Showing posts with label batteries. Show all posts
Showing posts with label batteries. Show all posts

Saturday, August 15, 2026

Pixel 10 Battery Degrades After 200 Cycles, Unavoidable Feature Impact

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Understanding the Battery Health Assistance Feature in Pixel 10

Google has introduced a new feature called Battery Health Assistance in its latest Pixel 10 lineup, and it is enabled by default. This means that users cannot disable the feature, which could be a point of concern for some. The feature is designed to slow down battery wear by adjusting charging speed and voltage, aiming to maintain consistent performance as the battery ages.

How It Works

Battery Health Assistance starts to take effect after 200 charge cycles. At this point, the device begins to lower the battery voltage in stages, continuing until it reaches 1,000 cycles. This gradual adjustment is intended to help the battery age more evenly and maintain stable performance over time. However, this process can lead to slower charging and a reduction in usable battery capacity as the device accumulates more charge cycles.

Impact on User Experience

The lowering of voltage affects the battery's usable capacity, resulting in shorter battery life and longer charging times. Google has not provided specific details on how much capacity is lost after 200 charge cycles. While the company claims that Pixel batteries should maintain 80% of their original capacity after 1,000 charge cycles, the always-on Battery Health Assistance feature adds an additional layer of capacity loss. This means that every Pixel 10 will experience a gradual decrease in usable battery beyond normal aging.

Comparison with Other Brands

In comparison to other smartphone manufacturers, Google's approach seems more restrictive. For instance, Samsung’s flagship phones are rated to keep 80% battery capacity after around 2,000 charge cycles, which is significantly higher than Google's 1,000 cycles. This difference in cycle ratings highlights the varying approaches taken by different companies to manage battery health.

Possible Reasons Behind the Decision

Google's decision to make Battery Health Assistance mandatory may be a precautionary measure, especially considering past issues such as the overheating problems experienced with the Pixel 6a. By setting the feature to kick in at 200 cycles, Google aims to avoid similar issues and protect the brand's reputation. However, this approach may feel restrictive to users who prefer having more control over their device's settings.

User Control and Preferences

Unlike Google, many other phone manufacturers allow users to manage battery settings themselves. This flexibility enables users to choose between optimal performance and extended battery life based on their preferences. The lack of user control in the Pixel 10 lineup could be a drawback for those who value customization and personalization.

Conclusion

While Battery Health Assistance is designed to prolong the lifespan of the Pixel 10's battery, it comes with trade-offs that affect user experience. The feature's mandatory nature and the impact on charging speed and battery capacity are significant considerations for potential buyers. As the smartphone market continues to evolve, it remains to be seen how Google's approach will be received by consumers and whether it will influence future design choices in the industry.

Wednesday, June 10, 2026

Fast Charging Myths Exposed: Hidden Battery Dangers Revealed

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The Truth About Fast Charging and Battery Health

Fast charging has long been associated with battery degradation, but the reality is more nuanced. While it's true that fast chargers can generate more heat and stress on a phone's battery, they don't necessarily cause significant damage if used properly. The real threat to battery health comes from poor charging habits rather than the speed at which you charge your device.

How Fast Charging Works

Fast chargers work by delivering a higher current (e.g., 5A instead of 1–2A) to the battery, allowing it to reach a full charge in a fraction of the time. However, this process isn’t as simple as just pouring in more energy. Instead, fast chargers gradually increase the charging speed and slow down as the battery fills up. This ensures that the battery doesn’t overheat or suffer mechanical stress.

Modern phones use advanced technologies like silicon-carbon anodes, which allow for higher density and faster charging without compromising battery life. Some devices, such as the OnePlus 13, can achieve 80W fast charging, while others like the Realme GT3 and Realme GT Neo 5 240W support even faster charging speeds.

The Real Culprits Behind Battery Degradation

While fast charging may contribute to some wear, it’s not the main cause of battery degradation. The real issues stem from poor charging habits, such as leaving your phone plugged in overnight or letting it drain completely before recharging. These practices can significantly reduce battery life over time.

Studies on electric vehicle batteries have shown that frequent deep discharges and overcharging accelerate degradation. A similar principle applies to smartphones. Keeping your battery below 20% or above 80% can cause irreversible damage. To protect your battery, it’s best to charge it before it drops below 20% and unplug it around 70–80%.

Temperature and Battery Health

Temperature also plays a crucial role in battery longevity. Lithium-ion batteries perform best within a specific temperature range—typically between 50°F and 110°F. Extreme temperatures, whether too hot or too cold, can damage the battery and reduce its lifespan. Avoid leaving your phone in direct sunlight, near heaters, or in a hot car glovebox.

Other Factors That Affect Battery Life

In addition to charging habits, how you use your phone can impact battery health. Two major factors are the display and the SoC (system-on-chip). OLED screens, which are common in modern smartphones, consume less power when displaying dark content, making dark mode a useful tool for preserving battery life. Reducing screen brightness and using automatic brightness settings can also help.

The SoC, responsible for processing tasks, can drain the battery quickly during demanding activities like gaming, 4K video editing, or conference calls. While these tasks are necessary for many users, it’s important to be aware of their impact on battery life.

Built-In Features to Protect Your Battery

Smartphone manufacturers have implemented various features to help protect battery health. One example is the battery percentage indicator, which is designed to be slightly inaccurate to prevent deep discharge or overcharging. Many phones also include adaptive charging, which learns your charging patterns and adjusts accordingly. For instance, if you usually charge your phone before bed, the phone will keep it at around 80% until it's nearly time to wake up.

Some devices also use aggressive background power management to conserve energy. This means that Wi-Fi or app updates might pause automatically when the phone detects that you’re not actively using it.

Conclusion

Fast charging won’t ruin your battery, especially when compared to the damage caused by regular charging cycles or poor habits. While it’s true that fast charging can generate more heat, modern smartphones are equipped with safety mechanisms to prevent overheating and damage. The convenience of fast charging is often worth the trade-off, as it eliminates battery anxiety and allows for more flexible usage. With proper care and awareness, you can enjoy the benefits of fast charging without worrying about long-term battery degradation.

Tuesday, April 21, 2026

Vivo Y500 Launches in China with 8200mAh Battery

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New Addition to the Y Series: Vivo Y500

Vivo is set to introduce a new device in its Y series lineup in China. The company has officially announced that the Vivo Y500 will be launched on September 1. One of the most notable features of this new model is its impressive 8200mAh battery, which represents a significant upgrade from the previous year’s Y300, which had a 6500mAh battery. This makes the Y500 the phone with the longest-lasting battery in Vivo's history.

Beyond just the battery, the Y500 also emphasizes durability. It comes with IP69+, IP69, and IP68 ratings for water and dust resistance, marking it as one of the toughest devices in Vivo’s lineup. The phone has also earned SGS Gold Label five-star certification for drop and impact resistance, along with passing military-standard environmental testing. These features indicate that the Y500 is built to withstand more challenges than its predecessors.

A teaser image has already been released by Vivo, offering a glimpse of the design. The phone features a punch-hole display on the front, a dual rear camera setup with a ring-shaped LED flash, and three color options: Black, Blue, and Violet.

In terms of performance, reliable tipster Digital Chat Station has shared some expected specifications. The Y500 is rumored to be powered by MediaTek’s Dimensity 7300 processor, replacing the Dimensity 6300 found in the Y300. It will also maintain an FHD+ OLED screen with a 120Hz refresh rate. The rear cameras are expected to include a 50MP main sensor paired with a secondary lens, while the front camera will have an 8MP selfie lens.

With the launch just days away, Vivo is clearly emphasizing the Y500’s strengths in long battery life and durability. Additional details such as pricing and availability outside of China are expected to be revealed once the phone is officially launched.

For those interested in staying updated with the latest tech news, there are several ways to keep informed. Regular updates can be found in the News Section, and readers can join the Telegram community or sign up for a daily newsletter to receive top stories directly.

As the release date approaches, the Vivo Y500 is poised to make a strong impression in the market, especially for consumers looking for a device that combines power and resilience. Whether it’s for everyday use or more demanding scenarios, the Y500 seems ready to deliver.

Saturday, November 22, 2025

Battery Tech Rivalry Drives EV Evolution

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The Evolution of Battery Technology and Its Impact on the Future of Electric Vehicles

The global race to develop new battery technologies is accelerating, with startups and established companies alike exploring alternatives to traditional lithium-ion batteries. These innovations aim to reduce costs, minimize reliance on critical minerals, and support the growing demand for electric vehicles (EVs). As the EV market expands, so does the need for diverse and sustainable energy storage solutions.

Current Battery Technologies in Use

Several battery types are currently being used or explored for different applications. Some of these have been around for decades, while others are emerging as potential game-changers.

Lead Batteries

Lead batteries are commonly used in conventional internal combustion engine vehicles for starting the engine. They are inexpensive and perform well in extreme conditions. However, they are heavy and have low energy density, making them unsuitable for modern EVs.

Nickel-Cadmium (Ni-CD) and Nickel-Metal Hydride (Ni-MH)

Nickel-cadmium batteries are rechargeable but have largely been replaced by more advanced technologies. Nickel-metal hydride batteries were used in early hybrid vehicles, such as Toyota's first Prius in 1997. They offer better performance than Ni-CD but still fall short compared to newer options.

Sodium-Nickel Chloride

This type of battery has been used in the Venturi Automobiles fleet for the French postal service. It is compact and can be integrated into existing vehicle designs without major modifications. However, its top speed and range are limited, making it suitable for short-range applications.

Lithium Metal Polymer (LMP)

LMP batteries were used in the Bolloré Pininfarina BlueCar and Autolib car-sharing service in Paris, both of which have since been discontinued. Today, this technology is mainly used for stationary storage and public transportation. It offers a "dry" design that simplifies the manufacturing process, but it requires careful temperature control.

Lithium-Ion: The Dominant Force

Lithium-ion batteries are the most widely used today, found in everything from smartphones to electric cars. First commercialized in 1991 by Sony, they offer high energy density, fast charging capabilities, and no memory effect. However, they are sensitive to temperature changes and vibrations, and their liquid electrolyte poses risks of overheating.

