of thrust. The upcoming C32 version will carry 32,000 kg of propellant and deliver 22 tonnes of thrust.
  • Additionally, ISRO plans to replace the second-stage liquid engine with a semi-cryogenic engine that uses refined kerosene and liquid oxygen.
  • This innovation is expected to boost efficiency, lower costs, and increase payload capacity — enabling the rocket to carry up to 10,000 kg to LEO, compared to the present limit of 8,000 kg.
  • In the long term, ISRO is working on an ambitious Lunar Module Launch Vehicle (LMLV) — a next-generation heavy-lift system designed to transport up to 80,000 kg into Low Earth Orbit. This vehicle will form the foundation for future human missions to the Moon, marking a major leap in India’s space exploration capabilities
 
Follow Up Question
 
Mains
 
1.Discuss the evolution of India’s launch vehicle programme with special reference to the recent developments in GSLV Mk-III (LVM-3) and future initiatives like the Lunar Module Launch Vehicle (LMLV) (Answer in 250 words)
 
Note: This is a refrence approach to the Question and Model Answer Only
 

Introduction (40–50 words)

  • Begin by contextualising India’s space journey — from early dependence on foreign launchers to present-day indigenous capabilities.

  • Mention ISRO as the driving force behind this transformation.

  • End with a transition line linking to recent developments

Body (150–170 words)

(a) Evolutionary Phase

  • SLV and ASLV: Early stages focused on mastering multi-stage solid propulsion and orbital insertion.

  • PSLV: Marked operational reliability and commercial success — over 50 successful launches, placing satellites in polar and sun-synchronous orbits.

  • Transition: Need for launching heavier communication satellites led to GSLV.

(b) Technological Advancements – GSLV to LVM-3

  • GSLV: Introduction of cryogenic engines enabled geosynchronous launches.

  • GSLV Mk-III / LVM-3: India’s heavy-lift vehicle (8,000 kg to LEO, 4,000 kg to GTO).

    • Used in Chandrayaan-2, OneWeb missions.

    • Will power Gaganyaan human spaceflight mission.

    • Integration of solid, liquid, and cryogenic propulsion for high thrust.

(c) Future Developments – Towards Greater Self-Reliance

  • Development of C32 cryogenic stage and semi-cryogenic engine (refined kerosene + liquid oxygen).

  • Aim to enhance payload to 10,000 kg LEO capacity.

  • LMLV: Future deep-space vehicle (up to 80,000 kg to LEO), designed for human lunar missions

 

Conclusion (30–40 words)

  • Summarise India’s journey towards self-reliance and global competitiveness.

  • Highlight its strategic and economic significance

Introduction:

India’s space journey, led by the Indian Space Research Organisation (ISRO), has transformed from launching small experimental payloads in the 1970s to deploying heavy communication satellites and planning human spaceflight missions today. The continuous evolution of launch vehicle technology—marked by the development of PSLV, GSLV, and LVM-3—reflects India’s growing capability and self-reliance in accessing space.

Body:

1. Evolution of India’s Launch Vehicle Programme:

  • ISRO began with Satellite Launch Vehicle (SLV) in the 1980s, capable of launching small payloads into Low Earth Orbit (LEO).

  • The Augmented Satellite Launch Vehicle (ASLV) followed, enhancing payload capacity and testing staging technologies.

  • The Polar Satellite Launch Vehicle (PSLV), operational since 1994, became ISRO’s most reliable launcher—successfully deploying over 50 missions into polar and sun-synchronous orbits, earning the title “the workhorse of ISRO.”

2. Advancements in Heavy-Lift Launch Vehicles:

  • The Geosynchronous Satellite Launch Vehicle (GSLV) series enabled India to place communication satellites into Geosynchronous Transfer Orbit (GTO) using cryogenic engines—a major technological breakthrough.

  • The GSLV Mk-III (now LVM-3), capable of carrying 8,000 kg to LEO and 4,000 kg to GTO, represents India’s entry into the heavy-lift category.

