Think about it - This would have sounded downright ludicrous even 20 years ago. But over the past decade or so, we’ve been making rapid advances in this field - today, there is not a single area of human activity that hasn’t in some way been touched by the advent of the Internet of Things.&nbsp;This exponential growth is a result of some pretty pathbreaking innovation, no doubt - Incredible technological advances stacked on top of one another. Wireless sensors, bluetooth technology, Wi-fi, ML, AI - you get it - it’s a result of a whole bunch of advanced capabilities coming together - but what’s ironic is that in spite of all these tremendous advancements in ultra-low-power electronics, the majority of these devices still rely on batteries for their power.&nbsp;What’s wrong with them being battery powered?Where do we even begin?&nbsp;First off, let’s start with the sheer irony of the fact that the entire enterprise of IoT is predicated on the idea of untethered connectivity - i.e. unrestricted access and connectivity. Batteries, by definition, bring constraints into the mix - they have a limited capacity which means that they need periodic replacements or recharging.&nbsp;The IoT dream was realised on the promise of sensors and devices that can be deployed in the most far-flung, remote areas of the world, gathering and transmitting data seamlessly without being tethered to a power socket - but to be tethered to a battery isn’t that much of an improvement. After all, even the best batteries eventually run out.&nbsp;Not to mention the laundry list of annoying pain points that batteries come with - they are an environmental hazard and contribute massively to our <a href="https://unitar.org/about/news-stories/press/global-e-waste-monitor-2024-electronic-waste-rising-five-times-faster-documented-e-waste-recycling">massive</a> e-waste problem - use and throw batteries end up in landfills and oceans, spilling toxic chemicals into our water and food for years and years.&nbsp;The minerals that are required to manufacture these batteries are notoriously rare and very <a href="https://www.onio.com/article/environmental-cost-of-batteries.html">dubiously</a> sourced.&nbsp;They also represent a significant recurring cost to businesses that deploy large numbers of IoT sensors.&nbsp;Imagine a facility that deploys a thousand wireless sensors - if each of these sensors will require battery replacements - even if it is only once every few years - that adds up to a lot of labour costs and hassle.&nbsp;But in spite of all these obvious disadvantages, batteries have persevered and are in fact, the go to power solution for IoT devices even today.&nbsp;Why, though?Let’s find out!<h2>Risk aversion or hidden merit?&nbsp;</h2><a href="https://www.abiresearch.com/market-research/product/7784614-energy-harvesting-for-the-iot-addressable-">ABI Research</a> estimates that over 60% of current sensor deployments in industrial IoT environments are battery-operated, with minimal usage of state-of-the-art, <a href="https://www.onio.com/article/environmental-benefits-of-energy-harvesting.html">green</a> modalities such as energy harvesting.Moreover, there are <a href="https://www.idtechex.com/en/research-report/sensor-market/1038#:~:text=Global%20sensor%20market%20to%20grow,forecasts%2C%20segmented%20by%20sensor%20technology.">reports</a> that suggest that the IoT-battery market is actually growing, indicating that many companies still prefer the “tried and tested” batteries&nbsp; over potentially revolutionary, albeit unfamiliar alternatives.So, why is it that batteries continue to dominate the IoT sensor market in spite of so much pathbreaking innovation in the self-powered IoT arena?For one, engineers find them very easy to work with and design around. Companies have invested billions of dollars and decades of their time in perfecting Printed Circuit Board (PCB) layouts, mechanical housings and certification processes around battery-based semiconductor systems.&nbsp;<blockquote>Batteries are simply not the future-proof power solution that IoT’s next evolution demands, but an abrupt pivot to fully batteryless systems isn’t realistic either. Instead, the industry is looking toward transitional solutions—methods that recognize our present limitations but also nudge us toward more sustainable, self-powered approaches over time.</blockquote>There are very well-oiled supply chains that have been established around these products worldwide to enable fast prototyping and mass-production. Moreover, battery-based designs fit very neatly into existing regulatory frameworks, making it easier for companies to bring these products to market.&nbsp;Moreover, we’ve managed to create highly standardised modalities to measure battery capacity which makes it very easy to incorporate battery-related components into devices.&nbsp;Another major factor is form. OEMs have designed the form factors of their product lines around standard battery types - such as AA, AAA, coin cells - you name it. We understand the voltages, capacities, lifespans and capacities of these batteries and therefore, have modelled our designs to fit these widely available power solutions.&nbsp;This one might be obvious, but batteries are a product that boast of very well entrenched supply chains - they are manufactured by very large and well connected players - they make their way from factory floors to local distributors seamlessly, making it very cost effective, upfront,&nbsp; for companies to design their products around them.&nbsp;So, does this mean, we just accept the status-quo for what it is and not do anything about it?No Way!I think the trick here is to not take a zero-sum approach - it is essential to see the merit in both sides of the argument - there are a number of reasons why batteries still make practical sense for large-scale use in IoT - especially industrial IoT - and can’t be phased out instantaneously.&nbsp;But equally, we just can’t hide from the fact that we do need to start phasing them out at some point in the near future - they simply don’t belong in the high-tech connected world that we are creating - the world of AI, ML and edge computing. They are a stop-gap solution at best and it is imperative that we recognise this.&nbsp;They are not the future-proof power solution that the future of IoT demands from us - but here’s the thing - we’re not going to make a sudden leap - things never work that way. We need a gradual transition - we need solutions that are pragmatic enough to recognise our present limitations while being visionary enough to propel us towards the future, in whatever capacity they can.&nbsp;Many use-cases can benefit from a middle-of-the-way approach that doesn’t throw the baby out with the bathwater - an approach that integrates energy harvesting into existing battery-powered designs in order to bolster their lifespans and reduce their environmental footprint.&nbsp;Before we explore the hybrid approach, it is essential to answer this question - why bother making the shift at all?Firstly, there’s the elephant in the room - sustainability. We all bear a massive responsibility to hand over the planet in good shape to the generations to come. The e-waste crisis has reached an extent where we simply can’t ignore it any longer - reducing our battery turnover will have a direct impact on how many batteries end up in landfills and oceans. There’s also the indirect effects - fewer maintenance trips, lesser battery production and ergo, a smaller carbon footprint.&nbsp;Secondly, it just takes us closer to the original IoT dream - which was that of frictionless, untethered, “set-it-and-forget-it” sensing. Hybrid sensors bring us closer to that dream and batteryless sensors truly enable that dream - this is especially true in remote deployments and in harsh environments, where battery swaps are close to impossible.&nbsp;<h2>The Hybrid Approach - Bridging the Gap</h2>In recent years, energy harvesting technologies have emerged as by far the most compelling alternative to batteries when it comes to IoT power solutions. They enable truly batteryless sensors that are able to power themselves by energy harvested from their surroundings.&nbsp;We might not realise it, but there are swirling cascades of energy all around us at all times - energy harvesting technologies allow us to capture small packets of this energy and convert it into usable electricity that can power sensors and keep them untethered.&nbsp;There are a number of standards that have emerged in the past decade&nbsp; as viable contenders - RF energy harvesting, piezoelectric energy harvesting, photovoltaic energy harvesting etc.&nbsp;Energy harvesting powered sensors are cleaner, more economical (over their lifetimes) and more compact than their battery powered counterparts. However, as we saw earlier, there are other concerns that stop them from being adopted en masse.