The 2015 South Indian floods were caused by heavy rainfall from the annual Northeast monsoon in November-December 2015. Two weather systems brought days of continuous rain that flooded low-lying areas of Chennai, resulting in over 400 deaths across Tamil Nadu. Relief efforts were launched by state and national authorities, but were initially criticized for their inadequate response. Widespread damage to homes and infrastructure was reported, along with disruptions to basic services and the economy.
This document discusses the causes of flooding in Chennai, India. It provides background on Chennai's climate and geography, noting that the city receives heavy rainfall during monsoon season and contains two rivers. Urbanization has decreased drainage capacity through encroachment on water bodies and increased impermeable surfaces. The city's flat terrain also hinders drainage. The 2015 floods were particularly severe due to strong northeast monsoon winds and an El Niño effect that increased rainfall. Releases from the Chembarambakkam reservoir overwhelmed existing drainage systems and flooded parts of the city. The document recommends delineating flood zones, improving drainage infrastructure, and increasing public awareness of flood risks.
The flooding in Chennai caused over Rs. 8,000 crore in preliminary damage and an estimated Rs. 100,000 crore loss. Over 60,000 hectares of farmland was destroyed and around 400 people died while 18 lakh people were evacuated. The city recorded over 1200 mm of rainfall in November, breaking 100-year records. Natural flood protections like marshes and lakes have been reduced in size or replaced with developments, damaging Chennai's drainage infrastructure and making floods more severe. A corporation official was fired for fining contractors who built poor quality roads that exacerbated flooding.
The disaster management and the details about the floods that occurred in Chennai City in the month of November-December 2015 were clearly discussed in the presentation.
A depression formed over the Bay of Bengal intensified into a deep depression, causing heavy to very heavy rainfall over many parts of Tamil Nadu from November 8th to 9th, including Chennai. Chennai received 25cm of rain within 24 hours, flooding many areas. The heavy rains disrupted daily life and caused shortages of essential supplies and services. Industrial and economic losses from the floods were estimated to be between 10,000 to 15,000 crore (US$1.52 billion to US$2.27 billion).
Heavy rainfall from the Northeast monsoon in November-December 2015, exacerbated by the El Niño phenomenon, caused severe flooding in the cities of Chennai and surrounding areas of Tamil Nadu. Over 400 people were killed and more than 18 lakh people were displaced from their homes. Chennai received 246.5 mm of rainfall over two days, the highest amount since 2005, flooding most areas of the city and requiring the evacuation of over 1,000 people. Relief and rescue efforts involved military and disaster response teams who helped rescue over 40,000 people. The floods caused widespread damage estimated at $7-15 billion and disrupted daily life.
The document provides details about the Chennai floods of 2015. It describes how Chennai received over 33 cm of rain in a 24-hour period from December 1-2, causing widespread flooding and damage. Over 500 people lost their lives. The document examines factors like heavy rainfall, changes in weather patterns from global warming, destruction of wetlands, improper sewage and drainage systems, and human development that exacerbated the flooding in Chennai. It provides statistics on rainfall amounts, discusses the city's geology and infrastructure, and analyzes the impacts and response to the floods.
The document summarizes a case study on the 2013 Uttarakhand floods in India. It describes how heavy rainfall from June 14-17, over 375% of the average, caused devastating floods and landslides. The melting of the Chorabari Glacier triggered flooding of the Mandakini River. Over 800 people died and infrastructure like roads and buildings were damaged. Both natural factors like heavy rainfall and landslides, as well as man-made factors like deforestation, construction of hydroelectric projects, and lack of disaster management planning, contributed to the severe impacts of the floods.
The 2015 Nepal earthquake occurred on April 25th with a magnitude of 7.8. It killed over 6,700 people and injured over twice as many. The earthquake destroyed many UNESCO World Heritage sites in Kathmandu, including buildings at the Kathmandu, Patan, and Bhaktapur Durbar Squares. It also triggered avalanches on Mount Everest that killed at least 19 climbers, making it the deadliest day in Everest's history. The earthquake severely damaged Nepal's infrastructure and economy, which was already one of Asia's poorest countries.
This document discusses the causes of flooding in Chennai, India. It provides background on Chennai's climate and geography, noting that the city receives heavy rainfall during monsoon season and contains two rivers. Urbanization has decreased drainage capacity through encroachment on water bodies and increased impermeable surfaces. The city's flat terrain also hinders drainage. The 2015 floods were particularly severe due to strong northeast monsoon winds and an El Niño effect that increased rainfall. Releases from the Chembarambakkam reservoir overwhelmed existing drainage systems and flooded parts of the city. The document recommends delineating flood zones, improving drainage infrastructure, and increasing public awareness of flood risks.
The flooding in Chennai caused over Rs. 8,000 crore in preliminary damage and an estimated Rs. 100,000 crore loss. Over 60,000 hectares of farmland was destroyed and around 400 people died while 18 lakh people were evacuated. The city recorded over 1200 mm of rainfall in November, breaking 100-year records. Natural flood protections like marshes and lakes have been reduced in size or replaced with developments, damaging Chennai's drainage infrastructure and making floods more severe. A corporation official was fired for fining contractors who built poor quality roads that exacerbated flooding.
The disaster management and the details about the floods that occurred in Chennai City in the month of November-December 2015 were clearly discussed in the presentation.
A depression formed over the Bay of Bengal intensified into a deep depression, causing heavy to very heavy rainfall over many parts of Tamil Nadu from November 8th to 9th, including Chennai. Chennai received 25cm of rain within 24 hours, flooding many areas. The heavy rains disrupted daily life and caused shortages of essential supplies and services. Industrial and economic losses from the floods were estimated to be between 10,000 to 15,000 crore (US$1.52 billion to US$2.27 billion).
