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Monday, March 30, 2026

 

Wildlife-friendly landscapes dramatically boost biodiversity in fragmented forests






University of East Anglia

Illustration of bird species contained in forest remnants 

image: 

Simplified contrast illustrating the number of Amazonian forest bird species contained by equal-sized forest remnants embedded within one of two fragmented forest landscapes dominated by either cattle pastures (above) or an open-water matrix (below). Colour plate drawn by Matheus Gadelha.

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Credit: Matheus Gadelha





A major new study has revealed that improving the landscapes surrounding forest remnants can dramatically increase their ability to retain bird species - even when the forest fragments themselves are small or isolated.

For decades, traditional ecological theory has treated isolated habitat remnants as ‘islands’, predicting species’ survival largely through area size and isolation. But these models have long overlooked the nature of the ‘matrix’: the farmland, vegetation, or open areas surrounding these habitat remnants.

This surrounding landscape is critical, as species must move through, use, or avoid it when navigating between forested areas.

Now, new research published today in Proceedings of the National Academy of Sciences (PNAS) provides the strongest global evidence to date that the quality and structure of the matrix play a crucial role in biodiversity survival.

The study - led by scientists from the Instituto Federal de Educação, Ciência e Tecnologia Farroupilha in Brazil, Slippery Rock University in the US, and University of East Anglia (UEA) in the UK - shows that even modest increases in nearby tree cover can substantially boost the number of bird species that survive in forest remnants.

Prof Carlos Peres, from UEA’s School of Environmental Sciences, said: “This study clearly shows how high-quality surrounding landscapes increase species retention within forest remnants across the tropics. The conservation gains from investing in a more hospitable matrix in agricultural and urban areas are far greater than previously realised.”

Lead author Dr Anderson Bueno, from the Instituto Federal de Educação, Ciência e Tecnologia Farroupilha, said: “Habitat remnant size is not the whole story. Two forest remnants of the same size can support very different numbers of bird species - those surrounded by farmland with nearby trees may host more than twice as many species as isolated remnants within reservoirs.”

Dr Chase Mendenhall, of Slippery Rock University, added: “We hope our work will inform more effective land‑use policy and encourage governments and landowners to invest in wildlife‑friendly farming practices that support both biodiversity and agricultural productivity.”

Key findings

The study revealed three major insights:

  • Small forest remnants retained significantly more bird species when surrounded by at least some tree cover rather than open water.
  • Landscapes with greater surrounding tree cover supported richer bird communities overall, particularly species strictly reliant on forest habitat.
  • Even small amounts of tree cover within just 300 metres of a forest remnant had a strong positive effect on species survival.

A new pathway for conservation

The findings highlight that, while protecting remaining forests is essential, restoring and improving the landscapes around them is also critical. Planting native trees, restoring degraded vegetation, and creating wildlife-friendly agricultural land can dramatically reduce local extinction risks – which the authors say is a highly encouraging message given that humanmodified landscapes now cover more than half of Earth’s land surface.

A global effort

The research team brought together 58 scientists from 19 countries to analyse results from 50 landscape-scale bird surveys across tropical and subtropical regions in the Americas, Africa, and Asia - all areas where natural landscapes have been heavily fragmented.

The unique design of the study compared two types of forest remnants: forest islands created by hydroelectric reservoirs, which represent the most extreme habitat fragmentation on Earth, and forest fragments embedded within terrestrial landscapes, often surrounded by agricultural land.

By comparing these contrasting systems, the researchers could quantify how much a more benign, tree-rich matrix can buffer species against local extinctions.

Researchers surveyed more than 1000 forest remnants - 336 forest islands and 669 terrestrial fragments - and recorded almost 2000 bird species across nearly 40,000 separate incidence records. These included: five Critically Endangered species; 12 Endangered; 44 Vulnerable; 83 Near Threatened; and 1810 Least Concern species.

As well as using point counts, transect and walkabout surveys, mist netting, and passive acoustic monitoring, satellite imagery enabled the researchers to map tree cover around each site and determine the ‘neighbourhood scale’ of habitat that matters most for forestdependent birds.

‘High-quality surrounding landscapes mitigate avian extirpations from forest remnants’ is due to be published in Proceedings of the National Academy of Sciences on March 31, 2026.

How Microplastics Threaten Marine Ecosystems and the Food Chain

Source: Originally published by Z. Feel free to share widely.

