Uploaded June 2025 | Updated September 2026, 2 weeks ago
Climate Risks to Global Food Production Much Higher than We Think
New hard-hitting results from this study that was 8 years in the making:
- looked at six staple crops
- from 12,658 regions
- capturing two-thirds of global crop calories
- accounts for increases in farmer productivity on yields
- accounts for higher CO2 fertilization effect
- considers mid-range and high-end emission scenarios
- largest, longest study of its kind, with groundbreaking results
When we hit 3 C above preindustrial, everybody on the planet will just have to skip breakfast...
Please donate to PaulBeckwith.net to support my research and videos connecting the dots on abrupt climate system mayhem. Get an awesome climate T-shirt or baseball cap here: paulbeckwithstore.com
CNN news report:
Children born now may live in a world where the US can only produce half as much of its key food crops
cnn.com/2025/06/18/climate/food-crops-heat-rain
Wikipedia page: Norman Borlaug
en.wikipedia.org/wiki/Norman_Borlaug
"Norman Borlaug is often called "the father of the Green Revolution", and is credited with saving over a billion people worldwide from starvation. According to Jan Douglas, executive assistant to the president of the World Food Prize Foundation, the source of this number is Gregg Easterbrook's 1997 article "Forgotten Benefactor of Humanity." The article states that the "form of agriculture that Borlaug preaches may have prevented a billion deaths." Dennis T. Avery also estimated the number of lives saved by Borlaug's efforts to be one billion. In 2009, Josette Sheeran, then the Executive Director of the World Food Program, stated that Borlaug "saved more lives than any man in human history". He was awarded the 1970 Nobel Peace Prize in recognition of his contributions to world peace through increasing food supply."
New peer-reviewed paper published in Nature science journal on June 18th, 2025
Title: Impacts of climate change on global agriculture accounting for adaptation
nature.com/articles/s41586-025-09085-w
Abstract
Climate change threatens global food systems, but the extent to which adaptation will reduce losses remains unknown and controversial. Even within the well-studied context of US agriculture, some analyses argue that adaptation will be widespread and climate damages small, whereas others conclude that adaptation will be limited and losses severe. Scenario-based analyses indicate that adaptation should have notable consequences on global agricultural productivity, but there has been no systematic study of how extensively real-world producers actually adapt at the global scale. Here we empirically estimate the impact of global producer adaptations using longitudinal
data on six staple crops spanning 12,658 regions, capturing two-thirds of global crop calories. We estimate that global production declines 5.5 × 1014 kcal annually per 1 °C global mean surface temperature (GMST) rise (120 kcal per person per day or 4.4% of recommended consumption per 1 °C; P less than 0.001). We project that adaptation and income growth alleviate 23% of global losses in 2050 and 34% at the end of the century (6% and 12%, respectively; moderate-emissions scenario), but substantial residual losses remain for all staples except rice. In contrast to analyses of other outcomes that project the greatest damages to the global poor, we find that global impacts
are dominated by losses to modern-day breadbaskets with favorable climates and limited present adaptation, although losses in low-income regions losses are also substantial. These results indicate a scale of innovation, cropland expansion or further adaptation that might be necessary to ensure food security in a changing climate.
Please donate to PaulBeckwith.net to support my research and videos connecting the dots on abrupt climate system mayhem. Get an awesome climate T-shirt or baseball cap here: paulbeckwithstore.com
Climate Risks to Global Food Production Much Higher than We Think
New hard-hitting results from this study that was 8 years in the making:
- looked at six staple crops
- from 12,658 regions
- capturing two-thirds of global crop calories
- accounts for increases in farmer productivity on yields
- accounts for higher CO2 fertilization effect
- considers mid-range and high-end emission scenarios
- largest, longest study of its kind, with groundbreaking results
When we hit 3 C above preindustrial, everybody on the planet will just have to skip breakfast...