Heavy rainfall from the Northeast monsoon in November-December 2015, exacerbated by the El Niño phenomenon, caused severe flooding in the cities of Chennai and surrounding areas of Tamil Nadu. Over 400 people were killed and more than 18 lakh people were displaced from their homes. Chennai received 246.5 mm of rainfall over two days, the highest amount since 2005, flooding most areas of the city and requiring the evacuation of over 1,000 people. Relief and rescue efforts involved military and disaster response teams who helped rescue over 40,000 people. The floods caused widespread damage estimated at $7-15 billion and disrupted daily life.
The document provides details about the Chennai floods of 2015. It describes how Chennai received over 33 cm of rain in a 24-hour period from December 1-2, causing widespread flooding and damage. Over 500 people lost their lives. The document examines factors like heavy rainfall, changes in weather patterns from global warming, destruction of wetlands, improper sewage and drainage systems, and human development that exacerbated the flooding in Chennai. It provides statistics on rainfall amounts, discusses the city's geology and infrastructure, and analyzes the impacts and response to the floods.
The document summarizes a case study on the 2013 Uttarakhand floods in India. It describes how heavy rainfall from June 14-17, over 375% of the average, caused devastating floods and landslides. The melting of the Chorabari Glacier triggered flooding of the Mandakini River. Over 800 people died and infrastructure like roads and buildings were damaged. Both natural factors like heavy rainfall and landslides, as well as man-made factors like deforestation, construction of hydroelectric projects, and lack of disaster management planning, contributed to the severe impacts of the floods.
The 2015 Nepal earthquake occurred on April 25th with a magnitude of 7.8. It killed over 6,700 people and injured over twice as many. The earthquake destroyed many UNESCO World Heritage sites in Kathmandu, including buildings at the Kathmandu, Patan, and Bhaktapur Durbar Squares. It also triggered avalanches on Mount Everest that killed at least 19 climbers, making it the deadliest day in Everest's history. The earthquake severely damaged Nepal's infrastructure and economy, which was already one of Asia's poorest countries.
The document summarizes a 2010 flash flood that occurred in Leh, India due to a cloudburst. It discusses how cloudbursts can cause rapid flooding and the effects of flash floods. It then details the specific 2010 Leh flash flood, which resulted in over 255 deaths after heavy rains fell overnight. The aftermath section describes the widespread damage and efforts to provide relief and rescue those affected. Prevention methods like flood control infrastructure are also outlined.
The June 2013 floods and landslides in the northern Indian state of Uttarakhand were one of India's worst natural disasters, killing over 5,000 people. Heavy rainfall of over 375% of the average triggered flooding and melting glaciers, devastating towns along rivers like the Mandakini. Unplanned development including road construction and hydroelectric projects disrupted the fragile Himalayan ecology and contributed to the scale of the disaster. The government was unprepared for an event of this magnitude, and rescue operations took days to reach thousands of stranded pilgrims.
Brief Description of Kerala Flood of 2018
and In starting some flood infomation is also discussed
and also given information about donation by diffferent peoples and commpanys and states.
The document discusses the 2013 Uttarakhand floods in India. It provides an overview of Uttarakhand and describes the heavy rainfall and flooding that occurred in June 2013, which led to widespread destruction and over 5,000 deaths. It also discusses the economic and infrastructure damage caused, rescue efforts, and potential causes of the disaster like glacial melting, deforestation, and hydroelectric construction.
This PowerPoint Presentation is about the devastating floods that Chennai met in the year 2015. This PowerPoint Presentation is sure to make awareness about the hazards that Chennai faces in the near future.
The document summarizes a study on the 2010 flash flood in Leh, Ladakh, India that killed over 200 people. It describes the topography and climate of Ladakh, and notes that increased temperatures have caused glaciers to recede and tributaries to change course, threatening villages. It discusses the specific conditions that led to the 2010 flood - increased rainfall, snowmelt, and a cloud burst that dropped 14 inches of rain in 2 hours. The flood damaged over 1,000 homes and killed many people. Relief efforts included search and rescue, food and supplies, and temporary housing. The traditional resilience of Ladakhi people helped in recovery.
The document discusses urban flooding causes and management. It notes that heavy rainfall in Andhra Pradesh in September-October 2009 caused widespread flooding that displaced over 1.3 million people and killed 199. Flooding is caused by both natural factors like heavy rainfall and silted drainage systems, as well as human factors such as urbanization, deforestation, and lack of proper drainage infrastructure. Flood management requires reducing exposure to floods through land use planning, improving drainage systems, and implementing preparedness, response and recovery measures at the national, state, district and local levels in accordance with the Disaster Management Act of 2005.
The document discusses the devastating floods and landslides that occurred in Uttarakhand, India in June 2013. It summarizes that over 5,700 people were presumed dead and thousands were trapped after heavy rainfall led to flash flooding and the melting of glaciers. Environmentalists argue that the human activities like unregulated construction, mining, deforestation, and over 200 hydroelectric projects disrupted the region's fragile ecology and exacerbated the effects of the extreme rainfall. The disaster highlighted the need for better disaster management plans, regulation of development, and preparation for climate change impacts in the Himalayan region.
Case Study: Bhuj earth quake 26 th january 2001Parth Pandya
The 2001 Bhuj earthquake in Gujarat, India was a devastating 7.7 magnitude earthquake with its epicenter near Bhuj. It caused over 20,000 deaths and widespread destruction across western Gujarat. The towns of Bhuj and Bhachau suffered the most damage, with over 90% of buildings destroyed in Bhuj. Critical infrastructure like hospitals, roads, bridges, power and water systems were severely damaged. Over 300,000 families were left homeless. The earthquake response involved massive relief and rebuilding efforts by the Indian government, NGOs, and international aid organizations to provide emergency shelter, supplies, and rebuild damaged communities.