Microplastics, plastic particles smaller than 5 millimeters, can be found in land, air, and water, and have infiltrated our food chain, resulting in far-reaching health consequences for humans and nonhumans alike. In 2020, scientists discoveredthe “highest level of microplastic ever recorded on the seafloor,” revealing the extent of their impact on the marine ecosystem.

The lead author of the study, Ian Kane from the University of Manchester, said: “Almost everybody has heard of the infamous ocean ‘garbage patches’ of floating plastic, but we were shocked at the high concentrations of microplastics we found in the deep-seafloor.”

These microplastics enter the marine ecosystem directly and indirectly, for example, from landfills, where they are carried by wind into rivers and seas. “It is estimated that 8 million tonnes of plastics enter the seas and oceans each year,” stateda 2021 study published in MDPI.

Mussels can act as sentinels to assess and monitor microplastic pollution. Globally distributed in both freshwater and saltwater ecosystems as filter feeders, mussels are both sensitive to environmental pollution and play a key role in engineering aquatic ecosystems by processing huge quantities of water.

With serious concerns about microplastic contamination of food, particularly seafood, and human bodies growing, mussels will inevitably serve as an increasingly important bioindicator of microplastic pollution from the present into the future.

The Impacts of Plastic Disintegration

Manmade, fossil fuel-based plastics don’t biodegrade like natural materials; instead, they break up into increasingly tiny plastic particlesScientists categorize these particles by size: those 5–10 millimeters are called “mesoplastics,” those between 1 nanometer and 5 millimeters (about the diameter of a pencil eraser) are called “microplastics,” and those 1 nanometer (a human hair is 80,000-100,000 times nanometers wide) and smaller are “nanoplastics.” While nanoplastics are too small to be seen, microplastics and mesoplastics are fairly visible.

Microplastics that are “intentionally produced” for inclusion in cosmetics or exfoliating products, such as soap scrubs and toothpastes, are typically manufactured as tiny beads or flat pieces of glitter. These ready-made microplastics are called “primary” microplastics. Primary microplastics also include nurdles—small pellets of plastic melted down into the plastic products we are familiar with. Nurdles are often discharged into waterways through industrial wastewater runoff from plastic production facilities, and during shipping fires and spills from cargo ships. About 445,970 tons of nurdles are estimated to directly pollute the environment globally every year, especially aquatic ecosystems.

Plastic particles that form due to the disintegration of plastic materials are called “secondary” microplastics. These particles may be pieces of plastic film, fibers (from textiles and rope), foam, hard or soft fragments, and lines (such as from fishing gear). They break down from plastic packaging, synthetic textiles, paint, and other plastic materials used in our homes. Plastic’s breakdown is accelerated by sunlight, extreme temperatures, exposure to bacteria, fungi, and water, and by weathering.

These particles were first documented in marine ecosystems in the early 1970s and have since been found in indoor and outdoor air, drinking water, fresh and processed foods, fresh waters, household dust, plants and trees, oceans, soils, and in animals—including humans.

Plastics are not only harmful to our health but also impose significant economic costs. “Estimates suggest that plastic pollution causes about $75 billion per year in environmental damages, with $13 billion of this tied to marine ecosystems. For example, plastic pollution can deplete fish stocks and impact coastal tourism by littering popular beaches. It can damage infrastructure like urban drainage systems. It can even de-operationalize or sink ships by entangling propellers or clogging water intake systems responsible for cooling their engines,” pointed out the World Resources Institute.

Microplastics Threaten Marine Life

While plastic particles have virtually contaminated the entire Earth due to their constant movement through the biosphere, marine ecosystems in particular are a major repository for mesoplastics, microplastics, and nanoplastics. Freshwater systems empty into the oceans, and populous coastal areas—especially those that have been industrialized—are major sources of microplastic pollution in marine ecosystems. About 80 percent of plastics in the oceans are estimated to have traveled there via rivers and other freshwater systems. Flooding and weather events can push microplastics into rivers in significant quantities.

A 2021 report by the UN Environment Program (UNEP) stated that plastic accounts for 85 percent of marine litter, and by 2040, we can expect the volume of plastic pollution to nearly triple if we don’t take preventative measures.

