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Tag: oxygen

  • Why do the colors of the northern lights change?

    Why do the colors of the northern lights change?

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    (FOX40.COM) — Residents in lower latitudes across the world were able to get a rare sighting of the northern lights on recent nights, which featured an array of colors across the night skies.

    The colors of the aurora borealis are usually green but could appear as other colors including red, blue, pink and purple, according to which compounds from the sun are interacting with compounds on Earth and how high up this is happening in the atmosphere, according to the NOAA Space Weather Prediction Center.

    People across the world captured the astronomical light show as the lights began appearing starting on Friday night and continuing through the weekend.

    The aurora borealis, as the lights are also called, were caused by a rare G5 solar storm, which hasn’t occurred since October 2003.

    The different aurora colors 

    The color of the aurora is determined by altitude and atmospheric compounds, according to the NOAA Space Weather Prediction Center. 

    Nitrogen and oxygen are atmospheric compounds that help determine the color and could be found in different altitudes, the NOAA said. 

    “When charged particles from the sun enter our atmosphere, they interact with those compounds, and the aurora is the visible result,” NOAA officials said in a Facebook post. “Depending on which compounds are being excited by the Sun’s charged particles, different colors will result.” 

    The colors that appear are the result of whether it is oxygen or nitrogen and how much of the sun’s particles are interacting with these at once, according to NOAA.

    The greenish-yellow light is the most familiar color of the aurora and it comes from oxygen, which also emits red light. Nitrogen typically generates a blue light. 

    Molecules from oxygen and nitrogen can give off an ultraviolent light, which can only be detected by special cameras on satellites, NOAA said. 

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    Jeremiah Martinez

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  • U.S. EPA will lead efforts to extinguish mystery fire smoldering in L.A. County landfill

    U.S. EPA will lead efforts to extinguish mystery fire smoldering in L.A. County landfill

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    As landfill operators struggle to extinguish a damaging fire deep within Chiquita Canyon Landfill, the U.S. Environmental Protection Agency has announced that it is taking the lead in efforts to contain the problem.

    Since at least spring, acres of garbage have been smoldering in a closed portion of the Castaic landfill, causing contaminated water to burst onto surrounding hillsides and sending putrid odors into surrounding neighborhoods.

    The intervention of federal regulators has underscored the gravity of the situation, which has placed Los Angeles County’s second-largest landfill under intense scrutiny, and prompted calls for its closure.

    The fire, which experts say may be due to the buildup of oxygen within the landfill, has also raised question about the oversight of local air regulators, who were aware of the increasing oxygen levels, public records show.

    “I welcome the U.S. EPA’s involvement,” said Los Angeles County Supervisor Kathryn Barger. “They are stepping up to the task of helping identify solutions and bringing resources to the table for an incident that has gone on for far too long.”

    Temperatures within the landfill have risen over 200 degrees, causing gases to expand and water to boil. The resulting pressure increase has sent piping-hot water bursting through the landfill’s cover and emitted foul odors.

    The intense heat has also melted portions of a gas collection system, which consists of long polyvinyl chloride pipes that vacuum out methane and odorous sulfur gases.

    Although it’s unclear if the underground fire is continuing to spread, the 30-acre affected area could take 2-4 years to cease burning, according to a Dec. 12 report from CalRecycle, the state agency that oversees waste management.

    Eight state and local regulatory agencies have assembled under the EPA to discuss what steps need to be taken to prevent the underground fire from chewing through more of the 639-acre landfill and spewing dangerous chemicals.

    The landfill operator, Waste Connections, is anticipating significant financial liabilities due to the burning, according to a financial report the company filed in November. It estimates that efforts to resolve the situation could cost around $30 million in the second half of 2023, $75 million in 2024 and $40 million in 2025.

    Waste Connections has already installed several dozen new gas wells, some made with steel casings that can withstand the intense heat. The landfill has also installed a new flare to burn off flammable gases and a concrete drainage system to better collect polluted water so that it can be trucked offsite.