  • It integrates solid, liquid, and cryogenic propulsion systems, and a modified version will power the Gaganyaan human spaceflight mission.

3. Future Initiatives – Towards Greater Capacity and Deep Space Missions:

  • ISRO is developing an upgraded C32 cryogenic stage and semi-cryogenic engines using refined kerosene and liquid oxygen, expected to raise payload capacity to 10,000 kg to LEO.

  • The planned Lunar Module Launch Vehicle (LMLV) aims to carry up to 80,000 kg for future lunar and deep-space missions, paving the way for India’s human lunar exploration

Conclusion:

India’s progress in launch vehicle technology reflects its commitment to Atmanirbhar Bharat (self-reliant India) and strategic autonomy in space. The evolution from PSLV to LVM-3, and future projects like LMLV, underscore ISRO’s vision of transforming India into a global space power, capable of independent, sustainable, and cost-effective space exploration

 
 
 
 
Prelims
 
1.With reference to India's satellite launch vehicles, consider the following statements: (UPSC 2018)
1. PSLVs launch satellites useful for Earth resources monitoring whereas GSLVs are designed mainly to launch communication satellites.
2. Satellites launched by PSLV appear to remain permanently fixed in the same position in the sky, as viewed from a particular location on Earth.
3. GSLV Mk III is a four- staged launch vehicle with the first and third stages using solid rocket motors; and the second and fourth stages using liquid rocket engines.
Which of the statements given above is/are correct?
A. 1 only
B. 2 and 3
C. 1 and 2
D. 3 only
 
Answer (A)
 

Statement 1: ✅ Correct

  • PSLV (Polar Satellite Launch Vehicle) is primarily used for launching Earth observation and remote sensing satellites into Polar Sun-Synchronous Orbits (SSO) — ideal for Earth resource monitoring.

  • GSLV (Geosynchronous Satellite Launch Vehicle) is designed mainly to place communication satellites into Geostationary or Geosynchronous Transfer Orbits (GTO).

Statement 2: ❌ Incorrect

  • Satellites that appear fixed in the sky (as viewed from Earth) are placed in Geostationary Orbits (GEO) — not Polar orbits.

  • PSLV launches satellites into polar orbits, where the satellite moves relative to the Earth’s surface — hence, it does not remain fixed in the sky

Statement 3: ❌ Incorrect

  • GSLV Mk III (now called LVM3) is a three-stage launch vehicle — not four-stage.

    • 1st Stage: Solid rocket boosters (S200)

    • 2nd Stage: Liquid engine (L110)

    • 3rd Stage: Cryogenic upper stage (C25) using liquid hydrogen & liquid oxygen

  • Hence, the description given in the statement is wrong

 
 
 
 

What are the various electoral forms?

For Preliminary Examination: Current events of national and international Significance like special intensive revision (SIR)

For Mains Examination: GS III - Indian Polity

Context:

The Election Commission (EC) has just concluded the special intensive revision (SIR) of electoral rolls in Bihar. It proposes to roll it out in other States in a phased manner.

 

Read about:

Representation of the People Act, 1950 (RP Act)

Registration of Electors Rules, 1960 (RER)

 

Key takeaways:

 

