Living with Saltwater Crocodiles: Human Safety, Ecosystem Management and Conservation in the Sundarbans

In Dhangmari, Bangladesh, the Sundarbans, the world’s largest contiguous mangrove forest, lies directly alongside the village, shaping the lives and livelihoods of people who depend on its rivers, tidal creeks and forest resources. For many communities, the waterways are not simply part of the natural landscape; they are a source of food, income and everyday survival.

For 60-year-old Suchitra Sardar, these waters have provided a livelihood for decades. After her husband and son passed away, she became the only earner in a household of two, herself and her daughter-in-law. Each day, she enters the shallow waters and creeks near her home to catch prawns, which she sells at the local bazaar.

Everyone in Dhangmari knows that crocodiles inhabit these waterways. Yet for Suchitra, fishing is not a choice between safety and conservation. It is a livelihood necessity.

saltwater crocodile in sunderbans

A dangerous encounter

One day, while fishing, Suchitra was suddenly attacked by a saltwater crocodile. The animal seized her leg, but she managed to break free and make her way back towards the village. She was subsequently taken to hospital, where she spent 12 days receiving treatment for her injuries. Even a year later, the wounds had not completely healed.

Yet Suchitra eventually returned to the same creeks.

Her return illustrates one of the central challenges of conservation in human-dominated landscapes: people may understand the risks associated with wildlife, but economic necessity can leave them with few alternatives.

This is particularly important in the Sundarbans, where fishing, shrimp collection, honey gathering and other forest-dependent activities remain essential sources of income for local communities.

The saltwater crocodile: a powerful coastal predator

The saltwater crocodile (Crocodylus porosus), also known as the estuarine crocodile, is the largest living reptile and one of the most powerful predators associated with tropical wetlands.

The species is adapted to a wide range of aquatic habitats, including mangrove forests, tidal rivers, estuaries, coastal lagoons, creeks and near-shore marine environments. Although its common name emphasizes its association with saltwater, C. porosus is not restricted to marine or saline environments. It can tolerate freshwater and move through interconnected river systems, sometimes travelling considerable distances inland.

This adaptability is particularly relevant in the Sundarbans, where freshwater flows, tidal exchange and saline intrusion create a highly dynamic mosaic of aquatic habitats.

Adult males can attain very large body sizes, with exceptional individuals exceeding six meters in length, although such sizes are uncommon. Their muscular bodies, powerful tails and extremely strong jaws make them formidable ambush predators.

The saltwater crocodile (Crocodylus porosus)

Unlike animals that actively pursue prey over long distances, crocodiles often rely on stealth. They can remain almost completely submerged, with only their eyes and nostrils visible above the water. An individual may therefore remain difficult to detect until it is very close to a person working at the water’s edge.

Why can encounters become dangerous?

The danger posed by saltwater crocodiles is closely associated with the overlap between their habitat and human activities.

Crocodiles may use riverbanks, creeks and shallow waters where people fish, collect aquatic resources, travel by boat or perform other livelihood activities. This overlap creates opportunities for encounters, particularly when visibility is poor or when people enter the water without being able to assess what is beneath the surface.

A large crocodile possesses enormous physical strength and a highly effective bite. An attack can therefore result in deep lacerations, fractures, tissue damage, loss of limbs and, in severe cases, death.

However, the ecological presence of crocodiles should not automatically be interpreted as a conservation failure or as a reason for indiscriminate removal. The saltwater crocodile is a native component of the Sundarbans ecosystem and occupies an important position within its aquatic food web.

The conservation challenge is consequently more complex: how can viable crocodile populations be maintained while reducing the probability of dangerous encounters with people?

That is fundamentally an ecosystem-management question.

When wildlife habitat is also a livelihood landscape

The case of Dhangmari demonstrates why human-wildlife interactions in the Sundarbans should be considered within the broader context of ecosystem management.

A river or creek can simultaneously be:

  • crocodile habitat;
  • fish and prawn nursery habitat;
  • part of a mangrove ecological network;
  • a transportation route; and
  • a source of income for local households.

These functions are not necessarily incompatible, but they require careful management.

From an ecosystem-based perspective, conservation cannot focus on a single species in isolation. The ecological relationships among mangroves, tidal channels, fish and crustacean populations, water quality, hydrological connectivity, wildlife and surrounding communities all need to be considered together.

This is particularly important in a system as dynamic as the Sundarbans, where changes in salinity, freshwater discharge, tides, sedimentation, climate variability and human use can influence the distribution and availability of aquatic habitats.

Crocodiles beyond the immediate Sundarbans

Another issue requiring scientific attention is the observation of saltwater crocodiles in freshwater rivers beyond the immediate Sundarbans landscape.

Crocodiles have been observed in waterways with tidal influence in Bagerhat and the Madhumati River and, according to reported observations, even farther away in the Padma River. The presence of C. porosus in freshwater itself is not biologically unexpected. Saltwater crocodiles can enter and remain in freshwater environments, particularly where rivers are connected to estuarine and coastal systems.

What requires further investigation is the spatial and temporal pattern of these observations.

Are crocodiles expanding into new areas? Are individuals undertaking seasonal movements? Are changes in hydrological connectivity or prey availability influencing their distribution? Could changes in human observation and reporting account for some of the apparent increase?

These questions cannot be answered reliably through isolated sightings. They require systematic monitoring of distribution, abundance, movement, habitat use and seasonal patterns.

The value of ecological monitoring

Through the Conservation and Restoration Initiatives in the Sundarbans Region (CRIS) project, IUCN Bangladesh is conducting comprehensive faunal surveys and ecological monitoring to strengthen knowledge of species distribution, abundance and habitat use across the Sundarbans.

For saltwater crocodiles, such information can provide a scientific basis for understanding:

  • population distribution and abundance;
  • habitat preferences;
  • movement between rivers, creeks and estuarine areas;
  • breeding and nesting patterns;
  • seasonal changes in habitat use;
  • locations where crocodiles occur frequently; and
  • areas where crocodile habitat overlaps with human livelihood activities.

This type of evidence is essential for moving from anecdotal observations to evidence-based ecosystem management.

Mapping crocodile occurrence alongside fishing grounds, settlements, boat routes and other human-use areas could help identify locations where the probability of encounters is relatively high. Such information could subsequently support targeted awareness programmes, local warning systems, safer fishing practices and other site-specific measures.

From human-wildlife conflict to coexistence

The relationship between people and crocodiles in the Sundarbans should not be viewed simply as a conflict between conservation and human welfare.

It is better understood as a shared-landscape challenge.

The same ecological connectivity that allows crocodiles to move through the Sundarbans also supports fisheries, nutrient exchange, sediment transport and the ecological functioning of mangrove ecosystems. Protecting that connectivity is important for ecosystem resilience, but it also means acknowledging that humans and wildlife will continue to occupy overlapping spaces.

From an ecosystem-based management perspective, the objective should therefore be to maintain ecological integrity while reducing avoidable risks to communities.

This requires more than awareness campaigns. Community knowledge should be incorporated into monitoring and management because local fishers and forest users possess detailed knowledge of waterways, seasonal conditions and wildlife encounters. Their observations can complement scientific surveys and help identify locations and periods of elevated risk.

At the same time, communities need practical alternatives and risk-reduction measures. Where people have no realistic livelihood alternative to entering crocodile habitat, simply advising them to avoid the water is unlikely to provide an effective long-term solution.

Climate change adds another dimension

Climate change makes the need for ecosystem-based approaches even more important.

The Sundarbans is already exposed to changing climatic and environmental conditions, including sea-level rise, cyclones, storm surges, changing salinity regimes and altered freshwater availability. Such changes can modify mangrove habitats and aquatic ecosystems and may consequently influence the distribution of both wildlife and human activities.

Changes in fish and prawn distribution, for example, can alter where and when people enter waterways. At the same time, changes in water conditions and prey availability may influence crocodile habitat use.

This does not mean that climate change should automatically be attributed as the cause of increased crocodile sightings. Rather, it highlights the need to examine wildlife movements within the broader context of ecosystem resilience and environmental change.

Adaptation strategies should therefore consider biodiversity conservation and community safety together rather than treating them as separate objectives.

A broader conservation perspective

My perspective as a Commission Member of the IUCN Commission on Ecosystem Management (CEM) for the 2026–2029 cycle, with membership in the West Asia Regional Network, Coastal and Marine Ecosystems Specialist Group, and Ecosystem-Based Aquaculture Specialist Group, reinforces the importance of viewing cases such as this through an integrated ecosystem-management lens.

The Sundarbans illustrates why conservation of coastal and aquatic ecosystems cannot be separated from fisheries, biodiversity, local livelihoods, ecosystem resilience and climate adaptation.

The saltwater crocodile is not merely a dangerous animal that needs to be kept away from people. It is also part of a functioning coastal and estuarine ecosystem. Conversely, the people entering these waterways are not simply an external pressure on wildlife; they are communities whose livelihoods are historically and economically connected to the ecosystem.

Effective management must therefore address both sides of this relationship.

Building safer coexistence

The story of Suchitra Sardar provides a human face to a much broader conservation challenge.

Her experience demonstrates that human safety, livelihood security and wildlife conservation are interconnected components of ecosystem management. Protecting crocodiles without addressing the vulnerability of communities would be incomplete conservation. Likewise, protecting communities without maintaining the ecological integrity of the Sundarbans would undermine the natural systems on which those communities depend.

The way forward lies in better evidence, stronger community participation and management approaches that recognize the Sundarbans as a connected social-ecological system.

Scientific monitoring can reveal where crocodiles occur and how they use waterways. Local knowledge can help explain how those patterns intersect with daily livelihood activities. Together, these sources of information can support practical measures to reduce risk while maintaining viable wildlife populations.

