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  • Reviving the Oysters: Restoring Ecosystems and Clean Water Through Sustainable Solutions | Ctdp

    Home Our Mission Recycling Plastics Air Water Land Lifestyles Economy & Politics Media & Awards < Back Reviving the Oysters: Restoring Ecosystems and Clean Water Through Sustainable Solutions 🐡 Reviving the Oysters: Restoring Ecosystems and Clean Water Through Sustainable Solutions🐚 Oysters play a crucial role in maintaining ecosystem health and water quality as natural water filters. Their unique feeding system enables them to rapidly remove toxic microscopic algae, pollutants like microplastics, and harmful bacteria. While some sources claim that a single mature oyster can filter around 200 liters (52 gallons) of water daily, it's important to note that their filtration abilities are highly influenced by environmental conditions. According to Matthew Gray, a scientist at the University of Maryland Center for Environmental Science's Horn Point Laboratory, oysters are more likely to filter between 3.0 and 12.5 gallons of water per day under average conditions in the wild. An oyster's filtration rate depends on various environmental factors, including temperature, salinity levels, turbidity, and the presence of specific types of algae. Additionally, oysters may cease their filtering activity when faced with predators such as crabs. Despite variations in their water-filtering capability due to changing environmental conditions, there is no doubt that oysters are valuable contributors to both ecosystems and water quality. Unfortunately, oyster populations in the USA have significantly declined due to factors like overfishing, pollution, habitat alterations, and diseases, leading to an 80% or greater reduction in their filtration capacity in most estuaries. This decline has transpired over the past century. A study utilized a model to estimate the volume of water filtered by oyster populations in 13 US estuaries during both historical (circa 1880–1910) and modern (circa 2000–2010) periods. The findings underscore a nearly universal decline in oyster filtration capacity of over 80% in 12 of the 13 estuaries examined. Historically, oyster populations could achieve full estuary filtration in many estuaries, especially in the Gulf of Mexico during the summer months. However, this capability has significantly diminished over time. Apalachicola Bay in Florida stands as an exception, with present-day filtration levels surpassing historical estimates, thanks to intensive management and less destructive harvesting methods. This is a testimony that conservation efforts can contribute to the health and population of oysters and ultimately lead to the improvement of water quality. Consequently, there is an urgent need for effective management and restoration measures to mitigate the decline in their ecosystem services. Sources: https://www.youtube.com/watch?v=VTuBbuUro4g&t=23s https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6863492/ https://www.bayjournal.com/.../article_bbe67d38-8f09-11ea ... https://pubs.acs.org/doi/full/10.1021/acsapm.1c00799 https://www.cbf.org/.../eastern.../oyster-fact-sheet.html ←Previous Next→

  • Hats with Various Materials | Ctdp

    Home Our Mission Recycling Plastics Air Water Land Lifestyles Economy & Politics Media & Awards Disposal & Recycling of Hats with Various Materials Hats are made from different materials, including fabric, wool, leather, synthetic blends, plastic, and straw. The method of disposal or recycling depends on the material composition and condition of the hat. ♻️ Recycling & Reuse Options: Donate: If the hat is in good condition, consider donating it to local charities, shelters, secondhand stores, or organizations that distribute clothing to those in need. Upcycle: Old hats can be repurposed for crafts, costume projects, or DIY home décor. Sell or Swap: Platforms like thrift stores, online marketplaces, or clothing swap events may accept gently used hats. Fabric Recycling: Textile recycling programs accept cloth-based hats (cotton, wool, polyester). Check with your local facility for guidelines. Composting (for natural materials): Straw and untreated wool hats can sometimes be composted if they are free of synthetic dyes or chemicals. 🗑️ Disposal Considerations: Mixed Material Hats (Blends of Fabric, Leather, Plastic, etc.): These are difficult to recycle due to different material compositions. If no recycling option is available, they may need to be disposed of in regular waste. Plastic or Synthetic Hats: Some plastic-based hats (like hard hats) may be accepted at specialized recycling centers. Check with local waste management. Leather Hats: Genuine leather is generally not recyclable, but some upcycling programs may accept them for repurposing. Key Takeaways: ✔️ Prioritize reuse, donation, or upcycling before disposal.✔️ Check local recycling facilities for material-specific options.✔️ Consider sustainable hat choices in the future, such as biodegradable or upcycled materials.

