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		<title>Conservation news</title>
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		<link>https://news.mongabay.com/list/remote-sensing/</link>
		<description>Environmental science and conservation news</description>
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	<title>News on Remote Sensing</title>
	<link>https://news.mongabay.com/list/remote-sensing/</link>
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				<item>
					<title>Scientists use satellites to track whale strandings in remote places from space</title>
					<link>https://news.mongabay.com/2026/08/scientists-use-satellites-to-track-whale-strandings-in-remote-places-from-space/</link>
					<comments>https://news.mongabay.com/2026/08/scientists-use-satellites-to-track-whale-strandings-in-remote-places-from-space/#respond</comments>
					<pubDate>31 Aug 2026 13:33:25 +0000</pubDate>
											<dc:creator>
							<![CDATA[Manuel Fonseca]]>
						</dc:creator>
										<author>
						<![CDATA[Autumn Spanne]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/08/31114533/1-Dead-sei-whales-Balaenoptera-borealis-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=327897</guid>

					
											<locations>
							<![CDATA[Global]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Animal Behavior, Animals, Biodiversity, Cetaceans, Conservation Technology, data, Marine Animals, Marine Mammals, Remote Sensing, Satellite Imagery, Technology, Whales, and Wildlife]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[In 2015, the remote coastal fjords of southern Patagonia turned into a whale graveyard. That June, scientists found 337 dead and decomposing sei whales, a species of baleen whale, on the beaches between the Gulf of Penas and Puerto Natales in Chile. Researchers flew over the area, then took samples from the rotting bodies, trying [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[In 2015, the remote coastal fjords of southern Patagonia turned into a whale graveyard. That June, scientists found 337 dead and decomposing sei whales, a species of baleen whale, on the beaches between the Gulf of Penas and Puerto Natales in Chile. Researchers flew over the area, then took samples from the rotting bodies, trying to find clues as to why this happened. It was later reported to be the largest mass baleen whale mortality event on record. Data collected to determine the cause proved inconclusive, however. Scientists thought the most likely explanation was a toxic red tide provoked by pollution, a strong El Niño event and climate change. What researchers now know for certain, after using very high-resolution satellite images, is that the stranding occurred at least two months before the whales were found. “It’s quite shocking, really,” Penny Clarke, a whale scientist at the British Antarctic Survey (BAS), told Mongabay in a video call. “Think that these whales are about the size of a bus, and there&#8217;s 300 … of them, and nobody knew about it for about two months.” The massive stranding in Chile had one bright spot: It offered an important opportunity to test the use of satellite technology to monitor strandings and support data collection on whale mortality. More than 10 years later, Clarke and her BAS colleagues not only use satellite imagery to identify different whale species by observing flippers and flukes in the water, but can spot whale strandings almost anywhere in the&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/08/scientists-use-satellites-to-track-whale-strandings-in-remote-places-from-space/" data-wpel-link="internal">Mongabay</a>]]>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-327897</doi>				</item>
						<item>
					<title>Amazon deforestation alerts fall to lowest level since 2013, Brazilian data show</title>
					<link>https://news.mongabay.com/2026/08/amazon-deforestation-alerts-fall-to-lowest-level-since-2013-brazilian-data-show/</link>
					<comments>https://news.mongabay.com/2026/08/amazon-deforestation-alerts-fall-to-lowest-level-since-2013-brazilian-data-show/#respond</comments>
					<pubDate>09 Aug 2026 00:08:49 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/08/09000336/colombia_260721054538_0462z-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=325718</guid>

					
											<locations>
							<![CDATA[Amazon, Brazil, Latin America, and South America]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Deforestation, Environment, Forests, Happy-upbeat Environmental, Rainforests, Remote Sensing, Satellite Imagery, Tropical Deforestation, and Tropical Forests]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Deforestation in the Brazilian Amazon has fallen to its lowest level in 13 years, according to new satellite data from Brazil’s National Institute for Space Research (INPE), continuing a decline that began after President Luiz Inácio Lula da Silva returned to office in 2023. INPE’s DETER alert system detected 2,874 square kilometers (1,110 square miles) [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Deforestation in the Brazilian Amazon has fallen to its lowest level in 13 years, according to new satellite data from Brazil’s National Institute for Space Research (INPE), continuing a decline that began after President Luiz Inácio Lula da Silva returned to office in 2023. INPE’s DETER alert system detected 2,874 square kilometers (1,110 square miles) of deforestation in the Amazon between August 1, 2025, and July 31, 2026. That was 36% below the previous 12-month period and 55.6% below the average of the preceding decade. The total is the lowest since INPE introduced the current DETER system in 2015. Including data from its predecessor system, the last time alerts were lower was the 2012/13 deforestation year, when 2,766 sq km were recorded. Accumulated deforestation for Aug 1-Jul 31 in recent years according to INPE&#8217;s DETER alert system. Image by Mongabay DETER is designed as a rapid-response system for enforcement agencies. It uses satellite imagery to identify new forest clearing quickly enough for authorities to investigate and intervene. It differs from PRODES, INPE’s higher-resolution annual monitoring system, which provides Brazil’s official deforestation rate. Preliminary PRODES figures for the year ending July 31 are expected in October or November. PRODES data for the year ending July 2025 had already put Amazon forest loss at its lowest level in 11 years. The latest DETER figures indicate that clearing fell further during the following year. If PRODES shows a decline similar to that recorded by DETER, Brazil could register its lowest official Amazon deforestation&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/08/amazon-deforestation-alerts-fall-to-lowest-level-since-2013-brazilian-data-show/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-325718</doi>				</item>
						<item>
					<title>New fire satellites offer hope for Amazon and other biomes, but local barriers remain</title>
					<link>https://news.mongabay.com/2026/07/new-fire-satellites-offer-hope-for-amazon-and-other-biomes-but-local-barriers-remain/</link>
					<comments>https://news.mongabay.com/2026/07/new-fire-satellites-offer-hope-for-amazon-and-other-biomes-but-local-barriers-remain/#respond</comments>
					<pubDate>30 Jul 2026 07:44:45 +0000</pubDate>
											<dc:creator>
							<![CDATA[Benjamin Swift]]>
						</dc:creator>
										<author>
						<![CDATA[Alexandra Popescu]]>
					</author>
							<category><![CDATA[Amazon]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/07/29232759/Benjamin-Swift_APC_0045-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=324873</guid>

					
					
											<topic-tags>
							<![CDATA[Climate, Disasters, Drought, El Nino, Extreme Weather, Fires, Global Environmental Crisis, Impact Of Climate Change, Satellite Imagery, Solutions, and Technology]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Record wildfires devastated South America in 2024, raging out of control in biomes where fire is a natural part of the ecosystem, but also entering rainforests that had never burned before. Driven by expanding industrial agriculture, an El Niño episode, and droughts worsened by global climate change, the thick smoke from the wildfires grounded flights, [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Record wildfires devastated South America in 2024, raging out of control in biomes where fire is a natural part of the ecosystem, but also entering rainforests that had never burned before. Driven by expanding industrial agriculture, an El Niño episode, and droughts worsened by global climate change, the thick smoke from the wildfires grounded flights, shuttered schools, and caused lasting health problems. After favorable weather led to a reprieve from the most destructive fires worldwide last year, fire experts expect major wildfires to return to South America in 2026 and 2027. With fire season beginning in the continent, park rangers and firefighters hope that a trio of satellites launched in early July will provide more precise, rapidly updated data to wildland firefighters worldwide. The first three operational satellites from Earth Fire Alliance are meant to help improve global fire detection by providing frequent high-resolution wildfire data. These are part of the nonprofit’s FireSat program, which aims to deploy about 50 low-orbit satellites by 2030. The satellites are still being tested and calibrated, but in a few months, a first cohort of early adopters will gain access to the data. Once fully operational, the system could help fire agencies reduce emissions from wildfires worldwide by 5-10% yearly, according to Paul Bodnar, director of clean industry and special projects at the Bezos Earth Fund, which provided a $26 million grant to the program. The new satellites launch as the world enters an El Niño climate pattern that will likely mean drought and&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/07/new-fire-satellites-offer-hope-for-amazon-and-other-biomes-but-local-barriers-remain/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-324873</doi>				</item>
						<item>
					<title>Scientists use AI to produce first high-resolution map of global seagrass extent</title>
					<link>https://news.mongabay.com/2026/07/scientists-use-ai-to-produce-first-high-resolution-map-of-global-seagrass-extent/</link>
					<comments>https://news.mongabay.com/2026/07/scientists-use-ai-to-produce-first-high-resolution-map-of-global-seagrass-extent/#respond</comments>
					<pubDate>10 Jul 2026 12:51:59 +0000</pubDate>
											<dc:creator>
							<![CDATA[Abhishyant Kidangoor]]>
						</dc:creator>
										<author>
						<![CDATA[Abhishyantkidangoor]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/07/10103637/IMG_2026-07-10-031214-768x512.jpeg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=323038</guid>

					
											<locations>
							<![CDATA[Asia, Australia, Bahamas, Caribbean, Cuba, Global, Indonesia, North America, Oceania, Southeast Asia, and United States]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Artificial Intelligence, Biodiversity, Carbon Sequestration, Climate Change, Coastal Ecosystems, Conservation, data, Ecosystems, Environment, Environmental Policy, Global Environmental Crisis, Governance, Mapping, Marine, Marine Conservation, Marine Protected Areas, Mitigation, Oceans, Plants, Politics, Protected Areas, Remote Sensing, Research, Satellite Imagery, Science, Seagrass, Software, Technology, and Wildlife]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Almost 70% of the global extent of seagrass meadows is found off the coasts of just five countries. However, only 21% of this fall within marine protected areas. These are some of the key findings from the first high-resolution map of seagrasses around the world. Scientists at Arizona State University in the U.S. used satellite [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Almost 70% of the global extent of seagrass meadows is found off the coasts of just five countries. However, only 21% of this fall within marine protected areas. These are some of the key findings from the first high-resolution map of seagrasses around the world. Scientists at Arizona State University in the U.S. used satellite imagery and artificial intelligence to map seagrass cover over two periods, 2019-2020 and 2023-2024. According to a study, recently published in the journal Nature, the team identified “148,506 km2 of seagrass globally,” or about 57,340 square miles, a combined area larger than England, with the majority lying in subtidal areas. “We wanted to map seagrass in a very accurate manner,” Jiwei Li, an assistant professor at ASU’s School of Ocean Futures, who led the study, told Mongabay in a video interview. “And tell people where the seagrass is and where there is potential to protect it.” Scientists mapped seagrass ecosystems using satellite data and AI technology. Pictured above is a satellite image from a coast off of Richmond, Canada, along with the seagrass ecosystems highlighted in green to the right. Image courtesy of Jiwei Li, Arizona State University. Seagrasses are the only flowering plant species in the ocean, and form vast meadows in shallow waters. Apart from being habitats for many marine species, these meadows are also crucial carbon sinks that can absorb CO2 35 times faster than terrestrial forests. They also protect coastlines and filter pollutants in the water. However, seagrass ecosystems face threats from&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/07/scientists-use-ai-to-produce-first-high-resolution-map-of-global-seagrass-extent/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-323038</doi>				</item>
						<item>
					<title>Crackdown lets rainforest reclaim illegal road in rare win for the Amazon</title>
					<link>https://news.mongabay.com/2026/07/crackdown-lets-rainforest-reclaim-illegal-road-in-rare-win-for-the-amazon/</link>
					<comments>https://news.mongabay.com/2026/07/crackdown-lets-rainforest-reclaim-illegal-road-in-rare-win-for-the-amazon/#respond</comments>
					<pubDate>02 Jul 2026 14:38:40 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rafael Spuldar]]>
						</dc:creator>
										<author>
						<![CDATA[Alexandre de Santi]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2024/04/19153134/dirt-roads-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=322254</guid>