&nbsp;That’s why hybrid solutions are quickly becoming the sweet in-between option for manufacturers looking to get the best of both worlds. There are two schools of thought around these hybrid devices - the first one is to think of the battery as a safety net - the device primarily draws power from ambient sources and only taps into its battery when it needs a boost or when environmental conditions make energy harvesting difficult.&nbsp;The second one is to see the energy harvesting as a boost to the battery - increasing the battery life exponentially by reducing the load. Either way, these solutions are starting to make a lot of heads turn with their versatility and massive scope.&nbsp;&nbsp;They minimise disruption - manufacturers don’t have to overhaul entire product lines and supply chains. They increase reliability and scalability as we gradually build towards a totally batteryless future.&nbsp;So, what does a hybrid solution look like?Partial Energy Harvesting - You add a mini solar cell, RF harvester, or other ambient energy capture mechanism alongside the existing battery. This means the sensor can sip on harvested energy most of the time and only dip into battery reserves when ambient sources aren’t sufficient (e.g., at night or in signal-poor locations).Extended Battery Lifespan - By running off harvested energy whenever possible, the battery drains more slowly—significantly cutting down on replacements, maintenance trips, and environmental impact.No Major Overhaul - From an engineering perspective, you don’t have to scrap your entire product line or redesign from scratch. If you’ve already got standardized PCBs, enclosures, and supply chains for your battery components, you can often incorporate energy-harvesting modules with minimal disruption.<blockquote>One reason battery-based devices remain prevalent is the sheer familiarity of design processes. Engineers know exactly how to choose and test AA or CR2032 coin cells, and OEMs can count on a robust, global supply chain to source these components. According to ABI Research, more than 60% of current industrial IoT sensors still run on traditional batteries—a testament to the comfort and reliability that comes with well-understood power solutions.</blockquote>But why exactly does this hybrid model matter beyond the theoretical? Let’s get a bit more tangible—it helps to picture specific, real-world scenarios that show just how big an impact even partial energy harvesting can have.<h2>Bringing Hybrid to Life: Real-World Scenarios</h2><h3>1. Remote Farmland Sensors</h3>Imagine an agricultural setting with hundreds of soil moisture and temperature sensors spread across fields. Typically, these sensors run on coin cell batteries and last around 2 years before dying. A hybrid approach—adding a small solar panel or basic RF harvester—means the device draws ambient energy for most operations and sips on battery only when conditions are poor. Suddenly, that 2-year lifespan might double to 4 years or more.<h3>2. Industrial Warehouse Tracking</h3>Picture a vast warehouse with inventory-tracking tags on conveyor belts, pallets, and shelves. Most of these tags might last about 18 months on a small coin cell. But if you integrate a kinetic harvester (energy from motion) or exploit the constant hum of Wi-Fi signals, that battery might stretch to 3 years or more.Minimal Disruption: You don’t have to overhaul your entire warehouse workflow—just embed a harvesting module where the battery slot already exists.Extended Battery Lifespans: Doubling the life of each tag slashes replacement labor, making your entire operation smoother and more cost-effective.Strategic Scalability: As your company adds more sensors, you’re not exponentially increasing battery headaches—each new sensor can partly power itself.<h3>3. Shipping Container Trackers</h3>Consider GPS-enabled trackers attached to shipping containers moving across seas, rail lines, and trucks. Traditionally, these trackers need battery replacements every 6–8 months—which is no small feat when containers are constantly on the move. With a small solar panel on top, the device relies mostly on harvested energy during daylight, dipping into the battery only at night or in covered storage. That extends operational life to 2 years or more.Significant Maintenance Cuts: Fewer global hunts to locate each container and swap batteries.Continuous Visibility: Fewer dead trackers means less risk of losing cargo data in transit.Eco-Friendly Edge: Shipping companies can tout sustainability gains, appealing to both regulators and eco-conscious clients<h3>4. Healthcare Wearables</h3>Think about a patient-worn armband that monitors vitals in real time. Normally, it needs charging every couple of days—which many patients forget, creating data gaps. By integrating motion-based or RF-based harvesting, you can push that charging cycle out to nearly a week for some users.Better Compliance: Patients are more likely to keep wearing the device if they don’t have to charge it constantly.Improved Healthcare Outcomes: Continuous monitoring (fewer missed days) means earlier interventions if anomalies arise.Foundation for Batteryless: Once the wearables can reliably gather enough ambient energy, the battery can shrink or vanish entirely—especially valuable for remote patient monitoring in underserved areas.<h1>Making the Most of a Hybrid Model</h1>Whether it’s farmland, warehouses, shipping, or healthcare, partial energy harvesting can have massive ripple effects. Let’s connect the dots on why hybrid systems solve more than just the “battery annoyance” factor:Reduced E-Waste Even if you don’t achieve 100% batteryless operation, slashing battery replacements by half—or even a quarter—adds up to a monumental environmental win. Over a large fleet of sensors, fewer spent batteries in landfills means a smaller overall carbon footprint.Lower Operating Costs Every battery swap typically involves manual labor—someone has to locate the sensor, open it up, replace the battery, ensure it’s functioning again, and log the event. Multiply that by hundreds or thousands of nodes, and it’s a significant cost sink. When you extend battery lifespans with energy harvesting, you drastically reduce these site visits.Stepping Stone to Batteryless The infrastructure you build now—using low-power MCUs, partial harvesters, and redesigned PCB footprints—lays the groundwork for an eventual transition to fully battery-free devices. As energy-harvesting technology matures (improving cold-start capabilities, boosting capture efficiency), you can phase out the battery entirely in future device iterations.<h1>Keeping It Organic</h1>But let’s not forget the bigger picture: These scenarios and benefits aren’t just nice bullet points—they form part of a broader narrative about IoT’s natural evolution. We moved from wired sensors to battery-powered sensors because it freed us from wall sockets. Now we’re moving from battery-only to battery-plus-ambient-energy because it reduces cost, maintenance, and e-waste. Eventually, we’ll reach a point where ambient energy alone is enough in many (though not all) situations.“This is less of a revolution and more of a gentle shift,” says an imaginary IoT project manager. “We’re not throwing out our existing designs overnight. But every time we update a sensor, we add a tiny harvester. After a few generations, we’ll see how much we’ve cut down on batteries—and that’s a big deal.”The key is recognizing that batteries aren’t evil nor are they a permanent fixture. They’re simply tools that served a purpose for a while—and in many cases, continue to serve a purpose. But as IoT scales to tens of billions of devices, the environmental and economic downsides become too large to ignore. Hybrid energy solutions, in this sense, represent a pragmatic path—one that acknowledges our reliance on batteries but also paves the way for a more autonomous IoT.<h1>Conclusion: Embracing the Hybrid Mindset</h1>Ultimately, hybrid power solutions answer two pressing questions:How do we reduce battery replacements now? andHow do we transition smoothly to batteryless IoT in the future?By adding small but powerful energy harvesters—like solar panels, RF collectors, or piezoelectric elements—manufacturers and deployers can keep their existing battery-centric infrastructure and supply chains, yet dramatically reduce how often those batteries need replacing. That’s a huge win for the environment, a win for operational budgets, and a win for the original IoT vision of unfettered connectivity.So, while batteries remain the status quo, we don’t quite have to turn a blind eye to the serious limitations that they bring to the table. Challenge your designs, incorporate some ambient energy capture, and watch as your device runtimes stretch, your maintenance costs drop, and your brand reputation shines. The true promise of IoT—“deploy anywhere, run forever”—may be closer than we realize, and hybrid solutions are the stepping stones that will get us there.