Please donate to PaulBeckwith.net to support my research and videos connecting the dots on abrupt climate system mayhem. Get an awesome climate T-shirt or baseball cap here: paulbeckwithstore.com
CNN news report:
Children born now may live in a world where the US can only produce half as much of its key food crops
cnn.com/2025/06/18/climate/food-crops-heat-rain
Wikipedia page: Norman Borlaug
en.wikipedia.org/wiki/Norman_Borlaug
"Norman Borlaug is often called "the father of the Green Revolution", and is credited with saving over a billion people worldwide from starvation. According to Jan Douglas, executive assistant to the president of the World Food Prize Foundation, the source of this number is Gregg Easterbrook's 1997 article "Forgotten Benefactor of Humanity." The article states that the "form of agriculture that Borlaug preaches may have prevented a billion deaths." Dennis T. Avery also estimated the number of lives saved by Borlaug's efforts to be one billion. In 2009, Josette Sheeran, then the Executive Director of the World Food Program, stated that Borlaug "saved more lives than any man in human history". He was awarded the 1970 Nobel Peace Prize in recognition of his contributions to world peace through increasing food supply."
New peer-reviewed paper published in Nature science journal on June 18th, 2025
Title: Impacts of climate change on global agriculture accounting for adaptation
nature.com/articles/s41586-025-09085-w
Abstract
Climate change threatens global food systems, but the extent to which adaptation will reduce losses remains unknown and controversial. Even within the well-studied context of US agriculture, some analyses argue that adaptation will be widespread and climate damages small, whereas others conclude that adaptation will be limited and losses severe. Scenario-based analyses indicate that adaptation should have notable consequences on global agricultural productivity, but there has been no systematic study of how extensively real-world producers actually adapt at the global scale. Here we empirically estimate the impact of global producer adaptations using longitudinal
data on six staple crops spanning 12,658 regions, capturing two-thirds of global crop calories. We estimate that global production declines 5.5 × 1014 kcal annually per 1 °C global mean surface temperature (GMST) rise (120 kcal per person per day or 4.4% of recommended consumption per 1 °C; P less than 0.001). We project that adaptation and income growth alleviate 23% of global losses in 2050 and 34% at the end of the century (6% and 12%, respectively; moderate-emissions scenario), but substantial residual losses remain for all staples except rice. In contrast to analyses of other outcomes that project the greatest damages to the global poor, we find that global impacts
are dominated by losses to modern-day breadbaskets with favorable climates and limited present adaptation, although losses in low-income regions losses are also substantial. These results indicate a scale of innovation, cropland expansion or further adaptation that might be necessary to ensure food security in a changing climate.
Please donate to PaulBeckwith.net to support my research and videos connecting the dots on abrupt climate system mayhem. Get an awesome climate T-shirt or baseball cap here: paulbeckwithstore.com






![Ongoing Darkening of Global Oceans - Enormous Disruption to Albedo, Phytoplankton, and Web of Life
Ongoing Darkening of Global Oceans - Enormous Disruption to Albedo, Phytoplankton, and Web of Life
Sometimes a peer-reviewed scientific paper comes along that has Earth-Shattering implications. A few months ago, such a paper was published. The concept of Ocean Darkening immediately triggered my radar, especially since my life before climate change was laser optics and the physics of light and electromagnetic radiation.
Basically, vast regions of the global oceans are becoming darker. Thus, albedo is being reduced, and of course this leads to more sunlight absorption and less reflection, warming the Earth in every increasing amounts. Not only that, but there are profound implications to the ocean web of life. Phytoplankton only grow near the ocean surface in the presence of oxygen, nutrients, and sunlight. Sunlight penetration into the open ocean extends downward through the water column up to 200 meters depth, where water properties extinguish the light with greater depths. This upper layer, the photic zone, is where phytoplankton plants grow, and the largest daily migration of life on the planet is the zooplankton animals that hide down below in the day, and migrate upwards at night to the photic zone to munch on the phytoplankton.
Essentially, a darkening ocean means that the depth of the photic zone reduces, so the phytoplankton blooms can only occur much closer to the surface, making it harder for the zooplankton to reach, and the increasing water temperatures and stratification (less vertical mixing) means that less nutrients upwell into the photic zone. Bad news for the entire web of life in the oceans.
