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Energy Harvesting: Renewable Energy & More



Energy Harvesting: The Missing Link in Your Renewable Strategy

Energy harvesting could be one of the most revolutionary complements to a greener energy portfolio. The future will see increased use of electrical devices as smart cities expand and households adopt more technology to enhance their lifestyles. What makes them unique alongside renewable power generators, and how could their deployment reduce grid strain?

What Is Energy Harvesting and Its Importance in the Green Transition?

Energy harvesting is the practice of using several technologies and techniques to capture, store and transform found electricity. This practice allows devices to reuse energy, typically on a smaller scale. The concept often works in conjunction with renewable energy, as nearby machinery pulls from green power generation to enable its functions.

To minimize strain on the primary generator, typical harvesters are devices with minimal energy requirements. Energy harvesting works by pulling power from a source, such as a solar panel or wind turbine. Other sources could include heat, vibrations or radio waves, among others. Inside the harvesting device is a transducer, a component that converts power into electricity. Then, the product’s battery or management system stores the power for later use.

Devices like these are essential for the renewable energy transition because they utilize ambient assets instead of requiring a connection to the primary power grid. This is crucial for rural or remote locations with minimal infrastructure. Innovations like personal medical devices and other wearable technology could remain powered at all times without compromising the wearer’s well-being.

What Techniques and Tools Are Required to Implement It?

These are the mediums and technologies that empower energy harvesting at scale.

Solar Energy

Community solar farms, rooftop panels and other solar infrastructure are among the most prominent examples of harvesting. Excess generation can be sent back to the grid or a microgrid, providing electricity to everything, including households and roadway signs.

Wind Energy

Small-scale wind energy is gaining popularity as a supplement to the efforts of larger farms. Some construction experts are embedding turbines into building designs or establishing distributed wind systems. These are networks of integrated devices that can energize entire communities.

Kinetic Energy

Pressure and vibrations are a deceptively powerful energy source for harvesters. Innovations such as textured piezoceramics are vital because their composition enables them to store more energy from impacts than other materials. Something as simple as a playground could have tiles installed in the ground that, when pressed, take an individual’s movement and turn it into electricity. Another application is public transportation, which could harvest energy from braking.

Thermal Energy

Using heat requires two primary technologies — waste heat recovery equipment and geothermal energy infrastructure. Large buildings, such as data centers, that generate significant waste heat could incorporate generators into the structure to harness it.

Additionally, geothermal pipes pull heat from below ground, making the most of the planet’s core. It is an infinitely available power source for harvesters, regardless of location. One type of geothermal system warms water as it flows through, heating both building envelopes and water heaters.

What Advantages Does Energy Harvesting Provide for Sustainability?

Renewable energy expansion provides immediate, large-scale benefits to society. While it should remain a priority, the dissemination and development of energy harvesting technologies must maintain equal relevance and momentum because of the advantages they deliver.

Lower Carbon Footprints

Energy harvesters are inherently more sustainable than conventional power management. Americans discard over three billion batteries annually, but many harvesters are battery-free, reducing chemical exposure to habitats and wildlife. They extend a device’s life without releasing toxic pollutants into the environment when it is no longer in use.

Economic Stability

Electricity becomes more cost-effective with energy harvesters. Utility-scale infrastructure tends to have fewer devices over time, cutting costs for businesses and consumers. It can also lead to financial security in other ways. Consider a company using sensor-based devices for monitoring. These energy harvesters provide continuous monitoring, saving time, money, and resources from manual interventions, resulting in significant savings.

Simpler Grid Modernization

National grid infrastructure is reaching the end of its life, requiring workers to install significant amounts of new technology. They must ensure compatibility, as legacy devices and cutting-edge technology work together until the grid is fully modernized. Removing some equipment from the grid entirely during this process could improve interoperability.

Better Uptimes and Reliability

Critical infrastructure is increasingly vulnerable to interruptions. Natural disasters can cause blackouts due to fallen trees, cyberattacks can lead to service interruptions, and aging transformers may overload.

In 2022, the average household experienced five and a half hours of electrical disruptions, damaging the grid’s reputation. To make it more dependable, fewer devices must rely on it to stay powered. Energy harvesters are a powerful solution for minimizing load stress and keeping as many devices powered as possible in emergencies.