					
											<locations>
							<![CDATA[Amazon, Brazil, Latin America, and South America]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Conservation, Crime, Development, Environment, Environmental Law, Environmental Policy, Governance, Indigenous Reserves, Indigenous Rights, Infrastructure, Law, Politics, Protected Areas, Remote Sensing, Roads, and Satellite Imagery]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[A vanishing road in the Xingu region exemplifies what is at stake in Brazil’s October election.]]>
						</description>
																					<content:encoded>
							<![CDATA[In 2022, an illegal road cutting the length of a full marathon through two strictly protected areas in the Brazilian Amazon threatened to do what conservationists feared most: Split the Xingu Socioenvironmental Corridor, a mosaic of Indigenous territories and conservation units covering some 26 million hectares (64 million acres), in half. Four years later, satellite images reveal the 42.8-kilometer (26.6-mile) road is gone, swallowed by regrowing forest — something rarely seen in the region. Its disappearance runs counter to everything that typically happens when a road appears in the Amazon. “Here, the road is the beginning of everything, the beginning of the devastation,” Bruno Ferreira, a researcher at the conservation nonprofit Imazon, part of the MapBiomas mapping network, told Mongabay. Usually, roads give birth to a set of new roads (legal or illegal) that spawn from the main one, creating a fishbone pattern in satellite images. Imazon research suggests that 95% of deforestation in the Amazon happens within 5 km (3 mi) of a road, meaning that illegal cattle ranching and logging would have been virtually unstoppable had this one road been consolidated. For the organizations monitoring the region around the Xingu, a key tributary of the Amazon, the now dead road is proof that the alliance between civil society and a willing government can reverse destruction that once seemed irreversible — and a reminder of what is at stake as Brazil heads into a tightly contested presidential election in October. Uncovered in 2022, the 42-kilometer-long illegal road ran along&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/07/crackdown-lets-rainforest-reclaim-illegal-road-in-rare-win-for-the-amazon/" data-wpel-link="internal">Mongabay</a>]]>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-322254</doi>				</item>
						<item>
					<title>Can globally essential mangroves bounce back from deforestation? New study gives hope</title>
					<link>https://news.mongabay.com/2026/06/can-globally-essential-mangroves-bounce-back-from-deforestation-new-study-gives-hope/</link>
					<comments>https://news.mongabay.com/2026/06/can-globally-essential-mangroves-bounce-back-from-deforestation-new-study-gives-hope/#respond</comments>
					<pubDate>23 Jun 2026 15:17:00 +0000</pubDate>
											<dc:creator>
							<![CDATA[Elizabeth Schell]]>
						</dc:creator>
										<author>
						<![CDATA[Andy Lehren]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/06/23114608/mangroves-and-corals-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=321654</guid>

					
											<locations>
							<![CDATA[Global]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Biodiversity, Coastal Ecosystems, Conservation, Deforestation, Environment, Forests, Mangroves, Marine, Marine Conservation, Research, Satellite Imagery, and Technology]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[The world’s mangrove forests, critical coastal ecosystems feared to be on the brink of collapse, are making an unexpected recovery overall, according to research published in June 2026 by scientists at Tulane University in New Orleans in the U.S. The study found that as deforestation and degradation have slowed down over the past decade around [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[The world’s mangrove forests, critical coastal ecosystems feared to be on the brink of collapse, are making an unexpected recovery overall, according to research published in June 2026 by scientists at Tulane University in New Orleans in the U.S. The study found that as deforestation and degradation have slowed down over the past decade around the globe, the woody plants have managed to bounce back in many areas. The study analyzed satellite data from the past four decades. It found that unexpected expansion and regrowth across the world began counterbalancing mangrove forest loss around 2010. The rate of gain has nearly outpaced losses, resulting in about a cumulative 1% global decline since the 1980s. The recovery is predominantly driven by expansion of mangroves into new areas rather than recovery of existing forests. Most previous studies on the issue have used radar, which struggles to distinguish mangroves from other ecosystems. This research created a 30-meter resolution annual data set from Landsat satellite images to more accurately identify mangroves around the world from 1984 to 2023. The study also found that mangroves are becoming less degraded. Within mangroves, a greater proportion are closed-canopy forests, which means they are denser, retain more carbon and help secure shorelines. These closed-canopy sections increased from about 50% of mangroves worldwide in the 1980s, to about 58% by 2023. “Our study shows some new ideas about [mangrove] recovery. We find that deforestation and degradation rates are slowing down,” said lead author of the study Zhen Zhang, a&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/06/can-globally-essential-mangroves-bounce-back-from-deforestation-new-study-gives-hope/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-321654</doi>				</item>
						<item>
					<title>Why conservation urgently needs acoustic baselines</title>
					<link>https://news.mongabay.com/2026/06/how-sound-can-reveal-what-satellite-images-miss/</link>
					<comments>https://news.mongabay.com/2026/06/how-sound-can-reveal-what-satellite-images-miss/#respond</comments>
					<pubDate>09 Jun 2026 00:32:45 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/05/29222541/SBP-photos-header-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=320333</guid>

											<reporting-project>
							<![CDATA[Founder's briefs]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Global]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Bioacoustics, Conservation, Conservation Solutions, Conservation Technology, Ecology, Environment, Green, Monitoring, Remote Sensing, Solutions, Technology, and Wildtech]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[From above, an intact forest can look reassuringly complete. A satellite image may show an unbroken canopy, a block of green still standing amid plantations, roads or logged land. For many conservation programs, that view has become the starting point for measurement. If the canopy remains, the forest is often treated as if much of [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[From above, an intact forest can look reassuringly complete. A satellite image may show an unbroken canopy, a block of green still standing amid plantations, roads or logged land. For many conservation programs, that view has become the starting point for measurement. If the canopy remains, the forest is often treated as if much of its ecological value remains as well. The forest itself may tell a more complicated story. Birds, insects, frogs and primates divide the day among them. Some call at dawn, others at night. Some occupy narrow frequency bands; others fill the background with a steady rasp. A forest that looks intact can still lose part of this living structure. The canopy may close after logging. Carbon may remain on a balance sheet. The animal community may not return in the same form. Garnet Pitta. Photo by Hanyrol Hanyzan Ahmad Sah A new paper in Global Change Biology, by Zuzana Buřivalová and colleagues, examines that problem through sound. The study describes the Soundscape Baselines Project, an effort to record the acoustic signatures of some of the world’s remaining intact forests before those reference points become harder to find. The idea is straightforward. To know whether a forest has changed, one needs to know what it sounded like before the change. That baseline is not only a technical convenience. It is a guard against a familiar problem in conservation: each generation tends to accept the nature it first encountered as normal. Daniel Pauly called this shifting baseline syndrome&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/06/how-sound-can-reveal-what-satellite-images-miss/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-320333</doi>				</item>
						<item>
					<title>Nature’s feedback loops can drive collapse. Thomas Crowther thinks they can also drive recovery</title>
					<link>https://news.mongabay.com/2026/06/natures-feedback-loops-can-drive-collapse-thomas-crowther-thinks-they-can-also-drive-recovery/</link>
					<comments>https://news.mongabay.com/2026/06/natures-feedback-loops-can-drive-collapse-thomas-crowther-thinks-they-can-also-drive-recovery/#respond</comments>
					<pubDate>01 Jun 2026 00:55:10 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/05/12020804/thomas-crowther-13-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=319071</guid>

											<reporting-project>
							<![CDATA[Nature conservation Influencers]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Global]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Bioacoustics, Biodiversity, Conservation, Conservation Technology, Environment, Forests, Interviews, Interviews with conservation players, Rainforests, Remote Sensing, Technology, Tropical Forests, and Wildtech]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Thomas Crowther’s career has been shaped by large claims about small things. A seed, a patch of soil, a soundscape, a moment of fear, a local restoration project: each, in his telling, can become part of a larger system of cause and effect. His new book, Nature’s Echo, is built around that idea. Feedback loops, [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Thomas Crowther’s career has been shaped by large claims about small things. A seed, a patch of soil, a soundscape, a moment of fear, a local restoration project: each, in his telling, can become part of a larger system of cause and effect. His new book, Nature’s Echo, is built around that idea. Feedback loops, he argues, are not just a feature of ecology. They are among the forces that formed stars, spread life across Earth, drive climate change, and may yet help repair damaged ecosystems. Crowther, a British ecologist, became one of the best-known figures in global ecology while at ETH Zurich, where he founded the Crowther Lab and built a large interdisciplinary research group. His work helped popularize the idea that ecosystem restoration could play a major role in addressing climate change, especially after a 2019 Science paper on the potential for additional tree cover drew worldwide attention, as well as criticism from scientists who warned against simplistic tree-planting narratives. His work also helped give rise to the World Economic Forum’s Trillion Trees initiative, and he has served as co-chair of the advisory board to the U.N. Decade on Ecosystem Restoration. He is also the founder of Restor, an open-data platform that connects conservation and restoration initiatives around the world. Screenshot of the Restor interface. That public profile has made Crowther both influential and contested. In 2024 he was also at the center of a dispute over his departure from ETH Zurich. The university said its decision followed&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/06/natures-feedback-loops-can-drive-collapse-thomas-crowther-thinks-they-can-also-drive-recovery/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-319071</doi>				</item>
						<item>
					<title>The Amazon’s path from crisis to durability</title>
					<link>https://news.mongabay.com/2026/05/the-amazons-path-from-crisis-to-durability/</link>
					<comments>https://news.mongabay.com/2026/05/the-amazons-path-from-crisis-to-durability/#respond</comments>
					<pubDate>28 May 2026 23:05:41 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/05/28225126/amazon_201628_26-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=320267</guid>