  • Contributors of Microplastics | Ctdp

    Home Our Mission Recycling Plastics Air Water Land Lifestyles Economy & Politics Media & Awards Contributors of Microplastics Previous Next Primary Microplastics (Intentionally Produced) These are manufactured small plastic particles used in products or industrial processes. Microbeads – Found in personal care products like exfoliating scrubs, toothpaste, and facial cleansers. Industrial Abrasives – Used in sandblasting and industrial cleaning processes. Plastic Pellets (Nurdles) – Small raw plastic beads used in plastic manufacturing that often spill into the environment during transport. Secondary Microplastics (Breakdown of Larger Plastics) These result from the fragmentation and degradation of larger plastic items due to environmental exposure. 4. Synthetic Fibers – Released from washing clothes made of polyester, nylon, and acrylic. These fibers enter waterways through wastewater. 5. Plastic Waste Degradation – Plastic bags, bottles, and packaging break down over time due to UV radiation, weathering, and mechanical forces. 6. Car Tire Wear – Tiny plastic particles are shed from tires due to friction with roads and get washed into waterways by rain. 7. Paints and Coatings – Marine, industrial, and household paints release microplastic particles as they degrade. 8. Road Markings – Traffic lines and markings wear down over time, contributing to microplastic pollution. 9. Fishing Gear – Lost or discarded fishing nets and ropes made of plastic degrade and release microplastics into marine environments. 10. Sanitary products and diapers Single-use utensils Citations: A . Meeker John D., Sathyanarayaba Sheela and Swan Shanna H. 2009 Phthalates and other additives in plastics: human exposure and associated health outcomes. Phil. Trans. R. Soc. B3642097–2113. https://doi.org/10.1098/rstb.2008.0268

  • The history of preserved food | Ctdp

    Home Our Mission Recycling Plastics Air Water Land Lifestyles Economy & Politics Media & Awards < Back The history of preserved food The history of preserved food dates back thousands of years and is closely tied to the development of human civilization, particularly in terms of food security, survival, and trade. Preservation methods have evolved over time, enabling people to store food for times of scarcity, extend shelf life, and transport it over long distances. Here's an overview of the key developments in the history of preserved food: 1. Ancient Preservation Techniques Early humans relied on various natural methods to preserve food. These techniques were largely driven by necessity and the need to deal with seasonal food availability. Drying : One of the earliest preservation methods. Sun-drying or air-drying fruits, meats, and grains removed moisture, which inhibits the growth of bacteria and mold. Examples include dried fish, jerky, and dried fruits like raisins. Salting : Salting was used by ancient cultures such as the Egyptians, Greeks, and Romans to preserve fish and meat. Salt draws out moisture, which helps prevent spoilage. Salted fish and cured meats (like ham) were staples for long journeys or during winter months. Fermentation : Fermentation is an ancient method of preserving food by encouraging the growth of beneficial bacteria. This process was used to preserve vegetables, milk, and grains, leading to foods like sauerkraut, kimchi, yogurt, and beer. Fermentation not only preserves food but also enhances its nutritional content. Smoking : Smoking was used as both a preservation and flavoring technique. Meats like fish, beef, and pork were hung over smoke from burning wood or herbs, which not only dried the food but also imbued it with preservatives in the smoke, such as phenols and acids. 2. Middle Ages The Middle Ages saw advancements in food preservation, particularly in Europe, as a result of trade, exploration, and the need to store food for long winters. Pickling : This technique, which uses vinegar or brine, was popular for preserving vegetables and meats. It became common in many parts of the world, including Europe and Asia. Sugar Preservation : The use of sugar to preserve fruits became prominent during this time, with jams, jellies, and preserves becoming important foodstuffs, especially in colder months when fresh fruit was scarce. Honey Preservation : In addition to sugar, honey was also used as a preservative, especially for fruits, as it has natural antibacterial properties. 3. 17th and 18th Centuries: The Birth of Canning The 17th century saw significant progress in food preservation, particularly with the advent of canning. Canning : In the 1800s, French chemist Nicolas Appert is credited with inventing the process of canning. Appert discovered that food could be sealed in glass jars and heated to destroy microorganisms. This allowed food to be stored for extended periods without refrigeration. Appert's work was later refined, and metal cans began to replace glass jars. This method was especially important during military campaigns and for long voyages. 4. 19th Century: Refrigeration and Pasteurization The 19th century introduced more advanced techniques that would revolutionize food preservation. Refrigeration : In the early 1800s, iceboxes became popular for storing food at a low temperature. In the late 19th century, mechanical refrigeration was introduced, which allowed fresh food to be stored for longer periods and transported more widely. Pasteurization : In the 1860s, Louis Pasteur discovered that heating liquids (like milk and wine) to a specific temperature could kill harmful microorganisms. This process, known as pasteurization, became widely used for preserving liquids, particularly milk and juices, and preventing spoilage. 5. 20th Century: Industrialization of Food Preservation The 20th century saw the widespread adoption of various food preservation technologies, including chemical preservation and refrigeration. Freezing : The invention of home and commercial freezers in the mid-20th century revolutionized food preservation. Freezing foods like vegetables, meats, and prepared meals allowed them to retain their nutritional value and extend their shelf life. Chemical Additives : The use of preservatives like sodium benzoate, sulfur dioxide, and nitrates became widespread, particularly in processed foods. These chemicals helped to prevent spoilage and enhance the appearance and flavor of foods. Vacuum Sealing : The development of vacuum sealing and vacuum packaging allowed food to be stored for longer periods by removing air, thus reducing the growth of microorganisms. Ready-to-Eat Meals : The rise of convenience foods, such as canned soups, TV dinners, and dehydrated meals, became a hallmark of the 20th century. These products were easy to store and prepare, making them highly popular in industrialized nations. 6. Modern Day Preservation In today's world, food preservation continues to evolve, with an emphasis on health, sustainability, and new technologies. High Pressure Processing (HPP) : HPP is a relatively new method that uses high pressure to kill bacteria without the need for heat. This process helps to preserve the nutrients and flavor of fresh food. Freeze-Drying : Freeze-drying involves freezing food and then removing the water content under vacuum conditions. This method preserves the food's nutrients and flavor and is commonly used for emergency food supplies, camping, and astronaut food. Fermented and Probiotic Foods : With an increased focus on gut health, fermented foods like kefir, kombucha, and kimchi are popular today for their health benefits, in addition to their preservation qualities. Sources: "The Oxford Companion to Food" by Alan Davidson This comprehensive reference book provides in-depth explanations on various aspects of food history, including preservation methods and their evolution through time. "The Science and Fine Art of Food and Nutrition" by Arnold Ehret This work discusses the nutritional aspects of food, including preservation methods that contribute to maintaining the quality and health benefits of food. National Geographic - Food Preservation National Geographic offers articles that explain the science of food preservation, from ancient techniques to modern innovations. Website: National Geographic "Food in History" by Reay Tannahill This book is a thorough exploration of the history of food, including the methods used to preserve it throughout different eras of human history. "The History of Canning" - The National Canners Association (NCA) The NCA offers a detailed history of canning, from its inception to its widespread use in the 19th and 20th centuries. Website: National Canners Association History "Salt: A World History" by Mark Kurlansky This book delves into the role of salt in food preservation throughout history, discussing how it became integral to various cultures and their food systems. "Fermented: A Four-Season Approach to Paleo Probiotic Foods" by Jill Ciciarelli This book focuses on fermented foods, their role in food preservation, and how they have been integral to various cultures worldwide. The United Nations Food and Agriculture Organization (FAO) FAO offers research and articles on modern food preservation techniques, especially focusing on sustainability and food security issues.Website : FAO - Food Preservation "The Preservation of Food" by J. G. Vaughan A detailed text that explains various traditional and modern food preservation methods, including freezing, pickling, and canning. ←Previous Next→