For communities living alongside the Sundarbans, safer coexistence begins with understanding the wildlife with which they share the landscape. For conservationists and ecosystem managers, it begins with recognizing that biodiversity conservation, fisheries management, community livelihoods, ecosystem resilience and human safety are not separate challenges, they are interconnected dimensions of the same coastal ecosystem.

The future of the Sundarbans will depend not on eliminating this interaction, but on managing it scientifically, responsibly and equitably

How to Choose a Small Wind Turbine For Your Site and Energy Needs

Small wind turbines can generate useful renewable electricity at homes, farms, remote facilities, and other sites where local wind conditions make wind power practical, but choosing one is not simply a matter of picking the highest rated power on the specifications sheet. The turbine has to match the wind actually available at the site, the amount and type of electricity the site needs, and the physical conditions it will operate in day to day. Several factors deserve particular attention: the site’s wind resource, the actual energy requirement, turbine design, the generator and controller behind it, and the installation environment.

small wind turbines

Start With the Available Wind Resource

Wind resource is where any small wind evaluation should start, well before comparing turbine models. A turbine’s rated power is measured under a specified wind speed, but the wind at a real site varies throughout the day and across seasons, so that rating says little on its own about what a given turbine will actually produce.

Average wind speed is a starting point, not the answer. What tends to matter more is how consistent that wind is and how many hours a year it stays in a useful range — a site with a respectable average can still underperform if the wind arrives in short bursts rather than steady flow. Buildings, trees, terrain, and other obstructions add turbulence that degrades the wind reaching the turbine even when the open-field average looks fine.

Results also vary a great deal by setting. Farms, rural properties, and remote sites with clear wind exposure tend to perform more predictably, while suburban and urban installations are often disappointing simply because nearby structures interrupt the airflow a turbine needs. Looking at general wind data, surrounding terrain, and nearby obstructions early on is usually enough to get a realistic sense of the site, without needing detailed measurement equipment before narrowing down options.

A site with limited or inconsistent wind may not suit every small wind turbine, while a well-exposed site gives buyers more flexibility when comparing sizes and designs. Installation height factors in as well, since raising a turbine above surrounding obstructions is often what turns a marginal site into a workable one — a point worth returning to when the installation itself comes up. Understanding the available wind resource is therefore the starting point for choosing a turbine that can produce useful energy under the site’s actual conditions, not a separate question from it.

Match Turbine Capacity to Your Energy Needs

A 5 kW small wind turbine does not produce 5 kW continuously. Rated power describes performance under one specified wind condition, not a running total — the more useful question when comparing models is how much electricity a given turbine is likely to generate over a year at the site’s actual wind conditions.

That energy estimate should be compared against real electricity needs — daily and seasonal consumption, not just a peak demand figure — rather than treated as a simple kilowatt-for-kilowatt swap. A higher-rated turbine is not automatically the better choice: if the site’s wind resource is limited, paying more for a larger unit may provide little practical benefit. A site with stronger and more consistent wind, on the other hand, may justify a higher-capacity model if the electricity demand supports it.

Choose the Right Turbine Design

Small wind turbines aren’t all built the same way. The two broad configurations are horizontal-axis and vertical-axis turbines, and the right choice depends not only on wind direction but also on the physical characteristics of the installation site.

Horizontal-axis turbines are the more familiar design and generally need to face into the prevailing wind. They tend to work well at open sites with relatively consistent wind direction, sufficient space, and a tower arrangement that allows the rotor to be positioned above nearby obstructions. Farms, rural properties, and other sites with clear wind exposure can provide the conditions these turbines need to operate effectively.

Vertical-axis turbines use a different rotor arrangement that can accept wind from varying directions without the same need for directional alignment. This can make them worth considering at sites where wind direction shifts frequently, available space is more constrained, or the surrounding layout makes conventional directional alignment more difficult. However, a compact or built-up site does not automatically make a vertical-axis turbine the better choice; turbulence, wind speed, installation height, and the actual energy available at the site still determine whether the system will produce useful output.

Neither design is automatically better. The choice should come from the site’s wind direction, available space, surrounding obstructions, installation height, and maintenance requirements, rather than from a general preference for one configuration over the other.

Check the Generator and Controller Configuration

A turbine’s rotor and rated power are only part of what to evaluate when comparing models — the generator and controller behind it need to fit the rest of the system too. The generator converts the rotor’s mechanical energy into electrical power, and the controller manages that output and connects it to the rest of the system: batteries, an off-grid load, or another configuration.

An off-grid installation typically needs a controller built to work with a battery bank, while supplying power directly to other equipment calls for a different setup. Voltage, current capacity, and controller compatibility all need to line up with whatever the turbine feeds into — the turbine, generator, and controller work as a single system, and comparing turbines on rated power alone tends to miss where mismatches actually show up later.

Consider the Installation Environment

Even a well-matched turbine can underperform if the installation itself is unsuitable. Height does much of the work here: a turbine mounted too low, or crowded by nearby buildings and trees, often accounts for disappointing results more than any shortcoming in the equipment itself.

Available space, tower height, and maintenance access all affect how practical an installation actually is over time, not just how well it performs on day one. Weather exposure matters too — the turbine and its electrical components need to hold up to the temperature and precipitation expected at the site.

Noise and the relationship with neighboring properties or local planning requirements can also matter, particularly for residential installations, and are worth checking early rather than after a model has already been chosen.

These practical constraints often determine which turbine actually fits the site, not just which one looks best on power specifications alone.

Case Study: Choosing a Small Wind Turbine for a Remote Site

A remote facility with limited grid access needs a small wind turbine to supplement its electricity supply. The site has a good wind resource, but wind direction changes frequently, available installation space is limited, and the facility has relatively modest electricity demand. The system will also use a battery bank to store the generated power.

With the site conditions established, the facility does not need to choose the largest turbine available. A higher-capacity model could generate more power when wind conditions are favorable, but it would add cost and physical requirements without matching the site’s relatively modest demand. A smaller turbine with a suitable rated output would be a more practical choice.

The changing wind direction also affects the turbine design. Because the site has limited space and does not have one consistently prevailing wind direction, a vertical-axis wind turbine would be a reasonable choice for this application. A horizontal-axis model could still work, but it would require a more suitable installation arrangement for directional wind conditions.

The electrical configuration provides the final check. Since the turbine will charge a battery bank, the selected model needs a wind turbine controller compatible with its generator output, voltage, current, and battery system.

For buyers comparing complete small-wind systems, suppliers such as PowerHome offer options including vertical-axis wind turbines and compatible wind turbine controllers, making it easier to evaluate the turbine and controller as a complete system rather than as separate components. In this case, the selection would therefore be a smaller-capacity vertical-axis wind turbine with a compatible controller, rather than simply the highest-rated model available.

Conclusion

The right small wind turbine is the one that matches the site’s wind resource, energy demand, turbine design, electrical configuration, and installation conditions — not necessarily the one with the highest rated power. Working through those factors together, rather than comparing spec sheets in isolation, is what actually determines whether a given turbine is the right fit.

Choosing the Right H2S Gas Detector for Oil and Gas Operations

Most discussions of H2S detector selection turn into a list of factors: detection range, alarm type, environmental rating, calibration schedule. Each one matters, but a list of factors doesn’t tell you which detector to buy. The more useful question is what a given situation actually calls for, because the answer at each step removes some detectors from consideration and points toward others — starting with who or what needs protection, and ending with whether the team can actually keep the detector maintained once it’s in service.

Start With What the Detector Needs to Protect

In an oil and gas operation, H2S risk generally falls into a few situations: a worker moving between valves, pumps, and inspection points; a technician opening equipment during maintenance; someone entering a confined space such as a tank or vessel; or a fixed location near a known or suspected release point. The first three all involve a person carrying protection with them as they move. The fourth involves a location that needs coverage whether or not anyone is standing there.

a technician will h2s detection equipment inside a mine

That distinction decides the detector type before anything else does. If protection needs to travel with a worker through routine rounds, maintenance tasks, or confined-space entry, a portable H2S gas detector is the starting point. If the concern is a known release point that needs monitoring around the clock, a fixed H2S gas detector is the starting point. Some operations need both, running a portable unit for personnel and a fixed unit for the location as complementary parts of the same monitoring plan rather than a single either-or choice.

Portable doesn’t automatically mean personal protection, either. A portable instrument used to check a space before entry or investigate a suspected leak is doing a different job than a detector worn continuously by a worker. Continuous personal monitoring and a one-time or periodic check call for different instruments, even though both are technically portable.

Decide Between Single-Gas and Multi-Gas Detection

Once the detector type is settled, the next question is whether H2S is the only hazard that needs monitoring. If H2S is the primary and only atmospheric hazard identified for a task, a single-gas detector is usually sufficient, and it tends to be simpler to calibrate and maintain than an instrument covering several sensors.

If the work involves confined-space entry, or any situation where oxygen deficiency, carbon monoxide, or combustible gases also need to be tracked, a multi-gas instrument is the more appropriate choice — relying on a single-gas detector in that setting leaves other hazards unmonitored. This decision should come from the hazard assessment for the task, not from whichever instrument happens to be on hand.

Match Detection Performance to the Actual Hazard

With the detector type settled, the tempting next step is to compare detection ranges and pick whichever number is highest. That number only means something in relation to what actually needs to be caught. A portable H2S gas detector to give early warning in an area where H2S concentrations are normally low needs strong resolution at the low end more than it needs an unusually high maximum range. A detector positioned to catch a fast escalation near processing equipment calls for a different balance: quicker response time and alarm thresholds set close to recognized exposure limits.