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We are in the midst of an IoT explosion - there’s no two ways about it. According to IoT analytics’ state of IoT report 2024, the total number of connected devices in the world as of 2021 was 12.3 billion! This number is slated to exceed 27 billion by the end of 2025! 

Make no mistake, that’s a tremendous achievement, technologically speaking. To the uninitiated, that means that we’ve managed to connect billions upon billions of objects to the internet - objects that, for the most part, don’t belong in the realm of traditional computing devices such as tablets, computers and smartphones. That’s nothing to sneeze at! 

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Batteries or Energy Harvesting - Can’t It Be Both?

Senior Content Manager

Abishek Swaminathen

Still do, to a degree.But lately, we’ve been sitting with it. Looking at what we’ve built. Talking to people. Watching how our story has landed out in the wild. And it’s become clear:We need to tell the whole truth now.<h2>Why we told the batteryless story to begin with</h2>Let’s rewind.When we started ONiO, we weren’t trying to be yet another MCU vendor with a clever logo and a new benchmark.Honestly, we were terrified of becoming invisible — just another piece of silicon with slightly better power figures and a PDF nobody reads.So we did what we had to do:We found a story.And it was a good one.Batteryless wasn’t just a gimmick. It was our origin — a design constraint that forced us to think differently. How do you build something that can cold-start from ambient energy alone?That question led us to ONiO.zero.It also gave us something way more rare: an actual identity.In a sea of suit-and-slide-deck semiconductor companies, we stood out. We felt like… people. With a point of view.<h2>We also knew we didn’t want to look like the rest of the industry.</h2>No face, no voice — just PDFs and jargon, occasionally interrupted by a press release or a talking head wandering the exhibition floor, badge swinging, rehearsing the same three phrases to a gimbal.<figure class="image"><img src="https://res.cloudinary.com/onio/image/upload/v1744202551/onio_off_to_ces_39c8b6901f.jpg" alt="onio_off_to_ces.jpg"></figure>You know the type: coffee in hand, LinkedIn post ready - “Off to CES - let’s gooo 🚀”We weren’t interested in that.We wanted a brand that felt like us: curious, sharp, design-forward. A little weird. Human.So we built something people could connect with. A chip, yes — but also a story, a tone, an unique visual language. Something that didn’t just talk at people, but invited them in.A chip can be beautiful. So can the story that carries it.And batteryless gave us a way to say all of that in one word.<h2>The problem with one story</h2>But here’s the flip side of telling a strong story:Sometimes people only hear that story. And nothing else.We got pegged.As the batteryless guys. The purists.The ones who build fruit-powered demos and do firefly math.And to be honest — we love that part.We still do it.It’s fun. It makes people think. And it’s real.But somewhere along the way, people started assuming that was all we were.And in letting that story lead, we may have oversimplified our own reality.Because the truth is, most real-world applications aren’t black or white.Some are perfect for batteryless. Some need a supercap. Some are better off with a rechargeable cell. Others just want 10x battery life and no drama.We’ve always known that.We just didn’t talk about it enough.<h2>So what’s actually true?</h2>What’s true is this: ONiO.zero is an absurdly low-power, wireless RISC-V microcontroller that can run on harvested energy — from light, RF, whatever.In the right conditions, you really can skip the battery entirely.But that’s not the only way to win.Maybe you want a BLE-connected sensor that lasts five years on a tiny coin cell.Or a smart label that never needs charging.Or a soil monitor with a solar panel and a little backup.Or a keyboard that powers up as you type.That’s the world we’re building for.We didn’t set out to kill the battery.We set out to design like batteries weren’t guaranteed.<h2>What we actually believe</h2>We believe in designing for power independence.Not as a feature. As a mindset.We believe maintenance is the real enemy.That good design feels invisible.That “energy harvesting” shouldn’t sound like science fiction.And that in a few years, asking “how long does it last?” will feel weird — because the answer will just be: as long as you want.<h2>We’re still ONiO</h2>We still love weird builds and scavenged power and the elegance of restraint.We still care about making semiconductors that don’t feel like they came out of a corporate birth canal.But more than anything, we care about telling the truth — and telling it well.So yeah, we’ll still write about the joy of batteryless design.But we’re also going to show what it looks like to build real systems, with real constraints, in the real world.Some of those will have no battery.Some will have a battery that barely gets used.And some will plug in. That’s okay too.The point isn’t purity.The point is possibility.<h2>In the end</h2>We’re not trying to win a sustainability badge.We’re trying to help engineers design smarter systems - ones that last longer, waste less, and just work.If that means no battery, great.If that means fewer batteries in better places, even better.We’re still ONiO.We still build chips that run off the air.We’re just not limiting ourselves to one storyline anymore.Because the story we’re writing now?It’s bigger. And more fun. And way more real.

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Let’s be honest. 

We’ve been riding the “batteryless” wave pretty hard for a while now. 

If you’ve followed ONiO at all over the last couple of years, you’ve seen it: 

No batteries. No maintenance. Save the planet. Coin cells are evil. That whole thing. 

And, yeah — we meant it.

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Batteryless was never the point

