Data Center Power Disruptions are Expensive — The Right Batteries Can Prevent Them

January 9, 2023
A row of ZincFive BC UPS Battery Cabinets with ZincFive nickel-zinc batteries revealed

In today’s highly digitized economy, businesses and corporations are increasingly relying on data centers to connect them to customers, partners, and other sources of revenue.

As a result, the cost of data center outages is rising, with a quarter of data center operators responding to an Uptime Institute survey stating that their most recent downtime incident cost them over one million dollars in both direct and indirect costs. Power disruptions are the biggest cause of these outages, and their prevention continues to be a priority for the industry.

According to Uptime Institute, 80% of surveyed data center managers and operators said their organizations have experienced outages in the past three years. Power disruptions account for 43% of data center outages, with onsite system failures — specifically uninterruptible power supply (UPS) failures — being the most common cause of incident. In response to these and other sources of outages, 40% of survey respondents have increased redundancy levels in their data centers in the past three to five years. The batteries that are at the core of these backup power systems play a vital role in supporting data center uptime, meaning the right choice in chemistry type is crucial to ensuring the effectiveness of these redundancy investments. The right battery can be the reason expensive disruptions and repairs are avoided.

How the right UPS batteries can prevent power failures

Most UPS systems contain backup batteries that are expected to perform reliably under any circumstances. UPS batteries are typically arranged in paralleled strings to provide adequate power and run time to the UPS in the event of an outage. If any single cell in one of these batteries fails, the battery string may not operate, putting it at risk of being unable to supply enough power and/or run time when an outage occurs.

This kind of internal failure produces an open circuit in lead-acid and lithium-ion batteries, which can halt string operation. The resulting emergency situation requires an immediate service visit to replace the faulty battery components and can be exceptionally costly.  The worst-case scenario is if the battery string fails while discharging during a critical outage event.

Luckily for data centers, more resilient battery options — particularly nickel-zinc (NiZn) chemistries — are now broadly available. Contrary to incumbent UPS battery types, when a NiZn cell becomes weak or depleted, it remains conductive, allowing the rest of the battery string to continue operating. This drastically reduces the risk of battery downtime, protecting data centers from costly outages and emergency equipment replacements.

NiZn batteries also tolerate string failure to a much greater degree, meaning that if one battery cabinet in a system goes offline — for whatever reason — the remaining strings can continue to operate at elevated currents. Lithium-ion batteries, in contrast, have hard current limits that would prevent this flexibility in a typical installation.

Other Reliability Benefits of Nickel-Zinc Battery Technology

NiZn and lithium-ion batteries boast impressive 10-15 year lifespans, well above (2-3x) that of lead-acid technology. Additionally, unlike lead acid, NiZn has an inherently low internal resistance and very low impedance rise over time. Because of these valuable attributes, NiZn batteries can sustain higher current discharges and support these higher currents for the entirety of their operational lives.

For more prolonged power outages — from hours to days or even weeks — diesel generators remain the go-to solution for temporary power production. These generators, however, require batteries to crank and start. For this purpose, starter batteries with high current discharge capability like NiZn allows for better generator reliability. The battery voltage drop stays constant despite the state of health, ensuring constant delivery of powerful starting performance.

NiZn batteries are stable, safe, and feature long lifespans with little-to-no maintenance necessary. By supporting the backup generators that are required beyond the UPS system, NiZn technology for generator starting offers another level of data center operational resiliency.

NiZn Batteries Keep Data Centers Up and Running

The unique properties of NiZn technology prevent string and generator starter battery failures, helping data centers avoid costly outages while maintaining service reliability. In addition to its reliability, nickel-zinc batteries boast a smaller footprint, improved sustainability, and increased safety, making them the ideal choice for data center operators that want to put an end to expensive, disruptive outages.

Previously published by Data Center Frontier

Author
Steve Jennings, ZincFive SR VP Sales & Marketing
Steve Jennings
Sr. VP Sales & Marketing, ZincFive
Steve leads the ZincFive sales and marketing team and brings senior executive experience in technology companies serving the energy, clean tech, communications, computing and semiconductor industries. Steve and his team are focused on providing superior performing, safer and greener energy storage solutions based on nickel-zinc batteries to mission critical applications in the data center, IT and intelligent transportation markets.
Tags:
  • nickel-zinc, 
  • power battery, 
  • reliability, 
  • safety, 
  • sustainability

4 ways nickel-zinc batteries can save data centers money

December 1, 2022
A row of ZincFive BC UPS Battery Cabinets

Data center operators face continual pressure to deliver more with less: to improve data centers’ reliability, safety, and sustainability, all while working under economic constraints.

