The good news? Connected technology is giving energy operators a powerful toolkit for navigating this moment. IoT-enabled devices are monitoring assets in real time, coordinating distributed energy across vast geographies, and squeezing efficiency from infrastructure that has gone largely unchanged for generations. 

Here are the five most significant IoT trends reshaping the energy sector right now, and what they mean if you’re building connected products for it. 

1. Energy is Leading IoT Adoption

Before getting into the specifics, it’s worth pausing on just how dominant energy has become as an IoT deployment sector. The energy vertical now ranks among the highest IoT device deployments of any industry globally. 

The IoT in Energy market is projected to reach $47.41 billion by 2029, growing at 13.4% CAGR. Keeping pace with the enterprise IoT market as a whole, which grew 15% to $269 billion in 2023, with a projected 15% CAGR through 2030. 

The energy sector has moved from exploring IoT to depending on it. For equipment manufacturers selling into electricity generation, utilities, or industrial energy management, this is the tide that lifts all boats.

2. Predictive Maintenance is Replacing Scheduled Downtime

For decades, the dominant model for maintaining energy infrastructure was scheduled maintenance. You service the asset every six months, whether it needs it or not. This model is expensive, inefficient, and doesn’t prevent unexpected failures in between. 

Smart sensors introduce the possibility of a new model. Embedded in equipment, sensors can feed a continuous stream of vibration data, temperature readings, pressure levels, and operating parameters to the cloud, where AI analyzes it in real time. The result is a shift from “maintain on a schedule” to “maintain on a signal.” 

The numbers reflect what this shift is worth. The predictive maintenance market has grown from $1.5 billion to $6.5 billion since 2016 and is projected to hit $28 billion by 2026. Leading deployments are delivering maintenance cost reductions of 25–30%, asset life extensions of 20–25%, and significant reductions in unplanned downtime. Smart grid systems using IoT monitoring have already reduced electricity outages by 50%, according to the U.S. Department of Energy. 

3. Virtual Power Plants Are Moving from Pilot to Mainstream

A Virtual Power Plant (VPP) aggregates thousands of distributed energy resources: rooftop solar panels, residential batteries, EV chargers, and commercial HVAC systems. Rather than treating these as independent assets, a VPP coordinates them, managing their collective output and demand response as if they were a single, controllable power plant. 

In 2025, VPP deployments jumped 33%, driven largely by data center load growth. The catch is that a VPP is only as reliable as its asset connectivity. Every asset in the network is a connected device that needs to respond to grid signals, report its status, and receive updated instructions in real time, continuously, at scale. 

This creates a significant opportunity for equipment manufacturers. Smart inverters, battery systems, EV chargers, and HVAC controllers that ship with reliable, pre-provisioned connectivity become far more valuable participants in the VPP ecosystem than those that require configuration and carrier negotiation before they can come online. 

4. Smart Metering is Entering its Second Act

Smart meters were IoT’s first large-scale deployment in the energy sector. Over the last decade, utilities have rolled out hundreds of millions of connected meters, unlocking basic consumption data.  

Where first-generation smart meters were largely one-way (device-to-utility), AMI 2.0 creates a bidirectional data layer. Utilities can send pricing signals, demand response commands, and configuration updates back to devices in the field. Consumers can see real-time consumption data and actively participate in grid management.  

5. IoT is Making Renewable Energy Manageable at Grid Scale

The primary challenge with renewable energy is variability. Solar panels don’t produce power at night. Wind turbines are dependent on conditions that change by the hour. Storage systems have finite capacity. Connecting large amounts of renewable generation to a grid designed around predictable, dispatchable power plants is a major engineering challenge. 

IoT is the layer that makes it manageable. Research published in Scientific Reports in 2025 found that connected hybrid solar-wind-storage systems achieved average efficiency improvements of up to 72.3%, reduced energy costs by up to 61%, and cut CO₂ emissions by over 61% compared to conventional systems by utilizing real-time monitoring and adaptive energy management. At a grid level, smart grids can reduce energy consumption by up to 35% through real-time load optimization. 

