Category: Articles

Setting a New Standard for Safety and Global Deployability in Robotics: WiBotic Achieves FCC, CE, and Giteki Certifications

By: Isaiah Dominguez

Whenever you’re planning to implement robotics—whether across a full-scale operation or for a single application—there are countless factors to consider. Upfront investment, projected productivity gains, user training, and potential infrastructure changes are just the beginning. But at the core of every successful automation strategy is one critical element: safety.

News headlines occasionally highlight incidents of robots overheating, catching fire, or malfunctioning in ways that put people and equipment at risk. Since safety underpins every other aspect of launching and scaling a robotics fleet, it’s vital to know—at a glance—whether the products you’re using have been rigorously tested for compliance, safety, and reliability.

For those familiar with the industry, certifications like FCC and CE are well-known benchmarks. Achieving these marks is a foundational goal for manufacturers, signaling that a product has undergone thorough testing and meets stringent regulatory standards. These certifications provide integrators and end users with peace of mind, ensuring that their technology not only performs as expected but does so within safe and legal operating parameters. That’s why WiBotic has prioritized obtaining FCC and CE certifications for all our products. But what does that process entail? What kinds of tests are involved? And most importantly, what does it all mean for the end user?

WiBotic 1kW system in an anechoic chamber undergoing EMC testing

To answer that, it helps to first define these certifications. The Federal Communications Commission (FCC) is a U.S. government agency responsible for regulating communications. FCC certification ensures that electronic devices do not emit excessive electromagnetic interference (EMI), which could disrupt other critical systems like Wi-Fi, Bluetooth, or radio communications. When a product—such as WiBotic’s recently certified 1kW wireless charging system—demonstrates acceptable EMI performance, it is added to the FCC’s official equipment authorization database, validating its compliance.

The CE mark, short for Conformité Européenne, is required for many products sold in the European Economic Area (EEA). The CE process places the onus on manufacturers to ensure their products meet all applicable European safety, health, and environmental protection directives. This can involve third-party testing by a Notified Body, particularly for higher-risk products. Once verified, a Declaration of Conformity is issued, and the CE mark allows a product to be sold across all 30 countries in the EEA.

WiBotic 1kW system and radio antenna during emissions testing

Products undergoing certification are subjected to a rigorous and often costly battery of tests performed by accredited third-party laboratories. These evaluations ensure the product operates safely, consistently, and within the technical parameters defined by regulatory bodies. For FCC certification, testing typically focuses on three main categories: (1) radiated emissions, which protect against electromagnetic interference (EMI), measured in decibels per microvolt per meter (dBµV/m) across specific frequency bands; (2) conducted emissions, which protect devices connected to the same electrical circuit or network; and (3) maximum permissible exposure limits, which protect people from harmful wireless frequencies by ensuring emissions from radio frequency equipment are below acceptable specific absorption rate (SAR) limits. WiBotic’s 1kW wireless charging system, for instance, was tested to ensure it did not emit interference outside the FCC’s allowable limits for Class A devices—which are designed for use in industrial environments. This required precise engineering of shielding and circuit layout to keep emissions below the defined thresholds across the 30 MHz to 1 GHz range. The testing was conducted at an FCC-accredited lab, and the results were used to secure an official listing in the FCC’s equipment authorization database.

For CE certification, the 1kW system was assessed for compliance with multiple European directives, including the EMC Directive for electromagnetic compatibility and the Low Voltage Directive (LVD) for electrical safety. Specific tests included electrostatic discharge (ESD) resilience, surge immunity, radiated and conducted emissions, and thermal stress evaluations. For example, our system had to demonstrate that it would not overheat under continuous 1kW operation, maintaining surface and internal component temperatures below safety thresholds. CE certification also involved mechanical stress testing to ensure the dock and transmitter hardware could withstand repeated contact with mobile robots under real-world conditions.

Example of emissions testing results provided by Intertek

The cost of this certification process is non-trivial. For the 1kW system alone, WiBotic invested tens of thousands of dollars to cover the full range of testing required.. Some of the most rigorous testing was performed in partnership with Intertek, while additional validation was carried out in collaboration with NASA, subjecting the system to vacuum chamber tests, radiation exposure, and extreme thermal cycling to simulate conditions encountered during space missions. While these aren’t required for FCC or CE certification, they underscore our broader commitment to safety and reliability in even the most extreme environments.

For robotics operators, fleet managers, or system integrators, certified products eliminate uncertainty. Certifications are also a requirement in many cases for importing and exporting products. And most businesses looking to adopt the usage of robotics have their own certification requirements that align with these federal compliance standards.

When a charging solution is FCC and CE certified, you’re not just checking a regulatory box—you’re minimizing liability, avoiding downtime, and ensuring seamless operation within complex digital ecosystems. Certified systems are less likely to interfere with other electronics, more likely to pass safety inspections, and more readily approved for deployment across diverse geographies. For users with tight deployment timelines or global operations, these certifications can mean the difference between delay and success.

