💥Join UPSC 2027,2028 Mentorship (July Batch) + XFactor Notes & Microthemes PDF
Talk to Mentor

Civilsdaily

Login

Subject: Geography

  • Southern Annular Mode (SAM) and Indian Ocean Weather Conditions

    Southern Annular Mode

    Central Idea

    • The Indian National Centre for Ocean Information Services (INCOIS), a division under the Ministry of Earth Sciences (MoES), has made a significant discovery regarding the Southern Annular Mode (SAM), a crucial climate pattern.
    • Their research has revealed that SAM plays a pivotal role in influencing sea conditions across the Indian Ocean.

    What is Southern Annular Mode (SAM)?

    Description
    Idea behind
    • Mode of atmospheric variability representing north-south movement of the westerly wind belt around Antarctica.
    • Also known as Antarctic Oscillation (AAO).
    Phases
    1. Positive Phase: Wind belt contracts towards Antarctica.
    2. Negative Phase: Wind belt expands towards the equator.
    Impact on Weather Patterns
    • Influences temperature, rainfall, and storm intensity in the Southern Hemisphere.
    • Causes difference in the zonal mean sea level pressure at 40°S (mid-latitudes) and 65°S (Antarctica).
    Influence on Indian Ocean Affects ocean currents and sea surface temperatures, impacting regional weather and marine life.
    Climate Change Connection Trend towards more positive phases in recent decades, influenced by human-induced climate change.
    Effect on Antarctic Ice Impacts Antarctic ice sheets and sea ice extent through changes in wind patterns.
    Global Climate Interaction Interacts with other climate phenomena like ENSO.
    Predictability and Variability Exhibits seasonal predictability and interannual variability, important for long-term forecasting.
    Marine Ecosystems Affects marine ecosystems in the Southern Ocean, influencing productivity and species distribution.

    Role of Ocean Surface Waves

    • Coastal Processes: Ocean surface waves are key players in shaping coastal processes, impacting shoreline erosion, sediment transport, coastal engineering, and recreational activities.
    • Scientific Approach: The scientific team leveraged 40 years of data (1979 to 2018) from the European Centre for Medium-Range Weather Forecast.

    Positive and Negative SAM Phases

    • Positive SAM Phase: During a positive SAM phase, a cyclic pattern of warm sea surface temperature anomalies emerges, accompanied by strong winds that increase wave activity in the Indian Ocean. A new swell generation region along the east African coast contributes to heightened wave heights in the Arabian Sea.
    • Negative SAM Phase: Conversely, during a negative SAM phase, the eastern tropical southern Indian Ocean becomes the primary region for generating swells, resulting in reduced wave heights in the Arabian Sea.

    Significance of SAM

    • Coastal Planning: Understanding SAM allows for better coastal planning, helping coastal communities prepare for the impact of changing sea conditions.
    • Resource Management: SAM insights can aid in more efficient resource management, optimizing the utilization of marine resources.
    • Disaster Preparedness: Knowledge of SAM patterns can enhance disaster preparedness efforts, enabling timely response to potential ocean-related disasters.
    • Wave Predictions: The research contributes to improving wave predictions, offering advanced forecasting capabilities.
    • Benefiting Stakeholders: Stakeholders in the blue economy, including shipping, maritime boards, and the oil industry, can optimize their multi-million-dollar operations at sea based on SAM insights.

    Implications for Various Sectors

    • Monsoon Season Impact: Typically, inland vessel operations and oil exploration activities face restrictions during the monsoon season.
    • Fair Sea State Windows: Predicting SAM phases through the Ocean Forecasting System can identify “Fair Sea state windows” during monsoons.
    • Impact on Blue Economy: These fair windows can be leveraged by oil and shipping industries, making a significant contribution to blue economy activities along the Indian coast

  • How we are rescuing workers trapped in Uttarkashi tunnel

    Uttarakhand tunnel collapse LIVE: Pipeline laid inside to rescue 41 trapped workers | Hindustan Times

    Central idea

    The central idea focuses on the Silkyara Tunnel rescue in Uttarakhand, highlighting diverse worker representation and challenges in Himalayan geology. The strategic use of auger and drift technology plays a crucial role in the efficient rescue operation. The primary goal is the safe return of 41 trapped workers through a unified and adaptive approach.