Two key families of lithium-ion batteries dominate the EV market:

NMC (Nickel Manganese Cobalt)

NMC batteries provide high energy density, making them ideal for larger vehicles. However, they rely heavily on cobalt, which is primarily sourced from the Democratic Republic of Congo. The extraction of cobalt raises significant ethical and strategic concerns.

LFP (Lithium Iron Phosphate)

LFP batteries eliminate the need for cobalt, making them more affordable and safer. They are particularly suited for smaller vehicles. However, their energy density is lower than that of NMC batteries.

Emerging Alternatives

As the industry seeks alternatives to lithium-ion, several promising technologies are under development.

Sodium-Ion

Sodium-ion batteries replace lithium with sodium, which is more abundant and less expensive. They are non-flammable, can withstand up to 50,000 recharge cycles, and are easier to source. However, their energy density is lower, and the supply chain for this technology is still in its infancy.

LNMO (Lithium Nickel Manganese Oxide)

Renault is developing LNMO technology, which aims to combine the high energy density of NMC with the cost-effectiveness and safety of LFP. It also promises faster charging times. However, it is still in the development phase and not yet commercially available.

Lithium-Sulfur

Lithium-sulfur batteries have the potential to double the energy density of lithium-ion batteries. They also eliminate the need for nickel, cobalt, and manganese, reducing dependency on rare materials. This technology is backed by U.S. startup Lyten and is expected to be deployed by 2028.

Solid-State Batteries

Solid-state batteries use a solid electrolyte instead of a liquid one, offering higher energy density, lighter weight, and improved safety. Despite these advantages, they are still in the research and development stage, with no large-scale production yet.

The Road Ahead

As the automotive industry continues to evolve, the development of alternative battery technologies will play a crucial role in shaping the future of electric mobility. While lithium-ion remains dominant, the push for sustainability, cost reduction, and resource independence is driving innovation across the board. The coming years will likely see a diversification of battery options, each tailored to specific needs and applications.

Battery Tech Rivalry Drives EV Evolution

Featured Image

The Evolution of Battery Technology and Its Impact on the Future of Electric Vehicles

The global race to develop new battery technologies is accelerating, with startups and established companies alike exploring alternatives to traditional lithium-ion batteries. These innovations aim to reduce costs, minimize reliance on critical minerals, and support the growing demand for electric vehicles (EVs). As the EV market expands, so does the need for diverse and sustainable energy storage solutions.

Current Battery Technologies in Use

Several battery types are currently being used or explored for different applications. Some of these have been around for decades, while others are emerging as potential game-changers.

Lead Batteries

Lead batteries are commonly used in conventional internal combustion engine vehicles for starting the engine. They are inexpensive and perform well in extreme conditions. However, they are heavy and have low energy density, making them unsuitable for modern EVs.

Nickel-Cadmium (Ni-CD) and Nickel-Metal Hydride (Ni-MH)

Nickel-cadmium batteries are rechargeable but have largely been replaced by more advanced technologies. Nickel-metal hydride batteries were used in early hybrid vehicles, such as Toyota's first Prius in 1997. They offer better performance than Ni-CD but still fall short compared to newer options.

Sodium-Nickel Chloride

This type of battery has been used in the Venturi Automobiles fleet for the French postal service. It is compact and can be integrated into existing vehicle designs without major modifications. However, its top speed and range are limited, making it suitable for short-range applications.

Lithium Metal Polymer (LMP)

LMP batteries were used in the Bolloré Pininfarina BlueCar and Autolib car-sharing service in Paris, both of which have since been discontinued. Today, this technology is mainly used for stationary storage and public transportation. It offers a "dry" design that simplifies the manufacturing process, but it requires careful temperature control.

Lithium-Ion: The Dominant Force

Lithium-ion batteries are the most widely used today, found in everything from smartphones to electric cars. First commercialized in 1991 by Sony, they offer high energy density, fast charging capabilities, and no memory effect. However, they are sensitive to temperature changes and vibrations, and their liquid electrolyte poses risks of overheating.

Two key families of lithium-ion batteries dominate the EV market:

NMC (Nickel Manganese Cobalt)

NMC batteries provide high energy density, making them ideal for larger vehicles. However, they rely heavily on cobalt, which is primarily sourced from the Democratic Republic of Congo. The extraction of cobalt raises significant ethical and strategic concerns.

LFP (Lithium Iron Phosphate)

LFP batteries eliminate the need for cobalt, making them more affordable and safer. They are particularly suited for smaller vehicles. However, their energy density is lower than that of NMC batteries.

Emerging Alternatives

As the industry seeks alternatives to lithium-ion, several promising technologies are under development.

Sodium-Ion

Sodium-ion batteries replace lithium with sodium, which is more abundant and less expensive. They are non-flammable, can withstand up to 50,000 recharge cycles, and are easier to source. However, their energy density is lower, and the supply chain for this technology is still in its infancy.

LNMO (Lithium Nickel Manganese Oxide)

Renault is developing LNMO technology, which aims to combine the high energy density of NMC with the cost-effectiveness and safety of LFP. It also promises faster charging times. However, it is still in the development phase and not yet commercially available.

Lithium-Sulfur

Lithium-sulfur batteries have the potential to double the energy density of lithium-ion batteries. They also eliminate the need for nickel, cobalt, and manganese, reducing dependency on rare materials. This technology is backed by U.S. startup Lyten and is expected to be deployed by 2028.

Solid-State Batteries

Solid-state batteries use a solid electrolyte instead of a liquid one, offering higher energy density, lighter weight, and improved safety. Despite these advantages, they are still in the research and development stage, with no large-scale production yet.

The Road Ahead

As the automotive industry continues to evolve, the development of alternative battery technologies will play a crucial role in shaping the future of electric mobility. While lithium-ion remains dominant, the push for sustainability, cost reduction, and resource independence is driving innovation across the board. The coming years will likely see a diversification of battery options, each tailored to specific needs and applications.

Monday, November 17, 2025

Factbox: Battery Rivals Drive the EV Revolution

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The Evolution of Battery Technology for Electric Vehicles

As the demand for electric vehicles (EVs) continues to grow, startups around the world are actively exploring new battery technologies that utilize materials like sodium and sulfur or other innovative chemistries. These efforts aim to reduce costs and decrease reliance on critical minerals, which have long been a point of concern in the EV industry.

China currently dominates the global battery cell production landscape, controlling 85% of the market. Additionally, it accounts for 90% of the processing of raw materials used in two lithium-ion variants that currently dominate the EV market. Despite this dominance, battery technology is evolving rapidly, though the fundamental principles remain largely unchanged. A typical battery consists of three key components: a cathode, an anode, and an electrolyte.

With carmakers evaluating long-term options, various battery types are either in use or under development. Let’s explore some of these technologies:

Lead Batteries

Lead batteries have been traditionally used in 6 or 12-volt systems to power car starters. They offer advantages such as being inexpensive and functional in extreme conditions. However, they are heavy and have low energy capacity, making them less suitable for modern EV applications.

Nickel-Cadmium (Ni-CD) and Nickel-Metal Hydride (Ni-MH)

Nickel-cadmium batteries are rechargeable and have been used in various applications. Nickel-metal hydride batteries were notably used in Toyota's first Prius model in 1997, serving as a precursor to hybrid technology.

Sodium-Nickel Chloride

This type of battery has found use in the Venturi Automobiles fleet for the French postal service. It offers advantages such as a smaller size, allowing it to be fitted into existing vehicles without requiring major modifications. However, its performance is limited, with a top speed of 100 km/h and a range of only 100 km.

Lithium-Metal Polymer (LMP)

Once used in models like the Bolloré Pininfarina BlueCar and the Parisian car-sharing service Autolib, LMP technology is now primarily used for stationary storage, buses, and trams. Its "dry" technology, based on the capacitor principle, makes it easier to produce industrially. However, it requires preheating and maintaining a specific temperature, which can be a drawback.

Lithium-Ion Batteries

Lithium-ion batteries are the most widely used today, found in phones, laptops, electric cars, and other devices. First commercialized in 1991 by Sony, they offer high energy density and versatile charging options. However, they are sensitive to external conditions like cold weather and vibrations, and their liquid nature poses risks of overheating.

Two Dominant Lithium-Ion Technologies

Two families of lithium-ion batteries dominate the EV market:

NMC (Nickel Manganese Cobalt)

NMC batteries offer high energy density but come at a higher cost, making them more suitable for larger vehicles. Cobalt, a key component, is mainly sourced from the Democratic Republic of Congo, where ethical and strategic concerns about mining practices persist.

LFP (Lithium Iron Phosphate)

LFP batteries eliminate the need for cobalt, offering a more affordable option suitable for smaller vehicles. However, their energy density is lower compared to NMC batteries.

Sodium-Ion Batteries

Sodium-ion batteries present a promising alternative by eliminating the need for lithium, nickel, and cobalt. These metals are currently in high demand, while sodium is more abundant and cheaper to extract. Sodium-ion batteries are non-flammable and can withstand up to 50,000 recharge cycles, significantly more than lithium-ion batteries. However, they currently face challenges with lower energy density and limited supply.

LNMO (Lithium Nickel Manganese Oxide)

Renault is developing LNMO technology, which aims to combine the energy density of NMC, the cost and safety of LFP, and fast recharge times of less than 15 minutes. While promising, this technology is still in the development phase.

Lithium-Sulfur Batteries

Lithium-sulfur batteries, backed by companies like Lyten, claim to offer more than twice the energy density of lithium-ion batteries. They also eliminate the need for nickel, cobalt, and manganese, providing greater independence due to the potential for local sourcing of raw materials. However, large-scale deployment is expected no earlier than 2028.

Solid-State Batteries

Solid-state batteries replace the liquid electrolyte in traditional lithium-ion batteries with a solid one, such as polymer or ceramic. This design offers higher energy density, lighter weight, and improved safety. However, they are still under development and have not yet reached large-scale production.

As the automotive industry continues to evolve, the development of new battery technologies will play a crucial role in shaping the future of electric mobility.

Factbox: Battery Rivals Drive the EV Revolution

Featured Image

The Evolution of Battery Technology for Electric Vehicles

As the demand for electric vehicles (EVs) continues to grow, startups around the world are actively exploring new battery technologies that utilize materials like sodium and sulfur or other innovative chemistries. These efforts aim to reduce costs and decrease reliance on critical minerals, which have long been a point of concern in the EV industry.

