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Current AffairsEnvironment

Inside China’s green transition

Friday, 29 May 20268 min read1,415 words25

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In this article

ContextBackground & Historical EvolutionKey Points & FactsMulti-Dimensional AnalysisWay Forward

Context

The article provides a ground-level view of China's green industrial transition, focusing on the city of Ningbo in Zhejiang Province. It highlights the rise of the Electric Vehicles (EV) industry, with Geely Auto Group selling close to 1.7 million EVs in 2025 (a 90% rise from the previous year). The Zeekr factory in Ningbo, a 'future factory' with 60-70% automation, represents a 10 billion RMB ($1.47 billion) investment. Zhejiang Province has achieved significant environmental milestones: PM 2.5 levels below 25, renewables accounting for 50% of installed energy capacity, and 100% of surface water meeting national standards. The article also covers the transformation of the Ningbo Iron and Steel Company (Ninggang), which spent 4 billion RMB ($588 million) on over 100 emission renovation projects. China's dominance in global EV sales (60%), lithium-ion battery manufacturing (76%), and critical mineral processing (90% of rare earths, 60-70% of lithium and cobalt) is underscored. The green transition is attributed to sustained investment, strict enforcement (including anti-corruption measures), and technological innovation.

Background & Historical Evolution

China's green transition is rooted in its broader economic and environmental policy evolution. In the early 2000s, rapid industrialization led to severe pollution, with cities like Beijing experiencing frequent 'airpocalypse' days. The 11th Five-Year Plan (2006-2010) introduced energy intensity targets, but enforcement was weak. The 12th Five-Year Plan (2011-2015) added carbon intensity targets and promoted renewable energy. A major turning point was the 2013 'Action Plan on Prevention and Control of Air Pollution', which set strict PM 2.5 reduction targets. The 13th Five-Year Plan (2016-2020) emphasized green development, and the 14th Five-Year Plan (2021-2025) targets peak carbon emissions by 2030 and carbon neutrality by 2060. China's EV industry began with the 'Ten Cities, Thousand Vehicles' program in 2009, followed by generous subsidies and the 'New Energy Vehicle Industry Development Plan (2021-2035)'. The country's dominance in solar photovoltaics (PVs) started with manufacturing scale-up in the 2000s, and by 2023, China commissioned as many PVs as the rest of the world combined. The critical minerals strategy, including processing of rare earths, lithium, and cobalt, has been built over decades through state-led investment and industrial policy. Anti-corruption campaigns under President Xi Jinping since 2012 have targeted lax enforcement of environmental regulations, reducing bribery that allowed polluting factories to operate with impunity.

Key Points & Facts

  • Ningbo, a port city in southern Zhejiang Province, is a key hub for China's EV industry, with Zeekr (a Geely Auto Group brand) manufacturing high-end EVs there.
  • Geely Auto Group sold close to 1.7 million EVs in 2025, a 90% rise from the previous year.
  • The Zeekr factory in Ningbo is called a 'future factory' with 60-70% of work done by robots; the welding factory is completely autonomous.
  • The factory has a maximum daily capacity of 1,300 cars, but operates on a made-to-order model to maintain nimbleness.
  • The Zeekr factory was built with a 10 billion RMB ($1.47 billion) investment.
  • Zhejiang Province achieved PM 2.5 levels averaging slightly under 25; renewables accounted for 50% of total installed energy capacity; and 100% of surface water met national standards.
  • The Ningbo Iron and Steel Company (Ninggang) spent 4 billion RMB ($588 million) on over 100 emission renovation projects, including water recycling and zero solid waste.
  • China accounted for about 60% of global EV sales (IEA Global EV Outlook 2024).
  • China controls 76% of global lithium-ion battery cell manufacturing (Bloomberg data).
  • China processes 90% of rare earth elements and 60-70% of lithium and cobalt.
  • In 2023, China commissioned as many solar photovoltaics as the rest of the world combined (IEA).
  • Anti-corruption crackdowns over the past decade have reduced bribery of local officials by polluting factories.
  • 'Big data' is deployed to track factories in real time for pollution enforcement.

Multi-Dimensional Analysis

Political & Constitutional Dimensions: The Chinese government's green transition is a top-down policy driven by the Communist Party of China (CPC) under President Xi Jinping. The 14th Five-Year Plan and the 'dual carbon' goals (peak by 2030, neutrality by 2060) are central to national strategy. The government's position is that green growth is essential for energy security, especially given the ongoing crisis in West Asia, and for global leadership. Critics, including some Western analysts, argue that China's dominance in green tech is achieved through state subsidies and intellectual property practices that distort global markets. However, within China, there is broad political consensus, with local officials incentivized through performance metrics that include environmental targets. The anti-corruption campaign has strengthened enforcement by reducing local-level bribery.