    Key Highlights:

    • Silkyara Tunnel incident in Uttarkashi, Uttarakhand, sparks a coordinated effort by government and private agencies.
    • 41 workers trapped in a partially collapsed tunnel, representing a diverse group from different states.
    • Technological advancements, communication, and transportation are leveraged for the rescue operation.
    • Involvement of multiple government bodies, including the Prime Minister’s Office and various ministries.

    Key Challenges:

    • Risks and challenges associated with the rescue operation, including the unpredictable nature of Himalayan geology.
    • The need to balance urgency with caution in the rescue efforts.
    • Varying degrees of difficulty in deploying machinery due to the risk factor and geological complexities.

    Key Terms and Phrases for value addition:

    • Silkyara Tunnel
    • “All of government” approach
    • Himalayan geology
    • Simultaneity principle
    • Auger technology
    • Drift technology
    • Convergence of capability

    Auger Technology:

    • Definition: Auger technology involves the use of a rotating metal shaft with a blade at the end.
    • Application in Rescue: In the Silkyara Tunnel rescue, auger technology is deployed to scrape or cut debris and earth, creating a path for rescuers.
    • Success: A portion of 22 meters has been successfully negotiated, demonstrating the effectiveness of auger technology.
    • Challenges: Geological impediments have posed challenges, requiring restarting the effort.

    Drift Technology:

    • Definition: Drift technology involves scraping the sides of the tunnel to increase its size and create access.
    • Application in Rescue: Used to widen the tunnel for easier access and maneuverability in the rescue operation.
    • Timing: Top and side boring attacks on the tunnel alignment will commence in due course.
    • Redundancy: Provides a redundant approach to ensure the success of the rescue operation.

    Key Facts and Data:

    • 41 workers trapped inside a partially collapsed tunnel.
    • Efforts initiated by the Prime Minister’s Office, Ministry of Road Transport and Highways, Ministry of Home Affairs, NDMA, and Uttarakhand SDMA.
    • Five rescue approaches with time frames ranging from five-six days to eight weeks.

    Critical Analysis:

    • Emphasis on the coordinated efforts involving various government bodies and private sectors.
    • Recognition of the unpredictable nature of Himalayan geology and the associated challenges.
    • Utilization of advanced technologies such as auger and drift technology to address the complexities.
    • Highlighting the psychological and social impacts on workers and the provision of psycho-social specialists.
    • Acknowledgment of the importance of enabling convergence of capability among competent agencies.

    Way Forward:

    • Continued focus on simultaneous approaches to expedite the rescue operation.
    • Prioritizing the horizontal approach using auger technology and drift technology.
    • Recognition of leadership from New Delhi as a crucial factor in ensuring effective coordination.
    • Emphasizing the importance of the safe return of the trapped workers as the primary goal.

  • Mount Etna in Italy erupts

    etna

    Central Idea

    • Volcanic eruptions often make headlines only when iconic volcanoes like Etna, Kilauea, or Eyjafjallajokull erupt.
    • However, throughout any given year, our planet witnessed numerous volcanic eruptions, with as many as 50 to 80 occurring worldwide.

    About Mount Etna

    • Mount Etna, located in Italy, holds the title of Europe’s most active volcano and ranks among the world’s largest.
    • Its recorded volcanic activity dates back to 1500 B.C., with over 200 eruptions documented since then.
    • Etna’s recent eruptions have disrupted air travel, leading to flight cancellations at the nearby Catania airport.
    • Additionally, the accumulation of volcanic ash on roads prompted authorities to temporarily ban the use of cars and motorbikes due to safety concerns.