  • Section 21 of the Representation of the People Act, 1950 (RP Act) outlines the procedure for the preparation and revision of electoral rolls in India. Under this provision, a summary revision of electoral rolls is conducted before every general or by-election to update voter information. Additionally, the Act empowers the Election Commission (EC) to undertake a special revision of electoral rolls whenever necessary.
  • By its order dated June 24, the EC decided to implement a Special Intensive Revision (SIR) of electoral rolls across the country. Since Bihar’s Assembly elections are scheduled for November, the Commission began the process there first, designating July 1 as the qualifying date for voter eligibility.
  • The SIR process in Bihar included several steps: submission of enumeration forms by all registered voters; submission of citizenship proof (for those registered after 2003); publication of draft electoral rolls; a period for claims and objections; verification and disposal of these claims by the Electoral Registration Officers (EROs); and finally, the publication of the final roll.
  • The process was later challenged before the Supreme Court, which, through interim orders, directed the EC to accept Aadhaar as one of the valid documents to establish identity along with the enumeration forms.
  • The final electoral roll for Bihar was published on September 30. The EC now plans to expand the SIR exercise to other States in phases, in line with their respective Assembly election schedules.
  • In this context, it is crucial for citizens to understand the various forms related to electoral rolls, which are provided under the Registration of Electors Rules, 1960 (RER). These rules include detailed instructions for filling out each form, and a summary of these is generally made available for public reference.
  • While there are differing political opinions on the SIR exercise in Bihar, maintaining accurate and updated electoral rolls remains fundamental to ensuring free and fair elections — the cornerstone of Indian democracy.
  • Going forward, the EC is expected to adopt a more spaced-out schedule for similar exercises, allowing sufficient time for voter participation and minimizing procedural hurdles.
  • Following the Supreme Court’s direction, Aadhaar will likely continue to be accepted as a valid identity proof in future revisions.
  • Meanwhile, citizens are encouraged to check the draft electoral rolls, submit the required forms, and ensure their details are accurate. New voters and those who have moved to different constituencies should complete the necessary applications.
  • Active involvement by political parties and civil society organizations in assisting voters—particularly from marginalized groups—will help create a more inclusive and error-free voter list, thereby strengthening the integrity of the electoral process

 

Representation of the People Act, 1950 (RP Act)

 

The Representation of the People Act, 1950 (RP Act) is one of the foundational laws that governs elections and voter registration in India. Enacted on May 12, 1950, it lays down the legal framework for the preparation and revision of electoral rolls, the allocation of seats in the legislature, and the delimitation of constituencies. It ensures that every citizen who meets the eligibility criteria can be properly registered as a voter and exercise their right to vote.

Key Features and Provisions

  • Electoral Rolls (Section 15–23):
    The Act mandates the preparation and revision of electoral rolls for every constituency under the supervision of the Election Commission of India (ECI).

    • Section 21 specifically deals with the preparation and periodic revision of electoral rolls.

    • The rolls are revised before every general election and can also be specially revised if required.

    • The Registration of Electors Rules, 1960 provide detailed procedures for these revisions.

  • Eligibility for Registration (Section 19):
    Every person who is a citizen of India, at least 18 years old, and ordinarily resident in a constituency is eligible to be registered as a voter.

  • Disqualifications (Section 16):
    A person may be disqualified from registration if they are:

    • Not a citizen of India,

    • Of unsound mind, declared so by a competent court, or

    • Disqualified for voting under any law relating to corrupt practices or offences in connection with elections.

  • Delimitation and Allocation of Seats:
    The Act provides for the allocation of seats in the Lok Sabha and State Legislative Assemblies and the delimitation of constituencies based on population data from the latest Census.

  • Role of the Election Commission:
    The Election Commission of India is entrusted with the supervision, direction, and control of the preparation and revision of electoral rolls. It ensures that the rolls are free from duplication, errors, and ineligible entries.

  • Forms and Procedures:
    The process for inclusion, deletion, or correction of names in electoral rolls is governed by rules under this Act. Citizens can apply using prescribed forms (Form 6, 7, 8, etc.) as defined in the Registration of Electors Rules, 1960.

 

 Follow Up Question

Mains

1.Discuss the role of the Election Commission of India in the light of the evolution of the Model Code of Conduct. (UPSC 2022)

Note: This is a refrence approach to the Question and Model Answer Only
 

Introduction (2–3 lines)

  • Define both components briefly.

  • Establish their linkage to free and fair elections.

Role of the Election Commission in Enforcing MCC

  1. Ensuring a Level Playing Field

    • Prevents misuse of official machinery by ruling parties.

    • ECI directs transfers, bans policy announcements, and monitors government communication.

  2. Monitoring and Enforcement

    • From the announcement of elections till completion.