  • Jessica the Hippo: The World's Most Unlikely Houseguest | Ctdp

    Home Our Mission Recycling Plastics Air Water Land Lifestyles Economy & Politics Media & Awards LAND < Back Jessica the Hippo: The World's Most Unlikely Houseguest In the heart of South Africa, along the banks of the Blyde River, lives an extraordinary hippopotamus named Jessica. Unlike most hippos, known for their territorial and sometimes aggressive nature, Jessica has formed a unique bond with humans, defying all expectations of wild animal behavior. Jessica's story began in 2000, after a devastating flood swept through the Limpopo province. Amid the debris and chaos, Tonie Joubert, a retired game ranger and wildlife enthusiast, discovered a frail, newborn hippo calf on the riverbank. The calf, barely a day old, was weak, dehydrated, and without her mother. African Hippo Realizing the calf wouldn’t survive without intervention, Joubert brought her home. His wife, Shirley, joined him in caring for the orphan, whom they named Jessica . They fed her warm milk from a bottle, massaged her body to simulate a mother’s touch, and kept her warm through the night. As Jessica grew stronger, her bond with the Joubert family deepened. She would wander around the house, nap on the porch, and even watch television with her human caretakers. Her favorite treat? Rooibos tea, sweetened with a little sugar, served in a bottle. Unlike most captive animals, Jessica was never confined. The Jouberts treated her as part of the family while encouraging her natural instincts. Once strong enough, she was released back into the river, but something remarkable happened—Jessica kept coming back. Today, Jessica lives freely in the Blyde River, often mingling with wild hippos. Yet, she regularly returns to visit the Jouberts, lounging on their deck and enjoying her favorite treats. Her gentle nature has amazed wildlife experts. While hippos are responsible for more human deaths in Africa than any other large animal, Jessica remains calm and affectionate. Jessica’s story has captivated the world, featuring in documentaries by BBC Earth , Animal Planet , and National Geographic . Visitors from around the globe travel to South Africa to meet the friendly hippo who defies nature's expectations. Jessica’s story has sparked interest in hippo conservation, reminding people that every animal, no matter how feared, deserves compassion and understanding. Sources: Jessica the Hippo Official Website – https://www.jessicahippo.com BBC Earth Documentary – Jessica the Hippo National Geographic – Unlikely Animal Friendships