    Volcanic Eruptions this Year

    Many of the world’s most active volcanoes are concentrated in the Pacific Ring of Fire, encompassing regions like New Zealand, Southeast Asia, Japan, and the western coast of the Americas. This volatile area also experiences about 90% of all earthquakes globally.

    • Kilauea, Hawaii: The Kilauea volcano in Hawaii captivated the world with a nearly nonstop eruption that began in 1983 and continued for an astonishing 35 years until 2018. Remarkably, it rekindled in 2021, with the eruption still ongoing.
    • Dukono, Indonesia: Erupting since August 1933, Dukono volcano in Indonesia stands as a testament to long-term volcanic activity, defying the passage of time.
    • Santa Maria, Guatemala: The eruption of Santa Maria in Guatemala commenced in June 1922 and persists to this day, underscoring the enduring nature of certain volcanic phenomena.
    • Yasur, Vanuatu: Yasur in Vanuatu first erupted around 1270 and has maintained its volcanic activity, continuing as of June 9, 2023.

    Understanding Volcanoes

    • Volcanoes are geological features characterized by openings or vents through which lava, tephra (small rocks), and steam erupt onto the Earth’s surface.
    • They result from both their own eruptions and the broader processes of tectonic plate movement.
    • Volcanic eruptions are essentially the result of magma, or molten rock, beneath the Earth’s surface rising, bubbling, and ultimately overflowing, much like boiling milk spilling out of a pot on a stove.
    • The magma seeks pathways to vents within the volcano, where it erupts and is expelled across the land and into the atmosphere, a phenomenon referred to as lava.

    Types of Volcanoes

    Appearance Formation Eruption Style Notable Examples
    Cinder Cones Small, steep, conical Formed from basaltic magma with high gas content Often explosive eruptions with cinders/scoria Paricutin (Mexico), Sunset Crater (USA)
    Composite/Stratovolcanoes Tall and symmetrical Result from alternating layers of lava, ash, etc. Both explosive and effusive eruptions Mount St. Helens (USA), Mount Fuji (Japan)
    Shield Volcanoes Broad and gently sloping Primarily formed from basaltic magma Primarily non-explosive with extensive lava flows Mauna Loa, Mauna Kea (Hawaii)
    Lava Domes Rounded dome-like shape Formed from slow extrusion of viscous magma Typically non-explosive but can be dangerous Novarupta Dome (Alaska), Mount St. Helens’ Lava Dome (USA)

  • Cancer, heart disease, diabetes – odd-even scheme is not the answer to pollution woes

    One Health approach

    Central idea

    The article delves into the alarming air pollution crisis in Delhi and the National Capital Region, highlighting global and local concerns. It emphasizes the health impact of air pollution, particularly on vulnerable groups like children, and evaluates India’s National Clean Air Programme (NCAP) and potential strategies for effective air quality management.

    Key Highlights:

    • Air Quality Crisis: Delhi and the National Capital Region face a severe air pollution crisis, with the Air Quality Index (AQI) touching 500, prompting various restrictions and interventions.
    • Global Air Pollution Concerns: Air pollution is a global issue, affecting low- and middle-income countries the most. The World Health Assembly Resolution 68.8 emphasizes addressing the health impact of air pollution, highlighting its role in millions of global deaths.
    • India’s Efforts: The National Clean Air Programme (NCAP) launched in 2019 aims to reduce PM10 and PM2.5 concentrations by 20-30% by 2024 through diverse interventions targeting vehicular pollution, industrial emissions, waste management, and more.
    Let’s revise for prelims

     

    India’s National Clean Air Programme (NCAP)

     

    Ministry Under Which NCAP Operates: Operated under the Ministry of Environment, Forest and Climate Change (MoEFCC).