The concentration range expected in that specific work area is the number to start from, not the detector’s rated maximum. Resolution, response time, and alarm threshold settings follow from that starting point rather than being chosen on their own.

The sensor itself also deserves a place in the comparison. Most H2S detectors use electrochemical sensors, which have a finite service life and may respond to other gases in the atmosphere. Check the manufacturer’s cross-sensitivity data for gases known to be present on site, along with sensor life and replacement requirements, before comparing prices.

Match the Alarm to How People Actually Work

A detector that identifies a hazard only helps if the person it’s protecting notices in time, and this is where H2S detectors differ from most industrial equipment: the product isn’t just performing a function, it’s communicating an emergency to someone who may be distracted, wearing hearing protection, or working around running machinery.

An audible alarm is enough in a quiet setting, but it gets lost near compressors or heavy equipment, and a visual alarm alone doesn’t help if the worker isn’t looking at the device. For personal detectors used around noisy machinery, pairing audible with a vibration alarm is usually the more dependable choice. For a fixed installation, the alarm may tie into a site control or warning system instead, where the equipment and architecture support it — a different problem from making sure one person notices in time.

Let the Site Environment Narrow the List

Oil and gas sites vary in temperature, humidity, dust, corrosive exposure, and hazard classification, and a detector that performs well on paper can still be the wrong fit for where it will actually sit. Rather than treating environmental specifications as one more item to review, it helps to treat them as a filter: an outdoor or high-heat site sets a minimum operating temperature range, exposure to dust, rain, or washdown sets an ingress protection requirement, and full-shift portable use sets a floor on battery life and durability.

Certification for a classified hazardous area belongs in its own category. It’s a gate, not a feature to weigh against price or performance — a detector without the certification required for the area shouldn’t stay on the shortlist, however well it scores on range, battery life, or anything else.

Confirm the Detector Fits the Maintenance Routine

A gas detector is part of an ongoing safety program, not a one-time purchase, and its value depends on whether it stays in working condition. Calibration intervals, bump testing frequency, and battery or power requirements should be checked against the site’s actual routine before purchase.

A detector that needs calibration more often than the team can realistically manage is a maintenance problem waiting to happen, whatever its specifications look like otherwise. Manufacturer-stated intervals are the reference point, and a facility running multiple units or working at a remote site should also weigh how easily spare sensors and batteries are available when something needs replacing.

an oil field in middle east

Example: Selecting a H2S Gas Detector for a Maintenance Crew

A maintenance crew works across an oil and gas processing area, periodically opening equipment where H2S may be present. Because the crew moves between locations rather than working at one fixed point, a portable detector is the starting point. Because exposure risk is tied to the moment equipment is opened, personal monitoring — one unit per worker — matters more than area coverage alone. If H2S is the only atmospheric hazard identified for the task, a single-gas detector fits; if the crew also enters confined spaces where oxygen or combustible gas levels matter, a multi-gas instrument is the better fit instead.

Because the work happens around running machinery, an alarm combining audible and vibration output is more likely to be noticed than an audible alarm alone. Because the crew works outdoors through changing weather, temperature range and ingress protection become requirements rather than nice-to-haves. And because the detector will be used every shift, calibration and battery logistics need to fit the crew’s existing routine.

Put together, the shortlist narrows to a portable H2S detector — single-gas or multi-gas, depending on the confined-space work — built for personal monitoring, with dual alarm output and environmental protection suited to outdoor use. For example, Gas Dog offers H2S detection options designed for industrial and oil and gas environments, making its products one example to consider once these requirements have been established.

When a Portable Gas Detector Isn’t Enough

The same logic works in reverse. A processing facility with a known potential H2S release point needs monitoring whether or not anyone is standing nearby. A portable detector carried by a worker doesn’t provide that coverage — it protects the person wearing it, not the location itself. In that case, a fixed H2S gas detector is the more appropriate choice, with an alarm tied into the site’s monitoring or control system where the equipment supports it. Recognizing when portable protection stops being sufficient is as much a part of the decision as knowing when to start with it.

Conclusion

Selecting an H2S detector comes down to working through what it needs to protect, whether single-gas or multi-gas monitoring fits the hazard, how much detection performance the risk calls for, whether the alarm will reach the person who needs it, and whether the equipment and its certification match the site. Maintenance requirements should also fit the operation’s ability to keep the detector calibrated and ready for use. A detector chosen this way is suited to the job rather than simply the one with the most impressive spec sheet.

Rethinking Fisheries Sustainability in the Red Sea and Arabian Gulf

The Red Sea and the Arabian Gulf are among the most important marine environments in the Middle East. Their fisheries support food security, employment, household incomes, coastal communities, and local economies. Fish and other marine resources also contribute to cultural traditions and provide an important foundation for the region’s emerging blue economy.

Yet the future of these fisheries is increasingly influenced by a combination of pressures. Fishing intensity, habitat degradation, illegal, unreported and unregulated (IUU) fishing, coastal development, climate-related environmental changes, and weaknesses in fisheries monitoring are affecting the ability of marine ecosystems to maintain their productivity.

The Red Sea and Arabian Gulf are often discussed together because of their geographical proximity and shared socioeconomic importance. Ecologically, however, they are very different systems. These differences have important implications for fisheries production, vulnerability to overexploitation, and the type of management required.

a fishing boat in the Red Sea

A comparative assessment of the two regions shows that sustainable fisheries management cannot rely on a single model. Management approaches need to reflect ecological characteristics, fishing practices, socioeconomic dependence, and institutional capacity in each marine system (Mishra & Ahmed, 2026).

Two Seas, Two Fisheries Realities

The Red Sea is a long, relatively narrow and semi-enclosed sea characterized by extensive coral reefs and diverse coastal habitats. Coral reefs, mangroves and seagrass ecosystems provide feeding, nursery and shelter areas for numerous marine organisms. This complex habitat structure supports diverse fish communities and predominantly artisanal, multispecies fisheries.

The fisheries of the Red Sea include groupers, snappers, emperors, sardines, shrimp and many other species. Small-scale fishers commonly use handlines, gillnets, traps and other relatively simple fishing gears. Because fishing is distributed among many species and habitats, the high biodiversity of the Red Sea can provide a degree of ecological buffering. However, this does not mean that individual species are protected from excessive fishing pressure.

Large, slow-growing and late-maturing species are particularly vulnerable to sustained exploitation. Groupers, snappers and emperors, for example, can be affected disproportionately when fishing effort becomes concentrated on high-value species (Ahmed & Ali, 2013, 2015; Kattan et al., 2017).

The Arabian Gulf presents a different ecological and fisheries context. It is shallow, semi-enclosed and characterized by extreme environmental conditions, including high temperatures, hypersalinity and strong seasonal variability. Its marine ecosystems are also exposed to intensive coastal development, maritime activities, industrialization and hydrocarbon-related activities.

Compared with the Red Sea, fisheries in the Arabian Gulf are more concentrated on a relatively narrower group of commercially important species, including demersal fishes and shrimp. Mechanized fishing and greater fishing efficiency can increase the capacity of fleets to remove fish from the ecosystem, particularly when fishing effort exceeds the productive capacity of stocks (Grandcourt, 2012; Roa et al., 2019).

These differences are important. A highly diverse multispecies system and a less diverse system dominated by fewer commercial species may respond differently to increasing fishing pressure and environmental change.

When More Fishing Does Not Mean More Fish

One of the most important indicators of fisheries health is catch per unit effort (CPUE). In simple terms, CPUE describes how much fish is caught relative to the amount of fishing effort required.

When fishers must spend more time, use more gear, travel farther, or employ more powerful vessels to obtain the same amount of fish, declining CPUE can provide an important warning that fish availability is decreasing.

Evidence from both the Red Sea and Arabian Gulf indicates widespread concerns about full exploitation and overexploitation of fisheries resources. Studies of Red Sea fisheries have reported declining availability of several commercially important reef-associated species, while assessments of Egyptian Red Sea fisheries have identified exploitation rates exceeding levels considered sustainable for many commercially important species (Al Solami, 2020; Mehanna & Samy Kamal, 2024).

Market-based assessments have also identified signs of potential overexploitation in Red Sea reef fisheries, particularly among high-value species (Shellem et al., 2021). Research along the Sudanese Red Sea coast has demonstrated considerable fish diversity, but diversity alone cannot prevent the depletion of heavily targeted species (Olsen et al., 2021).

The situation in the Arabian Gulf is also concerning. Fisheries have experienced prolonged exploitation, while environmental conditions and coastal modification can add additional stress to already heavily utilized resources (Grandcourt, 2012; Roa et al., 2019).

The lesson is straightforward: increasing fishing effort does not necessarily increase long-term production. When fishing pressure becomes excessive, catches may initially remain high because fishers increase effort and efficiency. Over time, however, declining biomass can result in lower CPUE, reduced economic returns and greater pressure on remaining stocks.

The Hidden Pressure: IUU Fishing

Illegal, unreported and unregulated fishing is one of the most difficult challenges facing sustainable fisheries management.

IUU fishing is not simply a problem of illegal vessels. It can include fishing without authorization, harvesting prohibited species or sizes, fishing in closed areas or seasons, exceeding allowable effort, and failing to report catches accurately.

The problem is closely connected to socioeconomic conditions.

Where coastal communities depend heavily on fishing and alternative sources of income are limited, declining catches can create a difficult cycle. Fishers may respond to lower catches by increasing fishing effort. If legal opportunities become insufficient to maintain household income, the incentive to fish outside established regulations can increase.

This can create a reinforcing cycle:

Increasing fishing effort → declining fish biomass → lower CPUE → economic pressure → greater incentives for IUU fishing → further stock depletion.