    • Issues notices, warnings, or censures for violations.

  3. Advisory and Preventive Role

    • Educates political actors about ethical norms.

    • Clarifies ambiguities through frequent updates and guidelines.

  4. Quasi-Judicial Powers

    • Acts upon complaints, verifies facts, and recommends disciplinary or criminal action.

  5. Innovation and Modernization

    • Expands MCC to digital campaigning, social media, and online advertisements.

  6. Moral Authority

    • Even without legal status, the ECI’s credibility gives the MCC strong moral force.

Conclusion
 

The evolution of the Model Code of Conduct mirrors the Election Commission’s growing role as the guardian of electoral integrity in India. While moral authority has been its greatest strength, the challenges of modern campaigning demand stronger legal and institutional backing to uphold the spirit of free and fair elections.

Introduction

The Election Commission of India (ECI), a constitutional body under Article 324, is entrusted with the responsibility of conducting free and fair elections to Parliament, State Legislatures, and the offices of the President and Vice-President.
The Model Code of Conduct (MCC) is one of the key instruments through which the ECI ensures a level playing field during elections, maintaining the sanctity of the democratic process

Evolution of the Model Code of Conduct

  • Origin (1960): The MCC was first introduced in Kerala in 1960 during the Assembly elections as a voluntary code agreed upon by political parties.

  • Adoption (1968): The ECI adopted the code at the national level, and political parties consented to adhere to it during elections.

  • Expansion (1979 onwards): The MCC was periodically updated to address new challenges, such as the use of official machinery, media influence, and communal appeals.

  • Comprehensive enforcement (1991): The ECI started enforcing the MCC strictly after the 1991 Lok Sabha elections, following allegations of misuse of government power by ruling parties.

  • Digital era (2014–present): The MCC has evolved to cover social media, electronic campaigning, and digital advertisements

Role of the Election Commission of India

1. Enforcement Authority

  • The ECI ensures adherence to the MCC from the date the election schedule is announced until the completion of elections.

  • It monitors political activities, government announcements, and official visits to ensure neutrality.

    • Example: In 2019, the ECI censured several leaders across parties for violating MCC provisions.

2. Ensuring a Level Playing Field

  • The MCC prevents the party in power from misusing government machinery for electoral advantage.

  • The ECI can direct the transfer of officials, restrict policy announcements, and suspend projects during the election period.

3. Guiding Political Behaviour

  • The code promotes ethical campaigning and discourages hate speech, communal appeals, bribery, or intimidation of voters.

  • The ECI issues advisories and model guidelines to parties and candidates to uphold democratic norms.

4. Addressing Emerging Challenges

  • With the advent of digital campaigning, the ECI has extended the MCC to cover online advertisements, fake news, and social media misuse in collaboration with platforms like Facebook and Twitter (now X).

5. Quasi-Judicial Role

  • The ECI investigates complaints, issues warnings, censures candidates, and can recommend criminal proceedings or disqualification in extreme cases

Conclusion

The Model Code of Conduct, as implemented by the Election Commission of India, has evolved from a voluntary political consensus to a powerful moral and institutional tool ensuring free, fair, and transparent elections. While its effectiveness depends on cooperation and moral legitimacy, the ECI’s proactive role in upholding the MCC continues to safeguard the integrity of India’s democratic process

Prelims

1.Consider the following statements: (UPSC 2017)

  1. The Election Commission of India is a five-member body.
  2. The Union Ministry of Home Affairs decides the election schedule for the conduct of both general elections and bye-elections.
  3. Election Commission resolves the disputes relating to splits/mergers of recognised political parties.

Which of the statements given above is/are correct?

(a) 1 and 2 only           

(b) 2 only             

(c) 2 and 3 only               

(d) 3 only

Answer (d)
 
  • Statement 1 — Incorrect:
    The Election Commission of India (ECI) is not a five-member body. It is a three-member body, consisting of the Chief Election Commissioner (CEC) and two Election Commissioners (ECs). However, the number of members can be varied by the President of India through executive order, but as of now, it is three.