     

    Establishment and Jurisdiction: Launched in 2019 to address air pollution and improve air quality. Encompasses various interventions to reduce pollution levels.

     

    Objective: Aims to achieve a 20-30% reduction in concentrations of PM10 and PM2.5 by 2024 (base year, 2017).

     

    Key Components: Focuses on reducing vehicular pollution through regulatory norms. Promotes public transport and enhances infrastructure. Addresses industrial emissions, waste management, and stubble burning.

     

    Legal Framework: Aligned with existing environmental laws and regulations. Operates within the framework of the Environment (Protection) Act, 1986.

    Challenges:

    • Health Impact: Air pollution, laden with pollutants like PM2.5, leads to severe health consequences, including cancer, cardiovascular diseases, respiratory issues, and neurological disorders.
    • Vulnerability of Children: Children are particularly vulnerable due to developing lungs, higher exposure, and increased susceptibility to neurotoxic compounds, leading to various health issues.
    • Social Gradient in Exposure: Studies indicate that air pollution often exhibits a social gradient, impacting marginalized communities more, challenging the notion that it affects everyone equally.

    Key Phrases:

    • Air Quality Index (AQI): Measures air pollution levels, categorized into ranges with associated health advisories. Delhi’s AQI touching 500 signifies hazardous air quality.
    • NCAP: India’s National Clean Air Programme, launched to combat air pollution, emphasizing reductions in PM10 and PM2.5 concentrations through diverse strategies.
    • One Health Approach: Recognizes the interconnectedness of human, animal, and environmental health, urging comprehensive actions to address the impact of land, air, and water use on well-being.

    Analysis:

    • Global Concerns: Nearly 90% of the global population breathes air exceeding prescribed pollution limits, with low- and middle-income countries facing the most significant impact.
    • NCAP Effectiveness: The NCAP outlines specific interventions to combat air pollution, but the effectiveness of measures like the odd-even scheme in Delhi is debated, with studies showing mixed results.

    Key Data:

    • Health Impact: Air pollution contributes to chronic diseases and cancer, with a third of deaths from major diseases linked to air pollution, rivaling the impact of smoking.
    • Global Scenario: Delhi ranked as the most polluted city globally in terms of fine particulate matter, emphasizing the urgent need for comprehensive air quality management.

    Way Forward:

    • Stringent Standards: Evolve more stringent air quality standards, considering the absence of safe thresholds, especially for particulates and ozone.
    • Airshed-Centric Approach: Transition from city-centric to airshed-centric air quality management, recognizing the local factors affecting pollutant dispersion.
    • Global Cooperation: Leverage international platforms like the G20 to address pollution in the context of climate action and promote a One Health approach globally.

    In essence, the article underscores the critical need for immediate and comprehensive measures to combat the escalating air pollution crisis, emphasizing the global and local impact on health and the environment.

  • Unraveling the Mystery of Ball Lightning

    Ball Lightning

    Central Idea

    • Ball lightning, an intriguing natural phenomenon characterized by luminous spherical objects appearing during thunderstorms, has intrigued observers for generations.
    • They are sometimes accompanied by hissing sounds and unusual odors, adding to the mystery surrounding their origin and behavior.

    Understanding Lightning and Ball Lightning

    • Normal lightning: Lightning is a natural electrical discharge that occurs due to differences in electrical charges within clouds or between clouds and the Earth’s surface during storms.
    • Ball Lightning: Ball lightning has been documented in historical records, with instances dating back to 1638 when a “great ball of fire” entered an English church through a window, hinting at its potential danger.
    • Scientific Recognition: While debates persist, most scientists acknowledge the existence of ball lightning, even though its underlying mechanisms are not fully understood.
    • Chinese Research: A study conducted by researchers from Lanzhou’s Northwest Normal University in 2012 inadvertently captured a ball lightning event during a thunderstorm. Their findings confirmed the presence of elements such as silicon, iron, and calcium in the luminous sphere, matching the composition of local soil.