Breaking this cycle requires more than patrols and penalties. Effective fisheries governance must also address the socioeconomic conditions that influence fishing behavior.

IUU fishing is particularly difficult to control in a region characterized by extensive coastlines, numerous fishing grounds and transboundary marine resources. In parts of the Red Sea, limitations in surveillance infrastructure, vessel monitoring and enforcement capacity can make it difficult to detect unauthorized activities.

The Arabian Gulf has relatively stronger centralized management structures in many areas, but intensive fishing, fleet capacity, transboundary movements and multiple maritime activities continue to create management challenges.

Regional cooperation is therefore essential. Initiatives under the Regional Organization for the Conservation of the Environment of the Red Sea and Gulf of Aden (PERSGA), including work under the Sustainable Fishery Development in the Red Sea and Gulf of Aden (SFISH) project, emphasize stronger regional approaches to IUU fishing and fisheries management (PERSGA, 2024, 2025).

Fishing Down the Food Web

Another important ecological signal is the gradual change in the composition of catches.

When large predatory fish become less abundant, fisheries may increasingly depend on smaller, faster-growing species. This phenomenon is commonly associated with “fishing down the food web.”

Large groupers, snappers and emperors occupy relatively high trophic positions and often have biological characteristics that make them more vulnerable to intensive exploitation. Their removal can alter food-web structure and reduce the ecological complexity of marine communities.

Over time, a fishery may therefore continue producing fish while the composition of the catch changes. A decline in large predators accompanied by an increasing contribution from smaller and lower-trophic-level species can indicate a gradual simplification of the ecosystem.

This distinction is important because maintaining the quantity of landings alone does not necessarily mean that the ecosystem remains healthy.

A sustainable fishery should maintain not only production but also species diversity, trophic structure, reproductive capacity and habitat integrity.

Healthy Fisheries Need Healthy Ecosystems

Fish stocks cannot be managed independently of the ecosystems that support them.

In the Red Sea, coral reefs are particularly important because they provide structurally complex habitats for numerous fish and invertebrate species. Mangroves and seagrass ecosystems also provide nursery and feeding habitats and contribute to wider coastal ecosystem functioning.

The condition of coral reefs is therefore directly relevant to fisheries sustainability. Coral reef degradation can reduce habitat complexity and affect the abundance and distribution of reef-associated species (Fine et al., 2019).

The Arabian Gulf faces a different combination of environmental pressures. Extreme temperature and salinity conditions already impose physiological constraints on marine organisms. Additional pressures from coastal development, habitat modification and intensive human activity can reduce ecological resilience.

Climate change adds another layer of uncertainty. Changes in sea temperature, sea-level conditions and other environmental variables can influence species distribution, recruitment and habitat productivity. Fisheries management must therefore become increasingly adaptive rather than relying exclusively on historical patterns.

Protecting fisheries consequently means protecting coral reefs, mangroves, seagrass beds, nursery grounds and other critical habitats.

Why One Management Approach Cannot Fit Both Seas

The ecological and fisheries differences between the Red Sea and Arabian Gulf mean that management priorities should not be identical.

In the Red Sea, fisheries management needs to pay particular attention to multispecies exploitation, high-value reef predators, artisanal fishing communities and the protection of complex coastal habitats. Improved catch and effort monitoring is essential, particularly in areas where fisheries data remain limited.

In the Arabian Gulf, management needs to give greater attention to fleet capacity, fishing efficiency, concentration on commercially valuable species, shrimp fisheries, habitat impacts and cumulative environmental pressures.

Both regions, however, share several fundamental needs:

  • Better fisheries statistics and standardized long-term monitoring.
  • Stronger monitoring, control and surveillance systems.
  • Improved reporting of fishing effort and catches.
  • Protection of spawning and nursery habitats.
  • Effective spatial and seasonal management measures.
  • Greater regional cooperation for transboundary fisheries.
  • Stronger participation of local fishing communities.
  • Measures addressing the socioeconomic causes of IUU fishing.

sustainable fisheries

From Fisheries Management to Ecosystem-Based Management

Traditional fisheries management often focuses on individual species, catch limits or fishing seasons. These tools remain important, but they are not sufficient when fisheries interact with complex ecosystems and multiple human pressures.

Ecosystem-based fisheries management (EBFM) provides a broader framework.

Rather than asking only, “How many fish can we catch?”, ecosystem-based management asks:

  • Which species are being removed?
  • What habitats support them?
  • How does fishing affect predators, prey and food webs?
  • How are climate and habitat changes affecting productivity?
  • How dependent are local communities on the fishery?
  • What management measures are realistic and enforceable?

This approach is particularly relevant to the Red Sea and Arabian Gulf because both systems are exposed to multiple interacting pressures.

Management should also recognize the role of local fishers. Co-management arrangements, community participation and improved communication between authorities and fishing communities can strengthen compliance and make management measures more realistic.

Where fleet capacity is excessive, carefully designed capacity-reduction programs, including gear or vessel buy-back mechanisms where appropriate, may also be considered. At the same time, alternative livelihood opportunities can reduce dependence on increasingly stressed fish stocks.

Aquaculture, responsible marine tourism, coastal enterprises and other components of the blue economy may provide complementary sources of income when developed with appropriate environmental safeguards.

What Can Be Done?

Sustainable fisheries require action at several levels.

1. Improve monitoring and data

Reliable fisheries management depends on reliable information. Catch, effort, species composition, fishing gear and spatial data should be collected consistently and integrated across national and regional systems.

2. Strengthen action against IUU fishing

Vessel registration, licensing, monitoring systems, port controls, catch documentation and effective enforcement can reduce opportunities for illegal and unreported fishing. Regional cooperation is especially important for shared marine resources.

3. Protect critical habitats

Coral reefs, mangroves, seagrass beds, spawning areas and nursery grounds should be incorporated into fisheries management and marine spatial planning.

4. Protect vulnerable species and trophic structure

Management should not focus solely on total catch. Large predators and other vulnerable species require appropriate protection to maintain ecological functions and reproductive capacity.

5. Involve fishing communities

Fishers possess valuable local knowledge and are directly affected by fisheries regulations. Their participation can improve both the design and implementation of management measures.

6. Develop complementary livelihoods

Where fishing pressure is driven by economic dependence, sustainable alternatives can help reduce incentives for illegal fishing. Such alternatives should be designed according to local ecological and socioeconomic conditions.

7. Strengthen regional cooperation

The Red Sea and Arabian Gulf cross national boundaries. Effective fisheries management therefore requires cooperation among neighboring countries, shared data, compatible monitoring systems and coordinated responses to IUU fishing.

Looking Ahead

The future of fisheries in the Red Sea and Arabian Gulf will depend on whether societies treat fisheries as renewable ecological systems rather than simply sources of fish.

A fishery can remain economically important only when the ecosystem supporting it remains productive. Increasing fishing effort while stocks decline may provide short-term catches, but it can undermine the ecological and economic foundation of the fishery itself.

The challenge is therefore not simply to catch more fish. It is to maintain marine ecosystems capable of producing fish for future generations.

The Red Sea and Arabian Gulf require management approaches that combine fisheries science, ecosystem conservation, effective governance and socioeconomic development. Protecting marine habitats, improving monitoring, reducing IUU fishing, maintaining trophic diversity and involving local communities are interconnected components of the same sustainability challenge.

The future of fisheries is not determined by how much fish we catch today, but by whether marine ecosystems can continue producing fish tomorrow.

References

Ahmed, A. S. O., & Ali, S. M. (2013). On some reproductive aspects of the Sky Emperor Lethrinus mahsena (Pisces) in the Sudanese Red Sea. Sudan Journal of Basic Sciences (B), 17, 51–62.

Ahmed, A. S. O., & Ali, S. M. (2015). Biological investigations on the Sky Emperor Lethrinus mahsena in the Sudanese Red Sea waters. Nile Basin Research Journal, 17, 32–54.

Al Solami, L. (2020). Status analysis of the Red Sea fisheries in the Kingdom of Saudi Arabia. Egyptian Journal of Aquatic Biology and Fisheries, 24, 825–833. https://doi.org/10.21608/ejabf.2020.129183

Fine, M., Cinar, M., Voolstra, C. R., Safa, A., Rinkevich, B., Laffoley, D., Hilmi, N., & Allemand, D. (2019). Coral reefs of the Red Sea: Challenges and potential solutions. Regional Studies in Marine Science, 25, 100498. https://doi.org/10.1016/j.rsma.2018.100498

Grandcourt, E. (2012). Reef fish and fisheries in the Gulf. In B. Riegl & S. Purkis (Eds.), Coral Reefs of the Gulf (pp. 127–161). Springer. https://doi.org/10.1007/978-94-007-3008-3_8

Kattan, A., Coker, D. J., & Berumen, M. L. (2017). Reef fish communities in the central Red Sea show evidence of asymmetrical fishing pressure. Marine Biodiversity, 47, 1227–1238. https://doi.org/10.1007/s12526-017-0665-8

Kadengal, S. T., Ceyhan, T., Tosunoğlu, Z., Gireesh, S., Charles, S. K., Santucci, R. G., Adam, A. M. S., Tıraşın, E. M., Ünal, V., & Dimech, M. (2024). Toward sustainable fisheries: Assessing catch per unit effort, retained bycatch, and discard ratios in the Red Sea shrimp trawl fishery of the Kingdom of Saudi Arabia. Sustainability, 16, 10285. https://doi.org/10.3390/su162310285

Mehanna, S. F., & Samy Kamal, M. (2024). Population dynamics parameters and exploitation status of 55 commercial species in Egyptian Red Sea fisheries: A key to sustainable fisheries. Fishes, 9, 255. https://doi.org/10.3390/fishes9070255

Mishra, P. R., & Ahmed, A. S. O. (2026). Fisheries of the Red Sea and the Arabian Gulf: A comparative assessment. Open Journal of Marine Science, 16(2), 69–86. https://doi.org/10.4236/ojms.2026.162005

Olsen, E., Axelsen, B. E., Moland, E., Utne-Palm, A. C., Elamin, E. M., Mukhtar, M. A., Saleh, A. M., Elamin, S. M., Iragi, M. A., & Gumaa, S. G. F. (2021). Distribution and diversity of fish species along the Sudanese Red Sea coast based on three combined trap and gillnet surveys. Fisheries Research, 242, 106032. https://doi.org/10.1016/j.fishres.2021.106032

PERSGA. (2024). Regional Protocol of Action on IUU Fishing: Draft Guideline under the Sustainable Fishery Development in the Red Sea and Gulf of Aden (SFISH) Project. Regional Organization for the Conservation of the Environment of the Red Sea and Gulf of Aden.