Floods in Kerala in 2018 were caused by heavy monsoon rainfall that submerged land and displaced thousands of people. Over 483 people died when dams were opened and landslides occurred, flooding villages and destroying homes and infrastructure. The floods impacted over 1.2 million people who sought shelter in relief camps with disrupted basic services like water, electricity and transportations. The government and aid organizations worked to provide relief and recover from the damaging floods.
A disaster is a sudden, calamitous event that seriously disrupts the functioning of a community or society and causes human, material, and economic or environmental losses that exceed the community’s or society’s ability to cope using its own resources. Most disasters are caused by natural termed as natural disasters but sometimes they have human origins and they are called as man-made disasters
The 2005 Bombay floods caused over 1,000 deaths in Mumbai, India. Heavy rainfall of over 900 mm in 24 hours overwhelmed the city's drainage systems and caused widespread flooding. The flooding contaminated water supplies and increased health risks like cholera and malaria. It severely impacted transportation and businesses, causing estimated losses of over 550 crore rupees. Studies were conducted to improve Mumbai's drainage infrastructure and make it more resilient to flooding going forward.
The floods in Mumbai were caused by extremely heavy rainfall of 944 mm in 24 hours, the eighth heaviest on record. The drainage system was clogged and uncontrolled development had replaced natural buffers with buildings, affecting water flow. Over 445 people lost their lives and thousands of residences and businesses were partially or fully damaged. Roads were flooded and submerged. The government and common citizens worked together to provide relief and restore normal life within 24 hours, though the government sought sustainable solutions to address the city's drainage problems.
The document discusses the Uttarakhand disaster of June 2013, when heavy rainfall caused devastating floods and landslides in the Indian state. It provides context on Uttarakhand's geography and describes how unusually heavy monsoon rains, combined with melting glaciers, caused rivers to overflow their banks, resulting in widespread destruction of property, infrastructure, and loss of lives. Human activities like unregulated construction, mining, and tourism development are also identified as exacerbating factors that increased the region's vulnerability to natural disasters.
Cyclone Phailin caused widespread damage in Odisha in 2013. Over 256,600 homes were damaged and 13.2 million people across 18 districts were affected. Damage to infrastructure including roads, water systems, power grids and crops totaled over 15,000 million rupees. Assessments found needs including 5,417 million for temporary housing, basic services and land acquisition, as well as rebuilding more resilient infrastructure like shelters, embankments and underground power lines to mitigate risks from future disasters.
It includes the major disasters that have occurred in India right from 16th century right until 2014. The presentation includes pictures and relevant maps which show the vulnerability of various regions to natural calamities. The maps have been taken from natural disaster management site
A tsunami is a series of waves caused by the displacement of a large volume of water, generally in an ocean or large lake. Earthquakes, volcanic eruptions, and other disturbances under water have the potential to generate tsunamis. The 2004 Indian Ocean tsunami was one of the deadliest natural disasters in recorded history, caused by an earthquake under the Indian Ocean with a magnitude of 9.1-9.3 that killed over 227,000 people across 14 countries, mostly in Indonesia, Sri Lanka, India, and Thailand. It highlighted the need for improved warning systems for tsunamis in the Indian Ocean.
The document discusses the 2013 floods in Uttarakhand, India. Heavy rainfall of over 375% of the average led to flooding and landslides that killed over 800 people. While initially deemed a natural disaster, the floods were exacerbated by unchecked development, deforestation, and construction of hydroelectric dams, which disrupted water flows. Rescue efforts involved thousands of personnel from the Indian Army, Air Force, and National Disaster Response Force. Remedies proposed included better management of tourism, coordinated disaster planning, and applying remote sensing to sustainably manage the Himalayan region's natural resources.
A powerful tsunami caused by an undersea earthquake in the Indian Ocean on December 26, 2004 killed over 230,000 people across 14 countries. The earthquake, rated between 9.1 and 9.3 on the Richter scale, generated 30-meter waves that destroyed coastal areas and was the third strongest and longest earthquake ever recorded, stopping the Earth's rotation for 3 seconds.
It is a presentation on Uttarakhand land slide and cloud burst happaned in 2013. It includes it reason of this happening, What happen, why happen, consicuenses and lessons which we can learn from it.
The document summarizes the heavy rainfall and widespread flooding that occurred in South India, particularly Chennai, Tamil Nadu in November 2015. It describes how a low pressure area developed into a deep depression bringing heavy rainfall of over 480mm in some areas over a few days. This caused major flooding in Chennai with over 1,000 people evacuated from their homes. The flooding was exacerbated by illegal development and inadequate flood preparedness. Over 70,000 people had to be rescued in Tamil Nadu and 122 deaths were reported due to the flooding.
The document summarizes a 2010 flash flood that occurred in Leh, India due to a cloudburst. It discusses how cloudbursts can cause rapid flooding and the effects of flash floods. It then details the specific 2010 Leh flash flood, which resulted in over 255 deaths after heavy rains fell overnight. The aftermath section describes the widespread damage and efforts to provide relief and rescue those affected. Prevention methods like flood control infrastructure are also outlined.
The June 2013 floods and landslides in the northern Indian state of Uttarakhand were one of India's worst natural disasters, killing over 5,000 people. Heavy rainfall of over 375% of the average triggered flooding and melting glaciers, devastating towns along rivers like the Mandakini. Unplanned development including road construction and hydroelectric projects disrupted the fragile Himalayan ecology and contributed to the scale of the disaster. The government was unprepared for an event of this magnitude, and rescue operations took days to reach thousands of stranded pilgrims.
Brief Description of Kerala Flood of 2018
and In starting some flood infomation is also discussed
and also given information about donation by diffferent peoples and commpanys and states.