Embracing More Comprehensive Energy Design

If a solar panel or regenerative braking mechanism produces more energy than it needs, it can be used to prevent waste. There are numerous opportunities to harness additional electricity, providing greater energy security for communities with high prices, limited access, or outdated infrastructure.

Deploying energy harvesters to take devices off the primary grid will alleviate many pain points, including mismanaged transmission and overloads. Embracing harvesters as part of the mix will contribute to the future of smart, energy-conscious communities.



Lou Farrell

Lou is the Senior Editor of sustainability and technology for Revolutionized Magazine. He has over 4 years of experience crafting compelling articles on a variety of topics, from energy efficiency trends to eco-friendly construction. He loves to write, and is passionate about sharing his knowledge with others.



 

PPE in the Sustainable Future



Protective Equipment Standards in Renewable Manufacturing: What Workers Actually Need (and What Companies Provide)

By Beth Rush

 

The green manufacturing sector has been conducting due diligence to highlight sustainability and create jobs for the greater good. However, it’s prone to several workplace risks. These companies may face additional hazards due to the nature of their work.

Thankfully, protective equipment standards have been established. Renewable manufacturing companies need to listen to and prioritize their workers. 

Understanding the Most Common Green Job Hazards

People in green jobs are aware that common industrial hazards, such as falls from height and electrocution, pose risks. After all, the functions and facilities in renewable manufacturing may still resemble those of traditional companies.

That said, several job hazards can be associated with newer technologies and materials used in renewable manufacturing. For instance, workers in the solar energy sector may be exposed to carcinogens such as cadmium telluride.

Your Essential Personal Protective Equipment List

There are several ways to enhance worker safety, including implementing stronger health and safety protocols and improving site security. Here’s a foundational checklist of personal protective equipment (PPE) required for every worker in the green sector. 

1. Head and Face Protection

Head protection is vital, especially when there is a high risk of falling objects. Hard hats are the standard protective equipment for workers. However, other hazards, such as chemical splashes and flying debris, can affect the eyes and face. 

Given the critical importance of vision in manufacturing, companies need to employ additional PPE, such as face shields and goggles. Welding helmets can protect against arc flashes. 

2. Specialized Hand Protection

Hands are also central to manufacturing operations, especially for more manual techniques. Unfortunately, cuts and chemical exposure can occur depending on the product being created. About 70% of workers with hand injuries were not wearing gloves, even though doing so would minimize risk. 

For optimal results, ensure you’re using the correct glove for the materials involved. For example, when you want to prioritize reducing the risk of electrical shocks, rubber insulating gloves are recommended. 

3. Body and Foot Protection

Protecting your limbs is also crucial. Body and foot protection can be challenging, as it must keep you safe from multiple hazards while not restricting movement throughout a manufacturing site. 

Clothing options, such as flame-resistant gear and chemical-resistant suits, are helpful in more hazardous manufacturing environments. For feet, consider boots with resistance to punctures, slips, and more. 

4. Respiratory Protection

Manufacturing operations can generate fumes and gases that are harmful to inhale, so make sure you’re using PPE for respiratory protection. There are multiple options, such as air-purifying and atmosphere-supplying respirators. The former removes contaminants from the environment, while the latter provides clean breathing air.  

The ideal choice may vary based on hazard potential and oxygen levels. Air-purifying respirators can filter out lower concentrations, but higher concentrations pose greater risks.

Green Energy Sector-Specific Gear

Renewable manufacturing may require more stringent PPE standards, depending on the specific circumstances. Here are examples of the possible gear.

Solar Technology

Creating solar-powered products can be challenging. The possibility of breathing in Cadmium Telluride crystalline dust can be dangerous, so it’s vital to use respirators when dealing with it. If outdoor work is necessary to test solar energy, the clothing worn should be designed to protect you from UV radiation. 

Wind Technology

Harnessing wind energy can be hazardous, especially during turbine assembly. When working at heights, employees should wear a full-body harness and fall protection equipment. The potential electrical hazards associated with wind technology should also warrant the use of voltage-rated gloves. 

Battery Manufacturing

Battery manufacturing is conducted in indoor facilities, where there’s a high risk of hazardous dust or fume buildup. Respirators are crucial for maintaining lung health. For the hands, choose gloves that are both chemical-resistant and insulated. Ensure that these fit properly to reduce the risk of contamination.

How Companies Are Keeping Up

PPE in renewable manufacturing is critical to keeping workers safe while advancing sustainability. From a business perspective, minimizing incidents will also improve the company’s reputation over the long term.  