In this attempt, many have overlooked the uninterruptible power supply (UPS) system – but now that thoroughly tested nickel-zinc (NiZn) batteries have proven themselves on the market, they offer an opportunity to deliver all three benefits in one cost-effective package.

These batteries improve data centers’ reliability, sustainability, and safety, all while simultaneously delivering cost savings. Here’s how:

1. Smaller battery footprint = Reduced infrastructure costs

Space is at a premium in data centers, as precious square footage is prioritized for profit-making equipment such as data storage and servers. For infrastructure such as UPS systems, the less space they take up, the better.

This is where nickel-zinc batteries shine. They’re the highest power density batteries available for data centers, with about twice the power density of lead-acid batteries (the most common form of backup battery). This gives them the ability to support a large power demand for a short period of time, with a small footprint.

During a typical data center outage, the generator comes online in under a minute and supports the data center for the length of the outage, so the UPS battery is only required to transition the data center from utility to generator-supported operation.

A NiZn battery system nearly halves the space needed for batteries compared to traditional lead-acid and newer lithium ion solutions.

Nickel-zinc batteries’ smaller size and weight delivers multiple financial benefits because they not only open up more floor space for revenue-generating equipment, but also lower the capital cost of building data centers by reducing the space needed for battery storage.

2. Greater reliability = Fewer maintenance costs

Nickel-zinc batteries’ financial advantages go beyond a smaller space footprint: their greater reliability can save data centers hundreds of thousands of dollars.

This is because UPS failures are tied to expensive outages. Research from The Uptime Institute has found that outages are becoming longer and more costly, with one in five organizations reportedly experiencing a significant outage in the past three years.

However, 43 percent of outages in a data center are caused by the failure of the UPS system itself. Lead-acid batteries are often the culprits: they fail open or with a high impedance path, which prevents the battery from supporting the critical UPS load.

Nickel-zinc batteries’ greater reliability makes them ideal replacements for lead-acid batteries. First, they’re better suited to endure stress, especially varying temperatures. Second, their alkaline chemistry means that unlike lead-acid batteries, they do not sulfate over time. This extends their operating life to fifteen years – three times as long as lead-acid batteries’ lifespan.

Third, nickel-zinc batteries improve battery string reliability. When a cell in lead-acid or lithium batteries fails, it creates an open circuit that halts string operation. This results in two unwelcome scenarios: power backup failure for the entire battery string, and the operator having to pay for an expensive emergency maintenance event.

In contrast, a weak or depleted cell in a nickel-zinc battery remains conductive, which means the battery continues to discharge and carry the load. This means all that’s needed in the case of a weak or depleted NiZn cell is a simple battery replacement at the next planned maintenance cycle: little cost, and no operational impact.

Due to their greater resilience against environmental stressors, extended lifespan, and battery string reliability, nickel-zinc batteries help data centers protect themselves against the high costs of power backup failures.

3. Safer battery chemistry = Lower infrastructure, shipping and installation costs

Compared to lead-acid and lithium chemistries, nickel-zinc batteries’ greater safety lowers energy storage infrastructure as well as costs for battery shipping and installation. This safety stems from their non-toxic materials, lower shipping weight, lack of thermal runaway, no transportation restrictions, and ability to ship in energy storage systems completely assembled.

These characteristics make them easily shippable, with no special safety provisions needed – unlike shipping for lithium batteries, which have the potential for thermal runaway and require additional precautions and related expenses.

Once shipped, nickel-zinc batteries are also easily installed in both traditional and modular data centers. Due to their inflammable nature, they need no protective equipment, which reduces safety-related construction costs compared to the other battery types. Some battery cabinets also allow NiZn batteries to act as a drop-in replacement for lead-acid batteries, which lowers the barriers to replacing lead-acid with NiZn batteries.

4. Attract more customers with greater sustainability

Boundless Impact Research and Analytics carried out a Climate Impact Profile comparing the environmental impact of different backup battery chemistries, providing excellent information for data centers and their customers as they report Scope 3 emissions.