    But state and county officials want the landfill to do more. Specifically, they have called on operators to apply 2 feet of dense soil, such as clay, to seal any cracks and better suppress fumes that have sickened residents in nearby Val Verde.

    CalRecycle has also encouraged Waste Connections to review steps taken by an East Sparta, Ohio, landfill that experienced an underground fire in 2005. That fire burned for more than a decade and spread to nearly 90 acres.

    Republic Services, the operator of the Ohio landfill, ultimately constructed a fire break — a trench separating the affected area from other parts of the site. The $6 million project was supervised by the U.S. EPA and state regulators.

    Steve Cassulo, Chiquita Canyon’s district manager, said the landfill doesn’t believe installing a 2,000-foot-long fire break or barrier is necessary or feasible. Chiquita Canyon would need to excavate and relocate at least 20 million tons of waste to construct an effective buffer.

    “The potential risk to human health and the environment in undertaking an excavation of such magnitude is incredibly great,” he said.

    Cassulo noted that such work has been done in some extreme cases, such as in Bridgeton, Mo., where landfill operators needed to isolate areas of radioactive waste. However, those circumstances don’t exist at Chiquita Canyon, he said.

    The landfill is expected to install temperature probes next month that will help regulators better monitor the fire at Chiquita Canyon. If it continues to spread, agency officials will discuss the possibility of mandating action.

    As environmental regulators and the landfill debate over how to control the situation, the cause of the fire still remains uncertain.

    However, the leading theory is that the landfill’s gas extraction wells may have overdrawn methane and other gases, inadvertently introducing oxygen deep inside the landfill’s well system. This oxygen can speed up the decomposition of organic waste, produce heat and eventually spark a fire.

    Chiquita Canyon’s records show it had struggled with high oxygen levels in hundreds of wells in the year leading up to the fire. Elevated temperatures were also observed in dozens of wells.

    Local regulators were also aware of these issues long before the incident, according to public records.

    Between 2011 and 2016, the South Coast Air Quality Management District signed off on several of the landfill’s requests to operate its wells with higher oxygen levels and temperature limits, which experts say could increase the risk of an underground fire.

    This includes the gas well that CalRecycle has identified as the “point of origin” and others nearby — which were approved to operate at 145 degrees rather than 131.

    Other gas wells in other portions of the landfill were allowed to operate with up to 10%-15% oxygen present, two to three times the previously permitted amount.

    The air district didn’t return several requests for comment.

    “Frankly, I would not have allowed it,” said Mike Mohajer, a retired engineer with the L.A. County Department of Public Works. “It doesn’t make sense. Oxygen increases the chance of a fire. And higher temperature — the same thing — it’s a higher potential for a fire.”

    Although landfills in Southern California are still bound by stricter local permits, the U.S. EPA in 2021 relaxed temperature requirements for landfill gas wells, increasing the allowable levels from 131 degrees to 145 degrees. It also removed the requirement for oxygen limits, previously set at 5%.

    Experts say it could set the stage for more incidents like Chiquita Canyon.

    “From my standpoint, there’s a lot of things happening that show we have to be conservative when we’re constructing, operating and maintaining landfills,” Mohajer said. “We can’t lose control of them.”

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    Tony Briscoe

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  • NASA Is Trying To Extract Oxygen From Space Rocks So Future Astronauts Can Breathe | High Times

    NASA Is Trying To Extract Oxygen From Space Rocks So Future Astronauts Can Breathe | High Times

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    NASA is taking steps to prepare for future long-term occupation on the Moon by seeking input from the lunar and scientific communities on ways to convert lunar soil and other naturally-occurring compounds into oxygen. 

    The nation’s leading space organization made an announcement Monday asking for input on In-situ Resource Utilization (ISRU) technologies, which in this case means using materials found on the moon, the vast majority of which are moon dust, to produce fuel, oxygen, water and other resources human beings might use or consume. These processes may one day make it possible for human beings to enjoy a sustainable presence on the moon or other planets without the need to shuttle resources to and from Earth. 