In a world increasingly reliant on automation, the products you choose must meet more than just functional requirements—they must meet global standards for safety and reliability. FCC and CE certifications are not just technical milestones; they are critical indicators of product quality and manufacturer integrity. By choosing solutions that carry these marks, like those offered by WiBotic, end users gain confidence, accelerate deployment, and ensure long-term system stability—no matter where or how their robotics are put to work.

Set It and Forget It: WiBotic and InDro Are Powering Truly Autonomous Robots

By: Isaiah Dominguez

Outdoor AGV operators are seeing incredible results thanks to the collaboration between WiBotic and InDro Robotics. InDro, the company behind the rugged Sentinel robot and enclosure, teamed up with WiBotic to integrate powerful wireless charging technology that’s transforming how autonomous vehicles operate.

A recent demo with Hydro Ottawa showcased just how game-changing this setup is. InDro’s Sentinel robot, equipped with WiBotic’s wireless charging system, worked independently in a remote substation for hours on end. The robot could autonomously dock, recharge, and jump right back into action without needing anyone to step in. This technology is taking autonomy to the next level by eliminating the need for constant human oversight—freeing up operators to focus on the bigger picture.

WiBotic’s wireless charging system makes it all possible with incredible efficiency—just one hour of charging delivers up to five hours of operation. This quick turnaround means less downtime and more time spent on the mission at hand, even in remote and tough environments.

By removing traditional mechanical charging interfaces like prongs and connectors, the system also cuts down on maintenance headaches. That reliability is huge for outdoor operations where access to human help is limited.

And the best part? The system’s autonomous docking feature, powered by AprilTags, ensures the robot aligns perfectly with the charger every time. The Sentinel can return to its charging station all on its own, making true autonomy a reality for outdoor AGVs.

Thanks to the partnership between WiBotic and InDro Robotics, operators now have a solution that’s reliable, efficient, and completely redefines what it means to be autonomous. As the Hydro Ottawa demo showed, this setup isn’t just innovative—it’s setting a new standard for what AGVs can do in the field.

Taking a Look at ‘Watts’ Ahead: 2025 Predictions for Robotics

By: Isaiah Dominguez

The robotics world in 2025 is shaping up to be less about sci-fi fantasies and more about rolling up its sleeves and getting things done. While humanoid robots stole the spotlight in 2024, the reality is they won’t be a scalable solution for a while. Instead, the real action is happening with autonomous mobile robots (AMRs) and automated guided vehicles (AGVs), which are proving to be the workhorses that industries can count on.

As construction sites, warehouses, and manufacturing floors start to adopt automation and robotics, the challenge of keeping them up and running is emerging. Maintenance and downtime are quickly becoming the Achilles’ heel of large-scale automation. That’s where the unsung heroes of robotics, charging and infrastructure solutions, step in. Companies like WiBotic are tackling this head-on with smart systems that keep batteries charged and robots moving. The result? Less downtime, more productivity, and a much happier bottom line for businesses. It’s a practical, ROI-driven approach that’s turning skeptics into believers.

And then there’s AI, the current darling of tech. After its rapid ascension in the public eye, AI is back for an encore in 2025, showing off its talents in navigation, material handling, welding, and everything in between. The buzzword for the year? “AI as a Solution.” In robotics, this means smarter robots that aren’t just following orders but figuring out how to do their jobs better. If you aren’t anticipating building an in-house solution, eyeing partnerships with AI innovators may be essential to maintaining a competitive edge in the market.

Meanwhile, the public’s relationship with automation is shifting. Humanoid robots may have captured imaginations, but 2025 is the year of “less flash, more function.” People and businesses alike are realizing that practical robots, ones that make life easier and workflows smoother, are the real MVPs. Advances in domestic manufacturing and support are also making it easier than ever to scale up AMR and AGV deployments, making them less intimidating and more of a “where do I sign?” decision.

All of this is adding up to a big leap forward for robotics. By addressing the headaches of downtime and showing clear ROI, the industry is moving from futuristic dream to everyday reality. 2025 isn’t about chasing shiny new gadgets, it’s about building robots that show up, do the job, and keep everything running smoothly. Mastering the fundamentals now allows major breakthroughs to take place in the future!

 

Cutting the Cord: Partnering with Innovative Companies to Streamline Healthcare

By: Isaiah Dominguez

If you’ve ever watched a made-for-TV medical drama, you know there’s always a moment when characters must act at almost superhuman speeds to save lives. The ER becomes a well-orchestrated dance of rapid commands, beeping machinery, and mobilized bodies, as the team works in perfect harmony. McDreamy’s healthcare system may operate in an idealized world, but in reality, medical professionals must manage the daily chaos of a hospital while maintaining high standards of care. Doctors, nurses, and technicians are tasked with providing top-notch care even as they navigate technical frustrations—software glitches, tangled cords, dead batteries, and missing or malfunctioning equipment. So, how can we create a more streamlined medical experience that removes these obstacles?

Empowering Patient Care and Efficiency

In today’s fast-paced healthcare environment, smooth operations and reliability aren’t just nice-to-haves—they’re necessities. Mobile workstations are central to providing immediate patient care and accessing real-time data. Yet, traditional plug-in charging solutions create inefficiencies, causing downtime, tangled cables, and shortened equipment lifespans.