This profile revealed nickel-zinc batteries’ significantly lower impact on the environment across all six metrics of a battery life cycle analysis: carbon return on purchase (CROP), greenhouse gas (GHG) emissions, carbon payback time (CPT), volatile organic compounds (VOCs), water footprint, and energy footprint.

Put together, these environmentally friendly characteristics give nickel-zinc batteries the highest score for sustainability: 9.4 out of a possible 10.

Data center users are under pressure – and are increasing pressure on their data center operators – to report and reduce their impact on the environment. By offering an avenue to contribute towards sustainability goals, data centers can attract more customers and investors through their advantages in terms of environmental impact.

The (financial) power of good chemistry

Nickel-zinc UPS battery chemistries outperform lead-acid and lithium-ion solutions in performance, space footprint, reliability, safety, sustainability, and – as a result of these – cost effectiveness.

Their characteristics free up data center space and budgets for developing new capacity and services. These advantages change UPS and battery backup from a mere necessary overhead, into an opportunity to improve financial performance.

This post originally appeared in Data Center Dynamics

Tags:
  • batteries, 
  • data centers, 
  • nickel-zinc, 
  • reliability, 
  • safety, 
  • sustainability

Batteries and Cooling Combine for Data Center Sustainability

November 21, 2022
ZincFive nickel-zinc monobloc batteries inside our BC Series UPS Battery Cabinet

For data center operators, the challenge of mitigating high temperatures is all too familiar. Critical electronic and electrical components, such as servers and uninterruptible power supply (UPS) systems, generate high amounts of heat, raising the temperature of the rooms they’re housed in. Unfortunately, these high temperatures can result in shortened equipment lifespan, safety issues, and voided product warranties.

Recommended operating temperatures for data center server rooms range from 60 and 82°F (16 to 28°C), with the optimal temperatures for newer servers near the high end of this range. In contrast, lead-acid batteries require a battery temperature of approximately 77°F (25°C), with no potential for reduced cooling levels through higher operating temperatures.

This limitation has become particularly challenging, as the frequency and severity of high temperature weather events has been increasing due to climate change. High temperatures can even result in outages, which can directly cripple various critical operations that rely on the data these facilities manage. As a result, data centers dedicate large amounts of their operating budgets towards facility cooling, and on average, 40% of a data center’s energy consumption goes into powering its cooling and ventilation systems.

Strategies taken by data centers to keep temperatures down include the optimization of cool airflow and the use of liquid cooling. Some data centers operate in low temperature, mountainous regions — such as the Wyoming Hyperscale White Box Aspen Mountain project. The geography of such a data center lends itself to cost effective cooling techniques but is not a universally available solution.

Battery chemistries that allow for higher operating temperatures offer reduced cooling needs, resulting in energy savings. In many cases, the UPS is rated to operate at up to 113°F (45°C), but the battery operating temperature limits the ability to increase temperature and reduce cooling costs in that space. Fortunately, some alternative battery chemistries for UPS systems can tolerate higher temperatures, thus providing an opportunity to reduce cooling costs and improve Power Usage Effectiveness (PUE) and sustainability.

While traditional lead-acid battery solutions often limit temperatures to 77°F (25°C), alternative battery chemistries such as lithium-based and nickel-zinc have a higher ambient operating temperature range – and longer lifespans as well. Modern lithium-based batteries can operate up to 82-86°F (28-30°C). Nickel-zinc batteries offer the highest operating temperatures of popular battery chemistries in the data center market today, with a maximum limit of 95°F (35°C) for regular operation. Some nickel-zinc batteries’ warranty terms even allow for temperature excursions up to 122°F (50°C) for up to 5% of their operating life. This allowance for excursions to high temperatures assures owners that the battery warranty remains valid in the case of a cooling system breakdown and a temporary increase in ambient temperature.

These alternative batteries provide data center operators with the opportunity for increased operating temperature and cooling cost reductions without impacting the UPS. In particular, the higher operating temperature batteries such as nickel-zinc are often the safest, with no risk of thermal runaway. They also can offer additional benefits in terms of reliability and total cost of ownership.

The strategy of operating at higher temperatures with alternative battery powered UPS systems is most effective in prefabricated modular data center systems (PMDCs). In this design approach, prefabricated units are assembled together and outfitted with preselected, preconfigured equipment. A recent survey of 228 data center executives found that over half had already deployed PMDCs, while 99% shared that they have plans to use modular data center designs in the coming years.