											<reporting-project>
							<![CDATA[Founder's briefs]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Amazon, Brazil, Latin America, and South America]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Biodiversity, Bioeconomy, Conservation Finance, Environment, Environmental Law, Forests, Governance, Indigenous Rights, Land Use Change, Law Enforcement, Protected Areas, Rainforests, Remote Sensing, Saving Rainforests, Solutions, and Tropical Forests]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[In the Amazon, a forest can remain on the map while losing much of what makes it function. The Amazon rainforest is often discussed through a few familiar measures: deforestation, carbon, protected areas, and tipping points. Each is useful. But they do not fully explain why biodiversity continues to decline even where maps still show [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[In the Amazon, a forest can remain on the map while losing much of what makes it function. The Amazon rainforest is often discussed through a few familiar measures: deforestation, carbon, protected areas, and tipping points. Each is useful. But they do not fully explain why biodiversity continues to decline even where maps still show forest, laws exist, and international pledges sound ambitious. A territory can be recognized and still be invaded. A satellite can detect illegal clearing and still fail to trigger a penalty. A story can describe crisis and still leave readers unsure what can be done. Six gaps help explain the problem: finance and forest economy, governance, enforcement, forest function, Indigenous rights, and narrative. They overlap in ways that make each harder to close. The finance and forest-economy gap Protecting forests costs money every year. It requires staff, transport, monitoring, community work, legal support, fire control, restoration, and the ability to respond when illegal actors arrive. Yet the money available for those tasks remains far below the scale of the problem. Globally, UNEP estimates that forest investments need to reach about $300 billion a year by 2030 to meet climate, biodiversity, and land-degradation targets. The report also notes that this figure excludes some enabling conditions, including governance and law enforcement, which means the true need is probably higher. The Brazilian Amazon shows the imbalance more clearly. WWF and Conservation Strategy Fund estimate that Brazil needs about $12.8 billion a year to meet forest policy goals. Current positive&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/05/the-amazons-path-from-crisis-to-durability/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/05/the-amazons-path-from-crisis-to-durability/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-320267</doi>				</item>
						<item>
					<title>Loopholes undermine palm oil industry’s antideforestation pledges</title>
					<link>https://news.mongabay.com/2026/05/loopholes-undermine-palm-oil-industrys-antideforestation-pledges/</link>
					<comments>https://news.mongabay.com/2026/05/loopholes-undermine-palm-oil-industrys-antideforestation-pledges/#respond</comments>
					<pubDate>27 May 2026 21:51:57 +0000</pubDate>
											<dc:creator>
							<![CDATA[Hans Nicholas Jong]]>
						</dc:creator>
										<author>
						<![CDATA[Alexandra Popescu]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2025/11/02173520/sabah_1209-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=320195</guid>

					
											<locations>
							<![CDATA[Indonesia, Malaysia, and Southeast Asia]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Biodiversity, Certification, Commodity agriculture, Corporate Social Responsibility, Deforestation, Drivers Of Deforestation, EUDR, Forest Destruction, Forest Loss, Governance, International Trade, Monitoring, Palm Oil, Plantations, Rainforests, Satellite Imagery, and Supply Chain]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[JAKARTA — More than a decade after the palm oil industry embraced a pledge to not deforest, clear tropical peatlands, or use exploitative practices, policies to that end now cover most of the global palm oil trade, as major traders, refiners and consumer brands have pledged to keep deforestation-linked palm oil out of their supply [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[JAKARTA — More than a decade after the palm oil industry embraced a pledge to not deforest, clear tropical peatlands, or use exploitative practices, policies to that end now cover most of the global palm oil trade, as major traders, refiners and consumer brands have pledged to keep deforestation-linked palm oil out of their supply chains. However, deforestation linked to palm oil continues, particularly in Indonesia, the world’s largest producer of the commodity. Satellite analysis by forest-mapping initiative TheTreeMap shows 31,073 hectares (76,783 acres) of forest were cleared for palm oil in Indonesia in 2025, slightly higher than the 30,956 hectares (76,494 acres) recorded in 2024 — highlighting persistent gaps in how the industry enforces its zero-deforestation pledges. In some cases, palm oil from newly cleared land still enters supply chains that companies describe as deforestation-free. “No Deforestation, No Peat, No Exploitation” (NDPE) policies aim to eliminate three major sources of harm in palm oil production: clearing natural forests, developing plantations on carbon-rich peatlands, and exploiting workers or local communities. By 2020, these commitments covered roughly 83% of palm oil refinery capacity in Indonesia and Malaysia, the world’s main producing region. In recent years, companies have also built systems to enforce these pledges. Many now publish grievance mechanisms where violations can be reported, while third-party monitoring groups use satellite imagery to track forest loss and flag suspicious activity. Large-scale corporate deforestation in Indonesia has fallen compared to the mid-2010s, when some plantation companies were clearing vast areas of rainforest. Deforestation for&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/05/loopholes-undermine-palm-oil-industrys-antideforestation-pledges/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/05/loopholes-undermine-palm-oil-industrys-antideforestation-pledges/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-320195</doi>				</item>
						<item>
					<title>Despite restrictions, forest loss continued on Ituna land, home to isolated people</title>
					<link>https://news.mongabay.com/2026/05/despite-restrictions-forest-loss-continues-on-ituna-land-home-to-isolated-people/</link>
					<comments>https://news.mongabay.com/2026/05/despite-restrictions-forest-loss-continues-on-ituna-land-home-to-isolated-people/#respond</comments>
					<pubDate>05 May 2026 19:46:15 +0000</pubDate>
											<dc:creator>
							<![CDATA[Aimee Gabay]]>
						</dc:creator>
										<author>
						<![CDATA[Latoya Abulu]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/05/04162414/Ituna_Itata-2-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=318685</guid>

					
											<locations>
							<![CDATA[Brazil, Latin America, and South America]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Cattle, Conservation, data, Deforestation, Drivers Of Deforestation, Environment, Environmental Law, Forests, Governance, Illegal Logging, Indigenous Peoples, Indigenous Rights, Land Rights, Livestock, Ranching, Remote Sensing, and Uncontacted Tribes]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Illegal invasions in the Ituna/Itatá Indigenous territory in Brazil’s Pará state, home to isolated Igarapé Ipiaçava Indigenous people, has continued since 2022, during one of the latest land use restriction orders meant to protect the territory, according to satellite analysis by Mongabay. Between 2022 and 2025, data from Global Forest Watch show the area lost [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Illegal invasions in the Ituna/Itatá Indigenous territory in Brazil’s Pará state, home to isolated Igarapé Ipiaçava Indigenous people, has continued since 2022, during one of the latest land use restriction orders meant to protect the territory, according to satellite analysis by Mongabay. Between 2022 and 2025, data from Global Forest Watch show the area lost 2,211 hectares (5,463 acres) of tree cover. But, in the last few years, forest loss has plummeted significantly in what was one of the most deforested Indigenous lands following operations by the country’s Indigenous affairs agency, Funai. Cleiton Gabriel, the coordinator of the Middle Xingu Ethno-Environmental Protection Front, a specialized Funai unit, told Mongabay via WhatsApp that the forest loss in Ituna/Itatá is caused by land-grabbers who clear the forest without authorization for cattle ranching and other agricultural activities. “The deforestation in the Ituna/Itatá region historically stems from the illegal occupation of the territory,” Gabriel explained. “This is driven by land grabbing, the establishment of agricultural activities, especially intensive livestock farming, and also smaller-scale laboratory operations, mainly cocoa processing.” The land use restriction order, which prohibits unauthorized individuals from entering Ituna/Itatá, has been in place since 2011 to protect the isolated people. The precautionary measure has been renewed six times, the most recent being in 2025. Global Forest Watch data show that Ituna/Itatá was the third-most deforested area in Brazil between 2011, the year of the first land restriction order, and 2021. It was the most deforested Indigenous land in 2019. This has affected Funai’s&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/05/despite-restrictions-forest-loss-continues-on-ituna-land-home-to-isolated-people/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-318685</doi>				</item>
						<item>
					<title>A 10-year whale shark satellite study helps create new protected area in Indonesia</title>
					<link>https://news.mongabay.com/2026/05/a-10-year-whale-shark-satellite-study-helps-create-new-protected-area-in-indonesia/</link>
					<comments>https://news.mongabay.com/2026/05/a-10-year-whale-shark-satellite-study-helps-create-new-protected-area-in-indonesia/#respond</comments>
					<pubDate>05 May 2026 14:56:57 +0000</pubDate>
											<dc:creator>
							<![CDATA[Claire Turrell]]>
						</dc:creator>
										<author>
						<![CDATA[Isabel Esterman]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/05/05093127/Konservasi-Indonesia_Whale-Shark_Photo-By-Abdi-Hasan-4-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=318672</guid>

					
											<locations>
							<![CDATA[Asia, Indian Ocean, Indonesia, and Southeast Asia]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Animals, Biodiversity, Conservation, data, Endangered Species, Environment, Fish, Fishing, Marine, Marine Animals, Marine Conservation, Oceans, Remote Sensing, Research, Saltwater Fish, Sharks, Whale Sharks, and Wildlife]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[“The whale sharks are a good omen for the fishers because they know when the whale sharks come, that means that lots of small fish or anchovies are around,” says Edy Setyawan, the lead conservation scientist of the Elasmobranch Institute Indonesia. It is the relationship between whale sharks (Rhincodon typus) and fishers in Indonesia that [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[“The whale sharks are a good omen for the fishers because they know when the whale sharks come, that means that lots of small fish or anchovies are around,” says Edy Setyawan, the lead conservation scientist of the Elasmobranch Institute Indonesia. It is the relationship between whale sharks (Rhincodon typus) and fishers in Indonesia that has enabled marine biologists from Konservasi International and Elasmobranch Institute Indonesia to satellite tag more than 70 whale sharks for a decade-long study that has revealed previously unknown migration routes, feeding grounds and a whale shark nursery. It is one of the biggest tracking data sets across the globe on whale sharks and is the first time such a detailed survey has been conducted in the Indo-Pacific. While 60% of the global population of whale sharks can be found in the Indo-Pacific, it can be difficult for researchers to study them because the species travel such long distances. But the researchers experienced a breakthrough when they when found out about the relationship between bagan fishers and whale sharks. A satellite-tagged whale shark. Whale sharks are filter feeders and the world&#8217;s largest fish, typically growing to about 12 meters (39 feet), but occasionally reaching 20 meters (66 feet) in length. Image by Abdi-Hasan. Bagan fishers work on floating wooden platforms from which they lower an oversized net into the water to catch fish. Working at night with lights, the fishers attract shoals of ikan bilis (anchovies) into their nets. The whale sharks, which follow the small&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/05/a-10-year-whale-shark-satellite-study-helps-create-new-protected-area-in-indonesia/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-318672</doi>				</item>
						<item>
					<title>Brazil bill aims to ban satellite tool used to slow Amazon deforestation</title>
					<link>https://news.mongabay.com/2026/04/brazil-bill-aims-to-ban-satellite-tool-used-to-slow-amazon-deforestation/</link>
					<comments>https://news.mongabay.com/2026/04/brazil-bill-aims-to-ban-satellite-tool-used-to-slow-amazon-deforestation/#respond</comments>
					<pubDate>30 Apr 2026 18:06:32 +0000</pubDate>
											<dc:creator>
							<![CDATA[Fernanda Wenzel]]>
						</dc:creator>
										<author>
						<![CDATA[Alexandre de Santi]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/04/30115532/airbus_earthrise-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=318472</guid>