China currently dominates the global battery cell production landscape, controlling 85% of the market. Additionally, it accounts for 90% of the processing of raw materials used in two lithium-ion variants that currently dominate the EV market. Despite this dominance, battery technology is evolving rapidly, though the fundamental principles remain largely unchanged. A typical battery consists of three key components: a cathode, an anode, and an electrolyte.

With carmakers evaluating long-term options, various battery types are either in use or under development. Let’s explore some of these technologies:

Lead Batteries

Lead batteries have been traditionally used in 6 or 12-volt systems to power car starters. They offer advantages such as being inexpensive and functional in extreme conditions. However, they are heavy and have low energy capacity, making them less suitable for modern EV applications.

Nickel-Cadmium (Ni-CD) and Nickel-Metal Hydride (Ni-MH)

Nickel-cadmium batteries are rechargeable and have been used in various applications. Nickel-metal hydride batteries were notably used in Toyota's first Prius model in 1997, serving as a precursor to hybrid technology.

Sodium-Nickel Chloride

This type of battery has found use in the Venturi Automobiles fleet for the French postal service. It offers advantages such as a smaller size, allowing it to be fitted into existing vehicles without requiring major modifications. However, its performance is limited, with a top speed of 100 km/h and a range of only 100 km.

Lithium-Metal Polymer (LMP)

Once used in models like the Bolloré Pininfarina BlueCar and the Parisian car-sharing service Autolib, LMP technology is now primarily used for stationary storage, buses, and trams. Its "dry" technology, based on the capacitor principle, makes it easier to produce industrially. However, it requires preheating and maintaining a specific temperature, which can be a drawback.

Lithium-Ion Batteries

Lithium-ion batteries are the most widely used today, found in phones, laptops, electric cars, and other devices. First commercialized in 1991 by Sony, they offer high energy density and versatile charging options. However, they are sensitive to external conditions like cold weather and vibrations, and their liquid nature poses risks of overheating.

Two Dominant Lithium-Ion Technologies

Two families of lithium-ion batteries dominate the EV market:

NMC (Nickel Manganese Cobalt)

NMC batteries offer high energy density but come at a higher cost, making them more suitable for larger vehicles. Cobalt, a key component, is mainly sourced from the Democratic Republic of Congo, where ethical and strategic concerns about mining practices persist.

LFP (Lithium Iron Phosphate)

LFP batteries eliminate the need for cobalt, offering a more affordable option suitable for smaller vehicles. However, their energy density is lower compared to NMC batteries.

Sodium-Ion Batteries

Sodium-ion batteries present a promising alternative by eliminating the need for lithium, nickel, and cobalt. These metals are currently in high demand, while sodium is more abundant and cheaper to extract. Sodium-ion batteries are non-flammable and can withstand up to 50,000 recharge cycles, significantly more than lithium-ion batteries. However, they currently face challenges with lower energy density and limited supply.

LNMO (Lithium Nickel Manganese Oxide)

Renault is developing LNMO technology, which aims to combine the energy density of NMC, the cost and safety of LFP, and fast recharge times of less than 15 minutes. While promising, this technology is still in the development phase.

Lithium-Sulfur Batteries

Lithium-sulfur batteries, backed by companies like Lyten, claim to offer more than twice the energy density of lithium-ion batteries. They also eliminate the need for nickel, cobalt, and manganese, providing greater independence due to the potential for local sourcing of raw materials. However, large-scale deployment is expected no earlier than 2028.

Solid-State Batteries

Solid-state batteries replace the liquid electrolyte in traditional lithium-ion batteries with a solid one, such as polymer or ceramic. This design offers higher energy density, lighter weight, and improved safety. However, they are still under development and have not yet reached large-scale production.

As the automotive industry continues to evolve, the development of new battery technologies will play a crucial role in shaping the future of electric mobility.

Tuesday, October 14, 2025

Goodyear's Tech Halts Garbage Truck Fires

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Goodyear Addresses Garbage Truck Fires with Innovative Safety Measures

In response to a recent increase in garbage truck fires, the city of Goodyear has introduced a new safety initiative that involves the use of heat-detecting cameras inside its waste collection vehicles. This innovative approach aims to prevent damage to both the trucks and the surrounding community by identifying potential fire hazards early.

The fires, many of which have been linked to improperly disposed lithium batteries, have raised significant concerns for the city’s public works department. According to Gus Plascencia, a representative from the Goodyear Public Works Department, the city has experienced five truck fires this year. Three of these incidents required extensive repairs, while the other two were quickly contained by city staff before they escalated into major fires.

These incidents not only pose a risk to public safety but also come with substantial financial costs. Each truck involved in a fire can cost the city at least $150,000 to repair. The primary cause of these fires is often related to lithium-ion batteries, which can ignite when punctured by the pressure or equipment within the truck.

To address this growing issue, Goodyear has taken a proactive step by installing heat-detecting cameras inside its garbage trucks. These cameras are designed to monitor for unusual heat sources. If the temperature inside the truck reaches 200 degrees Fahrenheit, an alarm is triggered, alerting the driver to the potential danger.

How the New System Works

The system, referred to by Plascencia as a "mobile fire alarm," allows drivers to take immediate action if a heat source is detected. Upon receiving the alarm, the driver can then eject the load and call for assistance from the fire department. This early intervention helps prevent the fire from spreading and damaging the truck, as well as reducing the risk to the community and the operators themselves.

Plascencia emphasized that this technology is unique to Goodyear’s fleet and represents a significant advancement in vehicle safety. By integrating heat detection into the garbage trucks, the city is taking a crucial step toward protecting its workers and infrastructure.

What Residents Can Do

While the city continues to implement new safety measures, residents are encouraged to play their part in preventing these incidents. Proper disposal of lithium batteries is essential to reduce the risk of fires in waste collection vehicles.

Residents should check local city and town guidelines for information on how to safely dispose of these batteries. Many communities offer specific programs or drop-off locations for hazardous materials like lithium-ion batteries. It is important for individuals to follow these guidelines to help ensure the safety of both the environment and the people who work to keep the city clean.

By working together, the city of Goodyear and its residents can help prevent future incidents and protect the community from the dangers associated with improper battery disposal.

Goodyear's Tech Halts Garbage Truck Fires

Featured Image

Goodyear Addresses Garbage Truck Fires with Innovative Safety Measures

In response to a recent increase in garbage truck fires, the city of Goodyear has introduced a new safety initiative that involves the use of heat-detecting cameras inside its waste collection vehicles. This innovative approach aims to prevent damage to both the trucks and the surrounding community by identifying potential fire hazards early.

The fires, many of which have been linked to improperly disposed lithium batteries, have raised significant concerns for the city’s public works department. According to Gus Plascencia, a representative from the Goodyear Public Works Department, the city has experienced five truck fires this year. Three of these incidents required extensive repairs, while the other two were quickly contained by city staff before they escalated into major fires.

These incidents not only pose a risk to public safety but also come with substantial financial costs. Each truck involved in a fire can cost the city at least $150,000 to repair. The primary cause of these fires is often related to lithium-ion batteries, which can ignite when punctured by the pressure or equipment within the truck.

To address this growing issue, Goodyear has taken a proactive step by installing heat-detecting cameras inside its garbage trucks. These cameras are designed to monitor for unusual heat sources. If the temperature inside the truck reaches 200 degrees Fahrenheit, an alarm is triggered, alerting the driver to the potential danger.

How the New System Works

The system, referred to by Plascencia as a "mobile fire alarm," allows drivers to take immediate action if a heat source is detected. Upon receiving the alarm, the driver can then eject the load and call for assistance from the fire department. This early intervention helps prevent the fire from spreading and damaging the truck, as well as reducing the risk to the community and the operators themselves.

Plascencia emphasized that this technology is unique to Goodyear’s fleet and represents a significant advancement in vehicle safety. By integrating heat detection into the garbage trucks, the city is taking a crucial step toward protecting its workers and infrastructure.

What Residents Can Do

While the city continues to implement new safety measures, residents are encouraged to play their part in preventing these incidents. Proper disposal of lithium batteries is essential to reduce the risk of fires in waste collection vehicles.

Residents should check local city and town guidelines for information on how to safely dispose of these batteries. Many communities offer specific programs or drop-off locations for hazardous materials like lithium-ion batteries. It is important for individuals to follow these guidelines to help ensure the safety of both the environment and the people who work to keep the city clean.

By working together, the city of Goodyear and its residents can help prevent future incidents and protect the community from the dangers associated with improper battery disposal.

Wednesday, August 27, 2025

GM's Groundbreaking Electric Vehicle Battery Overcomes EV Ownership Hurdles and Drives a Greener Future

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The Growing Popularity of Electric Vehicles in the United States

The adoption of electric vehicles (EVs) in the United States is on the rise, with a growing number of consumers showing interest in transitioning to electric cars. According to a recent report, 28% of Americans expressed interest in purchasing an electric vehicle within the next year. This trend is driven by several factors, including the low operating costs and the environmental benefits associated with EV ownership.

Despite this increasing interest, the EV market still faces challenges that prevent widespread adoption. Many potential buyers are deterred by the higher upfront cost of electric vehicles, even though the long-term savings on fuel and maintenance can be significant. Additionally, concerns about battery longevity and the availability of convenient charging infrastructure remain key obstacles for many consumers.

These issues highlight the importance of advancements in battery technology, which is one of the most critical components affecting the viability and affordability of electric vehicles. Fortunately, recent developments in this area are offering promising solutions.

General Motors Unveils a Revolutionary Battery Technology

In a significant breakthrough, General Motors (GM) has introduced a new battery technology that could change the landscape of electric vehicles. This innovation centers around lithium manganese rich cathodes (LMR), a type of battery chemistry that has historically faced challenges in terms of reliability and longevity.

Previously, LMR batteries were not considered a viable option due to their shortcomings compared to other battery types. However, GM has overcome these limitations through its proprietary research and development. The company, in collaboration with LG Energy Solution, has engineered a solution that promises to deliver both long-range capabilities and lower costs for consumers.

One of the standout features of GM’s new battery technology is its ability to support longer driving ranges while keeping production costs down. For instance, the Chevrolet Silverado EV Work Truck, equipped with this new battery, boasts an EPA-rated range of 492 miles on a single charge. It also features one of the fastest charging systems on the market, with a capacity of 350 kW.