  • Batteries | Ctdp

    Home Our Mission Recycling Plastics Air Water Land Lifestyles Economy & Politics Media & Awards Battery Disposal and Recycling Batteries are commonly divided into two categories: single-use batteries and rechargeable batteries . Single-use batteries are designed for one discharge cycle, while rechargeable batteries can be recharged and used repeatedly. Correct disposal depends on the battery’s chemistry, size, condition, and local rules. As a general rule, do not place any battery in curbside recycling bins . Lithium, rechargeable, button-cell, and damaged batteries can create fire, chemical, choking, or poisoning hazards if improperly discarded. Identify the Battery Type Check the label on the battery or device. Common labels include: Alkaline Zinc-carbon Lithium Lithium metal Lithium-ion or Li-ion Lithium-polymer or Li-Po Nickel-cadmium or Ni-Cd Nickel-metal hydride or Ni-MH Button cell or coin cell Lead-acid Rechargeable Zero Mercury or 0% Hg If you are unsure, do not place the battery in household trash. Contact a battery recycler, household hazardous-waste program, manufacturer, retailer, or local solid-waste authority for instructions. 1. Single-Use Alkaline Batteries Alkaline batteries are commonly used in remote controls, clocks, toys, flashlights, smoke alarms, and household devices. They are usually labeled alkaline , zero mercury , or 0% Hg . In many parts of the United States, single-use alkaline and zinc-carbon batteries may be placed in household trash if local rules allow. They should not be placed in curbside recycling. Some states and local governments require or encourage battery recycling, so check local rules first. Best practices Check your state or local waste authority’s instructions. Recycle alkaline batteries through a household hazardous-waste program or mail-back service if one is available. Keep leaking, corroded, or damaged alkaline batteries separate from household trash and ask a local hazardous-waste program for instructions. Do not mix alkaline batteries with lithium or rechargeable batteries. Mail-back recycling options may be available through companies such as Battery Solutions and Big Green Box. Fees, accepted battery types, shipping requirements, and service areas vary. Confirm current rules directly with the provider before using a service. 2. Lithium and Lithium-Metal Batteries Lithium batteries should never be placed in household trash or curbside recycling. Lithium batteries may be nonrechargeable, often called lithium-metal or primary-lithium batteries, or rechargeable lithium-ion batteries. They are used in key fobs, watches, cameras, medical devices, security sensors, smoke alarms, toys, power tools, phones, laptops, tablets, e-bikes, and many other products. Common labels include: Lithium Li Lithium metal Primary lithium Li-ion Lithium-ion Li-Po Lithium-polymer Lithium batteries can spark, overheat, ignite, or cause fires if they are crushed, punctured, damaged, or short-circuited. This can occur in garbage trucks, recycling machinery, waste facilities, and landfills. How to prepare lithium batteries For batteries that are in good condition and designed to be removable: Cover exposed terminals with nonconductive tape, such as electrical tape. Place each battery in a separate plastic bag if the collection site requests it. Keep batteries away from keys, coins, jewelry, tools, and other metal objects. Store batteries temporarily in a cool, dry, nonmetal container away from heat, direct sunlight, children, pets, and flammable materials. Take them to a battery recycler, household hazardous-waste program, electronics recycler, or participating retailer that confirms it accepts the specific battery type and size. Do not remove a built-in lithium battery unless the manufacturer or recycler specifically instructs you to do so. 3. Rechargeable Batteries Rechargeable batteries should never be placed in household trash or curbside recycling. Rechargeable batteries include lithium-ion, lithium-polymer, nickel-cadmium, nickel-metal hydride, and some sealed lead-acid batteries. They are commonly found in: Phones, tablets, laptops, and smartwatches Cordless power tools and garden equipment Rechargeable vacuums Bluetooth speakers, headphones, and earbuds Cameras and drones E-bikes, e-scooters, and portable chargers UPS battery backup units Cordless phones and handheld electronics Rechargeable batteries can still retain energy even after a device stops working or appears fully discharged. If damaged, crushed, or short-circuited, they can overheat, ignite, or release hazardous chemicals. Disposal options Take rechargeable batteries to: A household hazardous-waste facility A battery-recycling drop-off site An electronics recycler A participating retailer that confirms it accepts the battery A manufacturer take-back or mail-back program For devices with built-in batteries, such as phones, tablets, Bluetooth speakers, power banks, vapes, e-bikes, and rechargeable tools, take the complete device to an electronics recycler or hazardous-waste facility that specifically accepts battery-containing equipment. Do not attempt to open or dismantle a device to remove a built-in battery unless the manufacturer or receiving facility gives you specific instructions. 4. Button-Cell and Coin Batteries Button-cell and coin batteries are small, round batteries used in watches, key fobs, toys, hearing aids, remote controls, calculators, greeting cards, medical devices, and other compact electronics. They should never be placed in household trash or curbside recycling. They may contain lithium, silver oxide, alkaline chemistry, zinc-air chemistry, or other materials that require specialized handling. Serious swallowing and choking hazard Button and coin batteries can be extremely dangerous if swallowed or inserted into the nose or ear. They can become lodged in the throat and cause severe chemical burns and tissue damage in as little as two hours. Keep button batteries: Locked away and out of sight and reach of children. Away from pets. In original child-resistant packaging whenever possible. Out of toys, remotes, greeting cards, and electronics with loose or damaged battery compartments. Taped over or individually bagged after removal until they can be taken to a battery collection site. Do not let children play with batteries. Do not store loose button batteries in bowls, drawers, pockets, purses, or