Runar Finanger

<h1>Sustainable electronics disentangled</h1>Sustainability is taking centre stage in many business sectors and the electronics industry is no exception. Yet, when we look deep into the newest electronic devices around us, are these really fundamentally more sustainable than the ones we were used to 10 or 20 years ago? In this article, we will look into how to make IoT and small electronic devices more sustainable, namely through energy harvesting. In doing that, we will introduce the SELECT project, where ONiO and a group of strategic partners are bringing together unique building blocks to enable a more sustainable future for electronics.IoT nodes and small, portable electronic devices are an integral part of today’s increasingly digitally connected society. The <a href="https://iot-analytics.com/number-connected-iot-devices/">number of connected IoT devices</a> was estimated at 19 billion in 2024, projected to grow to more than 40 billion by 2030. Yet, the growth of IoT seems to be lagging behind compared to some of the earlier prognostics, which have, for instance, pointed to <a href="https://community.arm.com/cfs-file/__key/telligent-evolution-components-attachments/01-1996-00-00-00-01-30-09/Arm-_2D00_-The-route-to-a-trillion-devices-_2D00_-June-2017.pdf">one trillion IoT devices produced until 2035</a>. One of the major bottlenecks limiting further scalability of present and future IoT is power and, in particular, the reliance on pervasively spread battery-powered devices. At the same time, the scale of deployments raises deep concerns with sustainability, concerns which spread across IoT, small electronic devices, and the electronics industry at large.<h2>Sustainability: beyond the buzz&nbsp;</h2>Despite all the buzz around sustainability over the past decades, truth be told, the core materials and the pillar principles of electronics design for mass production remain pretty much unchanged. Yet, the industry has a growing pool of more sustainable options on the table nowadays, and it’s time to turn the talk about sustainability into real, impactful actions.It is not difficult to find grand vision statements about sustainability from large electronics corporations in the past few years. For instance, back in 2021, <a href="https://www.itweb.co.za/article/samsung-in-green-push-for-tv-line-up/xnklOqzLgx974Ymz">Samsung announced</a> that its TV business was on a journey of “going green”. Among the action points was the introduction of solar-powered remote controls that, according to the company, could help prevent waste from 99 million AAA batteries over seven years. Another example is <a href="https://www.theverge.com/24206847/logitech-ceo-hanneke-faber-mouse-keyboard-gaming-decoder-podcast-interview">Logitech’s plan</a> to reduce its carbon footprint by half, including the introduction of long-lasting hardware like the “forever mouse” concept.Despite all the nice talk and good intentions, the electronics industry in general, and the IoT and small electronics segment in particular, is facing strong challenges with sustainability. The industry still relies on raw materials that are highly polluting (e.g. heavy metals in batteries) and greenhouse gas-intensive (e.g. conventional printed circuit board laminates), and their replacement is quite challenging from technical and cost perspectives. A resolute stab at sustainability requires looking into every single component of an electronic system and the whole system’s life cycle. The market actors that do not take this seriously risk being severely penalised by customers and consumers, who are increasingly awake to signs of frail ESG policies and greenwashing.<h2>Energy harvesting gaining momentum</h2>A growing number of IoT-connected devices, including the ones with low-power consumption (1 micro Watt to 1 milli Watt range), continue to rely on disposable or rechargeable batteries. Yet, batteries are far from being a good solution for powering small electronics, especially single-use coin cells or alkaline power cells typically used in such devices. Small devices reliant on batteries are a problem for several reasons. On the one hand, the limited lifespan of batteries and the high costs and burden associated with battery replacement and device maintenance can become a logistical nightmare in very large distributed node systems. On the other hand, the social and environmental problems associated with the lifecycle of batteries and respective raw materials such as <a href="https://www.onio.com/article/environmental-cost-of-batteries.html">lithium and cobalt</a>. In a nutshell, batteries are bound to represent an apparent bottleneck in the massive deployment of IoT devices and a huge environmental problem. Therefore, it becomes clear that players serious about sustainability must look into batteries and consider better alternatives whenever possible.&nbsp;That’s where <a href="https://www.onio.com/article/ambient-energy-world-of-iot.html">energy harvesting</a> comes into play. The market arena for energy harvesting, aka <a href="https://www.bluetooth.com/wp-content/uploads/2024/01/MRN_Ambient-IOT.pdf">Ambient IoT</a>, is growing in importance. The use of energy harvesting for small electronics is not entirely new. For instance, portable electronic devices such as calculators and watches powered by small photovoltaic panels were popular during the 1980s and 1990s. Yet, that trend did not pick up, and batteries have taken over the business of powering small portable electronics almost entirely. Now, the growth of the IoT together with technical progress in ultra low power electronics and ambient energy harvesting are providing a new opportunity for energy harvesting.&nbsp;The emergence of new ultra low power microchips, such as <a href="https://www.onio.com/products/onio-zero.html">ONiO.zero</a>, and new harvesting technologies, such as <a href="https://www.epishine.com/">Epishine</a>’s very efficient photovoltaic cells, are revamping the interest in energy harvesting. Early examples of use cases include asset tracking, condition-based monitoring, cold-chain monitoring, building automation and home control. The total market opportunity is <a href="https://www.bluetooth.com/wp-content/uploads/2024/01/MRN_Ambient-IOT.pdf">sized at trillions of units</a>.<h2>A change in mindset: electronics design for energy harvesting</h2>The design and development of electronic devices for energy harvesting requires a fundamentally different approach than the usual development for battery power. Energy harvesting typically generates only minimal amounts of power, meaning that the electronic circuits and systems must be tuned for extreme power performance and flexibility. Besides, ambient energy is often available in variable levels and intermittent modes. For instance, light levels are variable in most environments, and the same goes for radio frequency sources, depending on proximity to antennas, routers, mobile phones, etc. Hence, power management strategies must be designed for intermittent energy availability. Summing up, the electronic systems must be capable of harvesting under the most demanding conditions (e.g. very low light or weak radio frequency sources), run from ultra low power levels, store and manage any excess energy in the best way possible. By the same token, energy budgeting and duty cycle planning are keystones for seamless batteryless operation from ambient energy - emphasizing the importance of a crystal clear understanding of the requirements for each application and use-case.As a minimum, a functional energy harvesting device/system needs the following building-blocks: (1) one or more energy harvesters, harnessing ambient energy from light, radio frequency, motion or thermal gradients; (2) integrated circuits for control, processing and communication; (3) an energy storage/buffer element; (4) the load(s), i.e. the element(s) being powered, which may include sensors, transmitters, controllers, etc. These and a few additional auxiliary components must be mounted on an electronic printed circuit board (PCB). The SELECT project focuses on each of these elements and their seamless integration for deploying sustainable electronics with energy harvesting.<h2>The SELECT project</h2>The SELECT project brings together six partners on the quest for sustainable electronics. The project is co-financed by the <a href="https://eurekanetwork.org/programmes/eurostars/">Eurostars program</a>.ONiO leads the way with its ultra low power microcontroller tailored for energy harvesting, <a href="https://www.onio.com/products/onio-zero.html">ONiO.zero</a>, at the core of the project. <a href="https://www.onio.com/products/onio-zero.html">ONiO.zero</a> combines an <a href="https://www.onio.com/article/onio-riscv-coremark-results.html">ultra power-efficient RISC-V CPU</a> with an advanced power management integrated circuit (PMIC) and wireless radio communication on a single microchip. Epishine provides highly efficient and versatile printed organic photovoltaic cells optimized for indoor conditions, which are <a href="https://www.epishine.com/technology/lca">best-in-class with respect to sustainability</a>. <a href="https://www.lignaenergy.com/">Ligna Energy</a> owns unique supercapacitor technology that leverages bio-based sustainable materials and roll-to-roll manufacturing methods for green, safe and ultra-thin energy storage. <a href="https://www.jivamaterials.com/">Jiva Materials</a> offers Soluboard®, a fully recyclable and biodegradable rigid PCB laminate with a 67% lower carbon footprint than glass-fibre and epoxy technologies used in conventional FR-4 PCBs. These four partners put in the key ingredients for the SELECT recipe. The consortium is complemented by two end-user partners: <a href="https://www.pricer.com/">Pricer</a>, a partner for in-store communication and digitalization and a leading supplier of Electronic Shelf Label (ESL) solutions, and <a href="https://www.4modtechnology.com/">4MOD Technology</a>, a versatile company specialising in the design and engineering of remote controls and IoT solutions.The team will tune each of the key ingredients (microcontroller, photovoltaic harvester, supercapacitor, Soluboard® PCB), focusing on solving the challenges involved in their orchestration to work optimally together. These components are already available now, but their combination brings benefits to the next level. The project will generate reference boards and development kits combining these key elements - i.e. forming a SELECT platform ready to use in the development of a new order of sustainable IoT and small electronic products.The new SELECT platform will be able to serve a wide range of applications across the IoT and small electronics market verticals. During the project, the partners will focus on two lead applications: ESLs, under Pricer’s leadership, and remote control units, headed by 4MOD Technology. The key outputs of the project will include reference designs and prototypes customised for these two demo cases. But the SELECT platform will be ready to target an array of additional product categories, with a view to fast-tracking energy harvesting-based solutions to real market products that can effectively compete with the current battery-based standards.SELECT is using some of the most sustainable components available, with benefits in toxicity and contamination of the environment and particularly in carbon emissions. A back-of-the-envelope calculation shows a potential for saving at least 150.000 tonnes of CO2 equivalents per year if the SELECT solutions were rolled out across the ESL and remote control markets (estimated at 300 and 400 million units per year, respectively). This is the equivalent of taking over 100.000 combustion engine cars off the streets. These savings were estimated from removing single-use batteries and using photovoltaic harvesters instead, plus replacing FR-4 PCB with Soluboard®. The SELECT project includes systematic Life Cycle Analyses where the environmental benefits will be studied in detail and computed in a proper manner. In any case, looking at these ballpark calculations for the two test cases only, and considering the total space of applications that can be targeted by SELECT - extending from industrial IoT sensors to building automation, electronic tags and trackers, wearables, etc. - the extent of the project's impacts can be massive.<h2>Conclusion</h2>The tools to make IoT and small electronic devices way more sustainable are already on the table today. But we need to move from individual eco-friendly components to systems fully orchestrated to work optimally with more sustainable options such as energy harvesting. The added value of the SELECT solutions lies in the seamless integration of sustainable building blocks to craft an electronics development platform built with a 360º view on sustainability, from individual components to system level.&nbsp;Besides focusing on performance and sustainability, the SELECT platform will enable the deployment of very cost effective products and systems, especially when considering system bill-of-materials and lifetime costs. By removing batteries and simplifying electronic systems, SELECT will reduce the component count and footprint of electronics, with a positive impact on costs. Hence, SELECT will bring unprecedented possibilities in terms of thinness, material minimization and low cost of end devices. Moreover, with no battery changes, maintenance and lifetime costs will be much reduced, bringing logistics and cost benefits for the end users. Finally, for many product categories, the device’s lifetime will be extended and costs with end-of-life, namely recycling, will also be reduced.The SELECT partners' ambition is bold: mastering energy harvesting while redefining electronics with sustainability at the core. Power is on!