					
											<locations>
							<![CDATA[Amazon, Brazil, Latin America, and South America]]>
						</locations>
					
											<topic-tags>
							<![CDATA[agribusiness, Conservation, Crime, data, Deforestation, Environment, Forests, Illegal Mining, Law, Rainforest Destruction, Rainforests, Regulations, Remote Sensing, and Satellite Imagery]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[The agribusiness caucus is pushing restrictions on the technology that has helped halve deforestation since 2023.]]>
						</description>
																					<content:encoded>
							<![CDATA[​In May 2025, a delegation of angry politicians and agribusinessmen from the Brazilian state of Pará traveled to the national capital to protest against the actions of the federal environmental agency, IBAMA. Their frustration stemmed from embargoes imposed by IBAMA on 544 rural properties in the municipality of Altamira, one of the Amazon’s deforestation hotspots. In each case, satellite imagery had detected illegal forest clearing, prompting authorities to block the areas from further production activities. ​“Everyone came here to present their concerns and ask for solutions regarding productive areas in the state of Pará,” Pará Governor Helder Barbalho said at the time. ​Almost a year later, their resentment has been distilled into a new bill proposing a ban on the so-called remote embargoes. Today, IBAMA uses satellite imagery to identify where illegal deforestation is occurring. Once they detect a recently deforested area, environmental agents verify whether there’s an environmental license authorizing that clearance — in the Amazon, around 90% of forest felling is illegal. If there’s no authorization, the agency issues an embargo as a preventive measure from behind its computers. The system is one of the tools that helped the administration of President Luiz Inácio Lula da Silva halve deforestation numbers in the Amazon since taking office at the start of 2023. “Today we have a wealth of ultra-high-resolution satellite imagery, and we can cross-reference information from various databases,” Wallace Lopes, a representative of the federal environmental agents association, ASCEMA, told Mongabay. ​Jair Schmitt, director of environmental protection and&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/04/brazil-bill-aims-to-ban-satellite-tool-used-to-slow-amazon-deforestation/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-318472</doi>				</item>
						<item>
					<title>A “good year” for forests changes less than it seems</title>
					<link>https://news.mongabay.com/2026/04/a-good-year-for-forests-changes-less-than-it-seems/</link>
					<comments>https://news.mongabay.com/2026/04/a-good-year-for-forests-changes-less-than-it-seems/#respond</comments>
					<pubDate>29 Apr 2026 17:55:31 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/04/29175125/drc_2606697x-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=318421</guid>

					
											<locations>
							<![CDATA[Africa, Amazon, Asia, Congo Basin, Global, Latin America, and South America]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Agriculture, Analysis, Climate Change, Conservation, data, Deforestation, Drivers Of Deforestation, El Nino, Environment, Fires, Forests, Green, Impact Of Climate Change, Rainforests, Remote Sensing, Satellite Imagery, Threats To Rainforests, and Tropical Forests]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[The rate of tropical primary forest loss fell sharply in 2025, reversing the record highs of the year before. On paper, it looks like progress. In reality, the dip is likely only a temporary reprieve. The decline followed an exceptional year for wildfires. In 2024, drought helped drive some of the largest fire-related losses on [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[The rate of tropical primary forest loss fell sharply in 2025, reversing the record highs of the year before. On paper, it looks like progress. In reality, the dip is likely only a temporary reprieve. The decline followed an exceptional year for wildfires. In 2024, drought helped drive some of the largest fire-related losses on record. In 2025, those climatic pressures eased, and the area lost to fire dropped with them. But the root causes—commodity-driven agricultural expansion, patchy enforcement, and growing climate stress—remain stubbornly in place. A single year’s improvement does not shift that fundamental footing. Tropical primary forest loss by year since 2002 What stands out is the pattern of loss. Forest loss is becoming less predictable, moving in sharper swings tied to weather as much as policy. Fire now accounts for a large share of global tree cover loss, and its behavior tracks temperature and rainfall extremes. When conditions align, losses surge. When they do not, they fall back. But the needle barely moves on the long-term trend: forest loss remains persistently high. Fire does not simply clear land; it hollows out forests in ways that make further loss more likely. Repeated burns thin canopies and dry the forest floor, eroding the processes that allow forests to recover. In parts of the Amazon, clearing has given way to a self-reinforcing cycle of decay, where degradation serves as a precursor to total forest loss. Climate is an increasingly active factor. Forecasts point to a likely El Niño in 2026,&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/04/a-good-year-for-forests-changes-less-than-it-seems/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-318421</doi>				</item>
						<item>
					<title>AI tool tracks spread of illegal gold mining in Amazon protected areas</title>
					<link>https://news.mongabay.com/2026/04/ai-tool-tracks-spread-of-illegal-gold-mining-in-amazon-protected-areas/</link>
					<comments>https://news.mongabay.com/2026/04/ai-tool-tracks-spread-of-illegal-gold-mining-in-amazon-protected-areas/#respond</comments>
					<pubDate>24 Apr 2026 09:56:11 +0000</pubDate>
											<dc:creator>
							<![CDATA[Constance Malleret]]>
						</dc:creator>
										<author>
						<![CDATA[Alexandra Popescu]]>
					</author>
							<category><![CDATA[Amazon]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2021/06/11143403/foto_58-edit-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=317945</guid>

					
											<locations>
							<![CDATA[Amazon, Bolivia, Brazil, Colombia, Ecuador, Guyana, Latin America, Peru, South America, Suriname, and Venezuela]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Artificial Intelligence, Biodiversity, Deforestation, Drivers Of Deforestation, Forest Destruction, Forest Loss, Gold Mining, Illegal Mining, Indigenous Peoples, Indigenous Rights, Land Rights, Mining, Protected Areas, and Satellite Imagery]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[In July 2025, the Indigenous Shuar people celebrated the end of a decade-long struggle when they received official titles for three communities — the Shuar Tunants, Kampan and Tsuntsuim –- within the Kutukú Shaimi Protected Forest, in the south of the Ecuadorean Amazon. But in one of those communities, satellite imagery shows that between August [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[In July 2025, the Indigenous Shuar people celebrated the end of a decade-long struggle when they received official titles for three communities — the Shuar Tunants, Kampan and Tsuntsuim –- within the Kutukú Shaimi Protected Forest, in the south of the Ecuadorean Amazon. But in one of those communities, satellite imagery shows that between August and December 2025, a gaping hole appeared in the forest around a riverbend — a mining scar. Despite the Tunants territory’s newly formalized status, deforestation due to gold mining nearly tripled, reaching 2 hectares (5 acres) in size in the last three months of 2025, according to Amazon Mining Watch Panorama, a new quarterly report. The report shows that deforestation due to illegal gold mining continues to grow across the Amazon, threatening protected parts of the rainforest. In total, 6,000 hectares (more than 14,800 acres) — about seven times the size of Central Park in New York City — of new mining scars appeared across protected areas and Indigenous territories over the last three months of 2025. This mining is presumed to be illegal, as most Amazonian countries have legislation prohibiting mining in Indigenous territories and protected areas, with experts warning that greater law enforcement is needed. Most of the deforestation caused by mining during that period took place in Brazil, with roughly 2,000 hectares (about 5,000 acres) of forest being cleared. This was followed by Peru with 1,700 hectares (4,200 acres), and Guyana with 900 hectares (about 2,200 acres). New mining scars were also&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/04/ai-tool-tracks-spread-of-illegal-gold-mining-in-amazon-protected-areas/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/04/ai-tool-tracks-spread-of-illegal-gold-mining-in-amazon-protected-areas/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-317945</doi>				</item>
						<item>
					<title>10 forces that could reshape the future of the world’s forests</title>
					<link>https://news.mongabay.com/2026/04/10-forces-that-could-reshape-the-future-of-the-worlds-forests/</link>
					<comments>https://news.mongabay.com/2026/04/10-forces-that-could-reshape-the-future-of-the-worlds-forests/#respond</comments>
					<pubDate>16 Apr 2026 00:59:21 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2025/12/18201846/brunei_251114145219_0263z-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=316981</guid>

											<reporting-project>
							<![CDATA[Founder's briefs]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Amazon, Global, Latin America, and South America]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Artificial Intelligence, Biodiversity, Carbon Market, climate finance, Conservation, Drivers Of Deforestation, Environment, extractives, Forest Carbon, Forestry, Governance, Illegal Logging, International Trade, Mining, Monitoring, Rainforests, Remote Sensing, Saving Rainforests, Solutions, Technology, Threats To Rainforests, Tropical Forests, and Wildtech]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[The forces shaping forests in the coming decade extend beyond any single driver. Shifts in politics, finance and technology are unfolding at once, often in ways that reinforce each other. The result is greater uncertainty for ecosystems and for those who depend on them. A new horizon scan, published in Forest Policy and Economics and [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[The forces shaping forests in the coming decade extend beyond any single driver. Shifts in politics, finance and technology are unfolding at once, often in ways that reinforce each other. The result is greater uncertainty for ecosystems and for those who depend on them. A new horizon scan, published in Forest Policy and Economics and led by Matilda Kabutey-Ongor, sets out to map these changes. The paper draws on structured consultation with researchers and practitioners and identifies ten emerging issues likely to matter between now and the early 2030s. They include the retreat of traditional aid, the spread of artificial intelligence, and a renewed push for mineral extraction. What stands out is how quickly these developments are unfolding. Institutions are not keeping up. Some of the most immediate changes are financial. For decades, conservation and forest governance have relied on public funding from wealthier countries. That support is weakening. Cuts to development assistance and research budgets threaten not only field projects but also the monitoring systems that underpin them. Philanthropy may offset part of the loss, though likely at a smaller scale and with less predictability. New forms of finance are emerging alongside this. Forest carbon markets continue to evolve, driven by regulation and corporate commitments, even as concerns remain over how credits are calculated and who benefits. At the same time, funds intended to channel money directly to Indigenous peoples and local communities are beginning to take shape. In some cases, they bypass governments and traditional intermediaries. Emerging issues&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/04/10-forces-that-could-reshape-the-future-of-the-worlds-forests/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/04/10-forces-that-could-reshape-the-future-of-the-worlds-forests/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-316981</doi>				</item>
						<item>
					<title>Tracking environmental crime in the Amazon: A conversation with Alexa Vélez</title>
					<link>https://news.mongabay.com/2026/04/tracking-environmental-crime-in-the-amazon-a-conversation-with-alexa-velez/</link>
					<comments>https://news.mongabay.com/2026/04/tracking-environmental-crime-in-the-amazon-a-conversation-with-alexa-velez/#respond</comments>
					<pubDate>09 Apr 2026 01:37:36 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/04/06223007/amazon_241208_123215013-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=315312</guid>