    NASA issued a Request for Information (RFI) for ISRU technologies which essentially allows them to start officially gathering information from outside parties for their future Lunar Infrastructure Foundational Technologies demonstration, also known as LIFT-1. LIFT-1 can be described as the foundation for the next phase of American lunar occupation, NASA’s officially designated program to put American boots back on the moon for the first time since the Apollo 17 mission in December of 1972.

    “Additional LIFT-1 objectives may include demonstrating new landing technologies, surface operations, and scalable power generation in the Moon’s South Pole region,” a NASA press release said. “With the RFI, NASA is asking for input from the lunar community to inform an integrated approach inclusive of launch, landing, and demonstration of surface infrastructure technologies as part of a subscale ISRU demonstration.”

    One of the many issues standing in the way of human occupation on the Moon or anywhere else beyond Earth is that it’s very difficult, expensive and time consuming to bring enough resources for everybody. Launching a rocket ship from Earth costs multiple millions of dollars no matter how you slice it and every pound on board makes it monumentally more expensive. As such, long term space occupation isn’t really practical or feasible without ISRU technology. 

    NASA leadership described ISRU technology development as a crucial necessity for the longevity of our astronauts, their equipment, and the possibility of one day creating permanent human settlements on the Moon or beyond. 

    “Using in-situ resources is essential to making a sustained presence farther from Earth possible. Just as we need consumables and infrastructure to live and work on our home planet, we’ll need similar support systems on the Moon for crew and robots to operate safely and productively,” said Dr. Prasun Desai, acting associate administrator of the Space Technology Mission Directorate at NASA Headquarters in Washington. 

    NASA has already showcased certain ISRU technologies, most notably MOXIE, a small instrument onboard the Mars Perseverance Rover which successfully converted atmospheric carbon dioxide into usable oxygen on April 20, 2021. This type of conversion is useful on a planet like Mars which has an atmosphere rich in carbon dioxide. However, the moon has virtually no atmosphere according to NASA, so technology must be created to extract oxygen from naturally occurring minerals in the ground. 

    NASA has several investments in ISRU technology already in the way of prospecting, extraction and mining initiatives as well as several outstanding academic and industry partnerships but the RFI issued Monday, which is open until December 18, is specifically looking for information on chemical processes capable of harnessing resources from lunar dust and soil. 

    “Chemical and thermal process developments may provide options to break down naturally occurring minerals and compounds found on the Moon and convert them to propellant or human consumables,” the press release said. “Other potential longer-term applications could lead to extraterrestrial metal processing and construction of lunar surface structures using resources found on the Moon.”

    Another representative from NASA leadership said in a written statement that the idea of harnessing oxygen and other usable resources from the ground has been theorized about for a long time but the idea may soon be utilized for real life space travel. 

    “An ISRU technology demonstration approach has been a topic of discussion within the Lunar Surface Innovation Initiative and Consortium communities for several years,” said Niki Werkheiser, director of Technology Maturation in STMD. “This RFI is the next phase to make it a reality.” 

    The LIFT-1 RFI can be found here and is open for responses through Dec. 18 at 5:00 p.m. EST. Additionally. NASA will host an industry forum on Monday, Nov. 13 at 1 pm EST.

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    Patrick Maravelias

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  • Britney Spears Ex-Husband Jason Alexander Denies She Was Drunk at Wedding

    Britney Spears Ex-Husband Jason Alexander Denies She Was Drunk at Wedding

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    TMZ Staff

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  • NFL Player May Face Neurological Risks After Cardiac Arrest

    NFL Player May Face Neurological Risks After Cardiac Arrest

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    Jan. 3, 2023 — What can happen if your brain loses oxygen for an extended period?

    During Monday night’s Buffalo Bills vs. Cincinnati Bengals game, NFL fans watched nervously as Bills safety Damar Hamlin lay flat on this back surrounded by medical personnel, teammates, and coaching staff. 

    Hamlin, 24, had just tackled a Bengals receiver late in the opening quarter when he stood up and immediately collapsed.