How the New Technology Works

The new battery technology builds upon GM’s existing nickel manganese cobalt aluminum oxide (NMCA) batteries, which are known for their impressive range and reliability. By integrating LMR into this system, GM has managed to maintain the same level of performance while reducing the reliance on more expensive materials like nickel and cobalt.

In traditional high-nickel battery cells, the composition is typically around 85% nickel, 10% manganese, and 5% cobalt. In contrast, LMR cells have a different chemical makeup—approximately 35% nickel, 65% manganese, and almost no cobalt. This shift is significant because manganese is not only cheaper but also more abundant than nickel or cobalt. As a result, the overall cost of the battery is significantly reduced.

Additionally, the design of LMR batteries allows for larger cell sizes, which further lowers system costs by minimizing the need for additional connective and structural components in the battery pack. This efficiency contributes to a more cost-effective and sustainable solution for EV manufacturers and consumers alike.

Advancements in Efficiency and Performance

Beyond cost savings, the new LMR battery technology also enhances efficiency and performance. The size and shape of these batteries allow for improved energy management, ensuring that power is delivered more effectively. Specialized coatings applied to the battery cells help maintain voltage levels over time, ensuring consistent performance and extending the lifespan of the battery.

These innovations position GM as a leader in the ongoing evolution of electric vehicle technology. As the company continues to refine and expand its use of LMR batteries, the path toward a more accessible and sustainable electric future becomes clearer.

With continued investment in research and development, the barriers to EV ownership are gradually being dismantled. This progress not only benefits American consumers but also has the potential to influence the global EV market, paving the way for a greener and more efficient transportation system.

GM's Groundbreaking Electric Vehicle Battery Overcomes EV Ownership Hurdles and Drives a Greener Future

Featured Image

The Growing Popularity of Electric Vehicles in the United States

The adoption of electric vehicles (EVs) in the United States is on the rise, with a growing number of consumers showing interest in transitioning to electric cars. According to a recent report, 28% of Americans expressed interest in purchasing an electric vehicle within the next year. This trend is driven by several factors, including the low operating costs and the environmental benefits associated with EV ownership.

Despite this increasing interest, the EV market still faces challenges that prevent widespread adoption. Many potential buyers are deterred by the higher upfront cost of electric vehicles, even though the long-term savings on fuel and maintenance can be significant. Additionally, concerns about battery longevity and the availability of convenient charging infrastructure remain key obstacles for many consumers.

These issues highlight the importance of advancements in battery technology, which is one of the most critical components affecting the viability and affordability of electric vehicles. Fortunately, recent developments in this area are offering promising solutions.

General Motors Unveils a Revolutionary Battery Technology

In a significant breakthrough, General Motors (GM) has introduced a new battery technology that could change the landscape of electric vehicles. This innovation centers around lithium manganese rich cathodes (LMR), a type of battery chemistry that has historically faced challenges in terms of reliability and longevity.

Previously, LMR batteries were not considered a viable option due to their shortcomings compared to other battery types. However, GM has overcome these limitations through its proprietary research and development. The company, in collaboration with LG Energy Solution, has engineered a solution that promises to deliver both long-range capabilities and lower costs for consumers.

One of the standout features of GM’s new battery technology is its ability to support longer driving ranges while keeping production costs down. For instance, the Chevrolet Silverado EV Work Truck, equipped with this new battery, boasts an EPA-rated range of 492 miles on a single charge. It also features one of the fastest charging systems on the market, with a capacity of 350 kW.

How the New Technology Works

The new battery technology builds upon GM’s existing nickel manganese cobalt aluminum oxide (NMCA) batteries, which are known for their impressive range and reliability. By integrating LMR into this system, GM has managed to maintain the same level of performance while reducing the reliance on more expensive materials like nickel and cobalt.

In traditional high-nickel battery cells, the composition is typically around 85% nickel, 10% manganese, and 5% cobalt. In contrast, LMR cells have a different chemical makeup—approximately 35% nickel, 65% manganese, and almost no cobalt. This shift is significant because manganese is not only cheaper but also more abundant than nickel or cobalt. As a result, the overall cost of the battery is significantly reduced.

Additionally, the design of LMR batteries allows for larger cell sizes, which further lowers system costs by minimizing the need for additional connective and structural components in the battery pack. This efficiency contributes to a more cost-effective and sustainable solution for EV manufacturers and consumers alike.

Advancements in Efficiency and Performance

Beyond cost savings, the new LMR battery technology also enhances efficiency and performance. The size and shape of these batteries allow for improved energy management, ensuring that power is delivered more effectively. Specialized coatings applied to the battery cells help maintain voltage levels over time, ensuring consistent performance and extending the lifespan of the battery.

These innovations position GM as a leader in the ongoing evolution of electric vehicle technology. As the company continues to refine and expand its use of LMR batteries, the path toward a more accessible and sustainable electric future becomes clearer.

With continued investment in research and development, the barriers to EV ownership are gradually being dismantled. This progress not only benefits American consumers but also has the potential to influence the global EV market, paving the way for a greener and more efficient transportation system.

GM's Groundbreaking Electric Vehicle Battery Overcomes EV Ownership Hurdles and Drives a Greener Future

Featured Image

The Growing Popularity of Electric Vehicles in the United States

The adoption of electric vehicles (EVs) in the United States is on the rise, with a growing number of consumers showing interest in transitioning to electric cars. According to a recent report, 28% of Americans expressed interest in purchasing an electric vehicle within the next year. This trend is driven by several factors, including the low operating costs and the environmental benefits associated with EV ownership.

Despite this increasing interest, the EV market still faces challenges that prevent widespread adoption. Many potential buyers are deterred by the higher upfront cost of electric vehicles, even though the long-term savings on fuel and maintenance can be significant. Additionally, concerns about battery longevity and the availability of convenient charging infrastructure remain key obstacles for many consumers.

These issues highlight the importance of advancements in battery technology, which is one of the most critical components affecting the viability and affordability of electric vehicles. Fortunately, recent developments in this area are offering promising solutions.

General Motors Unveils a Revolutionary Battery Technology

In a significant breakthrough, General Motors (GM) has introduced a new battery technology that could change the landscape of electric vehicles. This innovation centers around lithium manganese rich cathodes (LMR), a type of battery chemistry that has historically faced challenges in terms of reliability and longevity.

Previously, LMR batteries were not considered a viable option due to their shortcomings compared to other battery types. However, GM has overcome these limitations through its proprietary research and development. The company, in collaboration with LG Energy Solution, has engineered a solution that promises to deliver both long-range capabilities and lower costs for consumers.

One of the standout features of GM’s new battery technology is its ability to support longer driving ranges while keeping production costs down. For instance, the Chevrolet Silverado EV Work Truck, equipped with this new battery, boasts an EPA-rated range of 492 miles on a single charge. It also features one of the fastest charging systems on the market, with a capacity of 350 kW.

How the New Technology Works

The new battery technology builds upon GM’s existing nickel manganese cobalt aluminum oxide (NMCA) batteries, which are known for their impressive range and reliability. By integrating LMR into this system, GM has managed to maintain the same level of performance while reducing the reliance on more expensive materials like nickel and cobalt.

In traditional high-nickel battery cells, the composition is typically around 85% nickel, 10% manganese, and 5% cobalt. In contrast, LMR cells have a different chemical makeup—approximately 35% nickel, 65% manganese, and almost no cobalt. This shift is significant because manganese is not only cheaper but also more abundant than nickel or cobalt. As a result, the overall cost of the battery is significantly reduced.

Additionally, the design of LMR batteries allows for larger cell sizes, which further lowers system costs by minimizing the need for additional connective and structural components in the battery pack. This efficiency contributes to a more cost-effective and sustainable solution for EV manufacturers and consumers alike.

Advancements in Efficiency and Performance

Beyond cost savings, the new LMR battery technology also enhances efficiency and performance. The size and shape of these batteries allow for improved energy management, ensuring that power is delivered more effectively. Specialized coatings applied to the battery cells help maintain voltage levels over time, ensuring consistent performance and extending the lifespan of the battery.

These innovations position GM as a leader in the ongoing evolution of electric vehicle technology. As the company continues to refine and expand its use of LMR batteries, the path toward a more accessible and sustainable electric future becomes clearer.

With continued investment in research and development, the barriers to EV ownership are gradually being dismantled. This progress not only benefits American consumers but also has the potential to influence the global EV market, paving the way for a greener and more efficient transportation system.

GM's Groundbreaking Electric Vehicle Battery Overcomes EV Ownership Hurdles and Drives a Greener Future

Featured Image

The Growing Popularity of Electric Vehicles in the United States

The adoption of electric vehicles (EVs) in the United States is on the rise, with a growing number of consumers showing interest in transitioning to electric cars. According to a recent report, 28% of Americans expressed interest in purchasing an electric vehicle within the next year. This trend is driven by several factors, including the low operating costs and the environmental benefits associated with EV ownership.

Despite this increasing interest, the EV market still faces challenges that prevent widespread adoption. Many potential buyers are deterred by the higher upfront cost of electric vehicles, even though the long-term savings on fuel and maintenance can be significant. Additionally, concerns about battery longevity and the availability of convenient charging infrastructure remain key obstacles for many consumers.

These issues highlight the importance of advancements in battery technology, which is one of the most critical components affecting the viability and affordability of electric vehicles. Fortunately, recent developments in this area are offering promising solutions.

General Motors Unveils a Revolutionary Battery Technology

In a significant breakthrough, General Motors (GM) has introduced a new battery technology that could change the landscape of electric vehicles. This innovation centers around lithium manganese rich cathodes (LMR), a type of battery chemistry that has historically faced challenges in terms of reliability and longevity.

Previously, LMR batteries were not considered a viable option due to their shortcomings compared to other battery types. However, GM has overcome these limitations through its proprietary research and development. The company, in collaboration with LG Energy Solution, has engineered a solution that promises to deliver both long-range capabilities and lower costs for consumers.

One of the standout features of GM’s new battery technology is its ability to support longer driving ranges while keeping production costs down. For instance, the Chevrolet Silverado EV Work Truck, equipped with this new battery, boasts an EPA-rated range of 492 miles on a single charge. It also features one of the fastest charging systems on the market, with a capacity of 350 kW.