Economic & Financial Impact: China's green transition involves massive investment. The Zeekr factory alone cost 10 billion RMB ($1.47 billion), and Ninggang spent 4 billion RMB ($588 million) on emission renovations. These investments have created jobs (2,300 at Zeekr's factory) and boosted exports to Europe and Southeast Asia. China's dominance in EV sales (60% global share), battery manufacturing (76%), and critical mineral processing (90% rare earths) gives it a major cost advantage and supply chain control. The IEA notes that China's solar PV installations in 2023 equaled the rest of the world combined. However, critics point to overcapacity and potential trade tensions, as seen with EU anti-subsidy investigations into Chinese EVs. The fiscal cost of subsidies and the risk of stranded assets in fossil fuel industries are also concerns.

Social Dimensions: The green transition has improved public health: Zhejiang's PM 2.5 levels are now 'like Europe', and 100% of surface water meets national standards. This reduces respiratory diseases and improves quality of life. However, the transition has social costs. Workers in polluting industries (e.g., steel) may face job displacement, though Ninggang's transformation retained jobs. The emphasis on high-tech manufacturing may exacerbate urban-rural divides, as skilled workers benefit more. The anti-corruption crackdown has reduced the ability of polluting factories to bribe officials, benefiting communities near industrial sites. However, the article notes that pollution remains a serious problem in China, especially in Beijing, indicating uneven progress.

Governance & Administrative Aspects: China's green transition relies on strong state capacity. The central government sets targets (e.g., PM 2.5 reduction, renewable energy share), and provincial governments like Zhejiang implement them. The use of 'big data' to track factories in real time shows technological governance. The anti-corruption campaign has improved enforcement by reducing bribery. However, challenges remain: local officials may still prioritize economic growth over environment, and the sheer scale of industrial transformation requires continuous monitoring. The article highlights that the transition 'neither came easily nor for free', requiring sustained investment and 'no-nonsense policing'. Federalism is not a factor in China's unitary system, but central-local coordination is critical.

International Perspective: China's green transition has global implications. Its dominance in EV and battery supply chains gives it strategic leverage, especially as countries like India and the US seek to build their own capacities. The ongoing crisis in West Asia has reinforced China's urgency for energy diversification. China's exports of EVs and solar panels to Europe and Southeast Asia are reshaping global trade, but also triggering protectionist responses (e.g., EU tariffs on Chinese EVs). The IEA data shows China's overwhelming presence in critical minerals processing, which raises concerns about supply chain concentration. For India, China's model offers lessons in state-led investment and enforcement, but also highlights the risks of dependency on Chinese imports for green technology.

Way Forward

Short-term measures:

  • Strengthen enforcement of environmental standards by deploying real-time monitoring technologies (e.g., 'big data' tracking of factory emissions) and anti-corruption mechanisms to reduce bribery.
  • Increase investment in renewable energy capacity, targeting a share similar to Zhejiang's 50% of installed capacity, through accelerated solar and wind projects.
  • Promote EV adoption by expanding charging infrastructure and providing targeted subsidies for public transport and commercial fleets.

Medium-term reforms:

  • Develop domestic critical mineral processing capacity (e.g., lithium, cobalt, rare earths) to reduce dependence on China, following the model of Australia and Chile in lithium extraction.
  • Implement a 'just transition' framework for workers in polluting industries, including retraining programs and social safety nets, as recommended by the International Labour Organization (ILO).
  • Adopt a 'carbon pricing' mechanism (e.g., emissions trading system) to incentivize emission reductions, similar to the European Union's ETS.

Long-term vision:

  • Achieve carbon neutrality by 2070 (India's target) through a phased transition from coal to renewables, with a focus on grid-scale battery storage and green hydrogen.
  • Foster international cooperation on green technology transfer and supply chain diversification, as outlined in the India-EU Trade and Technology Council.
  • Invest in R&D for next-generation battery technologies (e.g., solid-state) and circular economy models for battery recycling, following the EU's Battery Regulation.

What can be asked in exam?