    The Buffalo Bills, in a statement, said Hamlin had experienced cardiac arrest on the field and is sedated and in critical condition at University of Cincinnati Medical Center. 

    Cardiac arrest is when there is an electrical malfunction to the heart — which can create an irregular heartbeat– and the heart’s pumping function is compromised, according to Laxmi Mehta, MD, director of preventive cardiology and women’s cardiovascular health at the Ohio State University Wexner Medical Center. When this happens, there is not effective pumping of blood to organs, including the brain and lungs, and severe damage can occur. 

    Hamlin had his heartbeat restored on the field after nearly 10 minutes of CPR and oxygen via an AED machine, better known as a defibrillator, a medical device that delivers an electrical shock to help your heartbeat return to normal rhythm, according to reports.

    Since crucial information of Hamlin’s condition has yet to be released publicly, certain — now widely circulated — details of Hamlin’s injuries can still be deemed “speculation,” Mehta says. Therefore, while Hamlin may have received CPR and oxygen assistance for several minutes, we can’t be certain “he didn’t get adequate [oxygen] flow.”  

    “The point of doing CPR is you’re doing those chest compressions — you’re forcing the heart to pump. So we would assume he had a circulation of blood flow to the brain. But if people don’t get CPR done in a timely fashion, or if they don’t get effective chest compressions, then yes, there can be a lack of adequate blood flow, lack of oxygen, and can cause some brain damage,” she says.

    This phenomenon, called anoxic brain injury, can result in stroke-like effects, including seizures, the inability to move certain body parts, slurred speech, and trouble forming sentences, says Mehta. 

    Check back for more updates on this story.

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  • The Pandemic Forced the World to Pay Attention to Oxygen

    The Pandemic Forced the World to Pay Attention to Oxygen

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    A version of this article was originally published in Undark Magazine.

    On a late April afternoon, the Ngor Health Center in Dakar, Senegal, is serene. Sunlight spills through architectural gaps in the ceiling and lush plants line cream-colored corridors. In a patient waiting area on the second floor, a staff member gently rolls a ball back and forth with a toddler.

    The calm belies the chaos at the health center eight months prior, in the summer of 2021, when COVID-19 struck the West African nation in its third and deadliest wave. The only reminder exists high up on the walls: slim copper pipes trained through roughly drilled holes. The pipes were built as Ngor frantically retrofitted its waiting area with extra beds in a bid to extend the center’s limited oxygen network to treat the influx of COVID patients.

    But to the pediatrician Idrissa Demba Ba, the scramble for oxygen—which, in many countries, came to symbolize the pandemic—was nothing new. In fact, it’s a hallmark of another scourge he’s been battling for 18 years, childhood pneumonia. The disease, caused by an infection of the lungs that disrupts breathing, killed 2,400 Senegalese children under the age of 5 in 2019.

    Pneumonia can be triggered when a pathogen—for instance, a virus, bacteria, or fungus—enters the lungs, where it inflames the air sacs, causing them to fill with fluid or pus and making it hard to breathe. Children are more vulnerable to the disease because their lungs and immune systems are still developing. To treat the condition, there are three main options: antibiotics, antivirals, and oxygen. Every day, there are children who need to be connected to an oxygen supply, says Ba, who is head of pediatric pulmonology at Dakar’s Albert Royer National Children’s Hospital.

    The World Health Organization lists oxygen as an essential medicine, which seems intuitive for a vital, life-sustaining gas. Yet in Senegal and many other developing countries, providing oxygen in its medical form can be fraught: The medical-grade oxygen is expensive, getting it from one place to another requires the construction of pipelines and other infrastructure, and medical personnel must be trained to administer it.

    These supply-chain obstacles threaten, per one estimate, more than 7 million children in low- and middle-income countries who are infected with pneumonia each year and need oxygen to survive. Limited supplies are part of the reason the disease remains the most common infectious cause of death in children worldwide, claiming the lives of more than 740,000 under the age of 5 in 2019. Younger children are more vulnerable—29 percent of pneumonia deaths occur within the first month of life, and three-quarters within the first year.

