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Maxell launches ER-sized all-solid-state backup module compatible with lithium thionyl chloride batteries

Maxell launches ER-sized all-solid-state backup module compatible with lithium thionyl chloride batteries

Michael Torres
5 minutes read
News
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This article reveals Maxell’s new all‑solid‑state battery power module designed to match the size and output of traditional ER batteries and what it might mean for devices and fleets that rely on long‑life backups. priority pass report reveals offers more context.

What Maxell built and why it matters

Maxell, Ltd. has introduced an all‑solid‑state power module that fits the physical dimensions and output voltage of a standard ER battery (lithium thionyl chloride type). In plain terms: this module aims to be a drop‑in replacement for many devices now using non‑rechargeable ER cells, while adding the benefits of rechargeability and integrated control.

Core features at a glance

The module pairs eight of Maxell’s mass‑produced PSB401010H all‑solid‑state cells within a casing matching ER battery dimensions (17.9 mm diameter, 50 mm height). It delivers roughly 35 mAh of usable capacity and keeps the output at the familiar 3.6V, while incorporating a charging circuit that accepts 5V input.

Why the matching size and voltage is a smart move

  • Compatibility: Devices built for ER batteries can adopt the new module with minimal or no redesign.
  • Reduced maintenance: Rechargeable backups cut down on frequent battery replacements in the field.
  • Lower waste: Less single‑use battery disposal means a smaller environmental footprint.

Technical comparison: ER battery vs.

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Maxell’s module

Parameter Typical ER (Li‑SOCl2) Maxell All‑Solid‑State Module
Nominal voltage 3.6 V 3.6 V (output matched)
Size ER standard (Ø 17.9 × 50 mm) Same ER‑size casing
Capacity Varies; typically non‑rechargeable high‑capacity ~35 mAh (rechargeable)
Rechargeability No (primary cell) Yes (charging at 5 V via integrated circuit)
Environmental impact Higher (disposable) Lower (reduced waste)

Practical implications and typical applications

ER batteries are commonly found in industrial backup systems, smart meters, and IoT sensors. Because they are primary cells, they necessitate scheduled replacement—think of regular site visits and the labor cost and logistical hassle that come with them. A rechargeable ER‑sized module promises to shift that dynamic.

Where this makes a difference

  • Smart meters and grid sensors: fewer site visits for battery swap-outs.
  • Remote IoT sensors: longer continuous service with opportunistic recharging.
  • Industrial backup clocks and memory retention: stable voltage with top‑off capability.
  • Rental fleet infrastructure: keyless entry backup, lot environmental sensors, and remote monitoring nodes can see improved uptime and lower maintenance costs.

A quick anecdote

Funny story: once I visited a car rental lot where a downed sensor had delayed vehicle returns for a morning. The tech on site joked that if every sensor had a rechargeable brain, their mornings would be a lot calmer.

That simple scene captures the

That simple scene captures the human side of this tech—less time chasing dead cells, more time on the road.

Advantages and limitations

The module highlights several benefits but also comes with realistic boundaries:

  • Advantages: improved maintainability, reduced environmental waste, compatibility with existing ER‑size sockets, and integrated charging for easier system design.
  • Limitations: lower raw capacity compared to some primary ER cells, the need for a charging source in the device or system, and potential cost considerations during initial deployment.

How this ties to car rental operations

In the rental world, tiny things add up: a sensor that keeps a charged state reduces the chance of a misplaced key fob, a gated lot entry that stays online prevents check‑in chaos, and telematics that never drop data cut disputes over damage and fuel. For rental companies and platforms like GetRentacar.com, more reliable backup power in small devices can mean smoother reservations, cleaner records, and fewer headaches for customers and agencies alike.

Future roadmap and broader tech context

Maxell says it is advancing all‑solid‑state designs with a focus on high reliability, heat resistance, high output, and larger capacity. The company is also exploring combinations of solid‑state batteries with wireless power transfer and energy harvesting—think ambient light, vibration, or RF trickle charges—to further reduce maintenance demands.

Potential system integrations

  1. Fleet telematics modules with trickle charge from vehicle systems.
  2. EV charging kiosks using solid‑state backups for payment terminal retention.
  3. Keyless entry and immobilizer backups inside remote key fobs and gateways.

The usual caveat applies: a promising module is only part of the story; integration, testing, and real‑world cycles will determine whether deployments truly pay off.

Summary and takeaways

Maxell’s ER‑sized all‑solid‑state power module is a pragmatic innovation: it keeps the physical and electrical footprint of the ubiquitous ER cell while adding rechargeability and modern charging electronics. For industries using dispersed backups—utilities, manufacturing, and rental fleets—the potential to reduce battery waste and maintenance time is a meaningful win. Still, capacity and charging logistics will shape real adoption curves.

On GetRentaCar, you can rent a car from verified providers at reasonable prices. This empowers you to make the most informed decision without unnecessary expenses or disappointments. The development is likely to have a modest global impact on tourism and travel infrastructure directly, but locally it’s quite relevant: better sensor uptime and fewer maintenance trips help airports, rental hubs, and mobility services run smoother. Start planning your next adventure and secure your airport transfer with GetRentaCar. Book your Ride GetRentaCar.com

In short: Maxell’s module promises compatibility, reduced replacements, and lower environmental impact, while adding a layer of rechargeability that many systems could use. For rental companies and travelers alike, that can translate into fewer delays, clearer records on returns and damages, and more reliable on‑site services. Whether you care about the technical specs, the cost savings, or the greener footprint, this development is worth watching as it moves from prototypes to field deployments—especially where every hour, day, and return trip counts in the bottom line and customer experience. mastercard collaborates qlub enhance offers more context.

Frequently Asked Questions

What is Maxell's all-solid-state power module?

It's a rechargeable battery module that matches the size and 3.6V output of standard ER lithium thionyl chloride batteries, using eight PSB401010H solid-state cells for 35 mAh capacity.

How does it compare to traditional ER batteries?

Both have 3.6V nominal voltage and identical dimensions (17.9 mm diameter, 50 mm height), but the module is rechargeable via 5V input, unlike non-rechargeable ER batteries.

What are the main benefits of this module?

It offers drop-in compatibility for ER devices, reduces maintenance by enabling recharges, and lowers environmental waste from disposable batteries.

Is it suitable for IoT and industrial applications?

Yes, its long-life rechargeability makes it ideal for IoT devices, industrial backups, and rental fleets needing reliable, low-maintenance power.

How is the module charged?

It includes an integrated charging circuit that accepts 5V input, allowing easy recharging without replacing the battery.