Many professionals are getting the protection they need. However, there’s still room to improve safety for professionals. Research finds that 10.2 out of 100,000 workers in the energy-focused electricity, gas, and air conditioning supply chain suffered fatal occupational injuries in 2022. 

Providing the Right PPE

To ensure appropriate PPE, it’s essential to conduct a hazard assessment and evaluate the risks most likely to occur in a specific manufacturing facility. These insights can help employers select the appropriate PPE to keep workers safe. Training and ensuring proper fit can also help ensure each individual is adequately cared for. 

Adhering to Evolving Standards of PPE Regulations

Renewable energy jobs are evolving as rapidly as the technologies behind them, which means PPE standards may change and improve over time. Investing in occupational health research to inform regulations has helped during past transitions during crises and could help the move toward sustainability as well. 

Prioritizing Safety in the Sustainable Future

Advances in renewable manufacturing drive sustainability, but protecting workers from hazards remains essential to ensure forward momentum. This will help the world move toward a more sustainable future, paving the way for progress.




About the author: Beth Rush is the green wellness editor at Body+Mind, where she covers topics like the power of climate consciousness at all stages of education. You can find Beth on Twitter @bodymindmag. Subscribe to Body+Mind for more posts by Beth!



 

Sustainable Alloys for Manufacturing



Top 5 Innovative Alloys Driving Sustainable Manufacturing

Manufacturers today face a big question: how can we build durable products without harming the planet? The push for greener practices affects every choice, especially the materials used. Let’s look at the top 5 innovative alloys driving sustainable manufacturing.

These aren’t your typical metals. They are lighter, stronger, and more recyclable than many traditional options. For businesses that want to reduce waste and boost efficiency, these materials offer a clear path forward.

1. Aluminum Bronze 

This alloy stands out for its incredible toughness. Manufacturers love it because it resists corrosion and wear in harsh environments.

Built for Durability

Parts that last longer mean less waste in the long run. ASTM B150 C63200 in high-strength components offers the resilience needed for heavy-duty machinery. It handles stress without failure, which reduces the need for frequent replacement parts.

2. Recycled Aluminum

Unlike many other materials, aluminum can be melted down and reused without any loss of quality. This makes recycling incredibly efficient.

While producing primary aluminum is an energy-intensive process, recycling requires only a fraction of that power. This significant energy saving helps lower the carbon footprint of countless products, from everyday soda cans to the frames of cars.

3. Magnesium Alloys

Weight reduction is a massive goal for the automotive and aerospace industries. Magnesium is lighter than aluminum, but maintains high structural integrity.

Lighter vehicles consume less fuel. By swapping heavier steel for magnesium, engineers design cars that travel further on less energy. This direct efficiency gain helps lower global emissions.

4. Advanced High-Strength Steel (AHSS)

Steel might seem old-school, but modern variations are marvels of engineering. AHSS allows thinner components that maintain safety standards. Using less material for the same task reduces the weight of the final product and saves resources during production.

 5. Copper in Renewable Energy

The shift to a greener future heavily relies on electricity, from powering electric vehicles to harnessing wind and solar energy. This surge in electrical demand has put a spotlight on copper, long prized for its exceptional ability to conduct electricity with minimal energy loss. It’s the key metal that connects our green ambitions to reality.

As the world transitions to clean energy, efficient transmission is more important than ever. For example, the booming business of solar power relies heavily on copper to transfer energy from panels to the grid, highlighting the critical role of material choice in shaping a sustainable future.


By opting for the right metals, we can reduce emissions and conserve resources. The 5 groundbreaking alloys driving sustainable manufacturing show that industrial progress and environmental responsibility can go hand in hand.



 

Eco-Friendly Holiday Activities



Eco-Friendly Activities to Make Your Holiday Unforgettable

Sustainable Supplies for Relief Missions



Sustainable Supplies Every Relief Mission Depends On

When a catastrophe occurs, the immediate focus shifts to saving lives and stabilizing the affected region. Yet, the environmental footprint of large-scale aid work is a growing concern for logistics experts.

We must analyze how to deliver critical aid without compounding local ecological damage through excessive waste or pollution. Prioritizing resources that are durable and minimize waste is the new standard in humanitarian logistics. Below, we examine the essential supplies every relief mission depends on.