The mechanism is straightforward: continuous sensor data, processed by AI at the edge or in the cloud, allows systems to dynamically balance generation, storage, and demand. When solar output drops unexpectedly, storage can discharge. When demand spikes, demand response signals go out to connected industrial loads. The grid becomes a self-correcting system rather than one that requires constant human intervention. 

The Grid is Getting Smarter 

These trends aren’t happening in isolation. Predictive maintenance generates the operational data that makes grid intelligence possible. Smart meters create the bidirectional communication layer that VPPs depend on. Renewable integration drives the need for real-time coordination across distributed assets. Each trend accelerates the others. 

What’s emerging is a distributed, data-driven, and increasingly automated system. The static energy grid of the 20th century is giving way to a dynamic, intelligent network that responds to conditions in real time. Of all the shifts underway, predictive maintenance is actionable for equipment manufacturers. The infrastructure that powers the energy sector is already in the field. The question is how to make existing and next-generation assets observable and act on what they’re telling you.  

The market is reflecting this urgency. The IoT in Energy market is projected to reach $47.41 billion by 2029. The predictive maintenance segment alone is on track to hit $28 billion by 2026. These numbers signal a sector in structural transformation, and the manufacturers building connected products for it are the ones capturing that value. 

If predictive maintenance is on your roadmap our guide is a great place to start. 

Additional Resources 

• Understanding Predictive Maintenance in Energy Infrastructure 

• How SkyCentrics Connects Legacy Systems with Modern IoT 

• Solar Anywhere: Enabling Remote Asset Management with IoT Connectivity 

The post 5 IoT Trends Reshaping the Energy Sector appeared first on Blues.

If this sounds familiar, you’re dealing with the two fundamental challenges that derail connected products in transportation and logistics: patchy network coverage and unreliable power.  

According to recent data, 44% of fleet managers report losing track of their vehicles monthly. That’s a design failure, and it starts with building products assuming that the real world is as pristine as a lab. 

The Coverage Gap Is Bigger Than You Think 

Cellular coverage maps show you what’s possible under ideal conditions in a flat, open area with a clear line of sight to a tower. They don’t show you the dead zone in the valley where your trailer sits overnight, the spotty handoff between carriers as a truck crosses state lines, or the complete absence of infrastructure along a 200-mile stretch of rural highway. 

For stationary IoT deployments like building sensors or factory equipment, connectivity is a problem you solve once. You find a carrier that covers your location, configure the device, and move on. In the transportation industry, your devices travel through dozens of coverage zones in a single trip. They cross borders where carrier agreements change, they sit in warehouse yards, inside metal containers, and in underground loading docks where signals struggle to reach. 

A single-carrier approach creates a fragile system. When your device loses network connectivity, it creates a data gap that cascades downstream. A missed temperature reading during cold chain transport could mean the difference between a compliant shipment and a rejected one. A six-hour gap in location data might trigger a theft investigation into a trailer parked in a dead zone. 

Blues’ multi-RAT connectivity addresses this by automatically switching between cellular and satellite networks. When a device moves from urban coverage into a rural dead zone, it falls back to satellite rather than burning power searching for a cellular signal that isn’t there. Store-and-forward capability caches data locally during any remaining gaps and syncs when a connection returns. There’s no custom roaming logic to build and no carrier negotiations to manage; network selection happens at the hardware level. 

In practice, this means maintaining cargo integrity monitoring across an entire route, delivering accurate ETAs even through remote corridors, and catching impending equipment failures before they become roadside emergencies. Connectivity in transportation isn’t about finding a signal. It’s about never losing your data, even when you temporarily lose your signal. 

Power Is a Design Constraint, Not an Afterthought 

Connected transportation products must operate in environments with limited, intermittent, or completely unavailable power. Prolonged running on energy scavenged when available becomes a core technical requirement, making ultra-low-power design a must. 

Consider the power landscape. Some devices can tap into a vehicle’s electrical system, but a huge portion of products have no power source at all. Unpowered trailers, intermodal containers, pallets, cargo, and portable equipment all have no power source of their own. That means your device needs to run on battery, and it needs to run for a long time. 