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Sustainability is taking centre stage in many business sectors and the electronics industry is no exception. Yet, when we look deep into the newest electronic devices around us, are these really fundamentally more sustainable than the ones we were used to 10 or 20 years ago? In this article, we will look into how to make IoT and small electronic devices more sustainable, namely through energy harvesting. In doing that, we will introduce the SELECT project, where ONiO and a group of strategic partners are bringing together unique building blocks to enable a more sustainable future for electronics.

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Sustainable electronics disentangled

Senior Project and Innovation Manager

Pedro Guimarães

As Faber later had to clarify, the concept of a “forever mouse” wasn’t an actual product but merely an idea. Her comment garnered so much attention that she had to confirm it wasn’t about any specific device.&nbsp;But, when seen in the right context, Faber’s words weren’t really about a mouse at all—they were about something much bigger. The widespread reaction missed the larger point she was making.Faber wasn’t simply hyping up her company with a hypothetical product. She was highlighting a paradigm-shifting movement in the tech industry—a rethinking of how we approach innovation, design, and, ultimately, technology itself.There is simply no running away from the fact that the tech industry has developed some pretty unsustainable habits over the past few decades - habits like planned obsolescence, short upgrade cycles, proprietary repair mechanisms and deliberately sub-par build qualities have contributed massively to our massive e-waste <a href="https://www.onio.com/article/batteryless-vs-better-recycling-iot-future.html">problem</a>.The sheer ridiculousness of this constant upgrade culture we see around us is all too tired a trope - it’s common knowledge at this point that we’ve allowed tech companies to bamboozle us with their scarcity-driven marketing.&nbsp;While the smartphone unequivocally represented a huge breakthrough in communication and information technology, it has now become emblematic of this economic sleight of hand that’s being perpetrated by tech giants - a carousel of perpetual consumption, where smartphones are released year after year accompanied by meticulously crafted marketing narratives designed to cloak their predecessors in a veil of inadequacy.&nbsp;These practices deplete rare earth minerals, place enormous amounts of strain on water reserves and contribute to the generation of millions of tonnes of electronic waste.&nbsp;It is <a href="https://www.who.int/news-room/fact-sheets/detail/electronic-waste-(e-waste)#:~:text=Key%20facts,collected%20and%20recycled%20(2).">estimated</a> by the WHO that over 62 million tonnes of e-waste was produced in the year 2022! Of this, only a paltry 22.3% was formally recorded to have been recycled. These are truly terrifying numbers! We are fast approaching a point where we will be compelled to change course dramatically or face some seriously dire consequences.&nbsp;We’ve created a system (yes we’re all responsible for this!) that has normalised wastefulness and apathy towards precious natural resources. Faber’s forever mouse is emblematic of a new paradigm emerging among tech leaders who understand the precarity of this situation we find ourselves in - a paradigm that prioritises durability, repairability and sustainability over relentlessly churning out low-quality products and in turn, neglecting long-term welfare for short term gains.&nbsp;<h2>The Battery Problem</h2>15 billion batteries are produced every year! That’s a crazy number! Here’s another crazy number –&nbsp; 62 million tonnes of e-waste is generated every year, making its way into landfills and our oceans.&nbsp;This is a grave threat to all life on our planet.&nbsp;Batteries were once seen as a lifeline that would take us to a greener and more sustainable future. But today, the stark reality of batteries is there for everyone to see. Modern Li-ion batteries use rare minerals that are concentrated in specific parts of the world - Lithium and Cobalt for the most part.&nbsp;Lithium mining ravages water tables and wreaks havoc on local ecosystems. Cobalt is largely found in one country - the Democratic Republic of Congo - and is mined by child miners who get paid a pittance and end up developing chronic illnesses that severely impact their futures.The basic point we’re trying to get at is this - our massive global appetite for batteries is a huge red flag in terms of sustainability. For a number of years now, there has been a growing realization that we need a viable alternative power solution. Batteries are not the green power solution that they’re made out to be.&nbsp;<h2>The Rise of Energy Harvesting</h2>This is where energy harvesting technology enters the picture. What if our everyday devices could power themselves using ambient energy from their environment? It's not science fiction—it's happening right now.Energy harvesting technology allows devices to capture and utilize energy from various sources:<ul><li>Movement and vibration (kinetic energy)</li><li>Light (solar energy)</li><li>Temperature differences (thermal energy)</li><li>Radio frequency signals (RF energy)</li></ul>This technology is particularly suited for low-power devices like computer peripherals, which is why Faber's "forever mouse" concept isn't as far-fetched as it might seem. Modern ultra-low-power microcontrollers can operate on incredibly small amounts of energy—we're talking microwatts here. By harvesting energy from the environment, these devices can operate indefinitely without ever needing a battery change.<h2>Beyond the Mouse: A New Paradigm</h2>The implications of this technology extend far beyond just computer mice. Imagine a world where all your peripherals—keyboards, headsets, remote controls, game controllers—never need battery replacement. But it's more than just convenience; it's about fundamentally changing our relationship with technology.This new paradigm is built on several key principles:<h3>1. Durability by Design</h3>Durability is one the defining principles behind this new wave of forever devices. Products that are designed to last for decades and not just 3-4 years. High-quality materials and builds that stand the test of time and don’t ask for incessant upgrades.&nbsp;Moreover, modularity is a major part of this as well - modular designs that allow for repairs and upgrades.&nbsp;<h3>2. Software-First Innovation</h3>This is all about enabling continuous improvement through updates and rolling out new features without necessitating hardware replacements.&nbsp;Which means that devices get to have extended lifespans simply as a result of optimisation and sound design.&nbsp;<h3>3. Sustainable Materials</h3>This one’s pretty much a no-brainer. Recycled and recyclable components form the crux of sustainable design which is built around responsible sourcing and minimal environmental impact.<h2>The Economic Shift</h2>Critics might argue that such durable devices would hurt companies' bottom lines. However, this view is increasingly outdated. Companies like Logitech are recognizing that sustainability isn't just good for the planet—it's good for business:Customers are willing to pay premium prices for lasting quality. Over the course of their ownership, this would imply lower warranty and support costs - not to mention the brand loyalty that companies stand to build through commitment to ethical practices. Moreover, this also opens the doors to new revenue streams from software and services,.&nbsp;<h2>Technical Innovation Meets Environmental Responsibility</h2>The technology enabling this revolution is already here. Ultra-low-power microcontrollers, like <a href="http://ONiO.zero">ONiO.zero</a>, can operate on minimal energy while providing robust processing capabilities. These cutting-edge chips represent a quantum leap in energy efficiency, starting up from less than 1μW of power and seamlessly operating on various energy harvesting sources. They maintain reliable wireless connectivity while processing complex inputs, all with minimal power consumption, making them ideal for the next generation of sustainable devices.<h2>The Path Forward</h2>The shift to batteryless peripherals won't happen overnight, but the momentum is building. Industry leaders are recognizing that the future of consumer electronics lies not in planned obsolescence, but in creating lasting value through sustainable innovation. This monumental transition demands comprehensive industry collaboration on standards alongside sustained investment in energy harvesting research. Success will also depend on effective consumer education about sustainable technology and supportive policy frameworks for sustainable manufacturing practices.<h2>A New Chapter in Tech Evolution</h2>Faber's "forever mouse" concept represents more than just a product idea—it's a symbol of where technology needs to go. As we face increasing environmental challenges, the tech industry must evolve from being part of the problem to becoming part of the solution.The future of consumer electronics isn't about churning out endless new models or forcing unnecessary upgrades. It's about creating devices that last, that improve over time, and that respect both user needs and environmental constraints.<h2>Conclusion</h2>The transition to batteryless, sustainable peripherals represents a crucial step toward a more sustainable tech industry. It challenges us to rethink not just how we power our devices, but how we approach technology consumption as a whole.As we move forward, the success of this transition will depend on continued innovation in energy harvesting technology, commitment from industry leaders, and support from consumers who understand that the best technology is that which serves both human needs and environmental sustainability.The "forever mouse" might have been just a concept, but the future it represents is very real—and it's closer than we think. We're entering an era where technology can truly last forever, powered by the world around us, designed for durability, and built with the planet in mind.