Fish and other marine animals are exposed to microplastics in waters and sediments, from the sea surface to the seafloor. Many animals, including some fish species that people eat, consume nurdles and other round microplastics because they resemble their usual food sources, such as fish eggs and other plankton. Some fish species and marine animals are attracted to the smell of weathered plastic particles. Even relatively small amounts of plastic can be deadly to marine wildlife. For example, a 2025 study in the Proceedings of the National Academy of Sciences suggests consuming the equivalent volume of less than one sugar cube of plastic can kill one in two Atlantic puffins; less than half a baseball’s size in plastics can kill one in two Loggerhead turtles; and the amount of plastic in less than a sixth of a soccer ball can kill one in two harbor porpoises.

Microplastic consumption has been linked to adverse health effects in marine animals, including mussels. “Circulatory system of fish is impacted by the microplastic bioaccumulation in their tissues, influencing a number of hematological indices that are connected with immunity, osmotic pressure, blood clotting, molecular transport and fat metabolism,” stated a 2024 study in Toxicology Reports. Microplastics and plastic chemicals have also been linked togastrointestinal blockages, neurological issues, starvation, toxicity, and reproductive issues in marine life.

Filter feeders, including mussels, have limited abilities to sort and reject plastic particles as they siphon water for food. Mussels pull in about one-fourth cup of sea water per minute, a huge volume for a small animal. Studies have shown mussels from different regions with varying quantities and types of microplastics in their soft tissues and digestive systems. Mussels and other filter-feeding shellfish ingest greater amounts of microplastics than other marine creatures. Like other pollutants, microplastics bioaccumulate up the food web, concentrating inside the bodies of predators as they consume prey.

Ingestion of polyester plastic fibers has been shown to stunt the growth of young blue mussels by more than one-third. Smaller mussels with lower growth rates and stressors like inflammation can reduce the survival of mussels, and thus the overall availability of food sources for animals that prey on them, from birds to crabs, starfish, whelks, and, of course, people. Microplastics have also been linked to cellular and molecular damage in mussels.

What’s more, chemicals commonly manufactured into plastics, such as heavy metalsphthalates, and PFAS, have also been shown to bioaccumulate in the marine food web.

Marine Microplastic Pollution Raises Human Health Concerns

Microplastics have been detected throughout the human body, in people’s bloodstreams, bones, bone marrow, brains, breast milk, urine and feces of adults and infants, hair, hearts, kidneys, livers, lungs, penises, placentas, saliva and sputum, semen, skin, spleens, stomachs, testes, throat and airways, uteruses, and veins.

The presence of microplastics in people has been linked toAlzheimer’s diseasedementia (in mice), Parkinson’s disease, and other neurodegenerative disorders; inflammation, heart attack, stroke, and death; they have been found in samples ofbladder cancer; and are suspected to harm human fertility and reproductive health. Exposure to microplastic particles is also linked to cell damage and death.

Exactly how and why microplastics cause harm is under investigation. But scientists do know that microplastic particles can contain any number of 16,000 plastic chemicals, at least 4,200 of which have already been linked to adverse human health effects, including causing cancer and disrupting hormones.

In fish, microplastics tend to accumulate in the gills and digestive system, so it would seem that eviscerating fish before human consumption would minimize exposure. However, gilling and gutting fish does not necessarily eliminate microplastics. What’s more, some seafood, including some bivalves, crustaceans, and oilfish like sardines, are typically eaten whole, and it’s not always possible or practical to excise microplastic hotspots in their bodies. Seafood may contain more microplastics during certain seasons due to changes in ocean currents, rainfall and runoff, flooding, and other factors that increase pollution.

“Researchers estimate that adults in the United States may ingest nearly 4 million microplastic particles per year from protein sources alone,” stated EarthDay.org.

Scientists are still determining the full range of risks linked to human consumption of microplastics. Recommendations on the frequency and type of seafood consumption, based on age, sex, and pregnancy status, currently exist in the United Statesand Europe to minimize exposure to chemicals like PCBs and mercury. However, pollutants on which such guidelines have been developed do not necessarily include microplastics.

The Way Forward

The fact that seafood—and other major sources of nutrition, including fresh fruits and vegetables—are increasingly polluted with microplastics is a serious concern for human health. Billions of people around the world depend on seafood as a key source of nourishment (not to mention their livelihoods).

Scientists continue to search for microplastics inside the flesh, gills, and guts of marine animals eaten as seafood, including mussels. Researchers have found microplastics in all of the most-eaten mussel species purchased from markets, with an average of 0.13 to 2.45 microplastic particles per gram of mussel meat. The most contaminated organisms were found in the North Atlantic and South Pacific. In another 2024 study, researchers found that 99 percent of seafood samplespurchased in stores and collected from fishing vessels on the U.S. West Coast contained microplastics, with shrimp being the most contaminated type of seafood studied.