The document discusses the 2013 Uttarakhand floods in India. It provides an overview of Uttarakhand and describes the heavy rainfall and flooding that occurred in June 2013, which led to widespread destruction and over 5,000 deaths. It also discusses the economic and infrastructure damage caused, rescue efforts, and potential causes of the disaster like glacial melting, deforestation, and hydroelectric construction.
This PowerPoint Presentation is about the devastating floods that Chennai met in the year 2015. This PowerPoint Presentation is sure to make awareness about the hazards that Chennai faces in the near future.
The document summarizes a study on the 2010 flash flood in Leh, Ladakh, India that killed over 200 people. It describes the topography and climate of Ladakh, and notes that increased temperatures have caused glaciers to recede and tributaries to change course, threatening villages. It discusses the specific conditions that led to the 2010 flood - increased rainfall, snowmelt, and a cloud burst that dropped 14 inches of rain in 2 hours. The flood damaged over 1,000 homes and killed many people. Relief efforts included search and rescue, food and supplies, and temporary housing. The traditional resilience of Ladakhi people helped in recovery.
The document discusses urban flooding causes and management. It notes that heavy rainfall in Andhra Pradesh in September-October 2009 caused widespread flooding that displaced over 1.3 million people and killed 199. Flooding is caused by both natural factors like heavy rainfall and silted drainage systems, as well as human factors such as urbanization, deforestation, and lack of proper drainage infrastructure. Flood management requires reducing exposure to floods through land use planning, improving drainage systems, and implementing preparedness, response and recovery measures at the national, state, district and local levels in accordance with the Disaster Management Act of 2005.
The document discusses the devastating floods and landslides that occurred in Uttarakhand, India in June 2013. It summarizes that over 5,700 people were presumed dead and thousands were trapped after heavy rainfall led to flash flooding and the melting of glaciers. Environmentalists argue that the human activities like unregulated construction, mining, deforestation, and over 200 hydroelectric projects disrupted the region's fragile ecology and exacerbated the effects of the extreme rainfall. The disaster highlighted the need for better disaster management plans, regulation of development, and preparation for climate change impacts in the Himalayan region.
Case Study: Bhuj earth quake 26 th january 2001Parth Pandya
The 2001 Bhuj earthquake in Gujarat, India was a devastating 7.7 magnitude earthquake with its epicenter near Bhuj. It caused over 20,000 deaths and widespread destruction across western Gujarat. The towns of Bhuj and Bhachau suffered the most damage, with over 90% of buildings destroyed in Bhuj. Critical infrastructure like hospitals, roads, bridges, power and water systems were severely damaged. Over 300,000 families were left homeless. The earthquake response involved massive relief and rebuilding efforts by the Indian government, NGOs, and international aid organizations to provide emergency shelter, supplies, and rebuild damaged communities.
Floods in Kerala in 2018 were caused by heavy monsoon rainfall that submerged land and displaced thousands of people. Over 483 people died when dams were opened and landslides occurred, flooding villages and destroying homes and infrastructure. The floods impacted over 1.2 million people who sought shelter in relief camps with disrupted basic services like water, electricity and transportations. The government and aid organizations worked to provide relief and recover from the damaging floods.
A disaster is a sudden, calamitous event that seriously disrupts the functioning of a community or society and causes human, material, and economic or environmental losses that exceed the community’s or society’s ability to cope using its own resources. Most disasters are caused by natural termed as natural disasters but sometimes they have human origins and they are called as man-made disasters
The 2005 Bombay floods caused over 1,000 deaths in Mumbai, India. Heavy rainfall of over 900 mm in 24 hours overwhelmed the city's drainage systems and caused widespread flooding. The flooding contaminated water supplies and increased health risks like cholera and malaria. It severely impacted transportation and businesses, causing estimated losses of over 550 crore rupees. Studies were conducted to improve Mumbai's drainage infrastructure and make it more resilient to flooding going forward.
The floods in Mumbai were caused by extremely heavy rainfall of 944 mm in 24 hours, the eighth heaviest on record. The drainage system was clogged and uncontrolled development had replaced natural buffers with buildings, affecting water flow. Over 445 people lost their lives and thousands of residences and businesses were partially or fully damaged. Roads were flooded and submerged. The government and common citizens worked together to provide relief and restore normal life within 24 hours, though the government sought sustainable solutions to address the city's drainage problems.
The document discusses the Uttarakhand disaster of June 2013, when heavy rainfall caused devastating floods and landslides in the Indian state. It provides context on Uttarakhand's geography and describes how unusually heavy monsoon rains, combined with melting glaciers, caused rivers to overflow their banks, resulting in widespread destruction of property, infrastructure, and loss of lives. Human activities like unregulated construction, mining, and tourism development are also identified as exacerbating factors that increased the region's vulnerability to natural disasters.
Cyclone Phailin caused widespread damage in Odisha in 2013. Over 256,600 homes were damaged and 13.2 million people across 18 districts were affected. Damage to infrastructure including roads, water systems, power grids and crops totaled over 15,000 million rupees. Assessments found needs including 5,417 million for temporary housing, basic services and land acquisition, as well as rebuilding more resilient infrastructure like shelters, embankments and underground power lines to mitigate risks from future disasters.
It includes the major disasters that have occurred in India right from 16th century right until 2014. The presentation includes pictures and relevant maps which show the vulnerability of various regions to natural calamities. The maps have been taken from natural disaster management site
A tsunami is a series of waves caused by the displacement of a large volume of water, generally in an ocean or large lake. Earthquakes, volcanic eruptions, and other disturbances under water have the potential to generate tsunamis. The 2004 Indian Ocean tsunami was one of the deadliest natural disasters in recorded history, caused by an earthquake under the Indian Ocean with a magnitude of 9.1-9.3 that killed over 227,000 people across 14 countries, mostly in Indonesia, Sri Lanka, India, and Thailand. It highlighted the need for improved warning systems for tsunamis in the Indian Ocean.