PERSGA. (2025). PERSGA Leads Regional Fishery Frame Surveys in Djibouti, Egypt, and Sudan as Part of the World Bank-Funded SFISH Project. Regional Organization for the Conservation of the Environment of the Red Sea and Gulf of Aden.

Roa, R., Abdulqader, E., Lin, Y. J., Rabaoui, L. J., Maneja, R., & Fita, N. (2019). Arabian Gulf fisheries. In K. Al-Abdulkader et al. (Eds.), Ecosystems and Biodiversity of the Arabian Gulf—Saudi Arabian Waters (pp. 462–475). Saudi Aramco and King Fahd University of Petroleum and Minerals.

Shellem, C. T., Ellis, J. I., Coker, D. J., & Berumen, M. L. (2021). Red Sea fish market assessments indicate high species diversity and potential overexploitation. Fisheries Research, 239, 105922. https://doi.org/10.1016/j.fishres.2021.105922

Morocco’s Emergence as an Electric Car Production Hub in Africa

Morocco is ramping up its electric car production plan. The country manufactured around 100,000 electric cars in 2025. Fortunately, Morocco’s existing industrial facilities alone are capable of reaching this lofty goal, although helpful international investment may also be on the table in coming years.

Electric Vehicle Production in Morocco

The need for electric vehicle production

Ramping up electric car production is becoming increasingly essential to maintain a competitive edge in a global market. Net zero carbon emission commitments, a sustainable goal pledged by countries around the world, now mean combustion engine vehicles no longer have a bright future in terms of market outlook.

The European Union, for example, Morocco’s largest trade partner, has voted to ban imports of fossil-fuel cars from 2035. Although Morocco is already the biggest carmaking hub in Africa, the country needs to prioritize the shift to electric vehicles in order to stay ahead. As such, Morocco’s now aiming for an electric vehicle production target of one million units per year, as well as to increase national auto part manufacturing in order to reduce dependence on imports.

Saving money while helping the environment

Better for the environment and offering lower servicing and maintenance costs, electric cars are becoming an increasingly popular choice across the world. Although Moroccan authorities have yet to roll-out financial incentives to further increase electric vehicle adoption, other countries do offer these as a way of boosting clean energy use.

The United States, for example, offers a $7,500 federal income tax credit for all new electric cars purchased in or after 2010. A number of states and utility companies also offer hundred-dollar rebates for at-home electric vehicle charger installation. Although a home charger is an ample investment (around $1,300 in total), it can help people save time and money by being able to charge their electric vehicles without leaving home. For standard 240-volt home outlets, plug-in chargers are ideal. Fortunately, plug-in charging systems can be easily upgraded without the need for an electrician.

Environmental Impact of Electric Vehicles

Morocco’s cobalt reserves attractive to electric car manufacturers

International car manufacturers are already favoring Morocco for the country’s ample cobalt reserves, a crucial material used to produce electric vehicle batteries. In fact, Morocco is home to the 11th largest cobalt reserves in the world. In particular, Groupe Renault, the French multinational car manufacturer, partnered with Managem Group, a mining company, to secure a cobalt supply from Morocco. The agreement states Managem Group will provide Renault with 5000 tonnes of cobalt sulfate for seven years.

Car exports also play a key role in Morocco’s status as Africa’s auto manufacturing leader — cars are the country’s second biggest exporting sector with exports reaching $11.45 billion in the first 7 months of 2026. And, with the boost to electric vehicle production, Morocco’s transition  to green, zero-emission vehicles is set to be a success.

The Window Problem: Why Gulf Buildings Lose the Cooling Battle Before the AC Switches On

Almost every conversation about building energy in the Gulf starts with the air conditioning. Efficiency ratings, servicing schedules, district cooling, smart thermostats — all of it useful, all of it aimed at the same question: how do we cool this space using less electricity?

It is the second question. The first one is quieter and rarely asked: how much heat are we letting in before the cooling system has to do anything at all?

Across the region, the answer is usually “more than anyone budgeted for,” and the largest single reason is the glazing. Walls are insulated. Roofs are insulated. Windows and glass doors are, in thermal terms, the holes in the insulation — and in a region that has spent two decades building glass-fronted towers and glass-walled villas, those holes are very large.

How to Efficiently Heat and Cool Small Spaces

Heat does not just come through the glass. It comes three ways.

A window loses the cooling battle through three separate mechanisms, and they need different solutions.

Conduction is heat moving through the solid material — the glass itself and, critically, the frame. A 45°C surface on the outside and a 23°C surface on the inside is a steep gradient, and any conductive path between the two will carry heat inwards all day.

Solar radiation is direct shortwave energy passing through the glass and converting to heat once it strikes floors and furniture inside. This is why a room can feel hot even when the glass is cool to the touch, and it is the dominant load on any west-facing elevation between mid-afternoon and sunset.

Air infiltration is the least glamorous and often the worst offender: hot outside air leaking past failed seals, worn gaskets and doors that no longer close tight. Unlike the other two, it also brings humidity and dust with it, which means the cooling system is not just working against temperature but against latent load as well.

A building can address one of these and still perform poorly. Triple-glazed units in a leaking frame will disappoint. Excellent seals on clear single glazing will disappoint differently.

Three numbers describe a window. Most specifications mention one.

When glazing is procured on price, the specification usually collapses to “double glazed.” That tells you almost nothing. Three figures matter:

U-value measures conductive heat transfer. Lower is better. It describes how readily heat passes through the assembly.

Solar Heat Gain Coefficient (SHGC) measures how much solar radiation gets through. In cold climates you often want this high, to harvest free winter heat. In the Gulf you want it low — this is the number that governs that west-facing afternoon load, and it is the one most often ignored because it is invisible in a quotation that just says “6mm + 12mm + 6mm.”

Visible Light Transmittance (VLT) measures daylight. It matters because it is the trade-off: push SHGC down carelessly and you end up with dark glass, artificial lighting on all day, and an electricity saving that partly cancels itself out.

Good glazing design in this climate is the art of pushing SHGC down while keeping VLT acceptable. That is what selective low-emissivity coatings do, and it is why two windows that look identical can behave completely differently.

The frame is half the assembly, and the usual weak point

This is where specifications most often fall apart.

Aluminium is the dominant frame material in Gulf construction, and for sound reasons: it is dimensionally stable in extreme heat, it carries large spans on slim sightlines, and it does not warp or degrade under relentless UV. Its one significant weakness is that aluminium conducts heat extremely well — which is precisely the property you do not want in a component bridging a 20-degree temperature difference.

The solution is the thermal break: a low-conductivity polyamide barrier built into the frame profile, separating the outer section from the inner one so the conductive path is interrupted. A thermally broken frame and a non-broken frame can look identical once installed. They perform nothing alike.

This is the single most common gap between what a building was specified to achieve and what it actually achieves. It is also why anyone sourcing aluminum windows uae should ask for the frame system by name and confirm in writing whether it is thermally broken — “aluminium” on a quotation is a material, not a specification, and the price difference between the two versions is far smaller than the decade of cooling cost that follows.

A secondary point on frames: condensation. A non-broken frame in a humid coastal environment will run cold enough on the inside face during peak cooling to collect moisture, which over years means corrosion at the fixings and staining on the reveal. The thermal break solves a durability problem as well as an energy one.

Retrofit is usually the sustainable answer, and the cheaper one

There is an instinct in sustainability conversations to reach for replacement. New systems, new glass, new performance figures.

For existing buildings this is often the wrong call on both counts — environmental and financial. Manufacturing new frames carries real embodied carbon, and pulling out serviceable aluminium to replace it with new aluminium can take many years to pay back in operational savings.

Three retrofit interventions deliver a disproportionate share of the available gain:

Replacing the glass unit within the existing frame. Where the frame is sound, the sealed unit alone can often be upgraded to a low-SHGC specification. The building gets most of the solar benefit without any frame replacement at all.

Renewing seals and gaskets. UV and heat harden EPDM and similar materials until they shrink away from the frame. Restoring the seal line is inexpensive and directly attacks the infiltration load — the one that brings humidity with it.

Applying spectrally selective film. Not a substitute for good glass, but a legitimate intervention on buildings where unit replacement is impractical, and a fast payback on heavily exposed elevations.

The version of sustainability that keeps existing material in service and fixes what is failing is almost always better than the version that specifies something new.

The part nobody budgets for

Glazing is treated as a capital item and then forgotten. In this climate it is a maintained system.