    Most of those affected live in lower- and middle-income countries like Senegal, where the risk of pneumonia is exacerbated by malnutrition and other issues, says Papa Birane Mbodji, the head of newborn health at the Department of Mother and Child Health in Senegal’s Ministry of Health and Social Action. Another threat is the nearby Sahara Desert, which sweeps in huge amounts of dust that contribute to the region’s outsize global burden of young patients.

    When there isn’t enough oxygen to treat these children, their lungs fail, eliciting grunts as they try desperately to rake in more oxygen from the air, Ba says—a symptom that echoes the devastating effects of COVID-19. While the world’s attention has been trained on COVID, “you could basically say there is an ongoing pandemic of pneumonia mortality,” says Keith Klugman, an infectious-disease expert who heads the pneumonia program at the Bill and Melinda Gates Foundation.

    But there may be an upside: The crisis of the coronavirus pandemic drew the world’s attention to the crucial importance of oxygen. Seeing how quickly countries galvanized to tackle COVID, Klugman and other experts wrote a Lancet article in November 2020, calling for them to build on the pandemic’s rare gains—such as increasing oxygen infrastructure—to help curb childhood pneumonia. The authors wrote: “The COVID-19 response provides opportunities to increase diagnostic and treatment services for respiratory infections.”

    Ba and other experts on the ground share the sentiment. More and more, they see COVID as an opportunity to get the essential resource to more children, to tackle this forgotten epidemic.


    Against this backdrop, Senegal offered fertile ground for improvement. Even before the pandemic, and in the midst of it, the country was interrogating its medical-oxygen infrastructure.

    “The government of Senegal established an ambitious scale-up strategy for oxygen as early as 2013,” wrote Lisa Smith, the access-to-medical-devices portfolio director for the market-dynamics program at the public-health nonprofit PATH, in an email to Undark. Then in 2017, she wrote, members of the Senegalese government attended a PATH-led meeting focused on widening oxygen access. There, the government highlighted its work with a private contractor to install and maintain pressure-swing adsorption, or PSA, plants—which produce purified oxygen from ambient air on-site—at a number of hospitals. After this event, Smith said, PATH started working with the government to offer additional support to close other gaps in Senegal’s oxygen-supply chain.

    A year into the pandemic, PATH published a report based on a nationwide survey of medical equipment, focused on oxygen infrastructure, noting where it was available and where it was most lacking.

    Key among the findings of the resulting report was that oxygen was heavily concentrated at emergency centers in large urban areas, but much scarcer at smaller health centers and posts that serve the majority of the population. For instance, of 29 COVID-treatment centers surveyed across 13 regions, Dakar, Senegal’s capital, had the highest concentration of key medical tools—62 percent of pulse oximeters, which estimate blood oxygen levels, and 84 percent of functional ventilators—despite the city making up less than a quarter of the country’s population.

    The equipment survey also revealed stark disparities in the distribution of PSA plants, which provide a reliable supply of oxygen. Nearly half of the treatment centers with access to a PSA plant, which cost upwards of $100,000 apiece, were concentrated in Dakar to meet the needs of the city’s dense population—such as the Ngor Health Center’s PSA plant, which was built there before COVID hit and became a boon during the pandemic.

    Within a large, sun-drenched courtyard on the hospital grounds, the PSA plant hums inside a locked concrete enclosure. As part of the setup, there is a black box called a compressor, which sucks in external air and pressurizes it. From there, the pressurized air is scrubbed as it runs through a filtration device to remove nitrogen and allow oxygen to pass through. The oxygen is then transferred to holding tanks, ready to be piped into the wards.

    In contrast, at most other health-care facilities where PSA plants are in short supply, health-care workers rely on smaller pieces of equipment such as oxygen concentrators and cylinders to supply the crucial gas. These come with their own challenges: Most concentrators, which are portable, suitcase-size machines, deliver oxygen at a rate that’s too slow for severe COVID patients, and cylinders can be refilled with new oxygen only at centralized plants, which means that supply can be disrupted because of unreliable transport.