											<reporting-project>
							<![CDATA[Conversations with Mongabay leaders]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Latin America, Peru, and South America]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Crime, Environment, Interviews, Interviews With Environmental Journalists, Journalism, and Satellite Imagery]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Environmental crimes rarely occur in isolation. A road cut into a forest may appear first as a faint line in satellite imagery. Months later it becomes a corridor for timber, wildlife, and sometimes cocaine. The early stages often unfold far from capitals and rarely attract immediate scrutiny. When the evidence does emerge, it tends to [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Environmental crimes rarely occur in isolation. A road cut into a forest may appear first as a faint line in satellite imagery. Months later it becomes a corridor for timber, wildlife, and sometimes cocaine. The early stages often unfold far from capitals and rarely attract immediate scrutiny. When the evidence does emerge, it tends to arrive through a patchwork of sources: scientists sharing coordinates, local communities describing unfamiliar aircraft, or reporters willing to spend months tracing how a clearing became a network. Environmental journalism in Latin America has grown around precisely these kinds of fragments. The region contains some of the world’s most biodiverse landscapes and some of its most persistent environmental activities. Illegal mining, wildlife trafficking, and forest clearing often intersect with organized crime and political interests. Yet sustained reporting on these issues has historically been limited. Many large news organizations treat the environment as an occasional beat rather than a structural concern. Investigative work requires time, technical expertise, and sometimes the willingness to operate in difficult or dangerous conditions. In recent years the practice has begun to change. Satellite imagery, open databases, and new mapping tools allow reporters to track environmental change with greater precision than was possible even a decade ago. A clearing detected in a remote basin can be compared against historical imagery, connected to land concessions, and matched with field reporting. What once depended largely on eyewitness accounts now involves a blend of remote sensing, traditional reporting, and collaboration across borders. Those collaborations have become&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/04/tracking-environmental-crime-in-the-amazon-a-conversation-with-alexa-velez/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/04/tracking-environmental-crime-in-the-amazon-a-conversation-with-alexa-velez/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-315312</doi>				</item>
						<item>
					<title>Indonesia’s deforestation surges 66% in 2025, reversing years of decline</title>
					<link>https://news.mongabay.com/2026/04/indonesias-deforestation-surges-66-in-2025-reversing-years-of-decline/</link>
					<comments>https://news.mongabay.com/2026/04/indonesias-deforestation-surges-66-in-2025-reversing-years-of-decline/#respond</comments>
					<pubDate>03 Apr 2026 03:50:22 +0000</pubDate>
											<dc:creator>
							<![CDATA[Hans Nicholas Jong]]>
						</dc:creator>
										<author>
						<![CDATA[Hans Nicholas Jong]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2025/10/10103728/Nickel-Mining-on-Manuran-Island-Auriga-768x512.png" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=316903</guid>

					
											<locations>
							<![CDATA[Asia, Indonesia, Papua, and Southeast Asia]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Animals, Biodiversity, Climate Change, Corporate Environmental Transgressors, Corporations, Critical Minerals, data, Deforestation, Drivers Of Deforestation, Endangered Species, Energy, Food, food security, Forest Loss, Palm Oil, Protected Areas, Pulp And Paper, Rainforests, Remote Sensing, and Tropical Deforestation]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[JAKARTA — Indonesia’s deforestation surged in 2025, rising 66% from the previous year, marking a sharp reversal after several years of decline, according to new data from the NGO Auriga Nusantara. Based on satellite analysis, Auriga estimates that 433,751 hectares (1.1 million acres) of forest, an area more than twice the size of London, were [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[JAKARTA — Indonesia’s deforestation surged in 2025, rising 66% from the previous year, marking a sharp reversal after several years of decline, according to new data from the NGO Auriga Nusantara. Based on satellite analysis, Auriga estimates that 433,751 hectares (1.1 million acres) of forest, an area more than twice the size of London, were lost in 2025, the highest level in eight years. Forest loss had previously fallen to a historic low in 2021, following five consecutive years of decline since 2017, driven in part by a series of forest protection policies under former President Joko Widodo. But since 2022, the trend has reversed, with deforestation rising again before spiking in 2025 across all of Indonesia’s major islands. “The surge in deforestation in 2025 is truly distressing, taking Indonesia back to a time when it was at its highest,” said Auriga executive director Timer Manurung. The trend stands in contrast to developments in the Amazon, where deforestation has declined for three consecutive years following renewed enforcement and federal efforts under Brazil President Luiz Inácio Lula da Silva. In 2025, deforestation in the biome fell 11.1% to 579,600 hectares (1.4 million acres), the lowest level in more than a decade. “Brazil’s deforestation, concentrated in the Amazon, is declining. Meanwhile, Indonesia’s is increasing. So it’s possible Indonesia could become the world’s top deforester among tropical countries in 2025,” Timer said. Auriga’s findings are broadly consistent with early signals from official data. While the government has yet to release full-year figures for&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/04/indonesias-deforestation-surges-66-in-2025-reversing-years-of-decline/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/04/indonesias-deforestation-surges-66-in-2025-reversing-years-of-decline/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-316903</doi>				</item>
						<item>
					<title>Plenty of biodiversity data, but too few conservation answers</title>
					<link>https://news.mongabay.com/2026/03/plenty-of-biodiversity-data-but-too-few-conservation-answers/</link>
					<comments>https://news.mongabay.com/2026/03/plenty-of-biodiversity-data-but-too-few-conservation-answers/#respond</comments>
					<pubDate>25 Mar 2026 13:52:13 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/03/25112058/car_6969z-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=316240</guid>

					
					
											<topic-tags>
							<![CDATA[Camera Trapping, Conservation, Conservation Technology, DNA, Environment, Monitoring, Remote Sensing, Satellite Imagery, Technology, Wildlife, and Wildtech]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[&#160; For decades, conservation has depended on a deceptively simple act: counting. Scientists tally birds along migration routes, measure forest cover from satellites, or track wildlife populations through camera traps. These numbers underpin the decisions that shape environmental policy, from protected-area planning to international biodiversity targets. Yet the system that produces them is changing quickly, [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[&nbsp; For decades, conservation has depended on a deceptively simple act: counting. Scientists tally birds along migration routes, measure forest cover from satellites, or track wildlife populations through camera traps. These numbers underpin the decisions that shape environmental policy, from protected-area planning to international biodiversity targets. Yet the system that produces them is changing quickly, and not always coherently. A recent PNAS perspective led by William Sutherland and dozens of collaborators argues that biodiversity measurement is entering a pivotal moment. The tools used to monitor nature have expanded dramatically, while demand for reliable data has grown across governments, businesses and international agreements. The authors argue that making use of this expanding stream of biodiversity data will require changes not only in technology but also in how evidence is organized, shared, and interpreted. Nine changes needed to deliver a radical transformation in biodiversity measurement. Adapted from Sutherland et al (2026) The scale of data collection alone illustrates the shift. Global biodiversity databases now incorporate millions of observations from citizen scientists, museum collections, environmental DNA sampling and automated sensors. The Global Biodiversity Information Facility (GBIF), for example, adds hundreds of millions of species records each year, drawn from sources as varied as birdwatching apps and environmental impact assessments. In principle, this abundance opens new possibilities. Environmental DNA allows researchers to detect species from traces left in soil or water. Acoustic sensors can record entire soundscapes, with machine-learning systems identifying species calls automatically. Remote sensing tracks deforestation and habitat change in near real&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/03/plenty-of-biodiversity-data-but-too-few-conservation-answers/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/03/plenty-of-biodiversity-data-but-too-few-conservation-answers/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-316240</doi>				</item>
						<item>
					<title>The ocean’s enforcement gap</title>
					<link>https://news.mongabay.com/2026/03/the-oceans-enforcement-gap/</link>
					<comments>https://news.mongabay.com/2026/03/the-oceans-enforcement-gap/#respond</comments>
					<pubDate>23 Mar 2026 22:33:29 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/03/09225852/greenpeace-GP1SXQFJ-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=315393</guid>

											<reporting-project>
							<![CDATA[Founder's briefs]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Global, Indonesia, Pacific Islands, Pacific Ocean, and Palau]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Analysis, data, Environment, Fisheries, Fishing, Governance, Infrastructure, Marine, Marine Protected Areas, Monitoring, Oceans, Ports, Protected Areas, Remote Sensing, Satellite Imagery, and Technology]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[On paper, the sea is increasingly protected. Governments have designated vast marine protected areas (MPAs) and pledged to conserve 30% of the ocean by 2030. Maps shaded in reassuring blues now circulate widely. Yet the reality offshore often looks much the same as before. Industrial vessels still trawl through restricted waters, longliners set gear near [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[On paper, the sea is increasingly protected. Governments have designated vast marine protected areas (MPAs) and pledged to conserve 30% of the ocean by 2030. Maps shaded in reassuring blues now circulate widely. Yet the reality offshore often looks much the same as before. Industrial vessels still trawl through restricted waters, longliners set gear near vulnerable habitats, and sanctions for violations are sporadic. The problem is not a shortage of rules. It is the unevenness of enforcement. Creating an MPA is politically attractive. It signals ambition at relatively modest cost, especially when the protected waters lie far offshore. Policing those areas is harder. Patrol vessels are expensive to operate, legal cases can drag on, and fisheries agencies are rarely flush with funds. In many countries, officials face a dilemma: announce new protections and earn international praise, or spend scarce resources enforcing existing ones and risk confrontation with powerful domestic interests. Frozen tuna are transferred from the Hung Hwa 202, a Taiwanese longliner, to the Hsiang Hao, a Panama-flagged reefer operating out of Tokyo, Japan, in the middle of the Atlantic Ocean. The Greenpeace ship Arctic Sunrise and crew are investigating distant water fishing fleet practices in the Mid-Atlantic during September and October 2019. Photo credit: © Tommy Trenchard Evidence presented in a widely-cited 2014 Nature paper suggests that compliance depends less on the size of protected areas than on whether rules are visible and credible. Studies comparing MPAs across regions consistently find that ecological benefits correlate with enforcement capacity. A&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/03/the-oceans-enforcement-gap/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-315393</doi>				</item>
						<item>
					<title>Accidental discovery reveals new climate threat to emperor penguins</title>
					<link>https://news.mongabay.com/2026/03/accidental-discovery-reveals-new-climate-threat-to-emperor-penguins/</link>
					<comments>https://news.mongabay.com/2026/03/accidental-discovery-reveals-new-climate-threat-to-emperor-penguins/#respond</comments>
					<pubDate>17 Mar 2026 05:42:46 +0000</pubDate>
											<dc:creator>
							<![CDATA[Abhishyant Kidangoor]]>
						</dc:creator>
										<author>
						<![CDATA[Abhishyantkidangoor]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/03/17031546/Image1-768x512.jpeg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=315816</guid>