Battery life projections under controlled lab conditions almost never hold up in the real world. Temperature extremes, like the scorching heat of a trailer roof in Arizona or the deep cold of a refrigerated container, dramatically affect battery performance. Vibration from road travel increases power draw. And the biggest killer of all? Connectivity issues. 

Poor connectivity actively worsens power consumption. When a device can’t find a network, it doesn’t just wait; it searches, retries, and keeps the radioactive, attempting handshakes that fail. A device that would last six months with reliable connectivity might die in six weeks in a low-coverage corridor simply because it’s burning through power trying to connect. 

You can reduce transmission frequency to save power, but then you lose the real-time visibility your customers are paying for. You can add a bigger battery, but that increases cost, weight, and device size for products that need to be compact and unobtrusive. 

Blues is built with an ultra-low-power sleep mode that draws single-digit microamps when idle, the device becomes activated only when there’s something worth reporting, and intelligent scheduling adapts transmission behavior based on available power. Beyond extending battery life in the field, Blues’ secure three-tier OTA update architecture lets you push upgrades remotely rather than dispatching technicians to swap or service devices. That reduces the total cost of ownership over the life of the product and avoids the expense of early hardware refreshes when all you really needed was a firmware change. 

Build for the Road, Not the Lab 

If you’re building connected products for transportation and logistics, these challenges aren’t obstacles you can engineer around later. They need to inform your architecture from day one. 

When evaluating how to approach connectivity for transportation products, look for multi-carrier and multi-RAT support with automatic failover, store-and-forward architecture that preserves data integrity through connectivity gaps, hardware designed for ultra-low-power operation from the ground up, and cloud-side fleet management that gives you visibility and control over devices operating in unpredictable conditions. 

Ready to build connected products purpose-built for transportation and logistics? Talk to a Blues expert about how to get from concept to deployment faster, without the connectivity and power headaches. 

Additional Resources: 

• Explore Seamless Connectivity with Blues Satellite and Cellular 
• Compare Blues’ New Generation of Satellite IoT Failover Devices 
• Pilot to Production: How Not to Get Stuck in Pilot Purgatory 

The post Why Connected Products for Transportation Fail, and How to Build Ones That Don’t appeared first on Blues.

This connectivity gap is a business opportunity that building owners are desperate to solve. They want remote visibility into their facilities, predictive maintenance capabilities, and energy optimization. But decades-old protocols like Modbus and BACnet, combined with prohibitively expensive “rip and replace” upgrade costs, have kept the industry locked in place. 

Enter SkyCentrics, a Berkeley-based company that’s cracking this market wide open with an approach founder Tristan de Frondeville describes simply: “plug-and-play side by side” rather than “rip and replace.” 

From Grid Flexibility to Building Intelligence: The SkyCentrics Story 

SkyCentrics’ roots lie in the utility space, where they specialize in connecting buildings to power grids for demand response programs. Tristan explains. “For the last 100 years, all of our commercial machinery has gone on and off randomly. For the next 10,000 years, we need them to go on at the right time, and off at a better time.” 

These utility-run demand response programs offer substantial financial incentives for commercial buildings willing to shift their energy consumption. Building owners can earn thousands to tens of thousands of dollars per year per building by allowing their equipment to be temporarily curtailed during peak demand periods. For organizations with large building portfolios, these incentive payments can add up to significant revenue streams while simultaneously reducing strain on the electrical grid and lowering carbon emissions. In some markets, buildings can also participate in energy arbitrage, automatically shifting loads to times when electricity is cheapest and cleanest, further reducing operating costs. 

But there was a fundamental problem: the grid couldn’t control these machines because 98% of commercial buildings lacked the infrastructure to receive them.  

“The challenge SkyCentrics addresses is translating between different communication protocols,” says Tristan, “Many commercial buildings utilize equipment that communicates via Modbus or BACNet, industrial protocols that aren’t designed to interact with utility grid signals. The SkyBox acts as a translator, converting building management system protocols into grid-connected devices that can participate in demand response programs and access utility incentives. It is important to have a solution to connect directly to the machines for the 85% percent of buildings with no BMS.”  