The document discusses the 2013 floods in Uttarakhand, India. Heavy rainfall of over 375% of the average led to flooding and landslides that killed over 800 people. While initially deemed a natural disaster, the floods were exacerbated by unchecked development, deforestation, and construction of hydroelectric dams, which disrupted water flows. Rescue efforts involved thousands of personnel from the Indian Army, Air Force, and National Disaster Response Force. Remedies proposed included better management of tourism, coordinated disaster planning, and applying remote sensing to sustainably manage the Himalayan region's natural resources.
A powerful tsunami caused by an undersea earthquake in the Indian Ocean on December 26, 2004 killed over 230,000 people across 14 countries. The earthquake, rated between 9.1 and 9.3 on the Richter scale, generated 30-meter waves that destroyed coastal areas and was the third strongest and longest earthquake ever recorded, stopping the Earth's rotation for 3 seconds.
It is a presentation on Uttarakhand land slide and cloud burst happaned in 2013. It includes it reason of this happening, What happen, why happen, consicuenses and lessons which we can learn from it.
The document summarizes the heavy rainfall and widespread flooding that occurred in South India, particularly Chennai, Tamil Nadu in November 2015. It describes how a low pressure area developed into a deep depression bringing heavy rainfall of over 480mm in some areas over a few days. This caused major flooding in Chennai with over 1,000 people evacuated from their homes. The flooding was exacerbated by illegal development and inadequate flood preparedness. Over 70,000 people had to be rescued in Tamil Nadu and 122 deaths were reported due to the flooding.
This document discusses planning and management for tsunamis, focusing on the 2004 Indian Ocean tsunami. It provides an overview of tsunamis, including what they are, their causes and characteristics. It then discusses the impacts of tsunamis, including major historical tsunamis and their effects in India. The document analyzes the areas affected and impacts of the 2004 tsunami in India, particularly in Tamil Nadu. It also examines the local, state and national response and policies related to disaster management and reconstruction in India.
The document summarizes the devastating floods and landslides that occurred in June 2013 in the Indian state of Uttarakhand due to heavy rainfall. Over 100,000 pilgrims and tourists were trapped as bridges and roads were destroyed. While some other parts of northern India and western Nepal also experienced heavy rainfall, over 95% of casualties occurred in Uttarakhand. The disaster was exacerbated by unchecked construction and lack of disaster preparedness in the state, despite warnings. Extensive damage occurred at several pilgrimage sites, and thousands remained stranded with homes and infrastructure destroyed.
The document summarizes the 2013 Himalayan tsunami that caused devastating floods and landslides in the Indian state of Uttarakhand from June 14-17. It describes how unusually heavy rainfall of over 375% of the normal amount, combined with other factors like construction, tourism development, and climate change, led to flash floods and landslides that caused widespread destruction and over 10,000 deaths. It discusses the emergency response and relief efforts by government agencies and militaries to conduct search, rescue and evacuation operations in the difficult terrain. It concludes that while heavy rainfall triggered the natural disaster, human activities like infrastructure development contributed greatly to its large scale impacts.
- India experiences frequent natural disasters such as floods, droughts, cyclones, earthquakes and heat waves due to its geographic location.
- Major floods in India between 2000-2019 killed over 79,000 people, with floods and hurricanes responsible for over 30% of deaths each.
- Some significant natural disasters in India in recent decades include the 2001 Gujarat earthquake that killed over 20,000, the 2018 Kerala floods that killed over 400, the 2015 South India floods that killed over 500, and cyclones such as the 1999 Odisha cyclone, Cyclone Amphan in 2020, and Cyclone Fani in 2019.
- Other disasters include the 1984 Bhopal gas tragedy that killed thousands due
Tsunami on 26th December,2004 Current National Disaster Management SystemDeepa Menon
The document summarizes India's national disaster management system. It describes how India is prone to many natural disasters like floods, droughts, cyclones, earthquakes, and tsunamis. It then discusses the 2004 Indian Ocean tsunami that struck India's east coast, killing over 12,000 people. Finally, it outlines India's national disaster management structure, led by the National Disaster Management Authority, and involving various central and state government agencies working together to prepare for and respond to disasters.
In light of Tropical Cyclone Phailin, the Yale-Tulane ESF #8 Planning and Response Program has produced a special report. The Yale-Tulane ESF #8 Program is a multi-disciplinary, multi-center, graduate-level, program designed to produce ESF #8 planners and responders with standardized skill sets that are consistent with evolving public policy, technologies, and best practices. The group that produced this summary and analysis of the current situation are graduate students from Yale and Tulane Universities.
First india lucknow edition-06 february 2021FIRST INDIA
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" How can there be ban only in Uttarakhand?
Just because we have the holy rivers and pilgrims come to our state? There should be uniform policy for all the states.
Why no such ban in Himachal Pradesh or Jammu and Kashmir?"...
This was the reaction of Uttarakhand CM Bahuguna when he had received the expert report on the area on the aftermath of flashfloods and landslides on Aug 2012, that had cut off the entire Bhatwari tehsil of Gangotri area, from the rest of the world...
The report mentioned how commercial interests are opening the gates to disaster . Several recommendations had been made including the complete ban of construction in the entire watershed around the 135 Km stretch between Gaumukh and Uttarkashi, along the Bhagirathi river (An eco-sensitive zone, Environment Protection Act, 1986)
Why did Bahuguna simply slept on these warnings that had predicted a certain doom well in advance ???????????