The study and understanding of how microplastics affect food safety is still in its “infancy.” Advanced analytical methods can help ensure more accurate detection of microplastic levels in certain foods, thereby enhancing monitoring. Governments, meanwhile, need to step up regulations and ensure “specific practices in food production, processing, and packaging to minimize the introduction and spread of microplastics,” according to an article in Smart Food Safe. Greater Industrial and international cooperation to address the issue can lead to consistent standards to make the food chain safer from microplastics. Moreover, “Regularly updating methodologies and standards based on new scientific findings ensures that strategies remain effective and aligned with the latest knowledge,” added the article.

California is leading the U.S. in monitoring microplastics in the marine environment. In 2022, it established its Statewide Microplastics Strategy, focusing on identifying microplastic pollution trends, risks, and sources. Academics continue to focus on monitoring microplastics, increasingly in sentinel species like mussels, often with the help of community scientists.

Mitigating Plastic Pollution Needs to Start at the Source

Pressure from consumers and strong policies, such as bans and taxes on single-use plastic products, can help eliminate plastic that inevitably breaks down into secondary microplastics. These actions are necessary to force businesses to move away from plastic and adopt plastic-free practices and products. Other laws, like the European Parliament’s 2025 legally binding regulation implementing mandatory prevention measures relating to “pellet loss” and the U.S. Microbead-Free Waters Act of 2015, which “prohibits the manufacturing, packaging, and distribution of rinse-off cosmetics containing plastic microbeads,” further help address the issue of primary sources of microplastic pollution upstream.

Litigation is also another tool utilized by communities and organizations to hold polluters accountable. Some cases successfully target downstream pollution resulting from microplastics. Others are working to address longstanding systemic issues like racism that perpetuate the unjust targeting of underserved communities as “sacrifice zones” for industrial polluters. While some others are challenging polluters’ use of false and misleading marketing claims around their plastic products labeled as “sustainable” or “healthy.”

The key to mitigating plastic pollution is starting at the source, with fossil fuel extraction and plastic production. Ultimately, society needs to shift its reliance on fossil fuels and plastics toward safe, plastic-free reuse and regenerative solutions at a systemic level.

Plastic recycling is not a solution in and of itself; it actually can perpetuate plastic production and requires virgin (new) plastic and plastic additives, as plastic diminishes in quality with each round of recycling.

“Fossil fuel and other petrochemical companies have used the false promise of plastic recycling to exponentially increase virgin plastic production over the last six decades, creating and perpetuating the global plastic waste crisis and imposing high costs on communities that are left to pay for the consequences… As of 2021, the U.S. recycling rate for plastic is estimated to be only 5-6 percent,” according to a 2024 report by the Center for Climate Integrity.

Plastic and fossil fuel corporations have long pushed recycling as a solution to plastic pollution, when in reality, ceasing plastic production is the core solution. Inevitably, some recycling may be required in the future to address the plastic already in circulation, but recycling practices might be improved to prevent further harm. Similarly, while cleanups cannot solve the problem, they will inevitably be needed in the future to reduce the risks posed by microplastics.

Microplastics are a systemic pollution problem requiring a coordinated global response, such as a strong Global Plastics Treaty that addresses plastic pollution throughout its toxic life cycle. While negotiations on the treaty continue, countries need to take steps to reduce plastic production and use, and consumers need to make better choices to drive change at the individual level. These steps are necessary to mitigate the damage already caused by the unchecked plastic use and to ensure a more sustainable future.

This article was produced by Earth | Food | Life, a project of the Independent Media Institute.Email

Erica Cirino is a writer, artist, and author who explores the intersection of the human and more-than-human worlds. Her photographic and written works have appeared in Scientific American, the Guardian, VICE, Hakai Magazine, the Atlantic, and other publications. She is a recipient of fellowships from the Woods Hole Oceanographic Institution, the Craig Newmark Graduate School of Journalism at CUNY, and others, as well as several awards for visual art. She is a contributor to the Observatory.