    Possible Causes of Ball Lightning

    • Ground Strike Theory: Some scientists propose that ball lightning may result from ground strikes, initiating chemical reactions between oxygen and vaporized soil elements. This process creates ionized air or plasma, resembling phenomena like St. Elmo’s Fire.
    • Glass-Related Hypothesis: Another theory suggests that ball lightning might form due to the buildup of atmospheric ions on glass surfaces, creating an electrical field capable of generating discharges.
    • Microwave Radiation: An alternative theory posits that ball lightning could be linked to microwave radiation produced when lightning strikes the Earth’s surface, potentially encapsulating it in a plasma bubble.

    Association with Earthquakes

    • In rare instances, ball lightning has been observed in connection with earthquakes, displaying as bluish flames, sudden bright flashes from the ground, or floating orbs.
    • A 2014 study exploring earthquake lights proposed that specific rock types release electrical charges during seismic waves, leading to luminous displays.

  • Dam Safety Act 2021

    hydel dam safety

    Central Idea

    • India boasts nearly 6,000 large dams, but concerns loom over the safety of these structures, with approximately 80% of them being over 25 years old and posing safety risks.
    • With numerous large dams and hydropower projects, the Himalayas play a crucial role in meeting India’s energy needs.
    • However, the recent incident of a Glacial Lake Outburst Flood (GLOF) in North Sikkim has raised alarm bells about the safety of these structures.

    Hydropower boom in the Himalayas

    • As of November 2022, the Himalayan states and Union territories, excluding West Bengal, had 81 large hydropower projects (above 25 MW) in operation, with 26 more under construction.
    • An additional 320 large projects are in the planning stages, according to the Central Electricity Authority under the Union Ministry of Power.

    Discussion: Dam Safety in the Himalayas

    • Vulnerability to Natural Hazards: The Himalayas are highly susceptible to natural hazards such as earthquakes, landslides, and GLOFs due to their complex geological and topographical features. These hazards can jeopardize the integrity of dams and reservoirs.
    • High Population Density: The Himalayan region is densely populated, with communities residing downstream of dams and hydropower projects. A dam failure can have devastating consequences on human lives and property.
    • Ecological Sensitivity: The Himalayas are an ecologically fragile region with unique biodiversity. A dam failure can lead to environmental disasters, impacting delicate ecosystems.

    Repercussions

    • Climate Change: The melting of glaciers due to global warming contributes to the formation of glacial lakes. As these lakes grow, the risk of GLOFs increases, putting downstream infrastructure at risk.
    • Snowball Effects: Landslide dams can lead to impounding of lakes, landslide-induced floods, secondary landslides, channel avulsion, and the formation of flood terraces downstream, impacting communities and infrastructure.
    • Delayed Impacts: Run-of-the-river projects, which often bypass large-scale displacement and forest diversion, have been promoted as environmentally friendly. However, their underground components can disturb geology and geohydrology, leading to indirect displacement and environmental impacts.
    • Aging Infrastructure: Many dams and hydropower projects in the Himalayas are aging, with approximately 80% of them over 25 years old. Proper maintenance and monitoring are essential to ensure their safety.

    Dam Safety Act, 2021 and its Provisions

    • The DSA was introduced in response to dam failures caused by deficient surveillance and maintenance.
    • It establishes key responsibilities and requires the formation of national and state-level bodies for its implementation.
    • The Act outlines the following provisions:
    1. National Committee on Dam Safety: Responsible for overseeing dam safety policies and regulations.
    2. National Dam Safety Authority: Tasked with implementing and resolving state-level disputes.
    3. Chairman of the Central Water Commission (CWC): Heads dam safety protocols at the national level.
    4. State Committee on Dam Safety (SCDS) and State Dam Safety Organisation (SDSO): To be established at the state level.