Water Purification and Preservation

Clean drinking water helps prevent the spread of waterborne diseases like cholera in flood zones. Rather than shipping palletized single-use plastic bottles, sustainable missions utilize mobile filtration units and reusable, collapsible jerry cans.

These tools drastically reduce plastic waste while providing safe hydration. Preservation of perishables is also critical. Recognizing the role of ice in disaster relief enables teams to maintain cold chains for food and medicine efficiently, preventing spoilage and unnecessary resource loss.

Renewable Energy and Infrastructure

Coordinating rescue efforts requires reliable, uninterrupted power. Diesel generators are loud and emit exhaust that can harm survivors. Solar-powered generators now offer a silent, renewable alternative for charging communication devices and powering field hospitals.

Furthermore, restoring the primary power grid is urgent for long-term recovery. Strategies to accelerate electric utility vehicle response times for disaster relief enable crews to repair downed lines more quickly.

Medical Supplies With Reduced Waste

Trauma care cannot wait, but medical waste poses a severe disposal challenge in areas with ruined infrastructure. Agencies tackle this by sourcing biodegradable bandages and concentrated hygiene products that require less packaging.

Reusable surgical steel instruments are preferred over disposable plastic instruments when sterilization is available. This strategy maintains high sanitary standards while reducing the burden on local waste management systems.

Durable Shelter Materials

Emergency housing must withstand aftershocks and severe weather conditions. Flimsy tarps often tear and become debris within weeks.

Instead, missions now deploy reinforced, modular tents designed for long-term use. These structures often use recycled plastics and can later be repurposed as temporary schools or clinics. This approach maximizes the utility of every item shipped to the zone.

Communications Equipment

Coordination prevents chaos during the critical first hours. Satellite phones and hand-crank radios operate independently of local cell towers, which may be compromised.

Choosing durable, energy-efficient models reduces the need for constant battery replacements. This reliability is vital for safety checks and organizing accurate supply drops.


Humanitarian aid is evolving to meet the dual challenges of immediate crisis and long-term environmental health. Essential supplies for every relief mission are selected with a focus on impact, longevity, and waste reduction. New approaches invite us to continue rethinking what lasting recovery really means, not just for survivors but for the world they’ll rebuild.



 

3 Sustainability Trends in 2026



3 Business Sustainability Trends in 2026

 

The Circular Economy

Circular economies are highly effective ways to reduce the amount of waste a company creates over its lifetime. Products are built to last, but when they do eventually start to fall apart, users can return them to the manufacturer via mail or drop boxes.

Staff will then deconstruct the used items into their base materials, which can be repurposed as new offerings or disposed of properly. By doing so, the brand reduces the need for virgin materials and avoids contributing to landfills.

One major name trying this trend is Coach. In April 2023, it launched its sub-brand Coachtopia, which takes what would be waste products and turns them into fashionable handbags. For example, the patchwork Ergo bag is made from leather scraps not large enough for other designs. It also offers robust repair services and will accept returns of all its products.

Coach management noted that the business added 1.2 million buyers in North America in fiscal year 2025. Two-thirds of those were Gen Z and millennials, who often identify as sustainable buyers demanding genuine environmental action. If more companies follow suit, there could be a 40% drop in greenhouse gas emissions by 2050.

 Data Transparency

Transparency is also becoming a critical factor. Environmental, Social, and Governance (ESG) criteria are important for following government regulations and proving to consumers that claims are genuine. On the legislative side, noncompliance can result in fines and legal fees for an enterprise.

Many stakeholders also now use ESG ratings to inform their investment decisions, while 92% of customers trust these companies more. Another 85% are making greener choices than they were in 2019. In addition, employees say they prefer working in these environments.

On top of opening themselves up to a broader market, entities report sustainable practices helping them use resources more efficiently, lowering energy use, and decreasing waste. Those benefits can reduce manufacturing costs and increase revenue.

However, to access these advantages, businesses need to track their processes and publish the resulting data so outside parties can see the proof of their work. By being transparent, consumers and investors know they can trust ESG claims. Thus, more have started using enterprise resource planning systems to monitor emissions, waste creation, and water use, set targets, and report their results.

Ethical Supply Chains With Proof

Many shoppers also want to know where an item’s components came from and how they got to stores. From coffee beans to computer parts, people are demanding evidence of ethical sourcing and a smaller logistical carbon footprint so they can stick to their values when buying or investing.