Please donate to http://PaulBeckwith.net to support my research and videos connecting the dots on abrupt climate system mayhem.
References:
Wikipedia: Photic Zone of the ocean
https://en.wikipedia.org/wiki/Photic_zone
Wikipedia: Beer-Lambert Law, more commonly known as Beers Law describes how light absorption increases exponentially as the light penetrates into a material like water
https://en.wikipedia.org/wiki/Beer%E2%80%93Lambert_law
Google Earth: Gulf of Bothnia, where the darkening of the ocean is most severe in the last 2 decades
https://earth.google.com/web/search/Gulf+of+Bothnia/@62.27309816,18.75633821,-444.10468906a,3215132.07455099d,35y,0.00002594h,0.24932494t,0r/data=Cn4aUBJKCiUweDQ2NjQ3NjkwYmVlZDIxMzc6MHg5ZTcyMWM1OTkwODM3YTk1GeeIfJdSC09AIey7IvjfZjNAKg9HdWxmIG9mIEJvdGhuaWEYAiABIiYKJAk4rcMIAp1FQBFsq0gt93IyQBn74mvhs4E9QCErWzFNcxRjwEICCAEyKQonCiUKITFpcXVxOVlwTnI3VWxhZzRfS2xXVlJBaUd4QU52RzNFWSABOgMKATBCAggASggIxoar6AQQAQ
Diel Definition: https://www.google.com/search?q=diel&sourceid=chrome&ie=UTF-8
Recent Peer=Reviewed Scientific Paper in Global Change Biology
Title: Darkening of the Global Ocean
ABSTRACT
The photic zones of the oceans—where sunlight and moonlight drive ecological interactions—are one of the most productive habitats on the planet and fundamental to the maintenance of healthy global biogeochemical cycles. Ocean darkening occurs when changes in the optical properties of the oceans reduce the depth to which sufficient light penetrates to facilitate biological processes guided by sunlight and moonlight. We analyzed a 9 km resolution annual time series of MODIS Aquas diffuse attenuation coefficient of light at 490 nm [Kd (490)] to quantify whether the oceans have darkened over the last 20 years and the impact of this on the depth of photic zones around the world. Kd (490) increased across 75,341,181 km 2 (21%) of the global ocean between2003 and 2022, resulting in photic zone depths reducing by more than 50 m across 32,449,129 km 2 (9%) by area. The depth of the photic zone has reduced by more than 10% across 32,446,942 km 2 (9%) of the global ocean. Our analysis indicates that ocean darkening is not restricted to coastal regions, but affects large swathes of the open ocean. A combination of nutrient, organic material and sediment loading near the coasts and changes in global ocean circulation are probable causes of increases in primary and secondary productivity that have reduced light penetration into surface waters. The implications of ocean darkening for marine ecology and the ecosystem services provided by the surface oceans are currently unknown but likely to be severe.
Link to Open-Source, Free paper: Definitely, a must read, profound paper
https://onlinelibrary.wiley.com/doi/epdf/10.1111/gcb.70227
Please donate to http://PaulBeckwith.net to support my research and videos connecting the dots on abrupt climate system mayhem. Ongoing Darkening of Global Oceans - Enormous Disruption to Albedo, Phytoplankton, and Web of Life](https://i.ytimg.com/vi/gkv0eRGDjjE/mqdefault.jpg)
![New Orlean’s is Sinking. Very Very Quickly. Could be Very Very BAD…
New Orlean’s is Sinking. Very very Quickly. Could be BAD…
Hello Everybody,
I chat about a recent peer reviewed scientific paper on how New Orleans and the surrounding region is sinking. Namely land subsidence, wetland erosion, massive hurricanes, and rising sea levels are all combining to have scientists gravely warning that the time to start evacuating the regions is now, not in a decade or several decades, but now.
I also chat about a second paper published around a month ago about how our existing models on sea level rise are severely underestimating the reality, especially in southern hemisphere regions.