What It’s Like To Be A Family Caught In The Crosshairs Of Israel’s ‘De-Palestinization’ Of Jerusalem

Source: Mondoweiss

The gray sky casts a pale light on the entrance to the Palestinian village of Qalandia, north of Jerusalem. The rugged street at the roundabout looks like an abandoned urban site, with an Israeli watchtower in the distance and the Israeli separation wall cutting through the landscape over a nearby hill. A few cars rush to leave the roundabout towards Ramallah, while an old arch at one side reads, “Welcome to Qalandia.”

Inside the village, the landscape stands in sharp contrast: green gardens, olive trees, and parked farming trailers surround stone houses, separated by quiet, narrow streets. A man stands in front of a pile of rubble, greeting visitors. “Welcome to what used to be my home,” he says.

Samer Hamdia, a middle-aged construction worker, walks over the remains of the house he spent a lifetime of savings building, and where, until recently, he had lived with his wife and six children. Israeli forces demolished it last December as part of Israel’s surge of demolitions of Palestinian homes in the West Bank. 

The village of Qalandia, adjacent to Israel’s separation wall, is treated by Israel as part of annexed Jerusalem. This has made it a target for demolition over the past several years, with some 30 houses demolished in Qalandia in a single night in 2016. Since then, it has been periodically issuing demolition orders to more families in the village.

According to Jamal Jumaa, the coordinator of the grassroots Stop The Wall campaign, the north of Jerusalem area “is a crucial part of Israel’s settlement plans around Jerusalem, as it has already surrounded the city from all sides, isolating it from the rest of the West Bank.”

In Qalandia, the only thing separating the Israeli-annexed part of Jerusalem from the West Bank is the wall. But Israel has plans to change this reality. “Since 2009, Israel has announced plans to build a settlement for Orthodox religious Israelis on the lands of Qalandia in the area that used to be the Jerusalem airport before the occupation,” Jumaa explains. “For this, a buffer zone needs to be created, which would cripple the growth of nearby Palestinian communities like Qalandia.”

But this home demolition policy is not limited to the north of Jerusalem. In mid-February, the Jerusalem Legal Aid Center (JLAC) reported that Israel had demolished 300 Palestinian properties in the West Bank in the first month and a half of 2026. Haaretz reported that the Israeli wave of demolitions was “clearing the way” for Israeli settlement expansion, while the UN warned of the irreversible “de-Palestinisation” of Jerusalem, warning that the Gaza genocide could be “spilling over into the West Bank.”

By not issuing building permits, Jumaa says, Palestinians are forced to build homes without them, which are then demolished. “This blocks any future plans for Palestinians in the area, ultimately pushing them to leave,” he adds.

At the site of his demolished home, Samer is joined by his son, Mahdi. Both begin to recall what their home used to be. 

“Here we had built two separate apartments in a single building,” Samer says, motioning to the pile of rubble. “One for all the family, and one for Mahdi, who was preparing to marry.” Mahdi smiles but keeps looking at the rubble.

“I worked on building the house with more passion than at any other building site,” Samer continues. “It’s our house, after all. My house.” He laughs when he remembers his first night in their new home. “I slept that night like I hadn’t slept in a long while. It was a feeling of peace and satisfaction.”

The Hamdia family began building their home in 2020, but the dream of owning it had started much earlier. “I began working when I was 17, which is a long time ago,” Samer says. “I’ve been saving to build a home ever since. Once I got married, my wife and I lived at my parents’ house on the other side of town.” He points toward the distance, where several houses can be seen in Qalandia.

In 2016, Samer purchased the small plot of land for his home. He applied for a building permit from the Israeli military authorities — rather than from the Palestinian Authority (PA) — because his land lies in Area C, the roughly 60% of the West Bank under complete Israeli military control. The remaining 40% of the territory, designated as Areas A and B under the 1993 Oslo Accords, fall under varying degrees of shared administration between the PA and the Israeli military.

While building permits are granted by the PA in Areas A and B, the Israeli authorities rarely issue such permits for Area C. But Samer still applied, he says, because he had a better chance of getting one. He explains that his land is just a few steps from Area B, which he says would make it easier to get approval. Or so he thought.

“I did all my paperwork through a law firm in Ramallah, but then soon after I applied, the lawyer at the firm called me into his office,” Samer details. “He told me to prepare a lot of money, because the legal case was going to take a while.” 

By 2020, the case was still tied up in the courts, and the family needed to move into a new home. “Both my family and my elderly parents needed more space, and the permit formalities were ongoing, so we thought we’d begin building the house,” he explains.