As part of the increased use of PMDCs, UPS and battery systems are being positioned in containerized systems outside of the main data center facility. These modular designs pose an opportunity to create climate specific rooms for the UPS and battery systems themselves. By utilizing alternative batteries, these rooms can operate at higher temperatures and offer the combined benefits of lower CapEx for lower capacity cooling systems, and reduced OpEx over the life of the system. As high temperature events increase in frequency due to climate change, investing in battery systems that can withstand harsher environments in 10-15 years is a distinct advantage for facilities being built today.

Temperature flexibility in the battery and UPS space of data centers is an emerging strategy that has become possible thanks to the availability of alternative battery technologies. As these strategies are adopted, data centers can reduce cooling system investments, save on cooling costs over the system’s lifetime, and improve the PUE, sustainability, reliability and safety of their operations.

This post originally appeared in Data Center Frontier

Tags:
  • batteries, 
  • cooling, 
  • nickel-zinc, 
  • sustainability

The Powerful Benefits of Nickel-Zinc Batteries for Data Centers

October 31, 2022
BC UPS Battery Cabinet with door open showcasing nickel-zinc batteries which are safe, powerful, reliable and sustainable

Data centers contain all the information on which internet activities rely, forming the bedrock supporting our increasingly connected world. As a result, any data center power outage – no matter how short – can have a catastrophic impact on operations around the globe. That’s why reliable backup power matters so much.

But while data center operators need to meet this challenge of reliability, it’s far from the only factor they must consider. Data centers are also under pressure to manage costs, meet sustainability goals, and reduce space – especially as facilities increasingly move to urban environments.

Fortunately, there’s a way to address all these challenges at once. Switching out lead-acid and lithium-ion backup batteries for nickel-zinc batteries increases reliability, safety, and sustainability while simultaneously lowering costs and space requirements.

Nickel-zinc batteries’ crucial role in data center reliability

Since even a few seconds of data center downtime can disrupt operations around the world, uninterruptible power supply (UPS) systems are essential to maintain uptime during a power outage.

Unfortunately, the very system meant to prevent an outage too often causes one; accounting for 37 percent of data center outages, on-site power failure is still the most common cause of significant data center outages. The majority of these on-site outages (53 percent) are caused by UPS failure, and often cost over $100,000 to repair.

Thus, UPS systems must contain backup batteries that perform reliably under any circumstances. UPS batteries must perform in paralleled strings to provide adequate power and run time to the UPS in the event of an outage. If any single cell in one of these batteries fails, the battery string does not operate, making the data center’s UPS unable to supply enough power and/or run time when an outage occurs.

However, cells in nickel-zinc batteries remain conductive even if weakened or depleted. This allows the battery string to continue operating and makes what would otherwise be an emergency into a simple note for replacement at the next planned maintenance cycle – no added maintenance costs or operational impact.

In the meantime, the data center’s UPS can still provide adequate power and run time to the data center if an outage occurs. This characteristic makes nickel-zinc batteries a strong option on the market for maintaining uptime and preventing costly outages.

Also, battery reliability can only last as long as the battery itself. With a 10-15 year operating life, nickel-zinc batteries have at least twice the lifespan of lead-acid batteries and one similar to lithium batteries. For example, ZincFive’s nickel-zinc batteries are designed to have a lifespan of 15 years and come with a ten-year warranty.

Nickel-zinc: More space, more profits

In addition to being more reliable, nickel-zinc batteries are also more power-dense than either lithium or lead batteries. Over a short time frame, they can discharge over twice the power that leading lithium-ion batteries would provide.

This makes them the ideal option for a data center UPS, whose goal is to keep the entire data center running temporarily until utility power returns or backup generators take on the power load.

Because of the power density of nickel-zinc batteries, fewer battery cabinets are required to support large UPS solutions. A mere four ZincFive battery cabinets provide an equivalent runtime at a megawatt of UPS as five lithium-ion cabinets or six lead-acid cabinets.

This frees up room in the data center for more revenue-generating hardware such as servers and storage, increasing the center’s profits as well as its reliability. In addition, the spacing requirements required by the NFPA for other chemistries is not required for chemistries that are inherently non-flammable like nickel-zinc.