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"‘The forever mouse is not just an idea—it’s a commitment to a future where tech doesn’t come at the planet’s expense”

This is a quote by Hanneke Faber, the CEO of Logitech. She made this remark during an interview with Verge, on their decoder podcast. She was talking about an idea for a mouse designed to last indefinitely - a mouse that could be upgraded through software updates rather than total replacement. A product design that places durability and repairability front and centre. 

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Beyond Batteries: The Future of Forever Devices

ONiO is an IoT company specializing in crafting self-powered microcontrollers that run on nanowatts harvested from their surroundings.

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ONiO is a fabless IoT company specialising in batteryless microcontrollers that run on energy harvesting. We are deeply committed to crafting viable clean-energy solutions for IoT devices, breaking them free from the battery. ONiO.zero can use virtually any RF, thermal, solar, piezo signal as a power source. 

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 The power of Zero is undeniable The people behind ONiO Kjetil Meisal Vemund Bakken Runar Finanger Ronan Barzic Related Pages Products Articles The Big Picture The Team 
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                            With billions of IoT nodes and sensors set to power our future, reducing dependence on disposable batteries is critical. ONiO.zero-based solutions make IoT smarter and greener by enabling sustainable designs that minimize waste and unlock new possibilities. Together, we can create a future where innovation and environmental responsibility go hand in hand.
                         We envisioned an IoT future where power solutions are smarter, more sustainable, and designed to meet the needs of tomorrow. That’s why we created ONiO.zero—a microcontroller that can run 100% on energy from its surroundings. Whether you’re designing battery-free solutions or dramatically extending battery life, ONiO.zero delivers unmatched efficiency with zero compromises.

Zero limitations—A world of potential.  CEO CTO CMO Director IC Design

ONiO is the company behind ONiO.zero - a batteryless and wireless microcontroller. ONiO’s team is home to some of the brightest engineering minds in the Semiconductor world and so much more.

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Powered byONiO.zero Batteryless Remote Control Related Pages Love a good read? Tuck right in. Technology Redefined Learn more Related Pages Products News Articles    Informative and backed by solid research - welcome to our growing archive of articles!

Informative articles about energy harvesting and IoT technology -  backed by solid research - welcome to our growing archive of articles!

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This move reflects a growing recognition that ambient energy—light, RF, heat, vibration—is abundant but not always predictable. While ONiO.zero, ONiO’s flagship microcontroller, can start from under a microwatt and run on mere slivers of power, for certain use-cases it still needs a way to buffer and deliver energy reliably. That’s where VINATech becomes mission critical.Supercapacitors offer something batteries don’t - the ability to charge and discharge rapidly, last through countless cycles, and endure harsh environments. Their inclusion in the ONiO ecosystem enables longer-lasting, maintenance-free devices across industries—from shelf labels and air quality sensors to industrial tags and smart buttons.Rather than lock developers into a fixed stack, ONiO is curating a flexible ecosystem that enables design freedom while ensuring performance. VINATech’s Hy-Cap line complements ONiO’s flexible hardware stack, giving developers proven, production-grade options for buffering ambient energy. The result: faster prototyping, simpler power design, and hardware that behaves predictably in the wild — like a postage-stamp-sized PCB running a full ambient energy stack: harvester, VINATech supercapacitor, and ONiO.zero.This partnership is one of several ONiO is cultivating to expand its batteryless toolkit. VINATech’s supercapacitors aren’t a lab experiment — they’re already powering millions of commercial devices, including Samsung’s latest solar-powered TV remotes. That kind of field-tested reliability fits ONiO’s practical philosophy: build for power independence, not theoretical perfection. As ambient-powered designs go from demo to deployment — and take advantage of the fact that supercapacitors like VINATech’s are not classified as batteries under EU regulations, these are the kinds of components that make it possible.<h2>About VINATech</h2>VINATech is a South Korean manufacturer of high-performance energy storage components, including hybrid and EDLC supercapacitors. Its Hy-Cap® line is known for rapid charge/discharge, long life, and stability in extreme conditions. VINATech’s products are used across consumer, industrial, and automotive markets, including in Samsung’s solar-powered TV remotes. The company operates globally with production in Korea and Vietnam.For more information, visit<a href="http://www.vinatech.com"> www.vinatech.com</a><h2>About ONiO</h2>ONiO is a Norwegian fabless semiconductor company building wireless microcontrollers that run on ambient energy — including RF, thermal, solar, and kinetic sources. At the core is ONiO.zero: a RISC-V-based SoC that cold-starts from under a microwatt and integrates compute, radio, memory, and power management on a single die. Designed for battery-optional applications, ONiO chips enable maintenance-free, power-independent devices across IoT, sensing, and edge intelligence. Whether running fully batteryless or paired with advanced energy storage, ONiO’s platform gives developers the tools to design systems that last longer, deploy wider, and waste less.More at <a href="https://www.onio.com">onio.com</a>

Norwegian semiconductor company ONiO and South Korea’s VINATech have entered a partnership aimed at redefining the very foundations of sustainable IoT. ONiO, a Norwegian semiconductor innovator, and VINATech, a South Korean leader in energy storage, are joining forces to truly advance batteryless IoT technology. The collaboration adds VINATech’s supercapacitors to ONiO’s modular design stack, bringing new resilience to energy-harvesting electronics as part of a broader shift toward a solid-state power loop architecture.