Get out now and buy those hip waders while you can...
References and Links:
Guardian article:
Title: ‘Point of no return’: New Orleans relocation must start now due to sea level, study finds:
Ongoing sea level rise and the rampant erosion of wetlands in southern Louisiana will swallow up the New Orleans area within a few generations, a new study concluded.
By Oliver Milman
https://www.theguardian.com/us-news/2026/may/04/new-orleans-sea-levels-relocation-climate-crisis?CMP=oth_b-aplnews_d-1
Peer-reviewed paper in Nature Sustainability:
Climate-driven depopulation and adaptation realities in America’s coastal ground zero
Abstract
With global temperatures poised to exceed the 1.5°C Paris Agreement threshold—a level that triggered substantial ice-sheet collapse during the Last Interglacial—low-elevation coastal zones face sea-level commitments far beyond current planning horizons. With this geological frame of reference, we examine the impact of sea-level rise on what may be the most physically vulnerable coastal zone in the world using prehistoric and contemporary patterns of human mobility. We highlight the positive aspects of the recently commenced out-migration in this region and argue that the fate of communities landwards of this coastal zone will be decided in the next few decades.
Link: https://www.nature.com/articles/s41893-026-01820-z.epdf?sharing_token=zy0HT0qQJgjxZdtozPD65tRgN0jAjWel9jnR3ZoTv0MlKJdRcTWB_eBmhQntD4aKg460oCdZdOh3l4vKQm2tKuPh7ec8sehTAOxp3V_JugA6DOiC76Nglo18b1KV5WL293FxzC9RfjPyPQpjeXXN01wKpjz4DD6-YlQKkL44G_eNpQqUBN2RqknKhosbBZRN8slB-ClgcIYOI2kYgLOW0BeIRzcjX-V69ZmoECqBKBXCKFqM-npZj4Vcs7NTFH91gjLmmHSa-Rf-TWUdRbkVAlet91wS0vwA8K6xUyL-9an4oBRjUbrQGFlEM5NbT7ZDhyTKpZzF-1PUqTVuFjyShA5cCo7v9BWcAQQQ994LK_A%3D&tracking_referrer=www.theguardian.com
Guardian article:
Title: Global sea levels have been underestimated due to poor modelling, research suggests
Analysis shows average levels are 30cm higher than thought, and up to 150cm in south-east Asia and Indo-Pacific
https://www.theguardian.com/environment/2026/mar/04/global-sea-levels-underestimated-poor-modelling-research
Peer-reviewed science paper in Nature:
Sea level much higher than assumed in most coastal hazard assessments
Link: https://www.nature.com/articles/s41586-026-10196-1
Abstract
The impacts of sea-level rise and other hazards on the coasts of the world are determined by coastal sea-level height and land elevation1. Correct integration of both aspects is fundamental for reliable sea-level rise and coastal hazard impact assessments2,3, but is often not carefully considered or properly performed. Here we show that more than 99% of the evaluated impact assessments handled sea-level and land elevation data inadequately, thereby misjudging sea level relative to coastal elevation. Based on our literature evaluation, 90% of the hazard assessments assume coastal sea levels based on geoid models, rather than using actual sea-level measurements. Our meta-analyses on global scale show that measured coastal sea level is higher than assumed in most hazard assessments (mean offsets [standard deviation] of 0.27 m [0.76 m] and 0.24 m [0.52 m] for two commonly-used geoids). Regionally, predominantly in the Global South, measured mean sea level can be more than 1 m above global geoids, with the largest differences in the Indo-Pacific. Compared with geoid-based assumptions of coastal sea level, the measured values suggest that with a hypothetical 1 m of relative sea-level rise, 31–37% more land and 48–68% more people (increasing estimates to 77–132 million) would fall below sea level. Our results highlight the need for re-evaluation of existing coastal impact assessments and improvement of research community standards, with possible implications for policymakers, climate finance and coastal adaptation.
Please donate to http://PaulBeckwith.net to support my research and videos connecting the dots on abrupt climate system mayhem.
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