Nickel-zinc helps sustainability & ESG goals

Organizations are under pressure – and are increasing pressure on their data centers – to report and reduce their impact on the environment. Boundless Impact Research and Analytics carried out a Climate Impact Profile comparing the environmental impact of different backup battery chemistries, providing excellent information for data centers and their customers as they report Scope 3 emissions.

This profile revealed nickel-zinc batteries’ significantly lower impact on the environment across all six metrics of a battery life cycle analysis: carbon return on purchase (CROP), greenhouse gas (GHG) emissions, carbon payback time (CPT), volatile organic compounds (VOCs), water footprint, and energy footprint.

From the beginning of their lifecycle, nickel and zinc production are less harmful than lithium and lead production. They are respectively four and five times more abundant in the earth’s crust, and don’t require as environmentally harmful a mining process.

Nickel-zinc batteries’ life cycle GHG emissions are four times lower than lead-acid batteries’, and six times lower than lithium-ion batteries’. Their carbon payback time – the time required for emissions savings from the product’s use to offset the GHG from its production – is a mere 25 percent of lithium-ion and lead-acid batteries’ payback time.

In addition, both lead and lithium batteries use VOC’s (volatile organic compounds) in their production. These cause both short and long-term health problems, in addition to those caused by accidental lead exposure. In contrast, nickel-zinc batteries contain no VOC’s or other toxic elements. They can be used and recycled without dangerous exposure.

The Climate Impact Profile also reveals that over their lifetime, nickel-zinc batteries use 96 percent less water than lithium batteries and about 22-33 percent less energy than lithium and lead-acid batteries.

Put together, these environmentally friendly characteristics give nickel-zinc batteries the highest score for sustainability: 9.4 out of 10. That’s why sustainable data center Wyoming Hyperscale White Box chose ZincFive’s nickel-zinc batteries for its UPS needs. In addition, it’s worth noting that modular data centers are also good for the environment.

Safer data centers with nickel-zinc

In terms of safety, nickel-zinc technology has clear advantages over lead-acid and lithium-ion batteries. Unlike nickel-zinc, both of the latter include harmful VOC’s in their production and contain toxic chemicals that make handling and recycling them difficult.

Nickel-zinc batteries are non-toxic, nonflammable, and fail-safe. They do not exhibit thermal runaway, as proven through testing ZincFive’s batteries using the Underwriters Laboratories UL 9540A test method, and can withstand higher temperatures than lithium-ion. This makes them easier and safer to handle and ship, as well as guaranteeing more reliable performance.

ZincFive battery cabinets: An easy drop-in replacement

While nickel-zinc batteries’ characteristics give data centers more than enough reason to make the switch from lead-acid, one challenge often stands in the way – but with ZincFive’s BC Series UPS Battery Cabinets, it doesn’t have to.

The challenge comes from the large installed base of UPS systems designed to charge only lead-acid batteries. Since every battery chemistry has a different charge profile, getting most alternative battery types to charge in those UPS systems requires a costly and time-consuming reengineering process.

However, ZincFive’s battery cabinets negate this obstacle; it is the first BESS that allows nickel-zinc batteries to perform in an existing UPS system without the time and expense of additional modifications.

The battery cabinet’s intelligent charging system utilizes the existing lead-acid charging profile to fully charge the nickel-zinc battery, giving them backwards/forwards compatibility with systems originally designed for lead-acid solutions. This drop-in replacement allows data centers to easily harness the benefits of ZincFive’s nickel-zinc batteries.

‘The Power of Good Chemistry’: A reliable, sustainable, safe UPS energy storage system

When lithium-ion entered the data center market, its performance triggered a migration away from its lead-acid counterparts.

But as lithium-ion’s safety, reliability, and sustainability issues surface, nickel-zinc chemistry has proven ideal to solve those concerns while delivering an even smaller footprint. Nickel-zinc battery-powered technology offers high performance, market success, and many proven improvements on previous backup technologies.

When it comes to your relationship with the batteries in your facility, never underestimate ‘The Power of Good Chemistry.’

This post originally appeared in Data Center Dynamics.