containers that children can reach. If a battery may have been swallowed Treat a suspected button-battery ingestion as an emergency. Call the National Battery Ingestion Hotline at 1-800-498-8666 . Call Poison Control at 1-800-222-1222 . Go to the nearest emergency department immediately. Call 911 if the person has trouble breathing, collapses, has a seizure, cannot be awakened, or has another immediate medical emergency. Do not wait for symptoms. Serious injury can occur even if the child initially appears well. Follow the directions given by Poison Control or emergency medical professionals. Do not induce vomiting or give food or drink unless a qualified medical professional specifically instructs you to do so. 5. Damaged, Leaking, or Recalled Batteries A battery may be unsafe if it is: Swollen or bulging Leaking fluid Crushed, punctured, cracked, or wet Corroded Hot or unusually warm Smoking, sparking, hissing, or making popping sounds Giving off an unusual chemical odor Part of a recalled product Involved in a fire, collision, or water exposure Do not place damaged, leaking, swollen, burned, or recalled batteries into ordinary retail battery-recycling bins unless the location specifically confirms it accepts them. Do not: Use, charge, puncture, crush, cut, burn, disassemble, or attempt to repair the battery. Put it in household trash or curbside recycling. Place it near heat, flammable materials, children, or pets. Mail or ship it unless an authorized program provides specific instructions and compliant packaging. Contact the manufacturer, local household hazardous-waste program, fire department nonemergency line, or a recycler that specifically accepts damaged batteries for instructions. If a battery is smoking, on fire, emitting sparks, becoming unusually hot, or creating an immediate danger, move people away from the area and call 911 or your local emergency number. 6. Where to Recycle Batteries Possible battery-disposal and recycling options include: City or county household hazardous-waste facilities Local solid-waste or environmental agencies Battery-recycling programs Electronics recyclers Participating retailers Manufacturer take-back and mail-back programs Auto-parts stores for automotive batteries Authorized e-bike, scooter, tool, or appliance retailers for larger batteries Before visiting, contact the location and ask: Do you accept the battery type, size, chemistry, and condition? Do you accept loose batteries, batteries inside devices, or both? Do you accept lithium-ion, lithium-metal, button, rechargeable, lead-acid, or damaged batteries? Are there weight, quantity, packaging, appointment, or fee requirements? Must terminals be taped or batteries bagged individually? Do you accept batteries from households, businesses, schools, or nonprofits? Quick Reference Battery type Can it go in household trash? Can it go in curbside recycling? Best option Single-use alkaline or zinc-carbon battery Usually yes, if local rules allow No Household trash or local recycling program Lithium-metal or primary-lithium battery No No Battery recycler or household hazardous-waste facility Rechargeable lithium-ion or lithium-polymer battery No No Battery recycler, electronics recycler, or household hazardous-waste program Nickel-cadmium or nickel-metal hydride battery No No Battery-recycling program or household hazardous-waste facility Button or coin battery No No Battery-recycling program or household hazardous-waste facility Sealed lead-acid battery, such as UPS battery No No Battery recycler, electronics recycler, or household hazardous-waste facility Car battery No No Auto-parts retailer, mechanic, battery retailer, or hazardous-waste program Damaged, swollen, leaking, or recalled battery No No Manufacturer, household hazardous-waste program, or recycler that explicitly accepts damaged batteries Sources and Resources U.S. Consumer Product Safety Commission, Button Cell and Coin Battery Safety Information U.S. Consumer Product Safety Commission, Button Cell and Coin Battery Dangers Ohio Environmental Protection Agency, Safe Recycling and Disposal of Household Batteries Poison Control, Poison Control Help Line and Online Tool Battery Solutions, Battery Recycling Information Big Green Box, Battery Recycling Programs Safety and Legal Notice Connecting The Dots Project provides this guide for general educational and informational purposes only. It is not medical, legal, technical, safety, environmental, recycling, waste-management, hazardous-materials, transportation, or emergency-response advice. Battery-disposal rules, collection-site acceptance, fees, preparation requirements, shipping restrictions, and recycling laws vary by location, battery chemistry, battery condition, manufacturer, and receiving facility. Before transporting, recycling, or disposing of a battery or battery-powered device, contact the manufacturer, local government or solid-waste authority, household hazardous-waste program, and receiving facility for current instructions. Do not open, dismantle, puncture, crush, burn, charge, repair, move, transport, or handle a swollen, leaking, damaged, recalled, burned, wet, or overheating battery unless you are trained, authorized, and specifically instructed to do so by the manufacturer, emergency personnel, or receiving facility. If a battery is smoking, on fire, emitting sparks, becoming unusually hot, or creating an immediate danger, move people away from the area and call 911 or your local emergency number. Do not attempt to open, puncture, move, or extinguish the battery unless directed by emergency responders. If a button or coin battery may have been swallowed or inserted into the nose or ear, seek emergency medical care immediately. Call the National Battery Ingestion Hotline at 1-800-498-8666 or Poison Control at 1-800-222-1222 . Call 911 for trouble breathing, collapse, seizures, unconsciousness, or another life-threatening emergency. Mention of any company, retailer, recycler, program, certification, or organization is for informational purposes only and does not constitute an endorsement, affiliation, recommendation, or guarantee of acceptance, service quality, safety, or environmental performance. Connecting The Dots Project does not guarantee that this information is complete, current, accurate, or suitable for every battery or situation. Use of this guide is at the reader’s own risk.