    Challenges in DSA Implementation

    • Inadequate Risk Assessment: Experts argue that the DSA does not encourage risk-based decision-making and lacks transparency incentives.
    • Transparency Concerns: Dam safety should be a public function, with information readily accessible. However, transparency is impeded when government employees and project engineers dominate national and state bodies, potentially compromising objective decision-making.

    Lessons Learned from Recent Incidents

    • Comprehensive Risk Assessment: Dam safety protocols must include comprehensive risk assessments that consider factors such as climate change, geological stability, and the potential for GLOFs. Periodic reviews yield updated inundation maps and rule curves for reservoir capacity.
    • Hazard Profiling Issues: Hazard risk is influenced by climate change, urbanization, and water usage patterns. Periodic reviews should yield updated inundation maps and rule curves for reservoir capacity. Unfortunately, these reviews are often overlooked or findings are not made publicly available.
    • Standardized Safety Evaluation: The DSA mandates comprehensive dam safety evaluations but lacks standardization in how failures are analyzed and reported.
    • Transparent Reporting: Transparency in dam safety is paramount. The DSA should be implemented rigorously, with an emphasis on transparent reporting of dam failures and safety assessments.
    • Community Involvement: Local communities should be actively engaged in dam safety measures. They can provide valuable insights into the environmental and social impacts of such projects.

    Way Forward

    • Early Warning Systems: Establishing advanced early warning systems that can detect GLOFs and other potential hazards is crucial. These systems can save lives and minimize damage.
    • Regular Maintenance: Aging infrastructure must undergo regular maintenance and upgrades to ensure their continued safety and functionality.
    • International Collaboration: Given the transboundary nature of the Himalayan region, international collaboration on dam safety and disaster management is essential. Neighboring countries should work together to mitigate shared risks.

  • Why are Earthquakes so frequent in Afghanistan?

    Afghanistan

    Central Idea

    • On October 15, Afghanistan was struck by a formidable earthquake with a magnitude of 6.3, adding to the woes of a nation still reeling from a series of devastating quakes just days earlier.
    • This recent seismic activity reflects Afghanistan’s turbulent history of earthquakes, often with catastrophic consequences.

    Understanding Earthquakes

    • Tectonic Plate Movement: The Earth’s lithosphere consists of tectonic plates that move due to internal heat energy. Fault lines are formed along the discontinuities where these plates interact.
    • Earthquake Mechanism: Earthquakes occur when these lithospheric plates suddenly slip past one another, releasing energy that propagates as seismic waves. The point where the slip starts is known as the focus or hypocenter, with the epicenter being its surface projection.

    earthquake

    What exactly causes Earthquakes?

    • As we know, the earth’s outermost surface, crust, is fragmented into tectonic plates.
    • The edges of the plates are called plate boundaries, which are made up of faults.
    • The tectonic plates constantly move at a slow pace, sliding past one another and bumping into each other.
    • As the edges of the plates are quite rough, they get stuck with one another while the rest of the plate keeps moving.
    • Earthquake occurs when the plate has moved far enough and the edges unstick on one of the faults.
    • The location below the earth’s surface where the earthquake starts are called the hypocenter, and the location directly above it on the surface of the earth is called the epicentre.

    Afghanistan’s Seismic Vulnerability

    • Tectonic Plate Intersection: Afghanistan’s location atop the convergence of the Indian and Eurasian tectonic plates results in frequent seismic activity.
    • Eurasian Plate: Afghanistan sits on the Eurasian Plate, with the Arabian Plate subducting northward in the west and the Indian Plate doing the same in the east.
    • Complex Geology: The Hindu Kush mountain range and the Pamir Knot add complexity to this geological region, leading to folding, faulting, and earthquakes.
    • Continual Compression: The northward movement of the Indian Plate toward Eurasia causes compression, uplifting the Himalayas, and transmitting tectonic stress. This leads to crustal deformation, faulting, and seismic activity.
    • Active Fault Systems: Afghanistan is intersected by active fault systems like the Chaman Fault and the Main Pamir Thrust, which are prolific sources of earthquakes.