  • Statement 2 — Incorrect:
    The Union Ministry of Home Affairs (MHA) does not decide the election schedule. The Election Commission of India is an independent constitutional body empowered under Article 324 of the Constitution to decide the election schedule for both general and bye-elections to Parliament and State Legislatures.

  • Statement 3 — Correct:
    The Election Commission of India has the authority to decide disputes relating to splits or mergers of recognised political parties under the Election Symbols (Reservation and Allotment) Order, 1968

 

 

What is Google’s ‘quantum advantage’ leap?

For Preliminary Examination:  Current events of national and international Significance

For Mains Examination: GS III - Science and technology

Context:

In two papers published in Nature on October 22, researchers from Google, MIT, Stanford, and Caltech reported what they called a verifiable display of quantum advantage using the company’s Willow quantum processor. That is, the teams said they have shown that Willow clearly outperforms existing supercomputers on solving a specific problem

 

Read about:

What is quantum advantage?

Decoded Quantum Interferometry (DQI)

 

Key takeaways:

 

How does a quantum computer work?

  • Think of ripples spreading across a pond: when two wave crests meet, they combine to form a larger wave, but when a crest meets a trough, they cancel each other out. This phenomenon, known as interference, is key to quantum computing.
  • At the quantum scale, particles exhibit wave-like behavior, and their wave functions—which describe the probabilities of different outcomes—can be controlled to interfere constructively or destructively.
  • By managing these interferences, scientists enhance the likelihood of obtaining the correct solution while suppressing incorrect ones. This is the fundamental operating principle of a quantum computer.
  • In one study, researchers created a quantum algorithm to handle optimization problems, where the aim is to identify the best outcome among many options. They called this method Decoded Quantum Interferometry (DQI).
  • It uses a quantum version of the Fourier transform to manipulate the wave-like behavior of particles acting as quantum bits (qubits). In DQI, waves representing good solutions strengthen one another through constructive interference, while those representing poor solutions cancel out.
  • When measured, the quantum system is thus more likely to reveal a high-quality solution. The algorithm efficiently solved the optimal polynomial intersection problem, outperforming classical computers

 

What is scrambling?

  • The second study examined how information disperses—or gets “scrambled”—in complex quantum systems. Imagine adding a drop of blue dye into a clear swimming pool.
  • Initially, the dye is localized, but as it spreads, the color becomes faint and uniform throughout the pool. The information about the dye’s exact position is no longer visible, yet it’s not lost—it’s simply distributed across every water molecule.
  • Similarly, in a quantum system, information initially contained in a single qubit spreads across all interacting qubits, becoming hidden within their intricate relationships.
  • To measure this scrambling, scientists designed an experiment resembling echoes in a warehouse. When someone shouts, the sound waves bounce off every surface, dispersing information.
  • A moment later, striking a bell alters part of the echo, imprinting it with a distinct tone. When the experiment is “rewound,” normal echoes cancel out, but those with the bell’s imprint remain as faint, distorted sounds.
  • This residual echo, called the Out-of-Time-Order Correlator (OTOC), reveals how widely the original information has spread within the system. By studying these subtle signals, researchers can quantify how quantum information mixes and evolves

How do you demonstrate quantum advantage?

  • In another experiment, scientists used highly complex quantum circuits that would have taken a top supercomputer over three years to simulate, but the Willow quantum processor completed them in about two hours.
  • This highlights quantum advantage—where a quantum computer outperforms the fastest classical systems.
  • However, researchers have not yet proved mathematically that no classical shortcut could solve these problems equally fast. Further work is needed to confirm that such challenges are inherently difficult for non-quantum computers.
  • While these studies show impressive progress, their tasks remain laboratory demonstrations rather than practical applications.
  • Real-world breakthroughs in fields like physics or chemistry will require advances in error correction, scalability, and the development of thousands of stable qubits—an achievement still several years away
 
Follow Up Question
 
Mains
 
1.Quantum interference and information scrambling lie at the heart of quantum computing. Discuss how recent advances in these areas demonstrate the potential of quantum computers to outperform classical systems, while highlighting the challenges that remain before achieving practical quantum advantage.”
(250 words)
 
Note: This is for reference Only - Reference Mains Structure and Reference midel Answer Only
 

Introduction (40–50 words)

Start with context: technological evolution and computational limits.
Define quantum computing and its significance.

