Lead Acid – The Neurotoxic Rube Goldberg Machine of Energy Storage

For both our employees and community, I want to address the health, safety, and environmental problems with Lead Acid.  The single-biggest environmental issue with Lead-acid batteries involves the Lead component of the battery. Lead is a heavy metal with dangerous health impacts. Ingestion of Lead is especially dangerous for young children because their brains are still developing and Lead is a neurotoxin. Historically, sources included Leaded gasoline, Lead-based paints, and tin/Lead solder used in electronics manufacturing, pipes, and building construction, but those have largely been eliminated over the years. According to the World Health Organization (WHO), today around 85% of the world’s Lead consumption is for the production of Lead Acid batteries.

To mitigate the risk of the toxic impact, the often-cited claim is that Lead-acid batteries are 99% recyclable. However, Lead exposure that takes place during the mining and processing of the Lead, as well as during the recycling steps is the very source of environmental contamination and human exposure. There are many places where the process is poorly controlled often carried out without the necessary processes and technologies to control Lead emissions.

The California Department of Toxic Substances Control (DTSC) has written extensively on the case of Exide Technologies, a Lead-acid battery manufacturing company. Exide had to close down a large battery recycling plant in California after it failed to meet emission controls and waste management standards. California regulators believe as many as 10,000 homes could be contaminated with Lead from the plant. The cleanup will take many years and cost hundreds of millions of dollars. As a business, Exide has gone through multiple bankruptcies due the environmental impact cost of Lead. Battery recycling plants in other states have also been cited for contaminating the environment with Lead.

The WHO has reported cases where contamination from Lead-acid battery recycling resulted in a number of negative health effects — including the harm to children. Thus, while the 99% recycling claim sounds impressive, it understates the problem of Lead contamination via the recycling process. The situation would be much worse if these batteries are not recycled, as a single Lead acid battery in a landfill has the potential to contaminate a large area and cause harm to thousands of people. The health, safety, and environmental risk of Lead recycling far outweighs the benefit, particularly now that Lithium offers a clean, safe, and cost-effective alternative. From a productivity point of view, distribution centers that use electric lift trucks go through so many complicated steps to make Lead Acid work, including:

  • Battery change rooms
  • Extra batteries needed to support high volume operations
  • Safety equipment for acid spills (spill kits, eye wash, protective clothing and PPE)
  • Blood testing of employees for Lead poisoning
  • Watering
  • Equalizing
  • Fumes
  • Long charge times, waiting, and down time
  • Maintenance on the added equipment and process steps
  • Inaccurate fuel gauges and unknown cycle life due to deep discharge effects

With our customers, this means providing clean reliable energy storage and motive power for industrial applications.  The complexity of the process to make Lead Acid batteries work would make any Rube Goldberg Machine maker proud. This “machine” concept is named after the American cartoonist Rube Goldberg, whose cartoons 100 years ago often depicted devices that performed simple tasks in indirect convoluted ways. It’s well past time for Lead Acid to have a place in the real world of industrial energy storage and motive power applications.  It’s time to get the Lead out of batteries and the contamination of our environment from the Lead recycling process. It’s time to move to Lithium SafeFlex and the opportunity to realize the benefits of clean, reliable, innovation.

Keith Washington – CEO

Power Electronics News: Avoid the Top 3 Issues UPS Designers Encounter when Upgrading to Lithium

Designing a lithium-based battery backup system for a Telecom or Data Center application presents new and different challenges compared to a traditional VRLA design. Balancing the flow of energy in and out of the battery bank is a critical design parameter. Designers must ensure that power is available under all conditions and optimize the performance of the batteries at the same time. There are 3 main issues designers encounter when designing lithium battery-based systems.

This article presents 3 common issues designers face when making the shift to lithium, and how Green Cubes has developed a patent pending Energy Balance Technology (EBT) to solve these challenges, reduce costs and optimize the use of lithium-ion batteries in UPS applications.

Read the full article in Power Electronics News

As Seen in EE Power! DC Power Considerations for 5G Systems

As 5G continues its rollout, there are many considerations for configuring optimum DC power systems that are crucial for 5G’s infrastructure success. In this article, our John Ely, discusses how highly reliable, robust and scalable DC power systems are required to solve complex power challenges.  Click on the EE Power logo to read the full article.

 

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Find out more about our solutions in our Telecom/Datacom brochure.

 

 

 

 

 

AviationPros: Green Achievements in GSE

As several factors across the industry are driving the adoption of electric ground support equipment, many manufacturers are finding success within this segment.

The FAA recently awarded more than $20 million in grants to reduce emissions and improve air quality at airports across the country.

The awards are intended to fund zero-emission airport vehicles as well as electric charging infrastructure and aim to electrify ground support equipment (GSE).

This funding is among the latest initiatives prompting the adoption of electric ground support equipment (eGSE). Environmental goals established by governments, industry organizations, airports, airlines, and individual ground service providers are also lending themselves to eGSE.

With a focus on reducing ground emissions on the ramp, many manufacturers across the market are finding solutions to benefit the GSE industry.

Read the complete article in AviationPros

Data Center Dynamics: How Does Temperature Affect Your Choice of Lithium UPS Battery?

Choose your chemistry wisely, to avoid thermal runaway, and get the performance you need

Industrial rack-mounted uninterruptible power supplies (UPSs) are used in data centers or telecom central offices to provide backup power for servers and switching equipment in the event of failure. Historically, these UPS’s have relied on Lead Acid as the predominant battery type. With the introduction of the Open Compute Project (OCP) initiative and hyperscale data centers, Lithium-ion batteries are gaining market share over the incumbent Lead Acid battery technology.

This article presents some of the thermal considerations and trade-offs when selecting a Lithium-ion UPS system to complement your data center equipment. There are two available chemistry options Lithium Iron Phosphate (LFP) and Lithium Nickel Manganese Cobalt Oxide (NMC). Operators need to consider expected discharge time, active versus passive cooling, options for scalability, and the expected lifetime of the batteries.

Read the full article in Data Center Dynamics