This is where WiBotic’s wireless charging technology makes a difference. Medical carts equipped with WiBotic’s wireless power solutions can charge automatically, simply by being near a charging station—no more hunting for outlets or wrestling with power cords. This innovative approach ensures a fully charged cart is always ready, enabling healthcare teams to provide uninterrupted patient care.

How Wireless Charging Benefits Healthcare

  • Reliable Patient Care: Wireless charging keeps essential medical devices, such as code blue crash carts, always ready for emergencies. Healthcare teams can focus on delivering critical care without worrying about power disruptions.
  • Efficient Workflows: Medical staff can move carts freely throughout the hospital, never needing to stop for outlets. The system’s continuous charging capability means fewer interruptions and greater operational efficiency.

Additional Advantages of WiBotic’s Wireless Technology

  • Less Clutter: By eliminating extra power cords, wireless charging reduces trip hazards and keeps workspaces organized, making day-to-day tasks safer and simpler.
  • Extended Device Lifespan: Traditional plug-in charging causes wear and tear on ports, but wireless solutions bypass this issue, helping equipment last longer and reducing maintenance costs.
  • Greater Mobility: With wireless charging, medical carts aren’t tethered to wall outlets. This flexibility enhances the mobility of healthcare providers and improves ease of use.

A Vision for Healthcare Innovation

WiBotic is partnering with forward-thinking companies like TagCarts to drive innovation in healthcare. By integrating reliable wireless charging into medical equipment, these partnerships are setting new standards for medical mobility and equipment management.

As healthcare evolves, WiBotic’s mission is to empower medical professionals with technology that supports both patient care and operational efficiency. By reimagining how hospitals power essential devices, we can help alleviate technical barriers, ultimately leading to better patient outcomes.

Red Bull for Robots: Energizing Humanoids for Continuous Runtime

a humanoid robot skydiving while surrounded by free falling cans of red bull energy drink. A banner in the lower left that reads "Red Bull for Robots" and a WiBotic logo and wordmark on the lower right.

By: Ben Waters, PhD

Most people rely on caffeine to help overcome the morning grogginess or the afternoon energy dip, and humanoid robots face a similar challenge with energy limitations. With current operational runtimes averaging only 2-4 hours before needing a recharge, these robots encounter significant limitations. To perform continuous and repetitive tasks reliably, they require a solution that enables longer operational hours without frequent recharging. Simply adding a larger battery is impractical, as these machines already weigh approximately 150 pounds, and added weight would only increase their energy demand. Thus, an efficient, adaptable charging solution is essential.

There are three primary approaches to address this issue. The first, plug-in charging, involves connecting the robot to a standard power outlet. This method, while straightforward, requires human intervention, introducing potential delays and risks of human error, such as forgetting to plug the robot in or not tracking charge cycles. This also places unnecessary strain on the battery, potentially shortening its lifespan and resulting in more frequent replacements. As a result, plug-in charging is gradually being phased out in advanced humanoid robot applications.

 

The second option, contact-based charging platforms, offers a more autonomous approach. Robots can dock themselves forcharging without human involvement. However, these platforms come with maintenance demands, as they rely on exposedconductive points that require regular cleaning to ensure a stable connection. Misalignment issues can also prevent proper charging, often leaving robots inactive until they can be correctly repositioned. Dust, dirt, and other debris can further disrupt the process, necessitating frequent maintenance to retain effectiveness.

 

The third approach, inductive wireless charging, eliminates physical connectors by using induction coils to generate power. This method can be integrated directly into automated workflows, making it a more convenient solution. However, challenges remain, such as the risk of foreign objects near the coils heating up, which can pose safety hazards. Additionally, precise alignment is often necessary for effective charging, which can be challenging in dynamic environments.

 

Among these solutions, resonant wireless charging presents an advanced alternative. WiBotic’s charging technology, for example, operates at 6.78 MHz with dynamic tuning, enabling a reliable charge even when robots are not perfectly aligned with the charging coil. This approach reduces the need for human oversight and maintenance while eliminating risks associated with foreign object heating. WiBotic’s system is designed for durability, making it suitable for various settings, including indoor, outdoor, and even outer space applications. By enhancing battery life and improving operational efficiency, resonant charging maximizes the return on investment from each robot.

Ultimately, the ideal charging method depends on the specific needs of the application. For tasks requiring limited mobility, plug-in charging may suffice. However, for applications where continuous operation is crucial, resonant wireless charging provides a robust, efficient solution that minimizes downtime and maintenance needs. WiBotic’s technology offers the capability to extend a 2-4 hour runtime to near-continuous operation, supporting productivity and efficiency across diverse applications.


Ben Waters, CEO and Co-founder of WiBotic, leads a team of engineers, designers, and business developers focused on powering autonomous robots. He holds a PhD in Electrical Engineering from the University of Washington and a bachelor’s degree in Electrical Engineering and Physics from Columbia and Occidental.