    Maintaining this piecemeal infrastructure can also be impractical. At another health facility across town, this was evidenced by a pile of discarded concentrators strewn amongst other items—unused respirators in water-logged boxes, mosquito nets, and an old mat and metal bed frame stripped bare—stacked under a zinc roof just outside the entry ramp for emergency patients.

    Such infrastructural challenges aren’t unique to Senegal. A 2021 WHO technical consultation revealed that before the pandemic, the majority of low- and middle-income countries struggled to obtain medical oxygen. In sub-Saharan countries, 31 percent of facilities had interrupted access, while 25 percent had none at all.

    These wider findings on oxygen and COVID also helped inform child-pneumonia initiatives, including a clinical trial designed to test the value of pulse oximeters in these patients. The trial, part of a project called Tools for Integrated Management of Childhood Illness, or TIMCI—jointly run by PATH, Unitaid, and the Swiss Tropical and Public Health Institute—launched in August 2021 in multiple facilities in three countries, including the arid baobab-studded region of Thiès, an hour’s drive into the countryside beyond Dakar. Here, TIMCI supplied pulse oximeters to doctors at 59 health posts to diagnose incoming patients. As of September 2022, TIMCI has screened almost 17,000 sick children in Thiès.

    The devices work by attaching to a patient’s finger and painlessly measuring the level of oxygen in their blood. It’s a quick and inexpensive way of detecting a condition in which oxygen saturation levels dip dangerously below 90 percent, called hypoxemia. Hypoxemia increases the risk of death by pneumonia up to five times.

    The Senegalese trial—part of a larger multicountry initiative also involving Kenya, Tanzania, India, and Myanmar—intends to evaluate the effectiveness of pulse oximeters in more accurately and swiftly diagnosing hypoxemia, in order to then help children get the urgent oxygen treatment that they need and save lives. But such initiatives will only ultimately be effective if the essential oxygen supplies are on hand nearby.


    On a tree-lined street in downtown Dakar, Ndèye Astou Badiane sits inside the PATH regional headquarters contemplating the pandemic’s legacy. In Senegal, although the health system struggled with a real “increase in demand [for] oxygen,” says Badiane, who is a respiratory-care coordinator at the nonprofit, some good came out of it. The clear and urgent need, she adds, injected new momentum into national efforts to tackle oxygen shortages.

    For instance, the government, together with PATH, is now finalizing another assessment of its oxygen infrastructure, maintenance, and long-term sustainability. The overarching aim is “to improve oxygen availability and utilization in each health facility,” Badiane wrote in a follow-up email.

    This evolving assessment laid the foundation for the government’s most significant move: the plan to roll out dozens of new PSA plants, the units that produce oxygen on-site at hospitals, says Amad Diouf, the director of the Department of Infrastructure, Equipment, and Maintenance at Senegal’s Ministry of Health and Social Action. These crucial new oxygen plants, five of which are funded by UNICEF, are due to be installed by the end of 2022, with a focus on health centers across the country. At the start of the pandemic, with support from PATH and Unitaid, Senegal was able to acquire 175 oxygen concentrators, 1,000 oxygen masks, and 250 pulse oximeters.

    There are early indications that the effort to strengthen Senegal’s oxygen gaps is translating into gains in the fight against childhood pneumonia. A 2021 review study found that bolstering oxygen infrastructure in lower- and middle-income countries could cut child-pneumonia deaths in hospitals by almost half. And in Senegal, the pediatrician Mbodji says there has been a notable increase in the availability of oxygen at health facilities. Though it’s difficult to attribute solely to this change, Mbodji says, pneumonia deaths in children have declined over the past two years.

    The pandemic has also given pneumonia initiatives like TIMCI special resonance. COVID-19 was “an opportunity” for the Ministry of Health to recognize the importance of oxygen infrastructure and accelerate the spread of lifesaving tools like pulse oximeters through more health facilities, says Maymouna Ba, who leads the TIMCI project in Senegal.