Samer’s petition for a building permit remained tied up in Israeli courts for 10 years. He spent NIS 10,000 ($3,164) in legal fees, and the permit was never issued. But the threat to the family’s home came much earlier. “In 2016, the Israelis came and distributed demolition orders, and I had already filed my building permit petition, but I came in the morning and found a demolition order delivered to my land when almost nothing had been built yet,” Samer says. “The lawyer was perplexed, and he told me that this had to be a mistake, that it wasn’t for me. He said he would follow up on it in court.”

Samer Hamdia shows pictures of what used to be his family home, before it was demolished by Israeli military authorities in March 2026. (Photo: Qassam Muaddi/Mondoweiss)

‘Like a hammer to my heart’

For the Hamdias, building the house was more than fulfilling a dream or getting more space. It represented the growth of their extended family and the deepening of its roots in their village.

In Palestinian villages, extended families have lived together in small complexes for centuries. Commonly known as a “hosh,” these complexes are composed of multiple individual houses belonging to siblings and their families. When even the grandchildren marry and begin forming their own families, they split off and form a new hosh for themselves. “Mahdi getting married and Mahdi building a house were the same thing,” Samer explains. “This was going to be the first building in the Samer Hamdia hosh, which would include more homes for Mahdi’s brothers when they married as well.”

Samer’s wife, Najla, joins the conversation with her youngest daughter, Mira, aged 11. They walk around the rubble, looking at the details in every corner. “I never came back since the demolition until now,” says Najla. “It hurts my heart seeing it in rubble. It’s like living through the loss all over again.”

“Building the home was the most important project we had as a family, it was like a lifetime achievement,” she explains. “We wrote out all these checks in my name to pay for the construction material, and I went dozens of times to Ramallah to put money into my bank account, and even put up my wedding jewelry at a jewelry shop as collateral. We are still in debt to this day.”

In the final weeks before she moved in, Najla stopped working at her in-laws’ house and spent all her time at the new house, fixing every detail of the decorations and furniture with her daughters. The family moved into their new home on January 18, 2024, on Samer’s birthday. “From January 2024 to January 2025, I had peace in my house,” Najla remembers. “I woke up in the morning to birds singing, then I made breakfast for all the family, and for most of the day I stayed at home, making it as beautiful as I could.”

That peace began to fade in early 2025, when the lawyer called Samer to say that Israeli authorities would not issue a construction permit after all. The petition was missing documents, he said. “That is when I felt that the countdown had begun, but the lawyer also said that the Israelis wouldn’t come to demolish without prior notice,” Samer says. “And yet, they did.”

On the morning of December 16, 2025, the Hamdia family woke up to the rumble of Israeli engines. A police jeep had arrived at the street of the Hamdias’ house, followed by a bulldozer. Samer immediately understood that it was the moment he had been dreading.

“The Israeli officer told me outright that they had come for my home,” Samer recalls. “He also said that they had sent a notice, which I never received, and then he said that he was going to the other side of the village to deliver a demolition notice to another family, and then come back to oversee the demolition of my home.”

“A female police officer entered the house and began to tap on the walls to see what they were made of,” Najla details. “She ordered my daughters and me to go out. I told her, ‘this is my house’ and shouted at her to leave. But then she put her hand on her rifle and screamed, so we left in our pajamas without taking a single thing with us.”

When the Israeli officer came back, hundreds of Qalandia residents had already gathered and begun to take out the furniture and other family belongings. “I was surprised at the speed of the response by the neighbors,” Samer says. “And when journalists showed up, police officers began to order everybody to disperse before firing tear gas.”

The Israeli police fired so much tear gas that Al Jazeera reporter Tharwat Shaqra was crying on air while covering the demolition. Samer and his children watched as the home they worked hard to build fell apart, but the scene was too much for Najla to witness.

“Every hammer from the bulldozer was like a hammer to my heart,” she recalls. “I had put so much of myself into that home, and I couldn’t just look at our furniture being thrown to the street.”

For Samer, the demolition of his house was like throwing out “an entire lifetime of work.” 

“I don’t know how we are going to pull ourselves out of this,” he exclaims. “One thing is sure: if they expect us to leave, they are dreaming. We will remain here, no matter the cost.”

A banner reads “we will remain so long as the Zaatar and the olive trees remain” near the rubble of the Hamida family home, demolished by Israeli military authorities in March 2026. (Photo: Qassam Muaddi/Mondoweiss)Email

Qassam Muaddi is the Palestine Staff Writer for Mondoweiss.