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ONiO + Vinatech - Supercap powered Green IoT

ONiO is thrilled to announce we've been granted an award by the <a href="https://www.forskningsradet.no/en/">Research Council of Norway</a> for a pioneering endeavor: developing batteryless sensor systems tailored for Precision Agriculture. These innovative sensors are set to revolutionize monitoring by focusing on key soil characteristics crucial for farmers - specifically, soil moisture, temperature, and nutrient content. Our goal? A transformative leap forward in deploying expansive sensor networks that smartly bolster agricultural practices. The plan is to engineer hardware that’s both affordable and simple to install - imagine sleek, low-profile units that can be effortlessly placed and left to do their job, gathering and transmitting data over their lengthy lifespan without the need for any wires, batteries, or maintenance whatsoever.The project is expected to pave the way for way more sustainable agriculture operations&nbsp; - influencing water and nutrient management, slashing the reliance on various inputs (like water, fertilizers, chemicals, and energy) and, by extension, significantly diminishing the environmental impact, all while boosting crop yields.Leading this venture is ONiO, in collaboration with <a href="https://sensonomic.com/">Sensonomic</a> and <a href="https://web.trondelagfylke.no/mare-landbruksskole">Maere Agricultural School</a>. Our role at ONiO is to spearhead the development and execution of all hardware aspects for these novel systems, leveraging our proprietary self-powered electronics technology. Sensonomic, with their expertise in crafting algorithms and software solutions for farmers, will play a crucial role in converting raw data into practical advice for enhancing farm productivity. Meanwhile, Maere Agricultural School is set to offer its facilities as a testing ground, aiding the consortium in deploying these systems under authentic agricultural conditions, from greenhouse environments to open-field settings.This project is receiving a generous boost from the Research Council of Norway, with a grant allocation of 11.9 million NOK under the <a href="https://www.forskningsradet.no/en/call-for-proposals/2023/innovation-project/">Innovation Project for the Industrial Sector program</a>, supporting our vision of smarter, more sustainable agriculture.

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Green fields ahead: ONiO Awarded Research Council Grant for developing batteryless sensor systems for Precision Agriculture

OSLO, NORWAY and NORRKÖPING, SWEDEN, January 30th, 2023 - ONiO®, a leader in ultra-low-power, batteryless microcontrollers, is excited to announce a strategic partnership with Ligna Energy, known for their innovative and sustainable supercapacitors. This collaboration is a huge step towards a more green and eco-friendly Internet of Things (IoT) world.ONiO brings to the table the world's lowest-power microcontroller, setting a new benchmark in energy efficiency. When paired with Ligna Energy's green supercapacitors, which use forest-derived materials for minimal environmental impact, we get a delectable combination that promises both efficiency and sustainability by the bucket load!&nbsp;"Our partnership with Ligna Energy is more than just a technical collaboration; it's a shared vision for a sustainable IoT future, coming to life" states Kjetil Meisal, CEO of ONiO. "Their supercapacitors perfectly complement our microcontrollers, hugely boosting our ability to deliver environmentally conscious IoT solutions."Ligna Energy's S-Power 2S supercapacitors offer compatibility and efficiency that are a great fit with ONiO's innovative microcontrollers. This partnership aims to push the boundaries of what's possible in eco-friendly technology, reducing the carbon footprint and improving energy efficiency in IoT devices.Peter Ringstad, CEO of Ligna Energy, adds, "An important part of realizing the full potential of our supercapacitors is to optimize the energy efficiency of the system our component is integrated in. With ONiO’s revolutionizing microcontroller, we can support our customers with creating truly sustainable IoT devices.”&nbsp;The collaboration between ONiO and Ligna Energy represents a significant milestone in the quest for sustainable IoT solutions. It underscores both companies' dedication to innovation and a shared commitment to a more environmentally responsible technology landscape.<h2>About Ligna Energy</h2>Ligna Energy, based in Norrköping, Sweden, is an award-winning Swedish cleantech company known for its cutting-edge ultrathin supercapacitors.We believe in a future where technology and nature works close together. This philosophy is reflected in our unique material recipe that utilizes waste from forest industries, solving the challenges of battery waste while repurposing waste from other industries at the same time. Our products are produced with roll-to-roll methods, which results in a highly automated and stable volume production. &nbsp;&nbsp;<h2>About ONiO</h2>Headquartered in Oslo, Norway, ONiO® is an innovative fabless IoT company focused on developing advanced batteryless microcontrollers powered by ambient energy. Our mission is to revolutionize the IoT landscape by delivering clean-energy solutions that liberate devices from the constraints of traditional batteries. ONiO.zero, our line of versatile batteryless general-purpose microcontrollers, can efficiently harness power from a wide range of sources, including RF, thermal, light, and piezo.At ONiO, we envision a future where IoT devices are 100% battery-free, contributing to a more minimalist, user-friendly, cost-effective, and environmentally sustainable ecosystem. By providing manufacturers with groundbreaking power solutions, we strive to transform&nbsp;If you’d like to know more about us and what we do, please give us a visit at&nbsp;<a href="https://www.onio.com"> www.onio.com </a>or follow us on our socials to stay updated on our latest product developments and news!<h3> Press Contact ONiO</h3>Runar Finanger, CMO <a href="mailto:runar.finanger@onio.com">runar.finanger@onio.com</a><h3> Press Contact Ligna Energy</h3>John Söderström, Marketing Director <a href="mailto:john.soderstrom@lignaenergy.com">john.soderstrom@lignaenergy.com</a> &nbsp;

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Uniting Wireless Batteryless Microcontrollers with Eco-Friendly Supercapacitors for a Sustainable IoT Future.