INFORMATION ABOUT JAMMU AND KASHMIR DISASTER IN 2014Social science projectKULDEEPSING PATIL
In September 2014, the Jammu & Kashmir region of India and Pakistan experienced devastating floods caused by heavy rainfall. Over 200 people died in India and 280 in Pakistan. In Kashmir Valley, over 190 deaths were reported and 2600 villages were affected, with 390 completely submerged. The floods inundated many parts of Srinagar city. Indian and Pakistani rescue efforts involved military, police, and disaster response teams evacuating over 200,000 people. The governments provided financial relief packages and assistance with temporary housing, food, and supplies to those affected by the floods.
Flash flood disaster like situation flood.pptxSomu Somu
India is highly vulnerable to floods, with over 40 million hectares of land flood-prone. An average of 75 lakh hectares is affected by floods annually, resulting in 1600 deaths and Rs. 1805 crores in damage. Flash floods occur rapidly, within 6 hours of heavy rain, and can have devastating impacts such as destruction of infrastructure. The 2013 Uttarakhand floods provide a case study, with over 5000 deaths resulting from heavy rain that triggered landslides and flash flooding. While natural, environmentalists believe construction and unplanned development exacerbated the impacts. Relief efforts required a coordinated response from multiple agencies.
This presentation gives a detailed information about the Supercyclone of Odisha which had occured in the year 1999. It gives detailed information about the cyclone and its impact on the Odisha state and what are the steps taken out after this disaster
The document summarizes the 2013 floods in Uttarakhand, India. Heavy rainfall from June 14th to 17th caused devastating floods and landslides, with over 375% of the average rainfall. The floods were worsened by man-made factors like unchecked construction, road building, hydroelectric dams disrupting water balances, and deforestation contributing to landslides. Over 800 people died and 1,800 were reported missing. The Indian armed forces launched massive search and rescue operations that evacuated over 18,000 people. The floods destroyed homes, bridges and roads across the state.
Uttarakhand, India is a mountainous state where 93% of the area is mountainous and 64% is forested. In June 2013, the state experienced extremely heavy rainfall, around 375% more than normal for the monsoon season, which caused devastating floods and landslides. Continuous rain also melted the Chorabari Glacier and flooded the Mandakini River. The floods near Gobindghat and other areas destroyed homes and infrastructure. Over 800 people were killed and over 1,800 remained missing after the disaster. The Indian military along with other agencies conducted search and rescue operations and the government provided financial relief.
Uttarakhand, India is a mountainous state where 93% of the area is mountainous and 64% is forested. In June 2013, the state experienced extremely heavy rainfall, around 375% more than normal for the monsoon season, which caused devastating floods and landslides. Continuous rain also melted the Chorabari Glacier and flooded the Mandakini River. The floods near Gobindghat and other areas destroyed homes and infrastructure. Over 800 people were killed and over 1,800 remained missing after the disaster. The Indian military along with other agencies conducted search and rescue operations and the government provided financial relief.
Heavy rainfall from 14-17 June 2013 in Uttarakhand, India caused flooding and landslides that killed over 70,000 people. The rainfall was about 375% more than normal. It led to the melting of glaciers and flooding of rivers. 365 houses were destroyed and 275 were partially damaged in Uttarakhand. Neighboring regions like Delhi, Uttar Pradesh, Himachal Pradesh, and Nepal were also affected, with over 120 deaths reported in Uttar Pradesh and over 1000 people made homeless in Nepal. Indian rescue forces conducted extensive search and rescue operations while the Prime Minister announced $170 million in aid.
The Post-Disaster Needs Assessment (PDNA) is an internationally accepted methodology for determining the physical damages, economic losses, and costs of meeting recovery needs after a natural disaster through a government-led process.
The document summarizes the effects of the 6.8 magnitude earthquake that struck Sikkim, India on September 18, 2011. It discusses how the earthquake caused widespread damage through landslides, road blocks, fallen boulders and flash floods. Over 60 lives were lost and hundreds were injured. Rescue efforts were complicated by heavy rains. The state government and central government launched relief operations with help from the army and other agencies. Infrastructure like roads, bridges, buildings and power systems suffered extensive damage. The earthquake had significant economic impacts for the state through disruption of employment, revenue and investment.
Evolving Lifecycles with High Resolution Site Characterization (HRSC) and 3-D...Joshua Orris
The incorporation of a 3DCSM and completion of HRSC provided a tool for enhanced, data-driven, decisions to support a change in remediation closure strategies. Currently, an approved pilot study has been obtained to shut-down the remediation systems (ISCO, P&T) and conduct a hydraulic study under non-pumping conditions. A separate micro-biological bench scale treatability study was competed that yielded positive results for an emerging innovative technology. As a result, a field pilot study has commenced with results expected in nine-twelve months. With the results of the hydraulic study, field pilot studies and an updated risk assessment leading site monitoring optimization cost lifecycle savings upwards of $15MM towards an alternatively evolved best available technology remediation closure strategy.
Optimizing Post Remediation Groundwater Performance with Enhanced Microbiolog...Joshua Orris
Results of geophysics and pneumatic injection pilot tests during 2003 – 2007 yielded significant positive results for injection delivery design and contaminant mass treatment, resulting in permanent shut-down of an existing groundwater Pump & Treat system.
Accessible source areas were subsequently removed (2011) by soil excavation and treated with the placement of Emulsified Vegetable Oil EVO and zero-valent iron ZVI to accelerate treatment of impacted groundwater in overburden and weathered fractured bedrock. Post pilot test and post remediation groundwater monitoring has included analyses of CVOCs, organic fatty acids, dissolved gases and QuantArray® -Chlor to quantify key microorganisms (e.g., Dehalococcoides, Dehalobacter, etc.) and functional genes (e.g., vinyl chloride reductase, methane monooxygenase, etc.) to assess potential for reductive dechlorination and aerobic cometabolism of CVOCs.