					
											<locations>
							<![CDATA[Antarctica]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Animals, Birds, Climate, Climate Change, Coastal Ecosystems, Conservation, data, Environment, Global Warming, Penguins, Remote Sensing, Sea Ice, and Wildlife]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[The plight of the emperor penguin might be more dire than previously thought. For the first time, scientists have used satellite data to discover new locations in Antarctica where the birds go to shed and replace their feathers every year, an event known as molting. However, they also found that these molting sites might have [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[The plight of the emperor penguin might be more dire than previously thought. For the first time, scientists have used satellite data to discover new locations in Antarctica where the birds go to shed and replace their feathers every year, an event known as molting. However, they also found that these molting sites might have melted from under the penguins, potentially causing fatalities. Emperor penguins (Aptenodytes forsteri), native to Antarctica, are the biggest of the penguin species. Since they heavily rely on sea ice for their survival, global warming is one of the major threats to their existence. A 2021 study estimated that the birds could lose 98% of their colonies and become “quasi-extinct” by the end of the century if sea ice continues to decline at projected rates. Every year, around late January, emperor penguins move to stable sea ice attached to a coastline to molt. It&#8217;s a life stage that scientists dub &#8220;catastrophic molting” because, unlike other animals, penguins shed all their feathers at once. Molting, however, is a vulnerable life stage. For one, the process of shedding and growing new plumage consumes a lot of energy. Over the four to five weeks of molting, the birds also lose 40-50% of their body weight. “Because the penguin is not waterproof during that period, they can&#8217;t go out into the sea to forage and hunt,” Peter Fretwell, senior geographic and remote-sensing scientist at the British Antarctic Survey, who discovered the new molting sites, told Mongabay in a video interview.&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/03/accidental-discovery-reveals-new-climate-threat-to-emperor-penguins/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-315816</doi>				</item>
						<item>
					<title>How a community defended its ancestral forest from logging</title>
					<link>https://news.mongabay.com/2026/03/how-a-community-defended-its-ancestral-forest-from-logging/</link>
					<comments>https://news.mongabay.com/2026/03/how-a-community-defended-its-ancestral-forest-from-logging/#respond</comments>
					<pubDate>16 Mar 2026 15:45:57 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2025/09/09162922/gabon_massaha_2149_25-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=315762</guid>

											<reporting-project>
							<![CDATA[Founder's briefs]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Africa, Central Africa, Congo Basin, and Gabon]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Community-based Conservation, Conservation, Conservation Solutions, Conservation Technology, data, Deforestation, Environment, Forestry, Forests, Happy-upbeat Environmental, Indigenous Peoples, Land Rights, Logging, Mapping, Rainforests, Remote Sensing, Solutions, Technology, Traditional Knowledge, Tropical Forests, and Wildtech]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[&#160; To the cartographers of the modern conservation world, the forests of northeastern Gabon can appear almost empty. Satellite images show a deep green canopy stretching across the Congo Basin. Global datasets classify large tracts as “intact forest landscapes”, areas supposedly free of industrial disturbance and largely untouched by people. On paper, such forests look [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[&nbsp; To the cartographers of the modern conservation world, the forests of northeastern Gabon can appear almost empty. Satellite images show a deep green canopy stretching across the Congo Basin. Global datasets classify large tracts as “intact forest landscapes”, areas supposedly free of industrial disturbance and largely untouched by people. On paper, such forests look pristine. The reality, as residents of the village of Massaha know well, is more complicated. In recent years the community has been fighting to protect a stretch of rainforest south of their village from industrial logging. The forest, known locally as Ibola Dja Bana Ba Massaha—“the reserve of all Massaha’s children”—lies within a concession once allocated to a logging company. For generations the people of Massaha have hunted, fished and farmed there. Sacred lakes and ritual sites lie beneath the canopy. The remains of ancestral villages dot the forest floor. Yet none of this appeared on the maps that guided official decisions. The gap between these two views of the forest is the subject of a recent study examining Massaha’s campaign to document its territory. The researchers compared global conservation maps and colonial-era cartography with a detailed map created by the community itself. The result reveals something striking: the forest that appears empty in official datasets is, in fact, layered with history and meaning. Image courtesy of Ivindo FM. Massaha’s map emerged from an unusually collaborative process. Using participatory geographic tools, villagers gathered to project satellite images of their territory onto a wall. Elders identified&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/03/how-a-community-defended-its-ancestral-forest-from-logging/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/03/how-a-community-defended-its-ancestral-forest-from-logging/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-315762</doi>				</item>
						<item>
					<title>Rush to put AI data centers in space poses poorly understood dangers</title>
					<link>https://news.mongabay.com/2026/03/rush-to-put-ai-data-centers-in-space-poses-poorly-understood-dangers/</link>
					<comments>https://news.mongabay.com/2026/03/rush-to-put-ai-data-centers-in-space-poses-poorly-understood-dangers/#respond</comments>
					<pubDate>11 Mar 2026 19:26:07 +0000</pubDate>
											<dc:creator>
							<![CDATA[Sean Mowbray]]>
						</dc:creator>
										<author>
						<![CDATA[Glenn Scherer]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/03/11174825/Image_5_NHQ202602130016orig-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=315584</guid>

											<reporting-project>
							<![CDATA[Planetary Boundaries]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Global]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Air Pollution, Artificial Intelligence, Chemicals, Climate Change, Conservation, data, Data centers, Energy, Energy Efficiency, Environment, Governance, Ozone Layer, Politics, Pollution, Remote Sensing, Research, Space, and Technology]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Plans are afoot to launch large mega-constellations of AI data centers into Earth orbit. That ambition, pursued by multiple space industry leaders, coincides with a warning from scientists of potentially “catastrophic outcomes,” as the likelihood of satellite collisions in orbit increases. If all the satellites currently in low Earth orbit were suddenly unable to maneuver [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Plans are afoot to launch large mega-constellations of AI data centers into Earth orbit. That ambition, pursued by multiple space industry leaders, coincides with a warning from scientists of potentially “catastrophic outcomes,” as the likelihood of satellite collisions in orbit increases. If all the satellites currently in low Earth orbit were suddenly unable to maneuver to avoid each other — a problem that could be triggered by a massive solar storm — then a potentially catastrophic collision would likely occur in just under four days, researchers say. That’s the latest finding from the CRASH Clock, a tool developed to monitor the timeframe during which a low Earth orbit satellite collision is likely to happen during a major solar event. Such events are difficult to predict and come with limited warning; solar activity peaks roughly every 11 years. The CRASH Clock assesses the sustainability of space operations, explains Sarah Thiele, first author on the paper and a Ph.D. student at Princeton University. “The paper demonstrates how reliant we are on the continuous successful active management of satellites in orbit, and how the margin for error in these operations is decreasing over time,” she writes in an email to Mongabay. In 2018, the CRASH estimate stood at a comfortable 164 days. But that margin of safety shrank rapidly as the proliferation of satellites surged, and was shortened to 5.5 days by June 2025, while a calculation using orbital data from January 2026 cut it to 3.8 days. “This just shows how reliant&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/03/rush-to-put-ai-data-centers-in-space-poses-poorly-understood-dangers/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/03/rush-to-put-ai-data-centers-in-space-poses-poorly-understood-dangers/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-315584</doi>				</item>
						<item>
					<title>Precision conservation: the rise of place-specific strategies where protection works best</title>
					<link>https://news.mongabay.com/2026/03/where-conservation-works-best-the-rise-of-place-specific-strategies/</link>
					<comments>https://news.mongabay.com/2026/03/where-conservation-works-best-the-rise-of-place-specific-strategies/#respond</comments>
					<pubDate>09 Mar 2026 00:04:21 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2023/04/28211141/st_pl_raja-ampat_230617-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=315006</guid>

											<reporting-project>
							<![CDATA[Founder's briefs]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Global]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Analysis, Conservation, Environment, Green, Remote Sensing, and Satellite Imagery]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Conservation has long wrestled with a deceptively simple question: not whether to act, but where action will matter most. Forest restoration, protected areas, wildlife corridors, and enforcement patrols all compete for limited funding across landscapes that differ enormously in ecology, governance, and human pressures. A growing body of research argues that improving outcomes depends less [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Conservation has long wrestled with a deceptively simple question: not whether to act, but where action will matter most. Forest restoration, protected areas, wildlife corridors, and enforcement patrols all compete for limited funding across landscapes that differ enormously in ecology, governance, and human pressures. A growing body of research argues that improving outcomes depends less on inventing new tools than on deploying existing ones more selectively — directing interventions to places where they are most likely to deliver benefits relative to doing nothing. A 2025 perspective by Rebecca Spake and colleagues, published in Nature Ecology &amp; Evolution, describes this idea using a new label: “precision ecology.” The authors argue conservation science should move beyond estimating average effects of interventions. The goal is to predict site-specific outcomes, allowing managers to tailor actions to local conditions. The proposal draws inspiration from precision medicine, which uses patient-level data to match treatments to individuals. At its core, the argument is pragmatic. Conservation operates in heterogeneous systems, where the same intervention can succeed in one place and fail in another. As Spake and colleagues note, implementation outcomes vary across landscapes due to complex ecological and social factors, making “one-size-fits-all” strategies unreliable. The paper outlines statistical approaches — many adapted from economics and machine learning — designed to estimate how the impact of a treatment varies with environmental context. In principle, such methods could identify which forest stands would gain the most carbon from restoration, which rivers would benefit most from buffer zones, or where invasive-species&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/03/where-conservation-works-best-the-rise-of-place-specific-strategies/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/03/where-conservation-works-best-the-rise-of-place-specific-strategies/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-315006</doi>				</item>
						<item>
					<title>The power of cities over the seas</title>
					<link>https://news.mongabay.com/2026/03/the-power-of-cities-over-the-seas/</link>
					<comments>https://news.mongabay.com/2026/03/the-power-of-cities-over-the-seas/#respond</comments>
					<pubDate>01 Mar 2026 14:10:00 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/02/24233832/Abu-Dhabi-satellite-esa-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=314674</guid>