  • The Ongoing Bird Flu Crisis: Impact on Poultry, Egg Industry, and Global Mortality | Ctdp

    Home Our Mission Recycling Plastics Air Water Land Lifestyles Economy & Politics Media & Awards LAND < Back The Ongoing Bird Flu Crisis: Impact on Poultry, Egg Industry, and Global Mortality The Ongoing Bird Flu Crisis: Impact on Poultry, Egg Industry, and Global Mortality The H5N1 avian influenza, commonly known as bird flu, has significantly impacted global poultry populations, leading to substantial mortality rates and economic consequences, particularly in the egg industry. Timeline and Geographic Spread The current H5N1 outbreak began in 2022 and has since spread across multiple continents, affecting numerous countries. In the United States, the outbreak intensified in late 2024, with over 41 million birds culled in December and January alone, marking the most destructive period of the outbreak. thinkglobalhealth.org Impact on Poultry and Egg Production The avian flu has led to the culling of approximately 162 million birds across 17 U.S. states, including 21 million egg-laying hens. This has resulted in egg shortages and increased prices, with U.S. egg prices reaching a 45-year high. thinkglobalhealth.org Human Cases and Mortality As of January 6, 2025, there have been 66 confirmed human cases of H5N1 bird flu in the United States since 2024, with one reported death in Louisiana. cdc.gov Global Response and Measures In response to the outbreak, Turkey is set to export 15,000 tonnes of eggs to the United States to help alleviate the impact of bird flu, which has drastically reduced U.S. egg production and increased prices. reuters.com While the current public health risk is low, health officials continue to monitor the situation closely, emphasizing the importance of biosecurity measures and surveillance to prevent further spread. Recent Developments in the Bird Flu Outbreak Sources : barrons.com A Bird-Flu Vaccine Could Bring Down Egg Prices. Why the Poultry Industry Is Fighting It. Today nypost.com US egg farmers worry fight against bird flu is unwinnable as experts consider vaccinations: 'I call this virus a terrorist' Today reuters.com Turkey to export 15,000 tonnes of eggs to US to ease bird flu disruptions Yesterday

  • Prevention of exposure | Ctdp

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  • Extremely High Levels of Plutonium Detected Near Los Alamos Lab in New Mexico | Ctdp

    Home Our Mission Recycling Plastics Air Water Land Lifestyles Economy & Politics Media & Awards LAND < Back Extremely High Levels of Plutonium Detected Near Los Alamos Lab in New Mexico Extremely High Levels of Plutonium Detected Near Los Alamos Lab in New Mexico Extremely High Levels of Plutonium, Comparable to Chornobyl, Found Near Los Alamos Lab Some of you may have watched the recent blockbuster, Oppenheimer, which tells the story of the birth of the atomic bomb at the Los Alamos National Laboratory in New Mexico. Near the lab is a canyon, now fully covered with lush greenery, that has become a popular recreational site. From 1943 until 1963, during the Manhattan Project and part of the subsequent Cold War era, liquid and often radioactive waste was dumped into this canyon, earning it the name Acid Canyon. Recently, a scientist from Northern Arizona University reported discovering extreme levels of plutonium contamination in Acid Canyon, comparable to those found at the Chornobyl nuclear disaster site in Ukraine. “What I found here in Acid Canyon is pretty much the most extreme plutonium contamination scenario…in an off-site, uncontrolled environmental setting that I’ve ever seen in my career,” says Dr. Ketterer of Northern Arizona University. This alarming finding has raised serious concerns about the extent of radioactive pollution in the area and its potential impact on public health and the environment. Plutonium, which was among the contaminants, has a half-life of 24,100 years, meaning it remains radioactive and hazardous for millennia. It is a highly toxic radioactive element that, if inhaled or ingested, can cause severe health issues, including lung cancer and other radiation-induced illnesses. The discovery has prompted calls for immediate action to clean up the contamination and ensure public safety. Local officials and residents are now demanding transparency and a comprehensive assessment of the contamination. Environmental advocates are pushing for stronger federal and state oversight of the laboratory's cleanup efforts, arguing that previous assessments underestimated the risks and that more stringent measures. Sources: https://www.energy.gov/.../05/f75/AcidPuebloFactSheet.pdf https://www.theguardian.com/.../los-alamos-new-mexico ... https://ladailypost.com/nuclear-watch-nm-on-plutonium.../