To showcase that commitment, companies can assign their creations a digital product passport. These aren’t required everywhere, but the European Union requires them to inform the public about an item’s origins, components, impact, and end-of-life recommendations. The passport tracks movements throughout its creation and use, so customers gain full clarity on the environmental impact it has.

Nike offers an excellent example of transitioning to an ethical supply chain. This massive sportswear manufacturer was heavily criticized in the 1980s for its use of sweatshops to create items. Particularly, people objected to its outsourcing to countries where workers experience poor conditions and are paid poverty wages. In 1997, buyers even boycotted the brand over concerns about child labor, which significantly impacted its profits.

The next year, Nike started making massive changes when cofounder Phil Knight acknowledged the malpractices the company had become associated with. He asserted that customers didn’t want to buy products made in abusive conditions.

Since 2005, the business has published reports on working conditions and wages for its staff. These changes have enabled it to generate $44.5 billion in revenue in 2021 while ranking 13th in Gartner’s top 25 supply chains in 2022.

The Business World Looks Bright in 2026

Although many people consider consumerism wasteful, companies are seeking to alter that perception. Ethical supply chains, data transparency, and circular economies are just three of the trends helping them achieve that goal. More manufacturers are expected to adopt similar principles in 2026 to appeal to shoppers’ desires for a more eco-conscious market.



 

5 Eco-Friendly Toilet Papers



5 Eco-Friendly Toilet Papers That Are Actually Soft Enough to Use

Custom Designing a Sustainable Home



How to Prioritize Sustainability When Custom Designing Your Home

By Cora Gold

 

Custom designing your own home is a fantastic opportunity to put sustainability front and center. Whether you are building from scratch or undertaking a complete renovation, environmentally friendly choices will benefit the planet and create a healthier home that is more cost-effective to run. Here are the top six areas to prioritize. 

1. Aim for a Passive House Design

If you are building from the ground up, intelligent choices will allow your home to do some of the work itself, through its positioning, shape, and layout. This is the core of the passive house philosophy. For example:

  • Orient the home to take advantage of the sun’s path for natural heating in winter.
  • Design a layout that promotes cross-ventilation, reducing the need for air conditioning.
  • Use strategic shading to boost summer coolness. 
  • Install a heat recovery system to reuse heat in the ventilation exhaust air.

New builds incorporating these ideas can achieve energy savings of 75% compared to standard new homes, and 90% compared to typical existing housing stock. 

2. Choose a High-Performance Roofing System

The roof is your first line of defense against the elements and a key factor in energy efficiency. 

Plan for Solar Readiness

Orient the roof for maximum sun and ensure it has structural support for panels. Even if you do not want to install solar yet, this is a future-proofing step, as many states are considering mandating solar for new builds. Costs have decreased by 90% in recent decades, making it an accessible choice.

Consider a Green Roof 

A living roof, covered in vegetation, has many benefits. It provides excellent insulation and manages stormwater runoff. If you use native plants, you will create a valuable pollinator habitat that can be crucial in urban areas. 

3. Create a Tightly Sealed Building Envelope

Apart from your roof, the rest of the home’s envelope — the walls, windows and doors — also play a role in energy transfer, so getting this right is vital for sustainability. 

Ensure there is high-quality, continuous insulation in the walls to create a thermal barrier. High-performance windows are another critical investment, as conduction, radiation, air leaks, and convection currents account for up to 30% of a home’s energy loss — look for well-insulated windows with a low U-factor. Low-e coatings and glazes can also help reflect or retain heat, as can gas fills between window panes. 

4. Select Healthy and Durable Interior Finishes

Moving inside the home, sustainable choices are nontoxic and long-lasting, thereby preserving your health and minimizing future renovation waste. 

Avoid VOCs

Volatile organic compounds (VOCs) are found in many paints, varnishes and flooring types. These contribute to environmental smog and air pollution and can also leach into groundwater. They are also toxic to human health, potentially causing airway irritation, headaches, or worse. 

No- or low-VOC paints and finishes are a good start, but be aware that other chemicals in these products can also be harmful. For a truly environmentally friendly choice, look for natural or organic paints and stains. 

Choose Sustainable Materials

Consider a material’s overall life cycle assessment when selecting countertops and surfaces. Natural stone has a lower embodied carbon footprint than most materials, particularly if sourced locally, because its extraction involves minimal processing. It is durable, beautiful, naturally VOC-free, and easy to care for, making it a strong choice. 