											<reporting-project>
							<![CDATA[Founder's briefs]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Global]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Analysis, Cities, Commentary, data, Fisheries, Fishing, Food, food security, Governance, Illegal Fishing, Infrastructure, Marine, Oceans, Overfishing, philanthropy, Ports, Remote Sensing, Supply Chain, and Sustainability]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Debates about ocean protection tend to orbit national governments and multilateral treaties. Fisheries quotas, shipping rules, and marine reserves are usually negotiated by states. Yet much of the activity that determines the ocean’s health passes through cities. Ports regulate entry. Municipal buyers decide what seafood is served in schools and hospitals. Urban air-quality rules shape [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Debates about ocean protection tend to orbit national governments and multilateral treaties. Fisheries quotas, shipping rules, and marine reserves are usually negotiated by states. Yet much of the activity that determines the ocean’s health passes through cities. Ports regulate entry. Municipal buyers decide what seafood is served in schools and hospitals. Urban air-quality rules shape how ships fuel and operate at berth. Taken together, these levers suggest that coastal cities may exert more practical influence over the seas than is commonly acknowledged. Consider the modern port, which is less a waterfront than a complex regulatory zone. Ships cannot simply arrive and unload. They must comply with local safety, environmental, and operational requirements. The ports of Los Angeles and Long Beach, for instance, introduced a Clean Air Action Plan that has pushed shipping lines toward cleaner fuels, shore power, and newer vessels. The primary motivation was urban smog, not marine conservation. Still, the result has been a measurable reduction in greenhouse gases and particulate pollution across one of the world’s busiest maritime corridors. When ports tighten standards, global shipping companies adjust, because the trade is too valuable to forgo. Procurement offers another underappreciated channel. Large metropolitan governments purchase enormous volumes of food for public institutions. If those buyers adopt sustainability criteria for seafood, they can influence supply chains in ways that national policy often struggles to achieve. Several U.S. cities now use guidelines informed by organizations such as the Monterey Bay Aquarium’s Seafood Watch program. In Brazil, reporting revealed that shark&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/03/the-power-of-cities-over-the-seas/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/03/the-power-of-cities-over-the-seas/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-314674</doi>				</item>
						<item>
					<title>Amazon deforestation on pace to be the lowest on record, says Brazil</title>
					<link>https://news.mongabay.com/2026/02/amazon-deforestation-on-pace-to-be-the-lowest-on-record-says-brazil/</link>
					<comments>https://news.mongabay.com/2026/02/amazon-deforestation-on-pace-to-be-the-lowest-on-record-says-brazil/#respond</comments>
					<pubDate>17 Feb 2026 20:03:06 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2024/12/14165901/amazon_241209142713z-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=314394</guid>

					
											<locations>
							<![CDATA[Amazon, Brazil, Latin America, and South America]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Conservation, Deforestation, Environment, Forests, Green, Happy-upbeat Environmental, Rainforests, Remote Sensing, Satellite Imagery, and Tropical Forests]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Brazil’s latest satellite alerts indicate that deforestation in the Amazon has continued to fall into early 2026, extending a downward trend that began after a sharp rise earlier in the decade. Data released by the National Institute for Space Research (INPE) show that 1,325 square kilometers of forest clearing were detected between Aug. 1, 2025 [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Brazil’s latest satellite alerts indicate that deforestation in the Amazon has continued to fall into early 2026, extending a downward trend that began after a sharp rise earlier in the decade. Data released by the National Institute for Space Research (INPE) show that 1,325 square kilometers of forest clearing were detected between Aug. 1, 2025 — the start of Brazil’s deforestation year — and Jan. 31, 2026. That is down from 2,050 square kilometers during the same period a year earlier and represents the lowest figure for this interval since 2014. Over a longer horizon, the picture is similarly positive from a conservation perspective. Alerts for the trailing 12 months totaled 3,770 square kilometers, compared with 4,245 square kilometers at this time last year, also the lowest since 2014. These figures come from INPE’s DETER system, which uses near-real-time satellite imagery primarily to guide enforcement. While less precise than annual surveys, DETER is widely regarded as a reliable indicator of short-term trends. Accumulated deforestation for Aug 1-Jan 31 in recent years according to INPE&#8217;s DETER alert system. Image by Mongabay Data from INPE&#8217;s DETER and Imazon&#8217;s SAD detection systems showing deforestation in the Legal Amazon (&#8220;Amazonia&#8221;). Image by Mongabay Speaking at a press conference announcing the data last week, Environment Minister Marina Silva said the decline reflects coordinated government action. She noted that most high-deforestation municipalities have now joined federal initiatives aimed at curbing illegal clearing. “Of the 81 municipalities with the highest deforestation rates, 70 have already made this&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/02/amazon-deforestation-on-pace-to-be-the-lowest-on-record-says-brazil/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/02/amazon-deforestation-on-pace-to-be-the-lowest-on-record-says-brazil/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-314394</doi>				</item>
						<item>
					<title>Scientists can’t agree on where the world’s forests are</title>
					<link>https://news.mongabay.com/2026/02/scientists-cant-agree-on-where-the-worlds-forests-are/</link>
					<comments>https://news.mongabay.com/2026/02/scientists-cant-agree-on-where-the-worlds-forests-are/#respond</comments>
					<pubDate>17 Feb 2026 17:42:43 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2026/02/17172325/cape-york-satellite-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=314385</guid>

											<reporting-project>
							<![CDATA[Founder's briefs]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Africa, Brazil, East Africa, Global, India, Kenya, Latin America, South America, and South Asia]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Conservation, data, Environment, Forests, Green, Rainforests, Remote Sensing, Satellite Imagery, Temperate Forests, and Tropical Forests]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[A deceptively simple question underlies many global environmental policies: where, exactly, are the world’s forests? A new study suggests the answer depends heavily on which map one consults—and that the differences are large enough to reshape climate targets, conservation priorities, and development spending. Researchers Sarah Castle, Peter Newton, Johan Oldekop, Kathy Baylis, and Daniel Miller [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[A deceptively simple question underlies many global environmental policies: where, exactly, are the world’s forests? A new study suggests the answer depends heavily on which map one consults—and that the differences are large enough to reshape climate targets, conservation priorities, and development spending. Researchers Sarah Castle, Peter Newton, Johan Oldekop, Kathy Baylis, and Daniel Miller compared ten widely used global forest datasets derived from satellite imagery. These products underpin everything from carbon accounting to biodiversity assessments. Yet they rarely agree. Across the area identified as forest by at least one dataset, only about 26% was classified as forest by all of them. Even after adjusting maps to a common spatial scale, agreement improved only modestly. This divergence stems partly from differing definitions. Some datasets count areas with sparse tree cover as forest; others require dense canopy. A threshold of 10% canopy cover, for example, will include savannas and woodland mosaics, while a 70% threshold captures only closed forests. Resolution also matters. High-resolution imagery can detect narrow forest strips or small patches that coarser data miss. Methodological choices—such as sensor type, machine-learning algorithm, and training data—introduce further variation. A) Spatial agreement of forest cover classifications between eight land cover datasets. Spatial agreement is defined as the number of datasets that define a pixel as forest, between 1 and 8. Full agreement between all eight datasets corresponds to a value of eight (dark green), and no agreement between the datasets corresponds to a value of 1 (dark purple). No color (gray) indicates&hellip;This article was originally published on <a href="https://news.mongabay.com/2026/02/scientists-cant-agree-on-where-the-worlds-forests-are/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2026/02/scientists-cant-agree-on-where-the-worlds-forests-are/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-314385</doi>				</item>
						<item>
					<title>15 forces that could reshape conservation in the next 10 years</title>
					<link>https://news.mongabay.com/2025/12/15-forces-that-could-reshape-conservation-in-the-next-10-years/</link>
					<comments>https://news.mongabay.com/2025/12/15-forces-that-could-reshape-conservation-in-the-next-10-years/#respond</comments>
					<pubDate>28 Dec 2025 20:24:02 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2025/12/28185527/ca_purisma_251227_174031516-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=312006</guid>

											<reporting-project>
							<![CDATA[Founder's briefs]]>
						</reporting-project>
					
											<locations>
							<![CDATA[Global]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Artificial Intelligence, Biodiversity, Environment, Forests, Green, Pollution, Remote Sensing, Technology, Tropical Forests, and Wildtech]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Conservation debates are usually framed by damage already visible. Forests are cleared, fisheries decline, protected areas invaded, and budgets cut. Developments that have not yet hardened into crises tend to escape sustained attention, partly because they are unfamiliar and partly because they fall between established fields. A recent horizon scan led by William J. Sutherland of Cambridge [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Conservation debates are usually framed by damage already visible. Forests are cleared, fisheries decline, protected areas invaded, and budgets cut. Developments that have not yet hardened into crises tend to escape sustained attention, partly because they are unfamiliar and partly because they fall between established fields. A recent horizon scan led by William J. Sutherland of Cambridge University and published in Trends in Ecology &amp; Evolution sets out to correct that imbalance by asking a strategic question: which emerging changes, still poorly understood, are most likely to shape biodiversity outcomes over the next decade? The exercise is not an attempt at prediction. It functions more like a risk register for those who prefer early warning to surprise. The fifteen issues identified span technology, climate dynamics, biology, and finance. None is certain; all carry consequences at scale. Several of the most consequential developments stem from advances in computation. Tiny machine-learning systems, designed to run on minimal power without internet access, promise to extend ecological monitoring into places long beyond the reach of conventional data collection. That matters for conservation, which still relies heavily on observation in remote and underfunded regions. That efficiency is not without cost. When models process information on site and discard what they do not classify as relevant, the opportunity for later reanalysis is lost. Intelligence becomes cheaper, while opportunities for later scrutiny diminish. Related gains are emerging from optical AI chips that use light rather than electricity. These technologies could sharply reduce the energy and water demands of data processing, easing&hellip;This article was originally published on <a href="https://news.mongabay.com/2025/12/15-forces-that-could-reshape-conservation-in-the-next-10-years/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
										<wfw:commentRss>https://news.mongabay.com/2025/12/15-forces-that-could-reshape-conservation-in-the-next-10-years/feed/</wfw:commentRss>
					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-312006</doi>				</item>
						<item>
					<title>The year in rainforests 2025: Deforestation fell; the risks did not</title>
					<link>https://news.mongabay.com/2025/12/the-year-in-rainforests-2025-deforestation-fell-the-risks-did-not/</link>
					<comments>https://news.mongabay.com/2025/12/the-year-in-rainforests-2025-deforestation-fell-the-risks-did-not/#respond</comments>
					<pubDate>26 Dec 2025 20:11:46 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2025/12/26174503/14-brunei_251114145042_0254z-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=312083</guid>