How the New Technology Works

The new battery technology builds upon GM’s existing nickel manganese cobalt aluminum oxide (NMCA) batteries, which are known for their impressive range and reliability. By integrating LMR into this system, GM has managed to maintain the same level of performance while reducing the reliance on more expensive materials like nickel and cobalt.

In traditional high-nickel battery cells, the composition is typically around 85% nickel, 10% manganese, and 5% cobalt. In contrast, LMR cells have a different chemical makeup—approximately 35% nickel, 65% manganese, and almost no cobalt. This shift is significant because manganese is not only cheaper but also more abundant than nickel or cobalt. As a result, the overall cost of the battery is significantly reduced.

Additionally, the design of LMR batteries allows for larger cell sizes, which further lowers system costs by minimizing the need for additional connective and structural components in the battery pack. This efficiency contributes to a more cost-effective and sustainable solution for EV manufacturers and consumers alike.

Advancements in Efficiency and Performance

Beyond cost savings, the new LMR battery technology also enhances efficiency and performance. The size and shape of these batteries allow for improved energy management, ensuring that power is delivered more effectively. Specialized coatings applied to the battery cells help maintain voltage levels over time, ensuring consistent performance and extending the lifespan of the battery.

These innovations position GM as a leader in the ongoing evolution of electric vehicle technology. As the company continues to refine and expand its use of LMR batteries, the path toward a more accessible and sustainable electric future becomes clearer.

With continued investment in research and development, the barriers to EV ownership are gradually being dismantled. This progress not only benefits American consumers but also has the potential to influence the global EV market, paving the way for a greener and more efficient transportation system.

Saturday, August 23, 2025

New solar technology development could eliminate the need for batteries in small devices

Imagine never having toUse a battery again. That could soon become areality thanks to a new solar technology development.

Researchers of a new study, published April 30 in the journal Advanced Functional Materials, discovered thatThese new solar cells can harvest energy from indoor light.

According to Live Science, the scientists revealed that their discoveries have wide-ranging applications and could allow people to power devices such as keyboards, alarms, and sensors using only indoor lighting.

The study used perovskite material to capture light in solar cells. Research shows that this material captures low-power, ambient light more effectively than traditional approaches, making it ideal for indoor applications.

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Perovskites are a family of materials that have shown the ability to produce high-performance solar cells with low production costs.

Over time, perovskite-based solar cells offer a more environmentally friendly and economical substitute for batteries, explained study co-author Mojtaba Abdi Jalebi, associate professor in energy materials at University College London's Institute for Materials Discovery.

Jalebi said, "Billions of devices that require small amounts of energy rely on battery replacements - an unsustainable practice. This number will grow as the Internet of Things expands."

Currently, solar cells capturing energy from indoor light are expensive and inefficient. Our specially engineered perovskite indoor solar cells can harvest much more energy than commercial cells and is more durable than other prototypes. It paves the way for electronics powered by the ambient light already present in our lives.

The calcium titanium oxide mineral is already gaining popularity as a preferred material for solar panel construction, offering significant advantages over silicon-based alternatives.

Nevertheless, despite its potential, the material faces significant durability and long-term performance challenges.

One critical issue centers on "traps" - tiny imperfections within perovskite's crystal framework. These traps capture electrons in microscopic flaws and gaps throughout the material, blocking energy collection.

Furthermore, these traps hinder electrical flow and accelerate material degradation over time due to irregular charge movement through the substance.

To address this challenge, researchers in the latest study used a chemical combination to minimize these structural defects.

Representatives said in the statement that this approach included using rubidium chloride, which "encouraged a more homogeneous growth" of perovskite crystals and reduced the density of the traps.

The chemicals N, N-dimethyl octylammonium iodide (DMOAI) and phenethylammonium chloride (PEACl), both organic ammonium salts, were also used to stabilize two types of ions (iodide and bromide) and prevent them from separating. The research notes that this strategy helped address the problem of declining long-term functionality in the solar cell.

The solar cell with these tiny defects is like a cake cut into pieces," said study lead-author Siming Huang, a doctoral student at UCL's Institute for Materials Discovery, "Through a combination of strategies, we have put this cake back together again, allowing the charge to pass through it more easily.

Following their solution to the trap problem, researchers discovered their solar cells converted 37.6% of indoor light into electricity. The researchers noted that this breakthrough was achieved at 1,000 lux, or the brightness of a "well-lit office."

The study revealed that extended durability also showed improvement, with the solar cells maintaining 92% of their efficiency over 100 days. In contrast, a control device in which the perovskite remained unmodified to eliminate defects preserved only 76% of its original efficiency.

According to Jalebi, the team is engaged in talks with industry partners to "explore scale-up strategies and commercial deployment" of perovskite solar cells.

Garmin Enduro 3 watch review: A beast when it comes to battery life

As its name suggests, the Garmin Enduro 3 is built with ultimate endurance in mind. That means a tough, rugged build, but also impressive battery life with solar charging.

Indeed, the main USP of the Enduro 3 over other watches in the Garmin range is that it boasts the best battery life in the entire Garmin range and one of the best in ours.Outdoor watches group test.

The stats are impressive. Equipped with solar charging, even with all satellite systems running including multi-band GPS, it will last between 60 and 90 hours (depending on sunlight conditions). Meanwhile, you get 36 days in standard smartwatch mode.

It's loaded with features, boasting as much functionality asGarmin's top-end Fenix 8. This means plenty of data at your fingertips, but also seemingly endless menus and sub-menus to scroll through.

The five-button interface and scrolling touchscreen will be familiar to those who already have a Garmin watch, but otherwise takes a little while to learn. If you like getting granular with your training, health and performance metrics, though, you’ll love what it has to offer. If you prefer things sleek and simple, not so much.

Having said that, the watch display is highly customizable. Navigation is robust, featuring full-color topographic maps, easy route following, and multi-band GNSS support, ensuring accurate tracking even in challenging environments.

It also works well with numerous third-party apps, from Komoot to Strava to Spotify. You can also set up contactless payment if you want smartwatch-style functionality for everyday use.

Disadvantages? Compared to the latest AMOLED watches, the MiP (Memory-in-Pixel) display is underwhelming, though it's still better than LCD screens. And this loss in terms of overall brightness and clarity is part of what ensures such impressive battery life.

For extended off-grid adventures, it's a sacrifice worth making. There's no voice assistant, as with the latest Fenix model, but I didn't miss that feature. It's expensive though.

Design and display

The Enduro 3 is unlike many of the watches in Garmin's other ranges, like theFenixand the Forerunner. Those models come in a bewildering range of different color options and finishes, with multiple strap options (some of which increase the price significantly).

In contrast, the Enduro 3 keeps things simple. It's available in one case size (51mm), one color (no nonsense black) and with just one strap option (a simple but comfortable nylon-velcro band).

The titanium bezel is bolted to a fibre-reinforced polymer case, with a sapphire crystal that is far more scratch-resistant than mineral glass. It's not a particularly heavy watch, at 63g including the band, but it is undeniably chunky.

The case diameter is 51mm and overall thickness is 15.7mm. If you have slim wrists, it may feel bulky and top-heavy, which some will find off-putting.

But the larger proportions allow for a large screen size of 1.4" (35.56 mm) in diameter – and that doesn't include the solar charging ring surrounding the display. In turn, this means you can immediately view plenty of information straight from the home screen (although of course, it's possible to download multiple watch faces, both free and paid, from the Garmin Connect IQ app if you want to customize the watch face).

Visually, the Enduro 3 exudes a rugged and robust quality that will appeal to those who like the G-Shock aesthetic. This is augmented by the addition of an external LED flashlight at 12 o'clock.

It's also a feature on some of Garmin's other watches, such as the Fenix 8,Fenix 7andInstinct 3, and although it seems like a gimmick, it's surprisingly useful – especially if you're wild camping, as it's much more convenient than fumbling around in a dim tent for aheadlamp.

The Enduro 3 has a 280 x 280px 'Memory-in-Pixel' (MiP) display. This is a well-established technology that is widely used across the wearables sector. It's more energy-efficient and thinner than traditional LCD, with low power consumption to boost overall battery life.

It works pretty well outdoors, even in bright sunlight. However, it has a limited color palette and is nowhere near as crisp or vivid as watches with the latest AMOLED displays.

Comfort

As I've already noted, the Enduro 3 is a big watch, with a diameter of 51mm and a thickness of 15.7mm. On the wrist, it looks and feels a lot like a G-Shock, so if you're used to wearing that type of watch, it probably won't be too bulky.

But others will definitely find it overly bulky, and for fast-paced activities such as trail running – especially if you have a fairly dynamic arm swing – the Enduro 3's extra heft is noticeable, particularly compared to a more streamlined running watch such as the Suunto Race S or the Garmin Forerunner series.

On the other hand, the big case means big buttons and a big screen, which is a plus for overall user-friendliness. And in terms of weight, the Enduro 3 isn't especially heavy thanks to its polymer case and lightweight titanium bezel. By way of comparison, it's lighter than competitors like thePolar Grit X2 Proor theSuunto Vertical Titanium Solar.

The supplied nylon-velcro strap is also soft and comfortable, with infinite adjustment for a great fit. It's also surprisingly quick-drying, as I've found after going for a wild swim in a mountain lake. Overall, I much prefer it to Garmin's silicone straps.

Battery life

The stats for the Enduro 3 are truly impressive. If you're looking for a GPS watch with phenomenal battery life, this is one of the strongest contenders on the market.

In standard smartwatch mode, it will last up to 36 days, which can be boosted to a maximum of 90 days under optimal solar charging conditions (Garmin's figures are based on all-day wear with three hours per day spent outside in 50,000 lux conditions, which would be a sunny summer day here in Britain).

For ultimate battery life, you can put the Enduro 3 in battery saver mode, which restricts functionality and tracking, but then gives you up to 92 days of battery life, or potentially unlimited life if the watch is consistently getting enough solar charging exposure.

Meanwhile, with all satellite systems active and music playing, you can expect up to 22 hours of battery life. Without music but with multi-band GNSS enabled, Garmin claims up to 60 hours of life, or up to 90 hours in optimal solar conditions.