In 2022, the first commercial application of MetaArray™ was performed at the site. MetaArray™ utilizes statistical analysis, such as principal component analysis and multivariate analysis to provide evidence that reductive dechlorination is active or even that it is slowing. This creates actionable data allowing users to save money by making important site management decisions earlier.
The results of the MetaArray™ analysis’ support vector machine (SVM) identified groundwater monitoring wells with a 80% confidence that were characterized as either Limited for Reductive Decholorination or had a High Reductive Reduction Dechlorination potential. The results of MetaArray™ will be used to further optimize the site’s post remediation monitoring program for monitored natural attenuation.
Earth Day How has technology changed our life?
Thinkers/Inquiry • How has our ability to think and inquire helped to advance technology?
Vocabulary • Nature Deficit Disorder~ A condition that some people maintain is a spreading affliction especially affecting youth but also their adult counterparts, characterized by an excessive lack of familiarity with the outdoors and the natural world. • Precautionary Principle~ The approach whereby any possible risk associated with the introduction of a new technology is largely avoided, until a full understanding of its impact on health, environment and other areas is available.
What is technology? • Brainstorm a list of technology that you use everyday that your parents or grandparents did not have. • Compare your list with a partner.
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To Help OSHA 10 trainees to pass their pre-test and post-test we have prepared set of 390 question and answers called OSHA 10 Answers in downloadable PDF format. The OSHA 10 Answers question bank is prepared by our in-house highly experienced safety professionals and trainers. The OSHA 10 Answers document consists of 390 MCQ type question and answers updated for year 2024 exams.
3. Introduction
I have reviewed the 2015 South Indian Floods resulted from heavy rainfall generated
by the annual Northeast monsoon in November-December 2015.This review includes
the different factors which caused the calamity , the impact on human life and
governmental activities in the response of this disaster.
4. Background
Geographical and Meteorological
Explanation
From October to December each year, a very large area of
south India, includingTamil Nadu, the coastal regions of
Andhra Pradesh and the union territory of Puducherry,
receives up to 60 percent of its annual rainfall from
the northeast monsoon (or winter monsoon). Unlike
during the regular monsoon, rainfall during the northeast
monsoon is sporadic, but typically far exceeds the
amount produced by the regular monsoon by up to 90
percent.This excessive rainfall can be exacerbated by an
El Nino year, such as 2015.
The coastal districts of Andhra Pradesh usually bear the
brunt of heavy rains that occur during the northeast
monsoon; with numerous river systems and wetlands,
Puducherry and easternTamil Nadu are prone to
flooding.
In addition, unplanned and often illegal urban
development has led to many wetlands and natural sinks
being built over; this, along with ageing civic
infrastructure and poorly designed drainage systems, has
resulted in an increased frequency of severe flooding.
The Weather System
On 8 November 2015, during the annual cyclone season, a low
pressure area consolidated into a depression and slowly
intensified into a deep depression before crossing the coast
ofTamil Nadu, the following day. Because of land interaction
and high vertical wind shear, the system weakened into a well-
marked low pressure area over northTamil Nadu on 10
November.The system brought very heavy rainfall over the
coastal and the north interior districts ofTamil Nadu.
On 28–29 November, another system developed and arrived
overTamil Nadu on 30 November, bringing additional rain and
flooding. The mountains of Eastern Ghats blocked clouds
which came from Bay of Bengal from moving further inland.
The mechanism is referred to as 'upstream blocking'.
Therefore, they were stationary over Chennai throughout the
day.These clouds gave continuous rainfall over Chennai that
caused massive flooding.
5. Consequences of Flooding
• Continuing rains led to
low-lying parts of Chennai
becoming inundated ,
resulting in the evacuation
of over 1000 people from
their homes. The flooding
in Chennai city was
described as the worst in a
century.The continued
rains led to schools and
colleges remaining closed
across Puducherry and Che
nnai districts inTamil
Nadu, and fishermen were
warned against sailing
because of high waters
and rough seas.
6. • Due to the heavy
rain, the Southern
Railways cancelled major
train services and Chennai
International Airport was
closed until 6 December.
7. • At the MIOT Hospital, 14
patients died after power and
oxygen supplies failed. With a
let-up in rainfall, floodwaters
gradually began to recede in
Chennai on 4 December,
though 40 percent of the city's
districts remained submerged
and safe food and drinking
water remained in short
supply. Chennai Corporation
officials reported at least
57,000 homes in the city had
suffered structural damage,
mostly those of working
class pin codes. In January
2016, the state government
issued a detailed final
statement which said 421
people in Tamil Nadu had died
of flood-related causes
between 28 October, when the
first monsoonal rains had
arrived in earnest, through 31
December; however, relief
workers alone had reported
hundreds more who were
missing .
8. • The persistent rainfall and
flooding forced several major
automakers in the region,
including Ford, Renault, Nissan
and Daimler AG, to
temporarily halt production ,
resulting in estimated losses of
up to ₹1,000
crore (US$139 million). Many
major information technology
companies, including Infosys
and Tata Consultancy Services,
closed their offices and had
their employees work from
their homes, or transferred
operations to other locations
in cities including Pune and
Bengaluru.
• The Chennai real estate
market sustained an estimated
loss of nearly ₹30,000
crore (US$4.2 billion), while
over 20,000 small and medium
industrial units across Tamil
Nadu reported total losses of
over ₹14,000
crore (US$1.9 billion).
9. • Supplies of basic necessities,
including milk, water and
vegetables, were affected
due to logistical difficulties.
During the December floods
in Chennai and the adjoining
areas, milk packets sold
for ₹100(US$1.40), five
times more than their usual
cost. Prices of vegetables
and fruits significantly
increased, as over 50% of
supplies were affected after
numerous lorries were
stranded.