  • •Prelims angle: China accounted for about 60% of global EV sales in 2024, according to the IEA Global EV Outlook 2024.
  • •Prelims angle: China controls 76% of global lithium-ion battery cell manufacturing, as per Bloomberg data.
  • •Prelims angle: China processes 90% of rare earth elements and 60-70% of lithium and cobalt.
  • •Mains angle: Discuss the role of state-led investment and enforcement in China's green transition. What lessons can India draw for its own renewable energy and EV policies? (GS-III, 250 words)
  • •Mains angle: Analyze the geopolitical implications of China's dominance in critical mineral processing and battery manufacturing. How should India and other countries respond to supply chain concentration? (GS-II, 250 words)

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OPSC PYQ 1 (2022) — Science

Genetic engineering, a revolutionary branch of biotechnology, continues to evolve rapidly, transforming the way we approach medicine, agriculture and various scientific endeavours. Recent developments in this field highlight both the immense potential and ethical considerations that come with the power to manipulate DNA. In the medical realm, gene editing technologies like CRISPR-Cas9 have gained prominence. These tools offer unprecedented precision in modifying genes, holding promise for treating genetic disorders. In a groundbreaking clinical trial, researchers successfully used gene editing to treat sickle cell anaemia. The patient’s own modified cells were reintroduced into their body, resulting in reduced symptoms and an improved quality of life. In agriculture, genetic engineering is driving advancements in crop production and food security. The development of Genetically Modified (GM) crops has enabled plants to resist pests, withstand harsh climates and improve nutritional content. For instance, GM rice has been biofortified to contain higher levels of essential vitamins, potentially combating malnutrition in regions where rice is a staple food. However, these advancements also raise ethical concerns. The potential for creating “designer babies” through gene editing has sparked debates about the boundaries of genetic manipulation. The question of whether it’s ethical to alter human DNA to enhance physical or cognitive traits continues to challenge bioethicists, policymakers and society at large. Data indicates the exponential growth of genetic engineering research. In the past decade, the number of scientific publications related to CRISPR technology has multiplied significantly. In 2010, there were approximately 150 CRISPR-related publications; by 2020, that number had soared to over 9,000. This surge demonstrates the profound impact of genetic engineering on the scientific community. As we navigate this brave new world of genetic engineering, striking a balance between innovation and ethical considerations remains paramount. The potential to cure genetic diseases, enhance food security and make leaps in scientific understanding is immense. However, careful consideration and collaboration are necessary to ensure that the benefits are realized while addressing the ethical complexities that accompany these technological breakthroughs.

Which gene editing technology has gained prominence recently?

  1. It is used for creating GM crops
  2. It is a tool for gene editing
  3. It enhances physical traits
  4. It is used in biofortification

Answer: A. It is used for creating GM crops

OPSC PYQ 2 (2022) — English Comprehension

EMBEZZLE

In the following question, choose the word which best expresses the meaning of the given word: EMBEZZLE

  1. Misappropriate
  2. Balance
  3. Remunerate
  4. Clear

Answer: A. Misappropriate

OPSC PYQ 3 (2023) — Reasoning

How many pairs of letters are there in the word 'CASTRAPHONE' which have as many letters between them in the word as in the alphabet?

  1. 3
  2. 4
  3. 5
  4. 6

Answer: D. 6

Free sample · Question 1 of 3

Science · 2022

Direction / Passage

Genetic engineering, a revolutionary branch of biotechnology, continues to evolve rapidly, transforming the way we approach medicine, agriculture and various scientific endeavours. Recent developments in this field highlight both the immense potential and ethical considerations that come with the power to manipulate DNA. In the medical realm, gene editing technologies like CRISPR-Cas9 have gained prominence. These tools offer unprecedented precision in modifying genes, holding promise for treating genetic disorders. In a groundbreaking clinical trial, researchers successfully used gene editing to treat sickle cell anaemia. The patient’s own modified cells were reintroduced into their body, resulting in reduced symptoms and an improved quality of life. In agriculture, genetic engineering is driving advancements in crop production and food security. The development of Genetically Modified (GM) crops has enabled plants to resist pests, withstand harsh climates and improve nutritional content. For instance, GM rice has been biofortified to contain higher levels of essential vitamins, potentially combating malnutrition in regions where rice is a staple food. However, these advancements also raise ethical concerns. The potential for creating “designer babies” through gene editing has sparked debates about the boundaries of genetic manipulation. The question of whether it’s ethical to alter human DNA to enhance physical or cognitive traits continues to challenge bioethicists, policymakers and society at large. Data indicates the exponential growth of genetic engineering research. In the past decade, the number of scientific publications related to CRISPR technology has multiplied significantly. In 2010, there were approximately 150 CRISPR-related publications; by 2020, that number had soared to over 9,000. This surge demonstrates the profound impact of genetic engineering on the scientific community. As we navigate this brave new world of genetic engineering, striking a balance between innovation and ethical considerations remains paramount. The potential to cure genetic diseases, enhance food security and make leaps in scientific understanding is immense. However, careful consideration and collaboration are necessary to ensure that the benefits are realized while addressing the ethical complexities that accompany these technological breakthroughs.

Which gene editing technology has gained prominence recently?

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