    History of Earthquake Afghanistan

    • October 11 Quakes: In October 2023, a series of powerful earthquakes, including a magnitude 6.3 tremor, wreaked havoc in Herat province, claiming the lives of at least a thousand people.
    • June 2022 Tragedy: A magnitude 6.1 earthquake in Khost and Paktika provinces in June 2022 left over 1,000 casualties.
    • 2015 Catastrophe: A major earthquake in northeastern Afghanistan in 2015 claimed over 200 lives in Afghanistan and northern Pakistan.
    • 2002 Devastation: A 6.1-magnitude earthquake in 2002 resulted in approximately 1,000 casualties in northern Afghanistan.
    • 1998 Disaster: In 1998, northeast Afghanistan experienced a catastrophic earthquake and subsequent tremors, causing the loss of at least 4,500 lives.

  • Southwest Monsoon begins early Withdrawal/Retreat

    monsoon

    Central Idea

    • India Meteorological Department (IMD) has announced withdrawal of the monsoon.

    What is Monsoon Withdrawal/Retreat?

    • In India, retreating monsoon is the withdrawal of south-west monsoon winds from North India.
    • The withdrawal is gradual and takes about three months.
    • With the retreat of the monsoons, the clouds disappear and the sky becomes clear. The day temperature starts falling steeply.
    • Monsoon rains weaken all over India except few southeastern states.
    • It is helpful in Rabi crop cultivation.

    Factors affecting the retreat

    Two predominant factors cause the phenomenon:

    (1) Land topography

    • First, the low mountain range in each region runs from north to south, shielding it from west-bound winds that trigger summer monsoon.
    • After summer, the range aids in the ‘orographic lift’ or rising of east-bound air mass from a lower to higher elevation, forming clouds and resulting in rain.

    (2) Atmospheric convection

    • The second factor is atmospheric convection or vertical movement of air.
    • As the earth is heated by the sun, different surfaces absorb different amounts of energy and convection may occur where the surface heats up very rapidly.
    • As the surface warms, it heats the overlying air, which gradually becomes less dense than the surrounding air and begins to rise.
    • This condition is more favorable from September to February because of the role played by sea surface temperature or water temperature.

    Immediate factors influencing withdrawal

    • The withdrawal of the monsoon is based on meteorological conditions such as-
    1. Anti-cyclonic circulation (dry air that is the opposite of a cyclone)
    2. Absence of rain in the past five days and
    3. Dry weather conditions over the region

    When does it occur?

    • The monsoon withdrawal is a long-drawn process and extends into mid-October, though the IMD considers September 30 to be the final day of the season over India.
    • The rain after that is categorised as “post-monsoon” rainfall.

  • Places in news: Gurez Valley

    gurez valley

    Central Idea

    • The high-altitude passes within the Gurez valley, located in northern Kashmir, are now linked to the Mushkoh valley in the Drass Sector of Kargil, Ladakh. This region was a significant site during the 1999 war.
    • The newly established 130-kilometer road has been opened to tourists, and one of its highest passes, Kaobal Gali, situated at an elevation of 4,166.9 meters in Gurez, serves as the vital link connecting these two valleys.

    About Gurez Valley

    • Found in the Kashmir valley, Gurez is positioned near the Line of Control, which separates it from Pakistan-administered Kashmir’s Astore and Neelum districts.
    • The local inhabitants are primarily ethnic Dards/Shins who speak the Shina language and share similar dress and cultural traditions with their counterparts in Pakistani-administered Gilgit-Baltistan.
    • The Buduaab village within Gurez valley is known for its Zumba yak, a smaller breed compared to other yaks.
    • Gurez valley played a significant role in the Kargil war.
    • It is closely situated to the Line of Control (LoC), with the Kishanganga river delineating the border in multiple areas.
    • Unique to the Gurez valley is the presence of villages constructed entirely of log houses, devoid of modern urban construction materials.
    • The region boasts diverse fauna and wildlife, including species such as the Himalayan brown bear, snow leopard, ibex, musk deer, and marmots.
    • With approximately 38,000 inhabitants, the Gurez valley has already welcomed an impressive 50,000 tourists this year.