In max battery GPS mode, the brand claims up to 210 hours of battery life, and in expedition GPS mode (which typically records a position update only once an hour), up to 77 days (or again, potentially unlimited days with sufficient solar exposure).

Mapping

In my opinion, Garmin's mapping is the best free smartwatch mapping on the market. On the Enduro 3, the mapping is pre-loaded. Contour lines and other topographical features are clearly displayed, with landscape features such as villages, rivers and roads labeled.

You can easily zoom in and out via the up/down buttons on the left side of the case, while the touchscreen allows you to pan around the map just like you would if navigating on a smartphone or modern GPS unit.

Of course, navigating on the fly is never easy with a small device like a watch, and most users will import GPX tracks to follow. Garmin's ecosystem is now quite extensive, which means there are several ways you can do this.

If you're a Komoot user, you can do it directly in the Komoot app on the watch, downloadable from the Garmin Connect IQ store. Alternatively, you can import GPX tracks and courses via the Garmin Explore or Connect apps on your smartphone, then sync with your device to upload them to the watch.

You can toggle between map and other data screens, enabling you to monitor hiking or running stats (speed or pace, distance, time, etc.) while following the mapped route. The GPX track shows a lined trace of your progress, as well as the plotted route ahead.

You get turn-by-turn navigation, and if you veer off course the watch will beep and show you how to get back on course. The only downside is that the MiP screen has limited resolution, so on occasion, maps can be a bit dull and difficult to make out.

Accuracy

The Enduro 3 has multi-band capability, connecting to all the major global navigation satellite systems (GNSS): the United States' Global Positioning System (GPS), Russia's Global Navigation Satellite System (GLONASS), China's BeiDou Navigation Satellite System (BDS) and the European Union's Galileo, as well as Japan's QZSS.

In addition, Garmin's own SatIQ technology "dynamically adjusts satellite mode (like multiband GNSS or low-power GPS) based on your environment to optimize battery life without sacrificing accuracy". Basically, it automatically selects the best GPS mode for your situation, whether you're in a dense urban area, a forest, or an open field.

The watch accurately and precisely tracked all my activities, quickly locking onto the GPS signal before starting a hike or trail run. The GPS plots are smooth and continuous.

Interface

The Enduro 3 uses Garmin's standard five-button layout and also has touchscreen capability. If you already own a Garmin watch, the functions will probably feel fairly familiar – if it's all new to you, expect to spend a few hours as you learn your way around the menus.

For example, various short and long presses are needed to access different options and settings, such as the handy widgets menu (long press the top left button). I have to say that, to me, it doesn’t feel as intuitive as some rival brands' interfaces, though that's partly because of the sheer breadth of data and customization that the Enduro 3 offers. Looks-wise it's certainly more dated though.

Fortunately, recording an activity is easy and straightforward, so if you're primarily using this as a multisport watch to log hikes, rides and runs, you can get out and get active pretty quickly.

App

Garmin's ecosystem is extensive, but for us it has also become unnecessarily complex. For one thing, there are now multiple apps available for download to your Apple or Android device.

For outdoor users, the most useful are Garmin Connect, Garmin Explore and Garmin Connect IQ (yes, three separate apps to clog up your phone – sorry). The first is crucial for syncing your watch and monitoring your activities and health/performance stats, as well as setting up training plans.

The second is useful for creating and saving routes, while the third allows you to download third party apps (such as Spotify or Komoot) to your watch, as well as adding custom watch faces (which cost up to £4.99 each).

Garmin recently faced criticism for also introducing Connect+, a paid subscription service that places additional 'premium' features behind a paywall. It is currently £70 per year or £6.99 per month.

Given that the Enduro 3 is a top-tier Garmin watch that retails at £770 in the UK, it's not unreasonable to expect that buying one should really give you access to everything that Garmin offers, without having to pay extra money year-on-year.

What you actually get for this fee varies by device, but essentially the headlines seem to be: personalized, AI-driven insights into your health and activities, a performance dashboard, live activity data fed straight to your smartphone, and Garmin's livetrack functionality (most useful for big challenges, events, and races).

The majority of this will only be of interest to serious/elite athletes, so at the moment I'd advise you to save your money.

Other features

Still, there's a host of other functionality. You can expect excellent sleep tracking (with Garmin's handy morning reports giving you a summary of how you slept and your training readiness for the day ahead), plus heart rate and blood oxygen levels, and multiple health/wellness indicators such as step tracking, floors climbed, intensity minutes, and Garmin's overall stress and 'body battery' metrics.

In terms of outdoor-specific tools, you get dual grid coordinates plus an in-built compass, barometer and altimeter, as well as a thermometer, weather forecast, tide times, storm alerts, and safety tracking (including incident detection, livetrack and live event sharing).

In the mountains, the watch can also give you access to data such as total ascent/descent, vertical speed, route elevation profiles and distance to your destination.

As a multi-sport watch, it's also one of the best on the market. Garmin's running, golfing, cycling and swimming features are some of the most advanced and comprehensive available. So are its training, planning and analysis tools.

In terms of smartwatch-style features, you can also set up contactless payments with Garmin Pay and download Spotify playlists for off-grid listening. I enjoyed heading out for long trail runs without having to take a phone, with the motivating accompaniment of my favorite running playlist (Indie Rock Bangers, since you didn't ask) blasting out throughShokz Openrunheadphones. It works really well (and proved much easier to set up than on the Forerunner 965).

Price and competition

The Enduro 3 is one of the most expensive watches that Garmin offers. Only the premium Marq collection and the specialist dive, aviation, boating and military/tactical models, plus the new Fenix 8 range, are more expensive.

It currently has an RRP of £770 ($899.99), which admittedly saves you a bit of money compared to the 51mm Fenix 8 Solar (£950 ($1,099.99). The Enduro 3 beats it for battery life, but the Fenix 8 has added customisation options, extra smartwatch-style features and a more premium feel overall (though it’s a bit heavier as a result).

Still, the Enduro 3 offers you plenty of features and functionality for your money. In that sense, I think it's better value than the Fenix 8 Solar (if you're considering a Fenix 8, go for the AMOLED version instead).

Away from Garmin, if you like the Enduro 3 you should also be looking at thePolar Grit X2 Pro(£649) and theSuunto Vertical Titanium Solar£625. The Polar has a much shorter battery life and lacks solar charging, but adds a super-vivid AMOLED screen and, for me, offers a more intuitive user experience.

Meanwhile, the Suunto has a long battery life, though still inferior to the Enduro 3, but I think it looks better and may be more user-friendly as it is a little more stripped back.

Verdict

The Garmin Enduro 3 excels in terms of overall durability, battery life and navigation capabilities, as well as multi-sport features and functionality. Solar charging capability also makes this a top choice for users who spend a lot of time off-grid.

The downside? The pixel-based display lacks the color and clarity of AMOLED rivals. And some users find the case too bulky, the display too cluttered and the menus too complicated.

If you're after a slimmer, lighter watch for tracking activities, you may be interested in our list of theBest running watches.

About the author

Matt Jonesis a freelance journalist based in the heart of Snowdonia National Park, he's a highly experienced gear tester and self-confessed outdoor gear geek. Matt has been one of our main gear testers for the last few years and is the first person we call with any complicated kit queries that require in-depth and forensic analysis.

EV batteries could offer longer lifespan, increased safety with new Swedish technology

The lifespan of EV batteries has remained a challenging factor for their users. After continuous usage over years, the lifespan of these batteries decreases. But a new experiment offers hope for a longer lifespan of EV batteries.

An AI model developed at Uppsala University could reportedly offer improved safety and longer life for EV batteries. The model provides a much more accurate picture of battery aging.

Batteries in electric vehicles wear out too quickly

Being able to learn more about the life and ageing of batteries will benefit future control systems in electric vehicles. It also shows how important it is to understand what happens inside thebatteries," said Professor Daniel Brandell, who led the study and is in charge of the Angström Advanced Battery Centre atUppsala University.

If we stop looking at them as black boxes that are simply expected to provide power, and instead acquire a detailed picture of the processes, we can manage them so that they stay in good conditionlonger.”

Batteries in electric vehicles wear out too quickly and this is slowing down the electrification of the transport sector.

AI tool extends lifespan

This is a major waste of resources today and is holding back the transformation of the transport sector. To address this issue, the automotive industry is developing software, often based on AI, to optimize battery management and control. The latest tool by Canadian researchers is one of them.

Researchers also revealed that several years of battery testing were behind the study, carried out in collaboration with Aalborg University in Denmark. A database was built by collecting data from numerous very short charging segments. This was then combined with a detailed model of all the different chemical processes taking place inside the battery.

"Altogether, this gives us a very precise picture of the various chemical reactions that result in the battery generating power, but also of how it ages during use," says Wendi Guo, who conducted the study.

ML framework built on digital twin model

Researchers revealed that their work proposes the machine learning (ML) framework built on a digital twin model that links key design parameters to real-world behaviors of graphite/nickel–manganese–cobalt–oxide LiBs under a diverse range of fast charging protocols, depths of discharge, and dynamic discharge profiles representative of applications in Nordic climates.

Published in the Energy and Environmental Science journal, theresearchfocuses on a new framework that infers six key design parameters directly from short charging segments, enabling rapid health prediction within seconds.

Model improves the robustness of health, lifetime predictions

Notably, this approach improves the robustness of health and lifetime predictions by up to 65% and 69%, respectively, compared to baseline multi-layer perceptron and linear regression models, while also outperforming the baseline random forest model, with a training time of 1 second, according to researchers.

The research team also pointed out that the strong physical correlation between capacity variability and three design parameters—solid-state diffusion coefficient, particle radius, and electrode thickness—during fast charging highlights their vital role in determining the degradation pathways.

"The framework can be easily integrated into upstream workflows and battery management systems, enabling end users to customize usage patterns and guiding developers toward improved design strategies," said researchers in the study.

Friday, August 22, 2025

An ultra-thin smart filter can significantly extend EV battery life span

Car manufacturers and others who need light, safe, powerful batteries are eager to adopt lithium-sulfur (Li-S) batteries. Not only do they store more energy, and are safer and faster to charge than today's lithium-ion batteries—they're cheaper to make, too.