Body

A. Scientific and Conceptual Background (60–70 words)

Explain fundamental principles and DQI innovation.
Mention wave interference, optimization, and quantum algorithms.

Key points:

  • Quantum computing uses qubits that exist in multiple states simultaneously.

  • DQI algorithm manipulates particle wave interference via the quantum Fourier transform to enhance probabilities of correct solutions.

  • Designed for solving optimization problems like polynomial intersections faster than classical systems.

  • Demonstrates controlled quantum interference to amplify desired computational results.

Effectiveness and Positive Aspects (60–70 words)

Highlight scientific breakthroughs and potential impact.

Key points:

  • Willow processor completed tasks in 2 hours that would take supercomputers over 3 years.

  • Marks progress toward practical demonstration of quantum advantage.

Conclusion (40–50 words)

Summarize balanced view and suggest the way forward.

Introduction:
Quantum computing harnesses the principles of quantum mechanics — particularly superposition and interference — to process information in ways that classical computers cannot. Unlike traditional bits, quantum bits (qubits) can exist in multiple states simultaneously, allowing for exponential computational possibilities.

Body:
At the core of quantum computation lies quantum interference, the phenomenon where wave-like probabilities of quantum states reinforce correct solutions and cancel incorrect ones. Recently, researchers proposed the Decoded Quantum Interferometry (DQI) algorithm, which manipulates these wave functions through a quantum version of the Fourier transform. This enables constructive interference for optimal solutions, providing a significant speed advantage in solving complex optimization problems.

Complementing this, studies on information scrambling reveal how data in a quantum system gets rapidly distributed across entangled qubits. By measuring this scrambling using advanced processors like Willow, scientists demonstrated the capacity of quantum systems to simulate complex, highly interactive environments far beyond the reach of classical machines.

These advances mark early evidence of quantum advantage, where quantum devices outperform even the fastest supercomputers in specific tasks.

Conclusion:
While promising, these breakthroughs remain largely experimental. Challenges such as error correction, decoherence, and scaling stable qubits persist. Achieving practical and reliable quantum computing will require overcoming these hurdles, but current progress clearly signals a transformative leap in computational science

 
Prelims
 
1.Which one of the following is the context in which the term "qubit" is mentioned? (UPSC 2022)

A. Cloud Services

B. Quantum Computing

C. Visible Light Communication Technologies

D. Wireless Communication Technologies

Answer (B)
 
  • A qubit (quantum bit) is the basic unit of information in quantum computing.

  • Unlike a classical bit, which can be either 0 or 1, a qubit can exist in a superposition of both states simultaneously.

  • This property allows quantum computers to perform complex computations much faster than traditional computers.

Other options (Incorrect):

  • A. Cloud Services: Related to remote data storage and computing, not qubits.

  • C. Visible Light Communication: Uses light for data transmission, not quantum principles.

  • D. Wireless Communication: Involves radio frequency signals, not quantum information

 
 
 
 
 

Will China capture the electrolyser market?