    Back2Basisc: Mushkoh Valley

    • Located in Dras, Ladakh, the Mushkoh valley is also renowned as the “valley of wild tulips.”
    • The valley gained notoriety due to the fierce battle at Tiger Hill during a conflict between India and Pakistan, resulting in numerous casualties on both sides.
    • Mushkoh valley’s meadows are adorned with vibrant wild tulip flowers, and it is home to the endangered Himalayan yew.

  • Assistance to States during Natural Disasters: How It Works

    Central Idea

    • In the wake of natural disasters, states often request assistance from the central government.
    • Himachal Pradesh CM recently requested for a special disaster relief package and urged the designation of the calamity as a ‘national disaster.’

    Natural Disaster Mitigation in States

    • Legal Framework: The 2005 Disaster Management Act provides the legal framework for addressing disasters, whether natural or man-made.
    • Defining disaster: It defines a “disaster” as an event causing substantial loss of life, human suffering, property damage, or environmental degradation beyond the community’s coping capacity.
    • National Disaster Management Authority (NDMA): The Act established the NDMA, headed by the Prime Minister, and State Disaster Management Authorities (SDMAs) led by Chief Ministers. These bodies, along with district-level authorities, form an integrated disaster management setup in India.
    • National Disaster Response Force (NDRF): The Act led to the creation of the NDRF, comprising several battalions or teams responsible for on-ground relief and rescue operations in various states.

    Understanding the National Disaster Relief Fund (NDRF)

    • Mention in the Act: The NDRF is referenced in the 2005 Disaster Management Act and plays a crucial role in providing disaster relief.
    • State Disaster Relief Funds (SDRFs): States have their own SDRFs, which are the primary funds available for responding to notified disasters. The Central Government contributes 75% to SDRFs in general states and 90% in northeastern and Himalayan states.
    • Utilization of SDRFs: SDRFs are allocated for immediate relief efforts following notified calamities, including cyclones, droughts, earthquakes, fires, floods, tsunamis, and more.
    • Central Assistance: In the event of a severe calamity where state SDRF funds are insufficient, additional central assistance can be provided by the National Disaster Response Fund (NDRF).

    Who determines a Severe Calamity?

    • Procedure: States follow a specific procedure to classify a calamity as “severe.” This involves submitting a memorandum detailing sector-wise damage and fund requirements. An inter-ministerial central team assesses the damage on-site.
    • Committee Approval: Specific committees review these assessments and submit reports. A High-Level Committee must approve the immediate relief amount to be released from the NDRF.
    • Criteria: The classification of a calamity as “severe” considers factors such as intensity, magnitude, assistance needs, and more.

    Additional Funds for Disaster Mitigation

    • Funds Allocation: Funds for NDRF and SDRFs, allocated for preparedness, mitigation, and reconstruction, are part of budgetary allocations.
    • Financing mechanism: The 15th Finance Commission introduced a new methodology for state-wise allocations, considering factors like past expenditure, risk exposure, hazard, and vulnerability.
    • Utilization: NDRF and SDRF funds are released in two equal instalments, typically with requirements like Utilization Certificates. However, in urgent situations, these requirements can be waived.
    • State Disaster Mitigation Fund (SDMF): This fund supports activities such as forest restoration and public awareness. It received an allocation of Rs 32,030 crore from the 15th Finance Commission.
    • National Disaster Mitigation Fund (NDMF): The NDMF, amounting to Rs 13,693 crore, is dedicated to national disaster mitigation efforts.