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It's just that these next-generation wonder batteries have one big problem: They wear out very quickly. The reason is that they suffer from what is called the shuttle effect.

"It's about chemical substances, lithium polysulfides (LPS), that are formed when the battery is in operation. The substances move between the electrodes, the positive anode and the negative cathode, in the battery. It is these substances that cause LiS batteries to degrade quickly, lose capacity and have a short lifespan," said Önder Tekinalp, a postdoctoral fellow at NTNU's Department of Chemical Engineering.

This also explains why this type of battery has not yet moved into our electric cars.

New, thin, smart filter

Tekinalp and his colleagues have developed a super-thin coating with very special properties that can change this. They have patented the coating via a project called HiSep-II. The coating has been given the same name as the project.

Inside a battery there is also a separator. There is a partition between the electrodes, which makes it work effectively and prevents short circuits. When the HiSep II coating is applied on the outside of the wall, it acts as a smart filter.

This new invention could make today's heavy electric vehicle batteries lighter, safer, and increase their range. The researchers behind the technology believe it is also ideal for use in aviation, space travel, drones, and shipping.

Many people working to improve lithium-sulfur batteries focus on pure chemistry in the cathode and electrolytes. The NTNU researchers have thus focused on the partition instead.

"The coating blocks the harmful chemical substances and allows useful lithium ions to pass freely," Tekinalp said.

Slimmer, lighter battery pack

The lifespan of a battery is often measured in charge cycles. One cycle is the same as one full charge and one full discharge. The tests from the lab at Gløshaugen show that lithium-sulfur batteries equipped with HiSep-II can increase the number of charging cycles from 200 to 1,000. That lengthens the battery life by a factor of five.

The battery pack in an electric car consists of many parts. The researchers say the patented technology can reduce an 800-volt battery pack by more than 200 kilograms. That, in turn, means significantly better efficiency and a much longer range. The fact that this next generation of electric car batteries are made from sulfur, which is abundant, also makes them cheap to produce.

Real alternative for electric cars

Tekinalp believes their research is a breakthrough, which will contribute to making lithium-sulfur batteries a real alternative for electric vehicles.

"Although HiSep-II has not yet been used in electric cars, we have shown that it can handle the shuttle effect. It has been the major brake on commercial exploitation—until now," says the researcher.

HiSep-II patented the separator in 2023, and is working with NTNU Technology Transfer (TTO) to bring it to the market.

"The goal is to scale up the technology and license it to an industrial partner so that it can be used in everything from electric cars to storage of green energy," says Kristina Nydal, a business developer at TTO.

She believes Hi-Sep II can contribute to increased battery safety, and says that the technology is ideal for use in areas such as aviation, aerospace, electric cars, drones, and maritime transport.

"It is also an attractive and cost-effective alternative for storing energy. Especially where longevity and stability are crucial factors," she said.

The production process is environmentally friendly, the technology is designed to be easily scalable, and it can work with today's lithium-based batteries.

Scaling up and testing

Before they are ready for the market, external players must test the technology. The filter must be built into Li-S batteries, and its performance must be checked and confirmed by an independent third party. Documenting that the technology is reliable and stable in the long term is crucial. They must also ensure that the new smart filter can be produced safely, economically and with consistent quality.

Patent processes are costly and should be adapted to the industrial use of the technology. TTO is now looking for an interested licensee who can finance further patenting and commercialization and participate in the planned tests.

When asked how the technology differs from sulfur batteries, Tekinalp replied, "Many Li-S breakthroughs focus on improving cathode materials or electrolytes. The HiSep-II targets only the separator, or filter. It is a simpler, more scalable solution without using complex materials. The production process is environmentally friendly, the technology is designed to be easily scaled up, and it can work together with today's lithium-based batteries."

Provided by the Norwegian University of Science and Technology

This story was originally published onTech Xplore.

The Best Heated Gloves of 2025

— Products are chosen independently by our editors. Purchases made through our links may earn us a commission.

Winter is coming, and with it, icy winds, damp snow, and all the rest of that other frigid, freezing weather. Whether you're skiing, shoveling, or just commuting, cold fingers can range from an inconvenience to a frostbite hazard. And those suffering from conditions such as Raynaud's syndrome will feel it even more keenly and quickly. When regular gloves and mittens are no longer cutting it, it may be time for some battery-powered heated gloves.

Heated gloves allow you to adjust exactly the level of warmth you need. The best ones, which we have detailed in this buying guide, will reliably and safely last for hours. Our top pick is theOutdoor Research Prevail Heated GORE-TEX Gloves (available at Amazon), but we've got upgrades and value picks that may suit your needs better. So let's brave the cold together this winter with these, our best heated gloves.

Best Overall
Outdoor Research Prevail Heated GORE-TEX Gloves
  • Heat Settings:Low / Medium / High
  • Battery Life:2.5 / 5 / 8 hours
  • Materials:Nylon and leather shell, GORE-TEX waterproof membrane, High-loft insulation
  • Touchscreen Capability:Yes (thumb and index finger)

Our top-rated heated gloves come from Outdoor Research—my long-time personal favorite glove brand that gets me through those long New England winters. The "Prevail" model offers an outstanding balance of warmth and comfort. Plus, the GORE-TEX waterproof membrane keeps out snow and rain while remaining breathable.

Experts found that they deliver exceptional heating performance without the bulk, thanks to a design that integrates the heating elements into the lining so you barely feel any wires.

The heat is distributed evenly throughout the fingers. As with most of the models we looked at, there are three heat settings to adjust warmth as needed. On full blast, they get truly hot (up to ~140–150°F). On low, they can last most of the day (around 8 hours on a full charge). The goat-leather palm and 3M Thinsulate insulation provide durability and dexterity, so you can still grip ski poles or shovel handles comfortably. For anyone who spends serious time in the cold, the OR Prevail hits the sweet spot of heat, weatherproofing, and build quality.

Pros

  • Fully waterproof & windproof

  • Long Battery Life

  • Touchscreen Compatible

Cons

  • A bit bulky

Buy now at Amazon
Best Value
Savior Heat Rechargeable Glove Liners
  • Heat Settings:Low / Medium / High
  • Battery Life:2.5 / 4 / 7 hours
  • Materials:Polyester and Lycra spandex blend (thin stretch fit)
  • Touchscreen Capability:Yes

When you need warmthanddexterity, a pair of heated liners like these from Savior Heat might be the perfect solution. Thin and stretchy, these gloves are designed to be worn either on their own or—when the bitter cold sets in—underneath another pair of gloves/mittens.

The Savior Heat liners received praise for their slim profile and versatility. They are made of a soft Lycra fleece blend that fits snugly. Think of them as a base layer for your hands. Despite their thinness, they have heating elements that cover the entire hand and fingers, including the fingertips.

On their own, they're not great for outdoor sports because they won't repel water. But they're ideal for tasks where bulky gloves are a hassle or unnecessary: running, yard work, or working with tools, photography, etc.

On the high setting, they won't be quite as hot as insulated gloves, but they still take the edge off. Another perk: Savior liners have one of the best touchscreen responses. The thin fabric offers a much better feel than the other gloves on this list. If you want heated gloves that keep you warm without losing finger finesse, the Savior Heat liners are our recommended pick.

Pros

  • Use alone or as heated base-layer

  • Thin and flexible

  • Quick heating

Disadvantages

  • Not wind or waterproof

  • Shorter battery life

  • Moderate Warmth

Buy now at Amazon
Upgrade Pick
Seirus HeatTouch Hellfire Mitt
  • Heat Settings:Low / Medium / High
  • Battery Life:4 / 8 / 12 hours
  • Materials:Leather and softshell exterior, DryHand waterproof/breathable insert, HeatLock synthetic insulation, ToughTek
  • Touchscreen Capability:Yes

The Seirus HeatTouch Hellfire Mitt was our top choice for those who demand maximum warmth and battery life and are willing to pay top dollar for it. With flexible heating panels covering the back of the hand and each finger, these mittens deliver incredible warmth. The fact that they run hotter and longer than the other gloves in this roundup can be a game-changer for those with chronically cold hands or conditions like Raynaud's. For skiing and other outdoor sports, these gloves can be an investment in giving you a few more precious hours having fun and less time sitting around a fire trying to get the feeling back in your fingers.

In real-world testing, the Hellfire Mitt proved it can keep fingers warm for hours in brutal conditions. It uses a dual-battery system (two thin lithium-ion packs per mitten) to achieve its longevity. As with nearly all the gloves we reviewed, there are three heat settings (Low/Med/High). The low setting often suffices for most of the day, providing up to 12 hours of gentle heat. Crank it to High and you get a toasty burst. The insulation and build quality are top-notch as well: HeatLock insulation and a fully-waterproof DryHand membrane mean these mittens are warm even without the heat on.

Seirus HeatTouch Hellfire is available as mittens or as gloves.

Pros

  • Best warmth and insulation

  • Excellent battery life

  • Premium build quality

  • Touchscreen-compatible

  • Two batteries per mitt

Cons

  • Very expensive

  • Bulkiness

Buy now at Amazon
Best Smart Heated Gloves
Eddie Bauer Guide Pro Smart Heated Gloves
  • Heat Settings:Automatic and adaptive
  • Battery Life:Varies, because heat settings are automatic
  • Materials:Nylon shell with leather palm, Clim8 sensor tech, waterproof/breathable insert
  • Touchscreen Capability:No

Eddie Bauer's Guide Pro Smart Gloves bring heating into the high-tech era. The gloves incorporate Clim8 intelligent heating technology, which automatically regulates temperature based on body heat. In practice, that means you spend less time fiddling with buttons and more time simply enjoying (or enduring) the outdoors. You can also fine-tune settings via a smartphone app, setting your preferences and monitoring battery life.

Beyond the smarts, the Guide Pro Smart Gloves are premium in build: a nylon shell, a leather palm, and a waterproof & breathable insert. They get plenty warm (not the absolute hottest, but enough for most winter sports) and have decent battery life for a day on the mountain (about 3+ hours on continuous high, longer when auto-regulating).

These gloves aren't cheap, but if you're a gadget lover or someone who hates constantly turning gloves on/off, they might be the right fit. For most people, however, "smart gloves" are probably overkill. Some things are just fine without connecting to your phone.