Tags:
  • high power density, 
  • reliability, 
  • safety, 
  • sustainability

Why Modular Data Centers are Good for the Environment

October 24, 2022
The manufacturing of containerized/modular data centers

When it comes to data, what was once novel is now typical – the internet-of-things, artificial intelligence, and cloud computing, just to name a few. A similar pattern shows up in data centers, where concepts once seen as novel and emerging are now becoming more commonplace. One such example is the rapid growth in adoption of prefabricated modular data center systems (PMDCs).

A recent survey of 228 data center executives found that over half had already deployed PMDCs, while 99% shared that they have plans to use modular data center designs in the coming years. PMDCs clearly have momentum, bringing with them multiple benefits including the opportunity to enhance operational sustainability.

What is a Modular Data Center?

Modular data centers refer to a design approach where prefabricated units are assembled together and outfitted with preselected, preconfigured equipment. This approach allows more flexibility in location and timing, and easier as-needed scaling and replacement of the center’s equipment and systems over time. For power infrastructure this includes components and systems like rack systems, cables, cooling systems and uninterruptible power supplies (UPSs).


Conventional vs. Modular

Conventional data center deployments are limited by a fixed design and construction approach, leading to long development timelines and low resource density. Any expansion, equipment change, or upgrade triggers multiplying challenges and complications—even a small change can cause systemic, center-wide adjustments and risk disruption. This approach is defined by its rigidity.

In contrast, modular data centers offer flexibility and customization, boasting:

  • Location flexibility: Modular data centers can deploy in nearly any geographical location and avoid some of the more complicated aspects of traditional construction such as labor, transportation, and material constraints.
  • Scalability: Modular designs allow for elements to be added over time and as needed, aligning realistically and in real-time with capital and operational resources, and decreasing the potential for a site to have underutilized or completely unused equipment that still must be operated and maintained.
  • Faster and more cost-effective construction; better quality: Conventional data centers rely on sequential coordination of permitting, engineering, site prep, and construction tasks. Any hiccup can bring the project to a halt. Modular is a specific design and a known quality level. Things are built and tested in the factory vs. being built in the field by a different individual or electrical contractor at potentially each building or location. This allows for more consistent quality and lower cost.
  • Greater customization: By nature, modular data centers are thoroughly customizable. In the way that car buyers can select upgrades to their sound system or comfort features, data center owners can mix and match components to meet their needs and adapt to cost, space, and other considerations.

A Catalyst for Sustainability

In addition to the benefits listed above, PMDCs also provide sustainability benefits. A modular design supports sustainable construction and operation of a data center, since components are only added when needed.

Increased demands for scope 3 emissions transparency are gaining momentum, driven by pressure from investors, regulators and the general public. Data centers who stay ahead of the competition in reporting and addressing scope 3 emissions will attract customers and investors who are seeking comprehensive disclosure and commitments to sustainability. This not only applies to the sustainability of the data center companies themselves, but to the climate impact of the customers who utilize these data centers as part of their operations, such as with colocation facilities.

An example of an opportunity for data centers to reduce their climate impact is through their UPS batteries. Alternative battery chemistries such as nickel-zinc have shown advantages across a myriad of sustainability metrics, and offer users a method of minimizing their supply chain impacts and overall container material due to a battery system footprint reduction compared to other chemistries. PMDCs offer a greater opportunity to implement and enjoy such sustainability benefits.

As modular data centers emerge as a common design practice, this approach offers opportunities for the whole industry to benefit. Organizations are already taking advantage of cost savings, locational flexibility, and quicker construction periods; by also capitalizing on the opportunities to improve operational sustainability, the data center industry can ensure that PMDCs bring with them a positive impact for all.

This post originally appeared in Data Center Frontier

Images Credit: Integra Mission Critical

Author
Tod Higinbotham, ZincFive CEO
Tod Higinbotham
CEO, ZincFive
Tod has a strong track record of successfully growing advanced materials companies in the energy storage, semiconductor, and solar markets. He served as Executive VP/GM for ATMI and led the rapid growth of the company, which sold more than $1 billion. Tod was an executive member of the leadership team at Advanced Silicon Materials, a world leader in high-purity silicon materials, the business that was sold to REC to form their solar materials business. He was formerly the CEO of PowerGenix, the company that pioneered the novel nickel-zinc battery technology that has become the core of ZincFive’s solution portfolio.
Tags:
  • data centers, 
  • modular, 
  • nickel-zinc, 
  • sustainability

5 Benefits of ZincFive Nickel-Zinc Batteries

September 7, 2022
ZincFive nickel-zinc monobloc & cyclinderical batteries that are safe, powerful, reliable and sustainable

Our electrified world demands safe, sustainable battery storage to maintain mission-critical applications like data centers and aviation. Zinc battery chemistry is a game changer for the energy space. Nickel-zinc (NiZn) batteries are the powerful, reliable, and safe choice for the future. In addition, as sustainability becomes a top priority across major markets and corporations, zinc battery technology emerges as the new “power player”, challenging its predecessors lead-acid and lithium-ion.