For Preliminary Examination:  Current events of national and international Significance

For Mains Examination: GS III - Enviornment and ecology

Context:

In the clean energy market, the limelight has recently shifted from solar and wind towards green hydrogen. Hydrogen is widely used in industries for oil refining and ammonia and methanol production, but most of it is currently produced using fossil fuels, which add to carbon emissions. Green hydrogen technologies used in production, storage, transportation and application are rapidly advancing, with electrolysers at the core of this transformation. Electrolysers are central to its production, much like photovoltaic (PV) modules are to solar power. And just as no discussion on solar PVs is complete without examining China’s dominance in its supply chain, a similar story seems to be unfolding with electrolysers

 

Read about:

Photovoltaic (PV) modules 

Green hydrogen technologies

 

Key takeaways:

 

In the global clean energy sector, attention has been shifting from traditional renewables such as solar and wind to green hydrogen. While hydrogen already plays a critical role in industries like oil refining and the production of ammonia and methanol, the majority of it is generated from fossil fuels, adding to carbon emissions. The focus now lies on developing green hydrogen technologies across production, storage, transport, and application stages. Electrolysers, in particular, have emerged as the backbone of this transformation, much like photovoltaic (PV) modules are for solar energy. Just as debates on solar PVs cannot overlook China’s dominance in the supply chain, a similar trend is now unfolding with electrolysers.

China’s position in green hydrogen

  • By 2024, China had become the leading producer of hydrogen globally, generating around 36.5 million tonnes annually. Of this, nearly 1,20,000 tonnes was green hydrogen—accounting for close to half of the world’s total.
  • In the electrolyser market, China commands almost 85% of global production capacity for alkaline (ALK) electrolysers. Currently, both Alkaline (ALK) and Proton Exchange Membrane (PEM) electrolysers are used commercially.
  • ALK systems, being an established technology, are cheaper but less efficient in handling renewable power fluctuations. PEM electrolysers, though costlier, perform better under variable loads and yield hydrogen of higher purity.
  • For the moment, China’s edge lies in its mass-scale ALK electrolyser production, catering both to domestic use and exports.
  • China’s rapid build-up of electrolyser capacity, alongside its rollout of large-scale green hydrogen projects, has raised global concerns about its growing influence over the sector’s supply chains.

How China gained this advantage

  • China replicated in electrolysers the strategy it had earlier applied in solar PVs: subsidised pricing, tightly integrated supply chains, control over raw material inputs, and speedy expansion of manufacturing capacity.
  • ALK electrolysers from China are priced significantly lower than international averages, offering up to 45% cost savings for hydrogen plants in Europe. Price declines continue due to supply chain maturity and increased competition.
  • In 2024, a 5 MW ALK electrolyser system cost about six million yuan (~$167/kW), 20% cheaper than in 2023. A 1 MW PEM system was also priced at six million yuan (~$838/kW), reflecting a 32% drop within a year.
  • China benefits from abundant domestic supplies of nickel and steel, essential for ALK electrolysers. However, PEM electrolysers depend on scarce and expensive metals such as iridium, platinum, and titanium, which China imports heavily.
  • Since hydrogen production requires specific system integration depending on its intended use and purity requirements, competition may increasingly depend on providing integrated solutions rather than price alone.
  • Major Chinese renewable energy players such as LONGi and Envision have diversified into hydrogen, not only manufacturing electrolysers but also investing in overseas production facilities.
  • For example, Guofu Hydrogen has partnered with German firms to build plants, while Envision Energy has unveiled the world’s largest green hydrogen and ammonia facility powered entirely by renewables.

Competition and challenges

  • China appears well on track to dominate the green hydrogen equipment market through its aggressive scaling up of production and international outreach. However, replicating its solar success will not be straightforward.
  • Unlike solar, green hydrogen has been designated as a strategic sector by many countries, which are keen to safeguard domestic industries. Consequently, Chinese imports are expected to face stricter regulations, barriers, and scrutiny.
  • Concerns over supply chain resilience and energy security will likely shape how far Chinese products penetrate international markets, potentially curbing their expansion in this domain

 

Follow Up Question

Mains

1.Green hydrogen production utilizes electrolysis, a process powered by renewable energy sources. However, large-scale production of renewable energy also has environmental implications. Discuss the ethical considerations involved in promoting green hydrogen as a sustainable solution. (250 words)

Note: This is for reference Only - Reference Mains Structure and Reference midel Answer Only

Introduction (40–50 words)

  • Define green hydrogen and explain its role in global clean energy transition.