					
											<locations>
							<![CDATA[Africa, Amazon, Asia, Brazil, Central Africa, Colombia, Congo Basin, Democratic Republic Of Congo, Global, Indonesia, Latin America, Peru, Southeast Asia, Sumatra, and United States]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Biodiversity, Biodiversity credits, Carbon Credits, Carbon Market, Conservation, Conservation Finance, Deforestation, Environment, Fires, Forestry, Forests, Governance, Green, Illegal Logging, Illegal Trade, Indigenous Peoples, Politics, Protected Areas, Rainforest Destruction, Rainforests, Redd, Regulations, Remote Sensing, Satellite Imagery, Saving Rainforests, Solutions, Technology, Threats To Rainforests, Tropical Forests, and Year-end review]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[The story of the world’s tropical forests in 2025 was not one of dramatic reversal, but one shaped by accumulated pressure. In several regions, deforestation slowed. In others, loss continued in less visible forms, shaped by fire, degradation, and political choices not limited to large-scale clearing alone. Governments continued to speak the language of protection, [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[The story of the world’s tropical forests in 2025 was not one of dramatic reversal, but one shaped by accumulated pressure. In several regions, deforestation slowed. In others, loss continued in less visible forms, shaped by fire, degradation, and political choices not limited to large-scale clearing alone. Governments continued to speak the language of protection, even as infrastructure, extraction, and energy projects advanced into forest landscapes. Progress was real, though uneven, and the distance between policy commitments and conditions on the ground remained substantial. What distinguished the year was the growing influence of indirect forces, rather than a single driver of loss. Heat, drought, and past damage increasingly shaped forest outcomes, even where new clearing slowed. Commodity markets rewarded persistence more than short-lived price spikes. Finance shifted away from individual projects toward broader fiscal tools. Enforcement mattered, alongside institutional credibility and the ability to operate consistently over time. At the global level, climate diplomacy continued, with limited appetite for binding decisions. COP30 avoided collapse and deferred the hardest choices. Forests remained prominent in rhetoric while enforceable outcomes remained limited. Market-based tools—carbon credits, trade regulation, and conservation finance—advanced unevenly, shaped as much by political confidence and capacity as by technical design. Taken together, 2025 underscored that tropical forests are now shaped more by interacting systems rather than single policies. Finance, science, enforcement, conflict, and climate stress increasingly operate together, often reinforcing one another. This review traces where those systems functioned, where they faltered, and what that means for the forests caught&hellip;This article was originally published on <a href="https://news.mongabay.com/2025/12/the-year-in-rainforests-2025-deforestation-fell-the-risks-did-not/" data-wpel-link="internal">Mongabay</a>]]>
						</content:encoded>
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										<doi>https://doi.org/10.66709/news-312083</doi>				</item>
						<item>
					<title>Rethinking how we talk about conservation—and why it matters</title>
					<link>https://news.mongabay.com/2025/12/rethinking-how-we-talk-about-conservation-and-why-it-matters/</link>
					<comments>https://news.mongabay.com/2025/12/rethinking-how-we-talk-about-conservation-and-why-it-matters/#respond</comments>
					<pubDate>19 Dec 2025 21:56:53 +0000</pubDate>
											<dc:creator>
							<![CDATA[Rhett Ayers Butler]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2025/12/18201846/brunei_251114145219_0263z-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=311674</guid>

					
											<locations>
							<![CDATA[Asia, Global, and Indonesia]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Analysis, Conservation, Environment, Forests, Green, Happy-upbeat Environmental, Health, Hope and optimism, information ecosystem, Journalism, Planetary Health, Remote Sensing, and Wildlife]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Founder&#8217;s Briefs: An occasional series where Mongabay founder Rhett Ayers Butler shares analysis, perspectives and story summaries. For a movement so often framed by loss—and confronting a particularly difficult moment—conservation is relearning how to talk about itself. This shift may signal something deeper than messaging: a recalibration of what persuades people to care, to fund, [&#8230;]]]>
						</description>
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							<![CDATA[Founder&#8217;s Briefs: An occasional series where Mongabay founder Rhett Ayers Butler shares analysis, perspectives and story summaries. For a movement so often framed by loss—and confronting a particularly difficult moment—conservation is relearning how to talk about itself. This shift may signal something deeper than messaging: a recalibration of what persuades people to care, to fund, and to act, especially as the world edges toward 2030 amid ecological strain, political volatility, and thinning public trust. A few months ago, I put out an invitation to the conservation sector: share how you are navigating this moment, which many have described as a period of crisis. That invitation resurfaced recently when Crystal DiMiceli referenced it during a fireside chat with me at the Emerging Wildlife Conservation Leaders’ 20th anniversary event in Washington, D.C. DiMiceli asked what lessons are emerging so far. One of the most consistent responses has centered on communication: “Less crisis, more agency.” Not because the crisis has abated, but because alarm on its own no longer mobilizes as reliably as it once did. If anything, it exhausts. Years of grim headlines have revealed an uncomfortable truth: when people are offered only catastrophe, many disengage. They stop reading, stop caring, and, in some cases, stop believing that anything meaningful can still be done. What seems to be gaining ground instead is a focus on success—often partial, sometimes fragile, but demonstrable. Not triumphalism, but optimism grounded in evidence. Conservation framed as something people actively do, rather than something that merely happens to&hellip;This article was originally published on <a href="https://news.mongabay.com/2025/12/rethinking-how-we-talk-about-conservation-and-why-it-matters/" data-wpel-link="internal">Mongabay</a>]]>
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										<doi>https://doi.org/10.66709/news-311674</doi>				</item>
						<item>
					<title>Tech alone won’t stop poaching, but it’s changing how rangers work</title>
					<link>https://news.mongabay.com/2025/12/tech-alone-wont-stop-poaching-but-its-changing-how-rangers-work/</link>
					<comments>https://news.mongabay.com/2025/12/tech-alone-wont-stop-poaching-but-its-changing-how-rangers-work/#respond</comments>
					<pubDate>19 Dec 2025 00:06:15 +0000</pubDate>
											<dc:creator>
							<![CDATA[Daniella Garcia Almeida]]>
						</dc:creator>
										<author>
						<![CDATA[Rhett Butler]]>
					</author>
							<category><![CDATA[Uncategorized]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2025/12/18235740/GG_2022_0073-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=311687</guid>

					
											<locations>
							<![CDATA[Africa, Southern Africa, and Zambia]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Animals, Artificial Intelligence, Biodiversity, Camera Trapping, Conservation, Conservation Technology, Environment, Green, Remote Sensing, Technology, Wildlife, and Wildtech]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[As anti-poaching techniques have improved over the years, poachers have increasingly used technology to evade detection by patrols and park rangers. Now, conservationists are rising to the challenge of the resulting technological arms race with innovations of their own. Over the past few years, researchers and conservationists have worked to develop new technology to detect [&#8230;]]]>
						</description>
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							<![CDATA[As anti-poaching techniques have improved over the years, poachers have increasingly used technology to evade detection by patrols and park rangers. Now, conservationists are rising to the challenge of the resulting technological arms race with innovations of their own. Over the past few years, researchers and conservationists have worked to develop new technology to detect and track poaching, including mobile apps, sensors, and AI. In an effort to determine which devices, strategies, and technologies are most effective, researchers assessed a suite of new developments that have been deployed or hold promise, in a recent study published in Frontiers in Ecology and Evolution. “There&#8217;s all these tools out there to try and push back against something that is increasingly well financed, increasingly organized and difficult to combat,” said study co-author Drew Cronin, a conservation biologist at the North Carolina Zoo. Leopard sitting in a tree on the Mara North Conservancy in Kenya&#8217;s Maasai Mara. Photo Credit: Maria Meinen. The researchers found that mobile devices and apps are especially cost-effective for documenting poaching and for mapping the location of wildlife. Many useful apps have been developed, including WildScan, which contains a library of photos and descriptions of protected species that can help law enforcement and transport workers identify illegal wildlife trafficking. Acoustic sensors are already frequently deployed to non-invasively detect and monitor the presence of animals. This technology has gotten better and less expensive in recent years, making it an effective way to monitor vast areas for sounds like gunshots and chainsaws&hellip;This article was originally published on <a href="https://news.mongabay.com/2025/12/tech-alone-wont-stop-poaching-but-its-changing-how-rangers-work/" data-wpel-link="internal">Mongabay</a>]]>
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					<slash:comments>0</slash:comments>
										<doi>https://doi.org/10.66709/news-311687</doi>				</item>
						<item>
					<title>DRC hit by record deforestation in 2024, satellite data show</title>
					<link>https://news.mongabay.com/2025/11/drc-hit-by-record-deforestation-in-2024-satellite-data-show/</link>
					<comments>https://news.mongabay.com/2025/11/drc-hit-by-record-deforestation-in-2024-satellite-data-show/#respond</comments>
					<pubDate>26 Nov 2025 17:19:35 +0000</pubDate>
											<dc:creator>
							<![CDATA[Ruth Kamnitzer]]>
						</dc:creator>
										<author>
						<![CDATA[Morgan Erickson-Davis]]>
					</author>
							<category><![CDATA[africa]]></category>
										<enclosure url="https://imgs.mongabay.com/wp-content/uploads/sites/20/2025/11/26160309/chimpu-baby-768x512.jpg" type="image/jpeg" />
					<guid isPermaLink="false">https://news.mongabay.com/?p=310220</guid>

					
											<locations>
							<![CDATA[Africa, Central Africa, and Democratic Republic Of Congo]]>
						</locations>
					
											<topic-tags>
							<![CDATA[Agriculture, Conflict, data, Deforestation, Fires, Forest Loss, Forests, Human Rights, Illegal Logging, Logging, Old Growth Forests, Primary Forests, Protected Areas, Rainforests, Remote Sensing, Resource Conflict, Slash-and-burn, and Tropical Forests]]>
						</topic-tags>
					
					
											<description>
							<![CDATA[Africa’s great Congo Basin rainforest, often called the Earth’s second lung, covers an area about the size of India. Millions of people depend directly on the forest for food, energy and income. It is home to our closest relatives and some of the planet’s most threatened wildlife — gorillas (Gorilla sp.), chimpanzees (Pan troglodytes), bonobos [&#8230;]]]>
						</description>
																					<content:encoded>
							<![CDATA[Africa’s great Congo Basin rainforest, often called the Earth’s second lung, covers an area about the size of India. Millions of people depend directly on the forest for food, energy and income. It is home to our closest relatives and some of the planet’s most threatened wildlife — gorillas (Gorilla sp.), chimpanzees (Pan troglodytes), bonobos (Pan paniscus), okapi (Okapia johnstoni), forest elephants (Loxodonta cyclotis) and more. The humid forest with towering trees and extensive peatlands also helps regulate our global climate, taking in greenhouse gases emitted far beyond the forest’s borders. Sixty percent of the Congo Basin rainforest lies within the Democratic Republic of Congo (DRC), and around 70% of the DRC was covered in natural forest as of 2020, according to data visualized on the Global Forest Watch (GFW) platform. From 2002 to 2024, the DRC lost 7.1% of its forest cover, according to GFW satellite data, and experienced the third-largest absolute amount of primary forest loss globally, behind Brazil and Indonesia. (This estimate may be conservative and the actual amount even higher, according to GFW, as previous methods it had used to measure tree cover loss between 2001 and 2015 likely led to underestimations.) Annual primary forest loss in the DRC grew steadily over the past five years and spiked to a record high of 590,000 hectares (1.5 million acres) in 2024, according to GFW data. That’s up from 530,000 hectares (1.3 million acres) of primary forest loss in 2023 and 510,000 hectares in 2022. The data show&hellip;This article was originally published on <a href="https://news.mongabay.com/2025/11/drc-hit-by-record-deforestation-in-2024-satellite-data-show/" data-wpel-link="internal">Mongabay</a>]]>
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										<doi>https://doi.org/10.66709/news-310220</doi>				</item>
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