Other excellent options for various home uses include recycled glass, bamboo, cork or reclaimed wood. The latter three are all durable flooring materials, but if you prefer carpet, look for untreated natural fibers with recycled padding. 

5. Integrate Water-Saving Systems

Low-flow toilets, showerheads, and faucets can significantly reduce a home’s consumption of this precious resource. For example, installing WaterSense-certified toilets can cut toilet water use by up to 60% without sacrificing performance. Consider installing a rainwater harvesting system for gardening or other non-potable needs. 

6. Opt for High-Efficiency Appliances and Technology

Modern technology can significantly boost a home’s sustainability. Install a smart thermostat that learns your habits and automatically adjusts the temperature to save energy while you are away. Smart lighting and plugs will help, too.

Choose appliances with high energy-efficiency ratings. For example, an Energy Star-rated water heater will use around 70% less energy than a standard model, and similar efficiencies across other appliances all add up.   

Building a Better Tomorrow

Designing a sustainable home is an exciting challenge. By prioritizing a high-performance structure, durable materials, and efficient systems, you can create a truly sustainable living space. Your home will tread lightly on the planet and cost less to run — a win-win for everyone’s future.  



About the author: Cora Gold is a sustainability writer who aims to live a healthy, low-waste lifestyle. Read more from Cora in Revivalist magazine, LinkedIn, and Twitter.



Sustainable Vineyard Growth



How To Plan for Long-Term Vineyard Growth

Growing a successful vineyard requires more than just a passion for wine; it demands strategic foresight and a deep understanding of viticulture. For those looking to cultivate a lasting legacy, long-term planning will be essential.

This guide outlines the core components of planning for sustainable, long-term growth for your vineyard. By focusing on these key areas, you can lay a strong foundation for a prosperous future.

Assessing Your Vineyard’s Potential

Sustainable Vineyard GrowthThe first step in any growth plan is a thorough assessment of your current resources and market position. This begins with the land itself. If you’re just starting, take the time to learn how to evaluate underdeveloped land for your vineyard to get something serviceable at a reasonable price.

Even if you already have a piece of land, take the time to assess your soil quality, local climate patterns, and the specific topography of your site. These natural factors will heavily influence which grape varieties can flourish and the quality of the wine they produce.

Alongside this environmental analysis, it’s crucial to understand market dynamics. Research the demand for specific grape varieties, both locally and globally. Identifying a profitable niche or a high-demand grape can guide your planting decisions and secure a reliable revenue stream for the future.

Developing a Strategic Growth Plan

With a clear picture of your vineyard’s potential, you can develop a strategic plan. This should include both short-term objectives (like improving this year’s yield) and long-term goals (such as expanding your acreage or brand presence over the next decade).

Your plan should detail any vineyard expansion, including potential land acquisition and the necessary infrastructure, such as new trellising or irrigation systems. Financial forecasting is a critical component here, as it will help you budget for these investments and manage cash flow effectively. A clear roadmap keeps your operations focused and ensures that every action contributes to your ultimate vision.

Investing in Sustainable Practices

Modern viticulture is increasingly focused on sustainability. Fortunately, grapes are one of the top fruits with the lowest carbon footprint. Still, implementing practices that protect the environment is essential for the long-term viability of your vineyard. Start with water conservation and strategies to improve soil health, such as cover cropping and composting. These methods reduce your environmental impact and can lead to healthier, more resilient vines.

You might also explore organic or biodynamic farming. While these methods can be more labor-intensive, they often yield higher-quality grapes and appeal to a growing segment of environmentally conscious consumers. Adopting sustainable practices is an investment in the future health of your land and your business.

Building a Skilled Team

Your vineyard is only as strong as the people who work it. Part of your plan for long-term vineyard growth should be assembling a skilled and dedicated team. Hire experienced vineyard managers and workers who understand the nuances of viticulture and share your commitment to quality.

Furthermore, the wine industry is constantly evolving. Provide ongoing training for your staff to ensure they are up-to-date with the latest farming techniques, technologies, and safety protocols. A well-trained team is more efficient, adaptable, and better able to navigate the challenges of vineyard growth.