  • Briefly indicate that despite its promise, ethical concerns arise in its production.

Body (150–170 words)

A. Ethical Merits (Positive Dimensions)

  • Promotes climate responsibility and aligns with intergenerational justice.

  • Supports energy independence and reduces carbon-intensive dependence.

  • Encourages innovation in clean technology and sustainable industry.

B. Ethical Challenges

  1. Environmental Ethics:

    • Land acquisition for solar/wind farms may harm biodiversity.

    • High water usage in electrolysis can strain local ecosystems, especially in arid regions.

  2. Social and Economic Ethics:

    • Risk of resource inequity—renewable power diverted for hydrogen export while local energy needs remain unmet.

    • Displacement and livelihood loss from large infrastructure projects.

  3. Technological and Lifecycle Ethics:

    • Production of renewable infrastructure involves rare earth mining and potential e-waste, raising questions of hidden ecological costs

Conclusion (30–40 words)

  • Summarize the ethical balance required between clean energy and social justice.

  • Suggest inclusive and transparent policies.

Introduction:

Green hydrogen—produced through electrolysis using renewable energy—has emerged as a promising solution for achieving net-zero emissions and reducing dependence on fossil fuels. It is central to India’s National Green Hydrogen Mission and global decarbonisation efforts. However, while touted as “clean,” its large-scale production raises several ethical and environmental dilemmas that challenge the very idea of sustainability.

Body:

1. Environmental Ethics and Resource Justice:

  • Land and Water Use: Massive solar and wind farms required for electrolysis demand vast tracts of land, often acquired from ecologically sensitive or agrarian regions, raising ethical issues of displacement, biodiversity loss, and livelihood insecurity.

  • Water Consumption: Electrolysis consumes large volumes of purified water; in water-stressed regions, this may exacerbate inequitable resource allocation and conflict over water rights.

2. Energy and Equity Considerations:

  • The diversion of renewable energy to hydrogen production could reduce access to affordable electricity for local populations, raising questions about energy justice and intergenerational equity.

  • Developing countries might face pressure to export hydrogen while domestic energy needs remain unmet—posing an ethical challenge between economic gain and social welfare.

3. Technological and Lifecycle Ethics:

  • Manufacturing of renewable infrastructure (solar panels, wind turbines) involves mining rare earth metals, generating carbon footprints and e-waste, questioning the “green” label.

Conclusion:

Green hydrogen holds transformative potential, but its ethical sustainability depends on just resource use, inclusive policy design, and environmental accountability. True sustainability lies not only in carbon neutrality but also in ensuring that the transition is equitable, participatory, and ecologically responsible

 

Prelims

1.With reference to 'fuel cells' in which hydrogen-rich fuel and oxygen are used to generate electricity, consider the following statements: (UPSC 2015)
1. If pure hydrogen is used as a fuel, the fuel cell emits heat and water as by-products.
2. Fuel cells can be used for powering buildings and not for small devices like laptop computers.
3. Fuel cells produce electricity in the form of Alternating Current (AC)
Which of the statements given above is/are correct?
A. 1 only       
B. 2 and 3 only         
C. 1 and 3 only       
D. 1, 2 and 3

 

Answer (A)
 

Statement 1: If pure hydrogen is used as a fuel, the fuel cell emits heat and water as by-products. ✅ Correct.
Hydrogen fuel cells combine hydrogen and oxygen to generate electricity, with water and heat being the only by-products.

Statement 2: Fuel cells can be used for powering buildings and not for small devices like laptop computers. ❌ Incorrect.
Fuel cells are versatile; they can power large systems like buildings and vehicles, as well as small devices like laptops and mobile phones (portable fuel cells exist).

Statement 3: Fuel cells produce electricity in the form of Alternating Current (AC). ❌ Incorrect.
Fuel cells generate Direct Current (DC) electricity, which can then be converted to AC using an inverter if required.

 
 

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