Pros

  • Automatic temperature control

  • App connectivity

  • Waterproof, windproof

Disadvantages

  • Expensive

  • Bulk battery

  • Not touchscreen-compatible

Buy now at Eddie Bauer

Other Heated Gloves We Evaluated

Gerbing S7 Heated Gloves
  • Heat Settings:4 levels
  • Battery Life:2 / 3 / 5 / 8 hours
  • Materials:Aquatex water-resistant membrane, leather outer, high-loft insulation
  • Touchscreen Capability:Yes

The Gerbing S7 gloves are built for the most severe conditions. Users and experts praise the Gerbing S7 as among the warmest gloves. Even on subzero days, fingers remained not only numb-free, but truly warm. The gloves heat up within seconds, and with four heat levels, they can reach up to 135°F.

We appreciated the long gauntlet cuff with cinch straps, which keeps cold air and snow out. Despite the robust build, these gloves still allow decent flexibility. The Gerbings are also water-resistant, meaning they can handle wet snow for long periods. With about 2 hours of runtime on the highest setting, the battery life is average.

Gerbing also offers a version of these gloves with hard-shell protective knuckles, designed for motorcyclists and snowmobilers.

Pros

  • Extremely warm

  • Rugged build (armored knuckles)

  • Long cuffs with straps

Cons

  • Heavy and bulky

  • Water-resistant, but not fully waterproof

Buy now at Amazon
Day Wolf Rechargeable Heated Gloves - Classic Edition

The Day Wolf Rechargeable Heated Gloves are a bit bulkier than the other gloves in this roundup. They're not bad, but they don't excel in anything either. They're a full-leather shell, and you may enjoy that aesthetic over some of the synthetic gloves here. The battery lasts from 2 hours on Low to anywhere from 6-8 hours on High.

If they're on sale, the Day Wolf Rechargeables will get the job done, but we have others to recommend over them.

  • Heat Settings:Low / Medium / High
  • Battery Life:2 / 4 / 6-8 hours
  • Materials:Sheep leather outer, water-resistant; soft insulated lining
  • Touchscreen Capability:Yes

Pros

  • Long battery life

  • High heat output

  • Touchscreen-friendly

Cons

  • Bulkiness

  • Limited availability

Buy now at Amazon

Not for Everyone: Who Should Not Get Heated Gloves

Heated gloves can be great, but let's face it - they're expensive and not needed for most people's everyday activities. The battery packs and heating elements make most heated gloves bulkier and heavier than standard gloves. If you need fine finger dexterity, most of the gloves we reviewed might not be for you (the exception being the Savior Heat Rechargeable Glove Liners, which were relatively thin).

Also, consider the necessary maintenance and planning required. These gloves are just... ordinaryglovesIf you don't charge the batteries, and many cannot be tossed in a dryer. If either of those facts makes you hesitate, consider a simpler solution like disposable hand warmer packets.

Lastly, if you're looking for medical or therapeutic benefits (for arthritis, Raynaud's, or neuropathy), standard heated gloves might not be the best fit. Yes, they get hot, but they don't provide compression or targeted therapy. In that case, a specialized glove might serve you better - for example, compression gloves or microwavable therapy mitts can offer relief for joint pain without bulk or batteries. (See our guide to the)Best Gloves for Neuropathyfor more on these alternatives.)

Things to Consider Before Buying Heated Gloves

Buying heated gloves isn't quite as simple as grabbing a pair of plain, old gloves. They're part apparel, part tech. It's good to keep the following in mind.

1. Intended Use (Casual vs. Sport vs. Work)

Consider how and where you'll use these gloves. Are you a skier or snowboarder who needs all-day warmth on the slopes? Look for gloves with long battery life and a waterproof shell to handle snow. Doing winter hiking or outdoor work like shoveling? You might prioritize lightweight gloves that trade a bit of battery life for better flexibility. For casual and occasional use, you can focus more on comfort and ample heat settings, skipping those excessively thick gloves. Match the features to the activity and you'll end up much more satisfied.

2. Waterproof vs. Water-Resistant

Waterproofing is important—maybe even limb-preserving—if your hands will be in wet snow or rain for extended periods. Most heated gloves use at least a water-resistant shell, which is decent but not great. If you're skiing, snowboarding, hunting, or anything else that has you outside for extended periods in the cold wetness of winter, find gloves explicitly labeled "waterproof". Also, check the cuff design. Gloves with those big gauntlet cuffs and cinch straps help seal out the snow.

3. Heat Output and Battery Life

The overall heat output tracked roughly with the price point. More expensive gloves got hotter. The Gerbing 7V gloves report peaking around 135°F. The Seirus HeatTouch Hellfire Mitt also gets exceptionally warm.

Among the gloves we reviewed, there was actually not a huge variance in battery life. All except the Eddie Bauer Guide Pro Smart Gloves had 3-4 heat settings. As you might expect, the lowest settings yielded the lowest battery runtimes, and the hottest settings burned through the batteries the fastest. All of them ran about 2-8 hours, except the standout Seirus HeatTouch Hellfire Mitt, which ran for up to 12 hours.

4. Fit: Snugness vs. Dexterity

Every element added to the glove—heating wires, insulation, battery pouch—adds bulk and reduces flexibility. If you're planning on tasks that require dexterity, like working with tools or something similar, look for less bulky gloves or heated liners. Our favorite liners, the Savior Heat gloves, were fantastic, but they do sacrifice some warmth. Proper fit is also key. The glove should be snug but not tight. You want a little room at the fingertips because a little bit of an air gap helps with insulation. All the reputable brands offer a sizing chart on their website.

5. Gloves vs. Mittens vs. Glove Liners

When it comes to gloves versus mittens, it's a question of warmth and dexterity. There's no question that mittens are warmer. When your fingers are grouped together, they can share the heat. When separated, they cool much faster. But plenty of tasks require the dexterity that only gloves can offer. That's what makes heated gloves so compelling—they satisfy both warmth.anddexterity needs.

To clarify on gloves versus liners, most of the gloves on this list are thick and come with an interior lining (sometimes removable). The heating elements live between the lining and the shell. One brand, the Savior Heat, is itself just a thin liner—albeit a liner with battery-powered heating elements—and is intended to be worn under a waterproof shell.

6. Maintenance: Cleaning and Battery Care

Don't forget the practical part: batteries and cleaning. Most good heated gloves use rechargeable lithium-ion battery packs. Make sure to check how they charge and if you have all the cables you'll need. If you'll be traveling or on the go, a power bank might be handy, but make sure it's compatible. Also, note the position of the battery pocket on the glove itself. It will be on the wrist or cuff most of the time. A well-placed battery won't interfere with movement or your sleeves.

The gloves will also get dirty, of course. Make sure to read the cleaning instructions before you throw them away or cut the care tag off the gloves. Most heated gloves are not machine washable. They're spot-clean only.

Heated Gloves FAQ

How long do heated glove batteries last?

Battery performance varies by model and heat setting. On the highest heat, most gloves last around 2-3 hours. On the lowest heat, many can last 6 to 8 hours. The Seirus HeatTouch Hellfire lasts 12 hours. The battery life depends on the capacity and how efficient the gloves are. Cold weather can also shorten runtime, because batteries drain faster in low temperatures. Always fully charge gloves before use. And remember that over a couple of years, battery capacity will gradually be reduced. They simply won't hold as much charge anymore.

How warm do heated gloves actually get?

On the highest setting, good heated gloves can get quite warm, somewhere between 120°F and 150°F (49°C – 66°C). That may sound too hot, but you won’t necessarily feel the full temperature through all the insulation. The heating elements are also fighting against the chill of the surrounding winter air. It’s best to start on the High temperature setting when you first go out in the cold, so they heat up quickly. Then, turn them down to Medium or Low to avoid sweating. (Sweating is bad, sometimes even dangerous, in cold weather.)

Are heated gloves safe if they get wet?

Generally, yes, high-quality heated gloves from known brands are safe when they get wet. But that's a qualified statement, and some caution is warranted.

Sadly, there are a lot of shady brands in the world of batteries. When shopping for anything battery-operated—and especially something you're wearing and potentially getting wet—go with the name brands. Find recommendations from experts like us or forums or wherever you find your expertise. If you find suspiciously cheap heated gloves, there's probably a reason. Skip them.

Well-made heated gloves are designed with waterproof or water-resistant components, so light moisture won't cause any safety issues. The electrical elements are insulated, and the batteries are sealed. If, however, a heated glove gets fully soaked, you should turn it off and let it dry out completely before using it again, just to be safe.

Always, always use the manufacturer's battery and charger. Don't substitute batteries that aren't exact matches. Never settle for batteries that look "kind of" similar! And remember to remove the batteries before washing or if you'll store the gloves for a long time. As long as you follow the instructions, heated gloves are built to be safe in typical winter conditions. After all, they're meant for outdoor use!

Can I wash heated gloves?

It varies. Check the manual or the care labels to see the correct washing instructions for your exact pair of gloves or mittens. Most are spot-clean only, meaning you can wipe them down with a damp cloth, but not put them in a washing machine or dryer.

Never put lithium batteries in the washer or dryer. Remove the battery packs before cleaning. If your gloves develop an odor, hand-washing gently with mild soap and air drying is usually the safest approach (again, with batteries removed).

Why trust Reviewed?

Our mission is to help you buy the best stuff and love what you own. Reviewed has tested outdoor gear and style products for more than a decade. For this guide on best heated gloves, our product experts drew from personal experience and testing, user reviews, and insights from reputable sources. Some of our outside sources included:

  • Travel & Leisure
  • Ski / Outside
  • Outdoor Life
  • Good Housekeeping
  • The Best Gloves for Neuropathy of 2025: If you have Raynaud's or neuropathy and need gentler warmth and compression, check out our picks for neuropathy-friendly gloves. These specialized gloves can help with pain relief and blood flow.

  • The Best Socks for Neuropathy of 2025: Don't forget your feet! Our guide to neuropathy socks covers ultra-warm and supportive socks that can complement heated gloves in keeping extremities warm.

  • The Best Winter Boots for Women of 2025: Pair your heated gloves with top-tested winter boots. We've reviewed insulated, waterproof boots to keep your feet just as cozy as your hands during winter outings.

  • The Best Men's Winter Boots of 2025: More great boots, this time for the guys.