  • Power Cords and Cables | Ctdp

    Home Our Mission Recycling Plastics Air Water Land Lifestyles Economy & Politics Media & Awards Disposal and Recycling of Power Cords and Cables Power cords, charging cables, extension cords, USB cables, HDMI cables, Ethernet cables, headphone cords, appliance cords, and adapters contain copper, plastic insulation, rubber, and metal connectors. They generally do not belong in curbside recycling because they can wrap around and damage sorting equipment. Whenever possible, reuse, donate, sell, or recycle cords and cables through an electronics recycler, scrap-metal recycler, manufacturer program, retailer program, or local e-waste collection service that confirms it accepts them. Common Cords and Cables Items that may be accepted by electronics or scrap recyclers include: Power cords and appliance cords Phone, tablet, laptop, and USB charging cables USB-A, USB-C, Micro-USB, Lightning, and proprietary charging cables Laptop chargers and power adapters Extension cords and surge protectors HDMI, DisplayPort, VGA, DVI, and audio-video cables Ethernet, coaxial, telephone, and network cables Printer cables and computer cables Headphone, earbud, microphone, and speaker cables Tool, gaming-console, and camera charging cords Christmas-light strings, depending on the recycler Cable-management accessories, such as cord organizers and connectors Acceptance varies by facility. Some recyclers accept only cables and cords, while others accept them only when brought with electronic devices. Reuse and Donation If a cord or cable still works safely, reuse is usually the best option. Consider: Keeping a labeled backup cord for a current device. Donating compatible chargers and cables with a working phone, tablet, computer, camera, speaker, or appliance. Giving extra cables to a school, library, nonprofit, repair group, maker space, or community organization. Selling specialized, proprietary, vintage, or high-quality cables online. Combining matching chargers and cables with devices before donating or reselling them. Before donating or giving away a cable: Test it if possible. Confirm it matches the correct voltage, wattage, connector type, and manufacturer specifications for the device. Label it clearly if it is device-specific. Check for fraying, exposed wires, bent prongs, loose connectors, damaged insulation, burn marks, melted plastic, or overheating. Dispose of damaged cords through an appropriate electronics or scrap-metal recycler instead of giving them away. Do not donate or use cords with exposed wires, damaged plugs, melted insulation, loose connections, sparking, overheating, or a burning smell. Recycling Options Electronics recyclers Many e-waste recyclers accept cords, chargers, adapters, cables, and small electronics. These facilities can separate copper, plastic insulation, circuit components, and metal connectors. Contact the recycler first and ask: Do you accept loose power cords and cables? Do you accept chargers, adapters, extension cords, and surge protectors? Are there quantity limits or fees? Do you accept damaged cords? Do you accept cords only with other electronics, or as a separate drop-off item? Scrap-metal recyclers Cables contain copper, which may have recycling value. Scrap-metal recyclers may accept: Extension cords Heavy-duty appliance cords Copper wiring Large bundles of computer, network, or electrical cables Cords from tools or appliances Some scrap recyclers may require cords to be separated from electronic devices, while others may accept only certain quantities or types. Do not strip insulation from wires unless the recycler specifically asks you to do so. Stripping wires can create injury and fire hazards, and many recyclers accept insulated wire. Retailer and manufacturer programs Some electronics retailers, repair shops, manufacturers, and community collection programs accept chargers, adapters, and cables. Policies vary by store and location. Before visiting, confirm that the location accepts: Loose cords and cables Power adapters and charging bricks Extension cords Surge protectors Damaged chargers or cords Cables from phones, computers, appliances, or tools Do not place cords or cables into a battery-recycling bin unless the collection site specifically says it accepts them. Battery collection programs and electronics-recycling programs are different. Chargers, Power Adapters, and Surge Protectors Chargers, power bricks, adapters, surge protectors, and power strips may contain circuit boards and other electronic components. They should be handled as e-waste rather than ordinary plastic or metal. Take them to an electronics recycler that accepts small electronics. Do not place them in curbside recycling. Do not dismantle chargers, adapters, or surge protectors. Do not use damaged chargers or power strips. Do not donate chargers that overheat, spark, smell burned, have cracked casings, or have damaged cords. If a charger, adapter, or power strip has a removable battery, follow the manufacturer’s and recycler’s instructions for separate battery recycling. Most cords and chargers do not contain rechargeable batteries. What Not to Do Do not place cords, cables, chargers, power strips, or extension cords in curbside recycling unless your local program specifically accepts them. Do not place cords or chargers in household trash if an e-waste or scrap-metal recycling option is available. Do not put cables in battery-recycling bins unless the location specifically accepts them. Do not burn, melt, or strip insulation from wires. Do not use or donate cords with exposed wiring, damaged plugs, melted insulation, loose connections, overheating, or a burning smell. Do not dismantle power adapters, chargers, power strips, or surge protectors. Do not assume that every recycling center accepts cables. Confirm before visiting. Where to Take Cords and Cables Item or situation Who to contact Working phone, computer, or appliance cable Device manufacturer, reuse organization, repair shop, school, nonprofit, or resale platform Loose power cords, charging cables, adapters, or computer cables Electronics recycler, local e-waste program, retailer program, or repair shop that confirms acceptance Extension cords, heavy-duty cords, or large bundles of cable Scrap-metal recycler or electronics recycler Chargers, power bricks, surge protectors, and power strips Electronics recycler or local e-waste program Damaged, sparking, melted, or overheating cord or charger Electronics recycler, local waste authority, or manufacturer. If there is an immediate fire risk, call 911. Need local recycling options City or county solid-waste authority, local e-waste program, electronics recycler, or scrap-metal recycler Sources and Resources U.S. Environmental Protection Agency, Electronics Donation and Recycling U.S. Environmental Protection Agency, Certified Electronics Recyclers Illinois Environmental Protection Agency, Electronics Recycling Chicago Environmentalists, Electronics Recycling Resources Safety and Legal Notice Connecting The Dots Project provides this guide for general educational and informational purposes only. It is not legal, electrical, technical, safety, recycling, waste-management, or emergency-response advice. Disposal rules, accepted items, fees, preparation requirements, and recycling laws vary by location, cable type, condition, manufacturer, recycler, and receiving facility. Before donating, selling, transporting, recycling, or disposing of cords and cables, contact the manufacturer, local government or solid-waste authority, and receiving facility for current instructions. Do not use, donate, repair, cut, strip, burn, dismantle, or handle damaged, sparking, melted, overheating, or burned cords, adapters, chargers, power strips, or surge protectors unless you are trained, authorized, and specifically instructed to do so by the manufacturer, emergency personnel, or receiving facility. If a cord, charger, adapter, power strip, or cable is smoking, on fire, emitting sparks, becoming unusually hot, or creating an immediate danger, move people away from the area and call 911 or your local emergency number. Do not attempt to repair, move, or extinguish the item unless directed by emergency responders. Mention of any company, retailer, recycler, program, certification, or organization is for informational purposes only and does not constitute an endorsement, affiliation, recommendation, or guarantee of acceptance, service quality, safety, or environmental performance. Connecting The Dots Project does not guarantee that this information is complete, current, accurate, or suitable for every product or situation. Use of this guide is at the reader’s own risk.