Fine airborne grit works into sliding tracks and abrades the rollers, until doors drag and get forced, which distorts the frame and breaks the seal line. Gaskets harden. Friction stays on casement windows corrode in coastal air and let the sash drop out of square, so it no longer compresses the seal evenly. Sealed units fail at the edge and mist internally, at which point their thermal performance is gone even though the window looks intact from ten feet away.

glass facadeNone of this is dramatic. All of it quietly moves a building from its designed performance towards something considerably worse, usually within five to eight years, and usually without anyone noticing until the cooling bills have already absorbed it.

A simple annual inspection — track condition, seal integrity, sash alignment, evidence of internal misting — costs very little and preserves the performance that was paid for at construction.

What to actually specify

For anyone procuring or upgrading glazing in the region, four requirements belong in writing:

  • Frame system named, thermal break confirmed. Not “aluminium.”
  • Full glass make-up with U-value and SHGC stated, not just pane thicknesses.
  • Hardware brand specified, with parts availability confirmed for at least a decade.
  • A maintenance schedule agreed at handover, because performance is not a one-time property.

The Gulf’s decarbonisation commitments — Dubai’s Clean Energy Strategy 2050 among them — will ultimately be met or missed in thousands of individual buildings, through thousands of unglamorous specification decisions. Cooling systems get the attention because they consume the electricity. But the envelope decides how much work those systems are asked to do.

Fix the envelope and every kilowatt-hour that follows is smaller. That is a better outcome than a more efficient machine working just as hard.

دعم التمويل المناخي بالدول العربية : آستثمار لغد أفضل

تعتبر مسألة التغيّر المناخي بالدول العربيّة من المسائل الشائكة التي لم تنل قسطا كافيا من الإهتمام سواء على المستوين الحكومي أوالشعبي ، وآقتصرت التوعية بها على مبادرات محدودة الصيت الإعلامي من منظمات المجتمع المدني والمؤسسات المالية العالمية كالبنك الدولي وغيره. لا يتجاوز نصيب الفرد حاليا أكثر من 1000 متر مكعب من موارد المياه المتجددة في الشرق الأوسط وشمال أفريقيا، بالمقارنة بنحو 4500 متر مكعب للفرد في بلدان شرق آسيا، و9000 متر مكعب في الولايات المتحدة. وتضيف المطالب التنافسية من قبل الزراعة والنمو السكاني والتوسع السريع في المناطق الحضرية ضغوطا هائلة على موارد المياه الشحيحة في المنطقة.

green-finance

هذه المؤشرات الخطيرة تستوجب آعتماد حلول عاجلة للحد من آثار التغيّرالمناخيلعلّ من أهمّها دعم تمويل البرامج الكفيلة بضمان التكيّف مع  الواقع المناخي الجديد لتنفيذ البنود الواردة  في آتفاقية باريس للمناخ على غرارالعمل على  تخفيض الإنبعاثات الغازية المسبّبة للإحتباس  الحراري ، تحسين كفاءة الطاقة، والاستثمار في مصادر الطاقة المتجددة (الطاقة الشمسية…).

رغم أهميّة هذه التحدّيات ، إلا أنّ تنامي الوعي بتأثير التغيّر المناخي على آقتصادات الدول العربية يمثل حجر الأساس لوضع خطة مدروسة تتلائم مع واقع المجتمعات .هذه الخطة تقوم أساسا على :الحد من التلوث الناتج عن التصنيع والنقل والنفايات،التأكد من قدرة المدن الكبرى على مجابهة آثار تغيّر المناخ وتعزيز الأمن الغذائي والمائي خصوصا في الدول ذات الموارد الإقتصاديّة المحدودة.

من ناحية أخرى ، يجب على الدول ذات المناخ الجاف والمتقلب إيلاء هذا الأمرعناية قصوى بآعتبار تأثيره المباشر على حياة السكان . في هذا الإطار ، أجمعت مختلف التقارير التي نشرتها منظمات وطنية وعالمية بكل من تونس ، المغرب ، الكويت والسعودية على ضرورة دعم إصلاح السياسات التي ترسي دعائم المستقبل الأخضر و ذلك من خلال  تشجيع التنوع الاقتصادي، التحول نحو الطاقة منخفضة الكربون، تحسين لوائح الإدارة الأفضل للموارد الطبيعية، وإلغاء دعم الوقود الأحفوري التي يستفيد منها الأثرياء أكثر من الفقراء وتشجع الاسراف في استهلاك الطاقة.

يعتبر آنتهاج  السلوك النموذجي في مجال البيئة ودعم مبادرات الإقتصاد الأخضر خطوة مركزية لإرساء منوال تنموي مستدام بالدول العربيّة .

المبادرات البيئية في الشرق الأوسط – التحديات والحلول

حماية البيئة اصبحت عنصر من عناصر الاهتمام لاجندة السياسات الاجتماعية والاقتصادية لدول الشرق الاوسط..كنت قد قرات مقاله الاسبوع الماضي تحت عنوان” الاثار البيئية للاكياس البلاستيكية”.وقد ادهشني الملخص الوجيز عن الاثار السلبية للاكياس البلاستيكية و كيف نري اوجه اثارها في نواح متعددة. وكيف نري هذا التأثير المستمر في نواحي كثيرة.هذا المقال يسلط الاضواء علي سلسله من الانعكاسات للمبادرات البيئية من قبل دول الشرق الاوسط وشمال افريقيا. ولاسيما دوله قطر والامارات العربية المتحدة.

اود ان اشارك ارائي وتفكير من خلال هذا المقال علي القضايا الراهنة والتي تحول دون نجاح الجهود المحلية وجميع الوسائل الممكنة للتغلب عليها. وسيتم التركيز بشكل خاص علي سيناريوهات الحفاظ علي البيئية الاقليمية لتشمل الثراث الثقافي وتمكين المشاركات الشعبية للمشاريع.

environment-arabic

حماية البيئة: تفصيل قصصي

بالدراسة في القاهرة وزيارة الدوحة ودبي عدة مرات, يمكنني ملاحظة التدهور البيئي الحادث في الشرق الاوسط. فحالة الاكياس البلاستيكية هي واحدة من العديد من الامثله التي ترمز لضعف الادارة البيئية ويكشف الستار عن قضايا متعددة تعوق النجاح. دعونا اولا ندرس علي المستوي الاقليمي لاماكن يوجد لديها تشريعات وتفويضات بيئية في انحاء المنطقه.

علي وجة التحديد القواعد الموجودة بقطر والامارات العربية والتي تبدوا انها بدات في زمام المبادرة عن طريق تحويل وجهات النظر لمحاوله معالجة القيود البيئية المحتمله للحصول علي مياه صالحة للشرب, وكذلك احطياطي النفط والغاز الطبيعي.  تحياتي لهولاء القادة لعملهم الجاد. ولكن قلقي يثمثل في من ليس له صله بالقطرين القطري والاماراتي واقصد بذلك المغتربيين. فالمغتربين يمثلوت الغالبيه الاكبر من سكان مجلس التعاون الخليجي. وينبغي اعطاء الاهمية اللازمة في التنمية الاجتماعية والاقتصادية وكل المبادرات البيئية جنب الي جنب مع السكان المحللين للمنطقه.

recycling-doha

ففي حالة الدوحة بقطر, والتي تبدو بها بعض برامج اعادة التدوير للمخلفات في اماكن المدن الجامعية وقريه كتارا الثقافية. فتواجد برامج بها ضعف تطبيقي. والتي تجعل بعض الخبراء الوافدين من دول اروبية يشكون من عدم وجود مكان لرمي المواد القابله لاعادة التدوير. فبدون زيادة القوي الشرائية من السكان الاصلين للبلاد, وادراك القيمة الفعلية لاعادة التدوير والحفاظ وغير ذلك من الجوانب البيئية, فان اثر كل المجهودات المبذوله سوف يكون ضئيل وغير ملحوظ.

تقلق اخر هو تدني مستوي مقايس التنفيذ في اماكن المراقبة والتوظيف وتحسين صور الحفاظ علي البيئية. بتكامل الصورة, فان ظهور تلك المشاكل توجب بشكل اساس السرعه في اتخاذ المبادرات وظهورها بشكل اوضح.   

الالتزامات الدينية والحقائق علي ارض الواقع

بالاضافه لما سبق, يبدو ان هناك انفصال بين رساله المقيمين في قطر والامارات العربية والنتائج  الفعلية الملحوظة في هذه الدول. علي سبيل المثال هناك تقاليد اسلاميه واضحة تطبق في جميع انحاء البلاد الاسلاميه. وهذه الدول تحتفل بكونها حاملة للمفاهيم والتقاليد والثقافة الاسلامية ولكن يبدوا ان الامر يختلف عند الممارسات البيئية والثقافية والمعاريف التاريخية فيتم تجاهلها حين ذلك. بالرغم من ان القران الكريم قد حث في كثير من اياته علي الحماية البيئية.

الله (سبحانة وتعالي) يقول في كتابه القران الكريم:

سورة المائدة, الاية 64:

 “وَيَسْعَوْنَ فِي الْأَرْضِ فَسَادًا ۚ وَاللَّهُ لَا يُحِبُّ الْمُفْسِدِينَ

ويقول ايضا في سورة الاعراف , الاية 85:

“وَلَا تُفْسِدُوا فِي الْأَرْضِ بَعْدَ إِصْلَاحِهَا ۚ ذَٰلِكُمْ خَيْرٌلَكُمْ إِنْ كُنْتُمْ مُؤْمِنِينَ”

و يقول تعالى: {وكُلُواْ وَاشْرَبُواْ وَلاَ تُسْرِفُواْ إِنَّهُ لاَ يُحِبُّ الْمُسْرِفِينَ} (31) سورة الأعراف.