• According toTamil Nadu
government,30.42 Lakh
families had suffered total or
partial damage.3,82,768 lakh
hectares of crops had been
lost due to flooding
,roughly.98,000 livestock
animals and poultry had
died.
10. Relief Efforts
The Indian Coast Guard and the
three other branches of the Indian
Armed Forces conducted rescue
operations acrossTamil Nadu, with
the IndianArmy andAir Force
rescuing people in Kancheepuram
district.The IAF conducted 25
sorties inTamil Nadu and in
Andhra Pradesh, air-dropping
5000 kg of supplies and rescuing 25
stranded people before ceasing
operations on 20
November. Uninterrupted power
supply had been restored in 671 of
the 683 village panchayats in
Cuddalore district, with the
remaining panchayats supplied
with drinking water through
tanker lorries. 40 medical camps
and 121 special camps for cattle
stock had been constructed and 70
relief camps had distributed
58,000 food packets. Upwards of
5,335 people living in low-lying
areas had been evacuated and
over 90,000 food packets
distributed in 101 relief camps.
11. With the return of flooding and rains on 30 November, Prime Minister of India Narendra Modi assured all possible
help to Tamil Nadu on 1 December. The NDRF, the Coast Guard and the three other branches of the Indian Armed
Forces resumed the evacuation of stranded people. The Chennai City Police mobilised over 10,000 police officers
and trained swimmers, deploying drones across the city to locate upwards of 200 people, who were all rescued .
The NRDF had deployed 22 rescue teams to Tamil Nadu by the night of 2 December, and had rescued over 500
people.
Ravi Shankar Prasad, the Union Minister of Telecommunications said BSNL would provide free services through
the week . The National Crisis Management Committee (NCMC), chaired by Cabinet Secretary P.K. Sinha, sent
5000 litres of milk, 100,000 bottles of water, 7 tonnes of biscuits and 10 tonnes of instant noodles to Tamil Nadu on
4 December.
Tamil Nadu Chief Minister Jayalalithaa announced an initial allocation of ₹500 crore (US$70 million) for relief and
rehousing, with ₹4 lakh (US$5,571) for each family who had lost relatives in the floods. Opposition party Dravida
Munnetra Kazhagam (DMK) donated ₹1 crore (US$139,264) to the state government on behalf of the party. DMK
leader Karunanidhi however criticised the government's disbursement of ₹500 crore(US$70 million) as insufficient
considering the amount of damage resulting from the floods. He and local Communist Party of India state
secretary R Mutharasan urged efforts to obtain large amounts of federal disaster relief funding.
As of 10 December, the Tamil Nadu state government said roughly 17,16,000 (17.16 lakh) people had been
temporarily housed in 6,605 flood relief camps erected across the state, most of which were in Chennai,
Cuddalore,Thiruvallur and Kanchipuram districts.
12. On 5 December, Prime Minister Modi announced ex gratia payments of ₹2
lakh (US$2,785) to the next of kin of those who had lost their lives in the
floods, and ₹50,000 (US$696) each to those seriously injured.
Livestock losses would be compensated with ₹10,000 (US$139) (for losses of
cows and buffaloes) and ₹3,000 (US$42) (for losses of goats and pigs); poultry
would be compensated at a rate of ₹100 (US$1). Agricultural damage would
be compensated at a rate of ₹13,500 (US$188) per hectare if 33 percent or
more of paddy crops had been lost, and at a rate of ₹18,000 (US$251) per
hectare for long-term (perennial) crops.
Finally, special camps for two weeks, beginning from 14 December would be
held to issue duplicate land title deeds, educational certificates, cooking gas
connection cards, voter identity and Aadhaar cards and bank passbooks, all
free of cost.
13. Responses
National media outlets did not respond promptly to the flooding in Chennai and
across South India, resulting in public criticism on Twitter, citizen-journalism and
curated news sources for help. Following numerous public allegations against media
outlets for poor coverage and a huge outpouring of support across social media
networksthe mainstream media provided increased news coverage of the situation.
President Pranab Mukherjee said he was "saddened by the loss of human lives and
serious damage to infrastructure in Chennai", stating his "prayers and good wishes are
with the people of Tamil Nadu during this difficult time".[36] On 2 December, Prime
Minister Narendra Modi discussed the ongoing flood situation with Home
Minister Rajnath Singh and Finance Minister Arun Jaitley. In the Lok Sabha,
Parliamentary Affairs Minister M Venkaiah Naidu said that Singh would chair a high-
level meeting to deliver relief to the people ofTamil Nadu.
On 30 November, the International Federation of Red Cross and Red Crescent
Societies (IFRC) released 295,550 CHF (₹2.03805 crore (US$283,827)) through
the Indian Red Cross to assist 17,500 of those affected by the floods with disease
prevention and relief efforts. It subsequently announced it would expand its relief
efforts to cover an additional 20,000 people inTamil Nadu andAndhra Pradesh.
14. Controversies
Inadequate response of state authorities
Many flood victims across Chennai and Tamil Nadu protested the state's ineffectual
response and the lack of help from authorities. Following a statement by Chief
Minister Jayalalithaa that the flooding had been the result of exceptional rainfall,
the Bharatiya Janata Party (BJP) issued a strong criticism on 16 November, stating
that the flooding in Chennai could have been averted if local and state officials had
taken strong precautions.
Criticism of AIADMK
The AIADMK received heavy public criticism following reports of party workers
pasting photographs of party leader and Tamil Nadu chief minister Jayalalithaa on
relief materials, erecting banners and posters praising her, allegedly halting relief
shipments en route to Chennai to paste her photos on relief packages and threatening
volunteers. In response to the mounting criticism, an AIADMK party official said the
media was distorting events and attempting to smear the party before the upcoming
assembly elections.