OSLO, NORWAY and STOCKHOLM, SWEDEN, December 21, 2023 - ONiO®, a pioneer in the development of advanced batteryless microcontrollers, is thrilled to announce a strategic partnership with Exeger, the innovators behind Powerfoyle™ solar cell technology. Together, the alliance marks a decisive and significant step towards a sustainable future, transforming the IoT and consumer electronics landscape. ONiO chooses Powerfoyle as their preferred solar cell technology for product integration.&nbsp;The collaboration will focus on developing devices that can draw power from any light source, whether natural outdoor or ambient indoor. Through the integration of Powerfoyle, devices operate with complete autonomy, while remaining 100% batteryless in order to help eliminate the alarming impact that disposable battery waste has on the environment."Selecting Powerfoyle as the preferred solar cell technology for ONiO was based on three clear advantages. Powerfoyle has world leading efficiency when integrated into products. Combined with best-in-class integration possibilities makes it the clear choice for product integration. World-leading companies have chosen Exeger as an exclusive solar cell supplier, giving ONiO a unique commercial opportunity through this partnership," states Kjetil Meisal, CEO of ONiO. "This partnership is about pioneering technology and championing a green revolution where devices are powered endlessly by clean energy—completely bypassing the need for traditional batteries."In recent evaluations alongside Exeger, ONiO has demonstrated a groundbreaking advantage over today's state-of-the-art technologies. ONiO.zero microcontrollers power up in just a few seconds, significantly outpacing the tens of minutes required by current leading technologies. This rapid activation, particularly in low-light scenarios, perfectly complements Exeger's Powerfoyle technology, renowned for its seamless transition between indoor and outdoor lighting environments. This synergy signals a new frontier in the world of IoT devices, and ushers in the next generation of efficient, batteryless devices that are not just ready for immediate operation but also redefine the benchmarks for cold-start capabilities.&nbsp;“Joining forces with ONiO marks a significant step forward in our joint mission to develop more sustainable products for the IoT market”, adds Oscar Hemberg, Chief Product Integration Officer at Exeger. “Collaborating with industry pioneer ONiO, illustrates the widespread demand and possibilities for integrating Powerfoyle solar cell technology. In addition, this partnership recognizes a natural fit, with Exeger complementing ONiO as it continues to reduce waste in the development of advanced batteryless microcontrollers.” &nbsp;ONiO and Exeger's partnership combines ONiO's advanced microcontrollers with Exeger's Powerfoyle technology, driving forward the development of sustainable, low-maintenance electronics. This collaboration is geared towards ushering in a new era where sustainable energy is seamlessly integrated into our daily lives.&nbsp;<h2>About Exeger</h2>Exeger is a Swedish company with a unique solar cell technology that converts all forms of light into electrical energy. This material, Powerfoyle, is the world’s only fully customizable solar cell. Thanks to its unique design properties, it can be integrated seamlessly into any electronic device. &nbsp;Powerfoyle enhances every product it is integrated into with extended or even unlimited battery life, putting the power of cutting-edge solar cell technology directly in the hands of people. Exeger is leading the way to energy independence through more sustainable and user-friendly products – with the vision to touch the lives of a billion people by 2030. For more information visit <a href="https://www.exeger.com/">www.exeger.com</a> | <a href="https://www.powerfoyle.com/">www.powerfoyle.com</a><h2>About ONiO</h2>Headquartered in Oslo, Norway, ONiO is an innovative fabless IoT company focused on developing advanced batteryless microcontrollers powered by ambient energy. Our mission is to revolutionize the IoT landscape by delivering clean-energy solutions that liberate devices from the constraints of traditional batteries. ONiO.zero, our line of versatile batteryless general-purpose microcontrollers, can efficiently harness power from a wide range of sources, including RF, thermal, light, and piezo.At ONiO, we envision a future where IoT devices are 100% battery-free, contributing to a more minimalist, user-friendly, cost-effective, and environmentally sustainable ecosystem. By providing manufacturers with groundbreaking power solutions, we strive to transform the way IoT devices are designed, deployed, and maintained, one device at a time.For more information, please visit our website at <a href="https://www.onio.com">www.onio.com</a>, and follow us on social media to stay up-to-date with the latest product developments and company news.&nbsp;<h3>Press Contact ONiO</h3>Runar Finanger, CMO <a href="mailto:runar.finanger@onio.com">runar.finanger@onio.com</a><h3>Press Contact Exeger</h3>Karin Carlström <a href="mailto:karin.carlstrom@exeger.com">karin.carlstrom@exeger.com</a> +46 70 358 2911 &nbsp;&nbsp;

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ONiO and Exeger Partnership: Energizing IoT and Consumer Electronics with Sustainable Solar Technology

Remote Control Energy sources Right as rain, safe as houses A Zero-compromise user experience Ultra-low power requirement All the frills and thrills - IR diode support Future proof flexibility Pulse density modulation interface (PDM) Capacitive touch Button key scanner Accelerometer Reference Design Want to talk? Watch Video Introduction Visit the ONiO.zero page Energy Harvesting Reliability User Interfaces Contact us for more information Watch Video The remote as we know it is a dinosaur - ancient technology! Today, with energy harvesting, the pain of charging and replacing batteries is history! Our surroundings are rife with potentially usable energy that we can harness and store. Energy from WiFI AP, mobile phones and other dedicated terrestrial RF energy sources supplies enough power for the remote to operate. At the heart of our smart remote solution is ONiO.zero - a batteryless wonderchip that runs on ambient energy! The best part, fewer batteries are thrown away in landfills. What's more - super-tiny photovoltaic cells could be used in tandem to make sure you never run out - Given typical light conditions, you could power your remote for eternity - no replacements, no nothing! RF fields between 650MHz and 2.4GHz.Any source between 350mV and 4V that produce 5-10μA). E.g. PV/Solar, thermal and motion.  ONiO.zero implements a low power PDM interface for interfacing low power microphones. The supported sampling speeds are 300kHz to 12MHz with support for fractional bitrate. The capacitive touch engine does not require any internal oscillator to run and is fully self-clocked. This means that it’s extremely low power and can asynchronously wake the rest of the system up. True wake on touch! Supports 8 rows and 8 columns making for a total of 64 buttons. Runs on an ultra low-power oscillator. Any keypress wakes up the CPU. FIFO (First in First out) of last 8 key presses. A low power SPI and two-wire interface are implemented for efficient interfacing with an accelerometer. The data from the accelerometer can be classified by ONiO.zero into gestures. Drained batteries and interruptions are best left in the past! With just a little ingenuity, we can design batteryless solutions that, well, just make more sense! Energy has to be present when the remote is in use. By utilising both RF and PV cell harvesting the remote will constantly be charging - even when its stuck between your sofa cushions. We took a novel new approach to low-power. We designed for nano-watt operation - not milli- or microwatts from day one. This has resulted in a framework that allows applications using a battery today - remove them tomorrow. We have to acknowledge that most remote controls today still utilise infrared communication. That's why we added a dedicated hardware module for carrier generation and modulation of IR diodes. A modern remote control is meant to be user-friendly and flexible. ONiO.zero supports multiple user interfaces - so you’re never caught off guard - whatever your device or need, we’ve got you covered.

A real smart remote solution runs on ONiO.zero - a batteryless wonderchip that feeds on ambient energy! Best part, no more annoying broken battery lids!

ONiO - Smart Remote

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The Power of Zero

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ONiO and Exeger Partnership: Energizing IoT and Consumer Electronics with Sustainable Solar Technology

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Products /

ONiO - Smart Remote

Products

Reference Designs

Watch: The Power of Zero

A greener future:

91 results for 'batteryless'

Popular Searches

Top Hits

Articles /

Batteries or Energy Harvesting - Can’t It Be Both?

Batteryless was never the point

Sustainable electronics disentangled

Beyond Batteries: The Future of Forever Devices

News /

ONiO + Vinatech - Supercap powered Green IoT

Green fields ahead: ONiO Awarded Research Council Grant for developing batteryless sensor systems for Precision Agriculture

Uniting Wireless Batteryless Microcontrollers with Eco-Friendly Supercapacitors for a Sustainable IoT Future.

ONiO and Exeger Partnership: Energizing IoT and Consumer Electronics with Sustainable Solar Technology

General /

Products /

ONiO - Smart Remote

Watch:
The Power of Zero