ويفول تعالي في القصص, ايه 77:

﴿ َأَحسِنْ كَمَا أَحسَنَ اللهُ إِلَيكَ وَلَا تَبغِ الفَسَادَ في الأَرضِ إِنَّ اللهَ لَا يُحِبُّ المُفسِدِينَ ﴾ 

من هنا يتضح ان الاسلام هو اول من تحدث عن التنمية البيئية المستدامة من مفهوم الوصايا. فالموصي او خليفه الله لتوصيل المفاهيم الدينية ينبغي عليه اتخاذ جميع الخطوات اللازمة لضمان وصول المفاهيم الموكله الي الاجيال القادمة في شكل نقي وسلسل يلائم جميع الازمنة. هذه الالتزامات ذهبت الي جانب اخر من صور الثراث البدوي في المنطقة وتم تجاهلها والتعامل معاها علي انها اقل شأن من نظرية التنمية الغربية.

ويظل الامل

بالرغم من تلك الصعوبات جنبا الي جنب مع الاعتراف بان دول الشرق الاوسط وشمال افريقيا تفتقر في الوقت الحاضر الي القدرات والبنية التحتية لتصحيح مسار التوعية البيئية ومواجهه شعور اللامبالاة تجاة الحماية البيئية. اعتقد اننا لم نقد كل شئ .فبالرجوع الي قصة الاكياس البلاستييكية, فالشئ الباقي لمساعدة تشجيع نقل التوعية هو حمله اعلانية وطنية والقاء الضوء علي تأثير استخدام حقيبة بلاستيكية والبدائل الممكنة من خلال الاعلانات.

quran-environment-protection

 في خلال اقامتي بولاية واشطن, رايت تكامل المدينة بشكل جماعي علي هذه القضية عن طريق سن الضرائب علي انتاج الحقائب البلاستيكية وتسليط الضوء علي استخدام بدائل لاكياس قابله لاعادة الاستخدام في المتاجر والمحلات.

بالاضافة لذلك, سيكون من المفيد لاستفادة من التقاليد الاسلامية البيئية في التسويق في العالم العربي. ويمكن الاستناد لرموز الدين والشخصيات الدينية المحببة اجتماعيا والتي تحظي باحترام وحب العرب. فمن الضروري لكي تحبذ شخص علي تنفيذ واتباع قواعد معينة ان تصل اليه باسلوب تنفيذي سهل وفي نفس الوقت بشكل ملائم جماليا.

وعدم سهوله الوصول الي بدائل مع توفر ورخص ثمن الحقائب البلاستيكية سيكون عقبه للوصول للمساعي البيئية المرجوه. وعلي الصعيد المحلي يمكن القول ان استيراد الاكياس البلاستيكية والاضرار الناتجة من التعامل معاها والاثار المترتبة عليها هي مكلفه جدا والبحث عن بديل سيكون مفيد للجميع.   

اذا قامت المنظمات المحليه والمراكز الثقافية ( المنظمات الغير حكومية/ المساجد/ او اي ساحات دينية اخري او الاسواق) وبدات بجدية في استخدام اكياس قابله لاعادة الاستخدام او تسليمهم اياها علي شكل هبه اثناء التسوق سوف يساند بشكل كبير علي احلال تلك الحقائب محل الاكياس البلاستيكية وتشجيع الاخرين علي القيام بذلك ايضا.

لغة الحوار بين العامه وشرائح المجتمع المختلفه ( اهل البلد/ المغتربين/ الجماعات الدينية/ والهيئات الحكومي او غير الحكومية) يمكن ان تصبح حمله توعيه ومبادرة قويه وتجاوز لجهود الحكومة منفردة لنقل ثقافة حماية البيئة.   

ترجمه:

هبة احمد مسلم- دكتور الهندسة البيئية. باحث في الشئون البيئية. معهد الدراسات والبحوث البيئيةجامعه عين شمس.

مدرس بالاكاديمية العربية للعلوم والتكنولوجيا والنقل البحري-  مصر.

التحكم في البيئة والطاقه داخل المباني.

هندسة الميكانيكة- وكيل محرك دويتس الالماني بمصر. 

للتواصل عبر hebamosalam2000@gmail.com

   

The Importance of Health and Safety of Workers in the Energy Sector

With almost 250 fatalities in the oil industry for every one death of a worker in wind power, the renewable energy sector appears to be a much safer environment in which to work. Of course, the production of oil has a long established history and a much larger workforce; the International Labour Organisation estimates that at least 6 million people work directly for the industry. However as the renewable energy sector continues to grow, it may yet present some of the same health and safety risks as fossil fuel industries.

And due to new hazards such as the extreme height of wind turbines, it may even cause an increase in injuries and fatalities from falls. Whether preventing and controlling recognized hazards on traditional oil fields, or learning to deal with risks posed by the fast-growing wind industry, health and safety of on-site workers must be a priority across all energy sectors.

Oilfield-HSE

Dealing with Accidents in the Oil Industry

From the plains of Texas to the major oil-producing countries of the Middle East, working in the oil industry is one of the most dangerous jobs in the world. Although regulations and industry standards are in place to identify, prevent and control exposure to hazards, accidents in the oil industry are common.

Apart from the more obvious hazards such as fires and explosions, accidents involving vehicles are one of the most common causes of fatalities in and around oilfields. Driver fatigue due to lack of adequate rest can be a contributing factor, but, when accidents occur due to negligence, use moneycornershop for injury claims. In addition, specialist oilfield accident lawyers have the experience to determine liability in a case.

Reporting injuries and following up accidents not only ensures that oil workers rights’ are upheld, but could also help to tighten driving regulations and prevent the recurrence of similar incidents.

Reducing Risks to Wind Turbine Technicians

Although wind energy is a clean source of power and considered much safer than fossil fuels for the environment, as an industry it can still pose a threat to the health and safety of its workers. Erecting and maintaining wind turbines can involve working in remote areas, often in extreme conditions and at considerable heights. Working at height accounts for almost a third of all workplace injuries and is the most common cause of fatalities to construction workers.

wind-sector-health-concerns

To ensure a safe working environment for wind turbine technicians, specialised training and education is becoming increasingly important in this growing field. As more reputable companies receive accreditation for safety certification for the Global Wind Organisation, comprehensive and standardised training can be offered to all workers in the wind turbine industry.

Although working in the field of renewable energy appears to pose less of a risk to workers’ health and safety, it is still vital to keep hazards in these sectors to a minimum. As well as learning lessons on how to deal with worker safety from traditional industries, regularly updating training and education in burgeoning renewable energy sectors will help to ensure safety levels remain high.

Recommended Reading: The Risks of Renewable Energy Business

Green Hadith – Ecological Advice from Prophet Muhammad (SAW)

Prophet Muhammad, peace and blessings be upon him, is one of the most, if not the only one who reached a pinnacle of success by not only verbally teaching, but stringently applying Islamic principles of environmental stewardship. His concern for preserving nature was so consistent that history reports the only time he cut down plants were the palm trees in Madina to impede the Jewish tribe Banu Nadhir.

Prophet Muhammad, peace be upon him, categorically taught people to live on less, to protect animal and plant life, and to worship the Creator by being merciful to the creation. What is also distinctive about Prophet Muhammad’s advice is the connection between ethical practices and the eternal effects in the life after death, which represents a greater incentive for Muslims to care for the earth and its resources.

ecofriendly-Hadith

What makes a successful leader? Many world leaders and religious figures have advocated protection of planet Earth in their struggle to reach the top, but most have ultimately failed to create a long-lasting conservation plan. Here are few Prophetic sayings (ahadith) which I believe are excellent indicators to reflect the Islamic faith as a relevant environmental ‘movement’

A believer is like a growing tree

“The example of a believer is that of a fresh tender plant; from whatever direction the wind comes, it bends it, but when the wind quietens down, the plant becomes straight again…” narrated by Abu Hurayra (Radi Allahu Ta’ala Anhu), Bukhari

Prophet Muhammad was teaching new Muslims that their life on the path of faith must always progress and beware of climatic changes, just like a young tree. There will be tough times when the storm seems to never end. But patience and persistence in planting roots no matter what the trouble, will heal both one’s own branches and protect the nearest plants.

Plant a tree even if it’s your last deed

“If the Hour (the day of Resurrection) is about to be established and one of you was holding a palm shoot, let him take advantage of even one second before the Hour is established to plant it.”Al-Albani.

Sustainable development-Islam

Renewable reward of planting trees

“If a Muslim plants a tree or sows seeds, and then a bird, or a person or an animal eats from it, it is regarded as a charitable gift (sadaqah) for him.”Imam Bukhari.

Conservation of resources

Prophet Muhammad, peace and blessings be upon him, happened to pass by a Companion, Sa’d (Radi Allahu Taala Anhu), as he was performing ablution (wudhu) next to a river.

At this, the Prophet said, “Sa’d what is this squandering?”

Sa’d replied: “Can there be an idea of squandering (israf) in ablution?”

The Prophet ﷺ said: “Yes, even if you are by the side of a flowing river.” – Ibn Majah.

Environmental sanitation

“Beware of the three acts that cause you to be cursed: [1] relieving yourselves in shaded places (that people utilise), in a walkway or in a watering place.” – Narrated by Mu`adh, hasan, by Al-Albani

islam-water-conservation

Hygiene and cleanliness (tahara) is so integral to Islam that it is actually a major sub-branch of Muslim belief. Without physical hygiene, prayers are broken. Without clean facilities pollution ruins cities, and without any effort to improve one’s own purity, it becomes more difficult to prevent external corruptions like littering.