 

Electric Vehicle Injuries



Why Injuries After a Car Accident Can Be Different for EV Drivers

The possibilities of injuries after a car accident are real. For EV drivers, an added layer of complexity presents itself. Their unique designs, such as their heavy batteries, rigid structures, and silent operation, can lead to injuries that differ significantly from those in conventional cars. But why exactly is this the case?

Heavier Weight Can Mean Different Forces

Electric vehicles are heavier than gas-powered ones. A Tesla Model 3 weighs around 1,800 kg. Compare that to a similar gas car, which might weigh closer to 1,500 kg. That extra weight matters because your vehicle is heavier, and the impact force is greater.

This added force doesn’t always mean worse car accident injuries. Modern EVs are designed to better absorb impacts. But in some cases, passengers might feel more force during collisions with lighter vehicles. That could lead to whiplash or chest injuries, especially in rear-end collisions where the car stops abruptly.

So, while EVs are safer in many ways, the extra weight changes how forces affect your body. It’s worth keeping in mind when you’re behind the wheel.

Crumple Zones Redesigned

In gas cars, the engine block acts as a buffer zone during frontal collisions. It absorbs some of the impact before it reaches the passenger cabin. EVs don’t have that luxury.

To compensate, manufacturers reinforce other parts of the car. They add stronger materials to protect occupants. However, this redesign sometimes leads to faster deceleration in frontal crashes.

For perspective, imagine slamming on the brakes suddenly. Your body moves forward quickly, then snaps back. That motion can compress your chest, causing bruising or even broken ribs, or strain your neck, leading to whiplash.

These auto accident injuries can be life-threatening. The silver lining, in case of this unfortunate situation, is that you may have grounds to lodge an accident claim in line with automobile insurance policies.

Because neck and chest injuries can vary so widely, you may do well to look at the average settlement for whiplash to get a sense of what similar personal injury claims have resulted in. It’s not a guarantee, but it helps you understand the factors that usually influence compensation.

Battery Placement

The batteries in EVs sit under the floor. This lowers the car’s center of gravity, reducing the risk of rollover. That’s great news for safety, as fewer rollovers mean fewer serious injuries. However, if you’re in a side-impact collision, the battery placement can change things, as instead of the engine absorbing the impact, the battery takes the brunt of it.

Now, most EVs have reinforced structures around the battery. But in inevitable crashes, the force might travel differently through the car. This could increase the risk of leg or pelvic injuries.

Electrical Hazards

One of the most significant differences between EVs and gas cars is the power source. EVs run on high-voltage systems. While they’re incredibly safe under normal conditions, severe crashes can create unique risks.

If the battery pack gets damaged, it could short-circuit. This poses a potential electrocution risk, rare as it is. Another concern is thermal events, also known as battery fires. Unlike gas fires, which burn out relatively quickly, EV battery fires can smolder for hours. There’s an increased risk of secondary injuries in subsequent car accidents long after the initial accident.

Silent Danger

At low speeds, EVs are practically silent. This is awesome for reducing noise pollution, but it has a downside. Pedestrians and cyclists might not hear an approaching EV, increasing the chance of accidents.

When these accidents occur, injury patterns can vary. For instance, a pedestrian hit by a gas car might fall backward. With an EV, the quieter approach might surprise them, causing them to trip forward. This changes how their body lands, potentially leading to different injuries.

Some EVs now come with artificial sound generators that emit a soft hum at low speeds to alert pedestrians. This can help solve the silent problem.

Rigid Structures, Stiff Outcomes

To protect the battery, EVs often use rigid enclosures. These strong materials reduce cabin intrusion during crashes. That’s good news for passenger safety.

However, there’s a trade-off. Because the structure is so stiff, the forces of a crash might transfer directly to the occupants, amplifying certain types of injuries. For example, your ribcage might take more of the impact, or you may suffer trauma to the knee and legs if the battery enclosure pushes inward.

Manufacturers try to balance rigidity with comfort by adding padding and airbags to cushion the blow. But the reality is, a stiffer structure means a different distribution of forces.

Closing Thoughts

Electric vehicles aren’t inherently more dangerous than gas cars. In fact, they’re designed with cutting-edge safety features. But the differences in weight, battery placement, and structure mean injuries after a car accident may vary. Knowing the ins and outs of these nuances can help you understand what to do in case you’re caught up in this unfortunate situation.



Electric Vehicle Injuries 52885 blog

Electric Vehicle Injuries 52885 blog