  • EPA Announces Largest Deregulatory Action in U.S. History | Ctdp

    Home Our Mission Recycling Plastics Air Water Land Lifestyles Economy & Politics Media & Awards < Back EPA Announces Largest Deregulatory Action in U.S. History The Environmental Protection Agency (EPA) has announced sweeping rollbacks of key environmental regulations, marking a significant shift in federal environmental policy. The initiative, described by Administrator Lee Zeldin as the most extensive deregulatory action in U.S. history, includes 31 measures that scale back pollution controls and loosen restrictions on industrial emissions. One of the most controversial aspects of the plan involves changes to the Mercury and Air Toxics Standards (MATS), which regulate emissions of hazardous substances such as mercury, arsenic, and lead from power plants. The revisions would allow facilities to avoid stringent compliance measures, sparking concerns among environmental and public health advocates who warn of increased risks to air quality and human health. The EPA argues that these regulatory rollbacks will reduce compliance costs for industries, stimulate economic growth, and return decision-making power to individual states. However, critics note that these changes weaken protections designed to limit toxic pollutants, which have been linked to neurological damage, respiratory illnesses, and other health concerns. In addition to altering MATS, the EPA is revising vehicle emissions standards and easing reporting requirements for industrial polluters. These changes reflect a broader effort to reduce what the administration considers regulatory overreach, but environmental groups argue that they prioritize industry profits over public health and climate protections. Supporters of the deregulation efforts, including some industry representatives and state officials, claim that reducing regulatory burdens will enhance energy production and lower costs for consumers. Opponents, however, caution that the long-term consequences could include worsening air and water pollution, with disproportionate effects on vulnerable communities. Furthermore, these rollbacks come at a time when the world is experiencing catastrophic weather events linked to climate change, raising concerns that weakened regulations could exacerbate environmental instability and the severity of extreme weather conditions. As these policies take effect, the debate over balancing economic interests with environmental responsibility is likely to intensify. The ultimate impact of these rollbacks will be closely watched by both policymakers and the public in the coming years. Sources: https://www.epa.gov/.../epa-launches-biggest-deregulatory ... https://apnews.com/.../trump-epa-clean-air-exemption ... https://www.wsj.com/.../trump-ushers-in-new-high-water ... ←Previous Next→

  • What are microplastics? | Ctdp

    Home Our Mission Recycling Plastics Air Water Land Lifestyles Economy & Politics Media & Awards LAND < Back What are microplastics? Microplastics are the most prevalent environmental pollutants which are found in waterbodies, air, and soil. As the name implies, micro plastics are technically defined as particles less than 5 mm in diameter. There are 2 categories of micro-plastics: primary and secondary. Primary micro plastics are tiny plastics designed for commercial use, such as micro fiber of synthetic textiles, micro beads in cosmetics, pellets used for industrial manufacturings, and etc. Secondary microplastics are particles that result from the breakdown of any plastic materials. Additionally, nanoplastics are a subcategory of secondary microplastics defined as particles with a size ranging between 1 nm and 1 Îźm. The transformation or breakdowns of larger plastic products into microplastics typically happens when plastics degrade, get weathered, used by humans, or undergo manufacturing processes. Then natural weathering process plastics even further through exposure to ultraviolet radiation from sunlight, wave action, and wind abrasion. Naturally, plastics continuously get shredded and fragmented into smaller and smaller in passage of time and possibly turn into fibers, particles, and dusts so small that they easily become absorbed or dispersed into environments and human bodies .

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