Significance of street clean-ups

“Removing harmful things from the road is an act of charity (sadaqah).” Narrated by Abu Dharr Al-Ghafari (Radi Allahu Ta’ala Anhu)

Sustainable living

Abdullah ibn `Abbas reported that the Prophet said, “The believer is not he who eats his fill while his neighbor is hungry.” Authenticated by Al-Albani

Eat a little less every day

Excessive eating is abhorred in Islam. For the days of Ramadan, fasting is precisely a command in order to learn control and when to say ‘no’. Prophet Muhammad did not encourage eating a three course meal nor a heavy meal. Every meal should be shared between two and choosing between take-outs and home-cooked, a healthier diet is always the better option (less meat, more greens). In the Islamic law system (Shariah), a person should stop eating as soon as the hunger pangs cease.

“Nothing is worse than a person who fills his stomach. It should be enough for the son of Adam to have a few bites to satisfy his hunger. If he wishes more, it should be: One-third for his food, one-third for his liquids, and one-third for his breath.” Tirmidhi and Ibn Majah.

Waste minimization

When asked about how the Prophet of Islam used to live in his house, the Prophet’s wife, `A’ishah (Radi Allahu Ta’ala Anha), said that he used to repair his own shoes, sew his clothes and carry out all such household chores done without complaint or want for more. (Authenticated by Al-Albani).

food-waste-qatar

للنفايات الغذائية آثار بيئية واقتصادية واجتماعية

The idea behind this was to show Muslims that menial tasks (mehna) were not degrading for God’s Prophet (peace be upon him). Reusing and repairing things instead of always buying new is not a sign of poverty, they are a sign of power. By performing household duties, the Prophet (peace be upon him) was saying we can build foundations on less ‘stuff’, we are in control of what we consume and we don’t need more.

Caring for animals

“A man felt very thirsty while he was on the way, there he came across a well. He went down the well, quenched his thirst and came out. Meanwhile he saw a dog panting and licking mud because of excessive thirst. He said to himself, “This dog is suffering from thirst as I did.” So, he went down the well again, filled his shoe with water, held it with his mouth and watered the dog. Allah appreciated him for that deed and forgave him.” The Companions said, “O Allah’s Messenger! Is there a reward for us in serving the animals?” He replied: “There is a reward for serving any living being.” Imam Bukhari.

The Prophet, peace and blessings be upon him, provided for animals, as did Abu Huraira (Radi Allahu Taala Anhu) who narrated this hadith. Abu Huraira’s name translates as the ‘father of kittens’, named so because he was known to carry kittens in the draped sleeves of his robe.

animal-welfare-islam

Animals have a huge role in the ecological welfare system. The tenets of the Shariah law towards animal rights make it obligatory for any individual to take care of crippled animals, to rescue strays and to guard a bird’s nest of eggs.

Key takeaways

Hopefully this will inspire everyone reading to follow through on the Eco-Sunnah. Adopt an animal, reuse your wudhu water, eat much less. Be a leader.

إدارة النفايات الصلبة في المملكة العربية السعودية

تشهد المملكة العربية السعودية طفرة صناعية وزيادة في النمو السكاني وزيادة في عدد المدن الجديدة، مما أدى الي زيادة في معدلات التلوث والنفايات. أصبحت إدارة النفايات الصلبة تشكل تحدياً كبيراً يومياً للحكومة. مع تعداد سكاني يقارب الـ 29 مليون نسمة، تنتج السعودية أكثر من 15 مليون طن نفايات صلبة سنوياً. والمعدل التقديري لنصيب الفرد يومياً في انتاج النفايات 1.5 – 1.8 كج.

معدل النفايات الصلبة للمدن الثلاث الكبرى – الرياض، جدة، الدمام – تزيد على 6 مليون طن في السنة، مما يعطي تصوراً عن حجم المشكلة التي تواجهها. أكثر من 75% من السكان يسكنون المناطق الحضريه، مما يوجب على الحكومة ان تستحدث معايير لتحسين إعادة التدوير والتعامل مع النفايات الصلبة في المملكة.

Garbage_Saudi_Arabia

في المملكة العربية السعودية، النفايات البلدية يتم تجميعها من الأفراد أو الحاويات العامة ويتم التخلص منها في مكبات النفايات أو المدافن. يمتاز نظام التخلص من النفايات في السعودية بعدم وجود مصاريف أو رسوم للتخلص من النفايات. ولكن لا تزال اعادة التدوير واعادة الاستعمال واستخراج الطاقة في بداية الطريق، ولكنها تلقى اهتماما متزايداً. عمليات الفرز للنفايات واعادة التدوير تقوم بها جهات غير رسمية نشطة. تتراوح نسبة النفايات التي يعاد تدويرها حوالي 10 – 15 %، معظمها نظرا لوجود الجهات غير الرسمية والتي تقوم بفرز الورق والمعادن والمواد البلاستيكية من النفايات البلدية

ان معظم نشاطات التدوير تكون يدوية وعن طريق عمالة كثيفة. انتاج السماد ايضاً يحظى باهتمام متزايد في المملكة نتيجة وجود نسبة كبيرة للمواد العضوية في المخلفات البلدية الصلبة (حوالي 40%). و حاليا تتجه الجهود نحو نشر تكنولوجيا تحويل المخلفات لطاقة في المملكة. وكل الجهود المتعلقة بادارة النفايات يتم تنسيقها وتمويلها عن طريق الحكومة.

الحكومة السعودية على وعي بالحاجه الملحة لحلول لاعادة التدوير، وتستثمر بقوة في هذا المجال. خصصت ميزانية عام 2011 مبلغ 29 مليار ريال سعودي لقطاع الخدمات البلدية، والتي تشمل صرف المياة والتخلص من النفايات. تقوم الحكومة السعودية بجهود مكثفة لتحسين اعادة التدوير وأنشطة التخلص من النفايات.

ترجمة: طه واكد – مهندس مدني مهتم بشؤون البيئة – مصر

شريك مؤسس في مشروع دقيقة خضراء  –  معد وكاتب حلقات دقيقة خضراء عاليوتيوب

للتواصل عبر taha.waked@gmail.com   أو admin@green-min.com

Sustainable Cattle Farming: Is It Possible?

Cattle farming is often linked to climate change and pollution. As the Food and Agriculture Organization of the United Nations pointed out in a report from 2013, cattle emit the biggest percent of methane out of all livestock.

The most evident solution to this problem is for the population to consume less beef and dairy. However, according to statistics, the per capita meat consumption has gradually increased since 1961 and this tendency is not likely to change. As countries get richer, their population will keep eating more and more meat. So, is sustainable cattle farming a possibility?

Regenerative agriculture

As its name suggests, regenerative agriculture focuses on rehabilitating the natural resources used in agriculture so that food production is more sustainable. In essence, regenerative agriculture aims to create long-term agricultural ecosystems.

The quality of the soil plays an important role in sustainable agriculture. Yet, one important issue that we are facing today is the decline of arable land. Due to the effects of unsustainable agriculture practices, a third of the planet’s soil is now acutely degraded.

The importance of healthy land is bigger than it first meets the eye. The specialists argue that healthy land can capture excess carbon through a process known as soil carbon sequestration and, thus, this can help reduce climate change.

How cows come in play

Even though they are currently regarded as the biggest pollutants, cows can actually play a big role in regenerative agriculture. By giving up on indoor feeding and opting for outdoor alternatives such as pastures, cows can actively restore the soil.

Pasture farming is beneficial because it allows the animals to do the work, as their manure acts as a natural, organic fertilizer. Some studies show that this type of farming leads to trapping of more carbon dioxide in the soil. Good grazing management is also profitable for farmers as they have to pay less when it comes to feeding costs.

Apart from being eco and economically friendly, providing cattle with daily grazing time is also good for the wellbeing of the animals as they are less likely to get sick. Cows farmed on pastures are also less stressed and they get to engage in natural behaviors. As a result, cows are likely to produce more milk. If you are a farmer looking for a new milking machine, you can find an affordable one at just one click away.

Limits

As good as it sounds, regenerative agriculture is not the magical solution that some might hope it to be. In the US alone, in 2019, there were no less than 94.8 million cattle and calves and only 654m acres of pasture.

Because, on average, each cow needs 1.5 to 2 acres of land, this type of cattle farming is not the answer to the problem.

The real solution

As hard as it might be to accept this, the only viable solution that we have to reduce climate change is to reduce our meat consumption practices. In the last decade (1994 to 2014), studies have shown that only one to two percent of the adult population had permanently adhered to a plant-based diet. However, statistics show that from 2014 to 2017, this percentage rose by 600%.

In an attempt to live a more sustainable, greener life, more and more people have shown a real interest in opting for vegan meals at least once a week. This change was greatly influenced by the fact that now, veganism is seen as a trend in the US. Cell-cultured meat is also in the spot light these days due to its potential to provide cruelty-free non-vegetarian food.

There are three reasons why more and more Americans opt for a plant-based diet. While some of them choose this change in lifestyle as a stance against animal abuse and as a response to the environmental issues, the most common reason is linked to the benefits that veganism has on one’s health.

A study by the National Center for Biotechnology Information showed that both vegans and vegetarians have a lower BMI. Giving up meat and animal products brings along a couple of extra benefits, such as protection against obesity, heart disease, and diabetes.

To cater to the needs of this segment of the population, restaurants have now started to offer convenient alternatives for vegans and vegetarians. Still, maintaining a vegan diet is still not affordable to all citizens due to the additional costs that such a diet entails. Veganism is still a luxury that only a small percentage of people can actually afford.

This shift towards opting for vegan products can also be linked to an increase in the number of people who suffer from allergies and dietary restrictions. According to the National Digestive Diseases Information Clearinghouse, around 30 to 50 million Americans are lactose intolerant. Even more so, six in ten households report that there is at least one member that restricts form certain foods.

Also Read: Empowering Farmers with Accessible Patented Technologies