Here are five main reasons why we can safely make this strong statement:

  1. Higher power and smaller footprint: Nickel-zinc batteries have twice the power density of lead-acid batteries. For the same level of backup power, nickel-zinc is about half the size and half the weight. This shrinks your energy storage footprint so your can plate more batteries wherever they are needed. High power density means rapid charge and discharge rates so you can power the data center, capture renewable energy, control peak loads, and rapidly charge EVs.
  2. Reliability: Nickel-zinc batteries are reliable, they can take the heat, with their wide operating temperature range. Plus, an operating life up to three times longer than a lead-acid battery. Even a bad cell won’t stop a nickel-zinc battery from discharging, unlike lead-acid and lithium-ion batteries where a single cell failure, for example, can disable a storage system.
  3. Safety: While lead exposure is a global health concern and lithium’s reactivity to air and water makes it a fire hazard, nickel-zinc batteries are safe, non-toxic and non-flammable (they don’t exhibit thermal runaway). They can reliably deliver more power faster, at high temperatures, and do it safely, year after year. This means less protection, lower costs, and, most importantly, peace of mind.
  4. Sustainability: Nickel-zinc batteries are sustainable. They use common, highly available, conflict-free materials which are also highly recyclable. Nickel and zinc are four and five times more abundant in the earth’s crust, respectively, than lithium and lead. A third party expert analysis supports the sustainability claims. One of the leaders in innovation and delivery of nickel-zinc batteries, ZincFive, has partnered with an independent firm to conduct this analysis to demonstrate that nickel-zinc batteries have a significantly lower end-to-end climate impact than lead-acid and lithium batteries. As evident by the data in the report, nickel-zinc batteries ranked higher than lead-acid and lithium-ion chemistries in several criteria including avoided greenhouse gases (GHGs), carbon return on purchase and carbon payback time.
  5. Scalable: Using a sustainable supply chain also makes a technology more scalable. More common elements = more scalability. This means the ability to scale up deployment of production factories in less time. The technology can be produced using manufacturing lines already producing similar chemistries.

To sum it up, with long life, reliable operation and low maintenance, nickel-zinc batteries can lower the total cost of ownership, safely reduce energy storage footprint, all while maintaining complete safety and helping the environment.

Learn more about how nickel-zinc batteries and power solution redefine immediate power for data centers, intelligent transportation systems, industrial engine starting, information technology, microgrid and EV charging, and more.

Tags:
  • high power density, 
  • reliability, 
  • safety, 
  • small footprint, 
  • sustainable

Codes & Standards Impacting Energy Storage Systems

ZincFive is offering a 30-minute webinar detailing information regarding NFPA 855 and how the various UL Standards will impact the selection, sizing and placement of electrochemical energy storage systems. Specifically covering UL 1778, UL 9540 and the UL 9540A Test methodology and how they relate to NFPA 855.

Length
30 minutes with Q/A

Speakers
Dan Lambert – Product Manager, Data Center Solutions

ZincFive webinar on codes and standard for energy storage solutions

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Battery Technology Climate Impact and Sustainability

ZincFive is offering a 30-minute webinar featuring ZincFive’s Sr. VP, Steve Jennings, and Boundless Research Analyst Andreas van Giezen, who present Boundless’ independent analysis of the Climate Impact Profile for nickel-zinc, lead-acid, lithium-ion and sodium sulphur batteries. The life cycle assessment details key parameters such as greenhouse gas emissions, water footprint, energy footprint and carbon payback of these battery chemistries. Join this deep dive into battery sustainability factors to determine the best choices for your organization.

Length
30 minutes with Q/A

Speakers
Steve Jennings – ZincFive
Andreas van Giezen – Boundless Research Analyst

ZincFive webinare on nickel-zinc climate impact report

Register to Watch