    “Before TIMCI, before COVID-19, such equipment, such tools, were just available at higher levels like in hospitals, in health centers. But not in health posts where providers also need these kind of equipment, these kind of tools to better detect severe illness in the early stage,” Ba says. With the TIMCI trial ongoing, she adds, there are plans to eventually provide even more pulse oximeters to health posts across the whole country.

    Other pneumonia interventions have received a similar boost in recognition—such as the SPRINT project, or Scaling Pneumonia Response InnovaTions, a program run by UNICEF to expand access to antibiotics and oxygen treatment for pneumonia. The program was originally confined to certain regions, but since the pandemic began, Mbodji says, the government has been working on plans to extend it to the entire country.


    Senegal’s oxygen response is emblematic of changes unfolding elsewhere. COVID made plain that “you can’t wait for disaster to happen for the equipment to be here,” says Fatima Diaban, a critical-care physician and member of the Every Breath Counts Coalition, an initiative by the nonprofit JustActions focused on supporting national governments in reducing pneumonia deaths by the end of the decade. In May 2021, Senegal was among nine African nations to begin receiving help from PATH and the Clinton Health Access Initiative to procure new oxygen equipment, funded by $20 million from Unitaid. The Global Fund, an international health-care-focused funding organization, with support from government and private-sector donors, also provided $475 million to 66 lower- and middle-income countries for a similar purpose.

    Now that the pandemic has eased, some of these resources can be redeployed to treat childhood pneumonia—something that’s already under way in other countries such as Ethiopia, where the government announced plans in 2021 to redistribute the pulse oximeters and oxygen therapies it used for COVID elsewhere in its health-care system.

    Large aid donations often come with questions about whether such funding reaches the intended recipients in its entirety. PATH’s Smith said there are safeguards in place to ensure it does. “Each donor has unique requirements for accountability and responsible use of funds,” she wrote in an email. For instance, her organization worked closely with Senegal’s Ministry of Health and the Department of Infrastructure, Equipment, and Maintenance to distribute donated oxygen equipment to facilities in need.

    Overall, such initiatives could fast-track progress on pneumonia, a disease that’s still “very much neglected” in the global health discourse, despite its global burden, says Klugman of the Bill and Melinda Gates Foundation. Pneumonia is still chronically underfunded, taking just 5 percent of the money devoted to fighting infectious disease globally, and just 3 percent of the research funding allocated to infectious diseases from 2000 to 2017 by public and philanthropic funders in G20 countries.

    Prevention will be crucial—and progress is under way to develop new, targeted vaccines, which protect better against pneumonia compared with existing vaccines, Klugman says. But for now, oxygen remains a uniquely efficient way to save lives. As such, the pandemic responses that many countries have drawn up provide an ideal framework for action—a “foundation for continued declines in deaths from all-cause respiratory infections over the next decade,” according to a 2021 report on pneumonia and the coronavirus pandemic produced by JustActions.

    Indeed, it’s not just children with pneumonia who stand to benefit from this spread: Wider oxygen provisions will aid people with infectious diseases, cardiovascular diseases, and asthma.

    This larger importance, laid bare and elevated by the pandemic, is behind the recent September 2022 launch of the Lancet Global Health Commission on medical oxygen security, a new partnership of academics and NGOs, which will reportedly include strong representation from lower- and middle-income countries. The Commission seeks to build on the pandemic’s gains and provide policy makers with information and tools to close the crucial gaps in global oxygen-supply chains.

    Already, the benefits of expanded oxygen access are evident at the Ngor health center, where the copper pipes are reminders of a traumatic time but now stretch beyond the emergency room, ferrying oxygen to those who need it most. Just off the main corridor of the second floor, those pipes have been trained into a room with walls decorated with cheerful stickers of Dora the Explorer, flowers, and birds—a children’s ward.

    As Badiane puts it: “In 2022, really oxygen should be available and affordable in every health facility.”

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    Sandy Ong

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