For original equipment manufacturers (OEMs) and building owners, this translation capability opens up new revenue opportunities through utility incentive programs while supporting broader energy efficiency and grid resilience goals. The plug-and-play cellular connectivity means deployment doesn’t require complex network integration or IT involvement. The SkyBox can be installed and immediately begin communicating with both building equipment and utility systems.  

Bridging Decades-Old Protocols with Modern AI 

SkyCentrics’ solution is the SkyBox, a Linux-based gateway that solves a problem: how do you make legacy systems speak to modern cloud infrastructure? 

“We’re really cracking the industry wide open with a solution that’s 10 times less expensive, has 10 times more functionality, and is based under the Linux Foundation, the world’s largest open-source community,” Tristan says. 

The SkyBox connects directly to existing building systems using their native protocols, including Modbus, BACnet, and LON, without requiring expensive infrastructure replacement. For commercial building managers, this means installing a single $500 box in their network closet side by side to access the building’s solar panels, batteries, building management systems, HVAC, and hydronic floor systems. 

Once connected, the SkyBox translates legacy building data into a modern tech stack ready for cloud connectivity and AI applications. SkyCentrics is building two AI capabilities on this foundation: 

Natural Language Query: Building operators can ask questions about their facilities and get instant answers by querying uploaded engineering documents and real-time system data. 

Agentic AI (coming soon): Autonomous agents will orchestrate building operations to reduce costs, predict equipment failure, and optimize the timing of capital-intensive replacements that building owners must make every 5-10 years. 

Why Blues Became the Connectivity Foundation 

SkyCentrics key customers are Master Systems Integrators (MSIs), architectural and engineering companies (AECOs), and mechanical, electrical, and plumbing (MEP) contractors who service millions of square feet of commercial space. 

These service providers present the SkyBox to their building owner customers as a powerful new solution that enables them to be more efficient while generating new revenue for building owners.  

For SkyCentrics’ business model to work at scale, connectivity costs had to be both low and flexible. Pricing became a significant factor in Tristan choosing Blues, he says, “The fact that Blues has the flexibility over long-term data rates and amount of data is what differentiates Blues for us and differentiates our solution to customers.” 

Beyond pricing, Blues’ architecture aligned with SkyCentrics’ product philosophy. Just as the SkyBox bridges legacy building protocols with modern infrastructure without forcing building owners to replace existing systems, Blues treats cellular connectivity as infrastructure, not a platform that demands you rebuild your application around its constraints. 

Join the Conversation: Modernizing Commercial Buildings 

For product designers, system integrators, and facilities managers looking to understand how connected products are transforming commercial buildings, SkyCentrics’ journey from utility-focused connectivity to comprehensive building intelligence offers lessons about market strategy, technical architecture, and channel partnerships. 

Want to hear more about how SkyCentrics is modernizing commercial buildings without expensive infrastructure replacement? Join Tristan de Frondeville for a fireside chat on Thursday, February 26th at 1pm ET / 6pm GMT where we’ll dive deep into: 

• “Plug and play” vs. “rip and replace” strategy for integrating IoT into commercial buildings  
• How to speak to legacy systems while delivering modern cloud connectivity and AI   
• How SkyCentrics leverages engineering firms and System Integrators to scale  
• The role of cellular IoT in making commercial building connectivity economically viable 

Register now for “10x Better, 10x Cheaper: Modernizing Legacy Buildings Without the Rip-and-Replace” 

Can’t make it? Register anyway and we’ll send you the recording.

The post Cracking Open the Commercial Building Market: How SkyCentrics Connects Legacy Systems with Modern IoT appeared first on Blues.

In this blog, we’re showcasing eight organizations that utilize Blues connectivity to power solutions aligned with the United Nations Sustainable Development Goals, giving you the inspiration and starting blocks to build your own social impact product with Blues. 

Airnote: Solar-Powered Air Quality Monitoring 

UN SDG: Climate Action (SDG 13), Sustainable Cities (SDG 11) 

Developed through a partnership between Blues and Safecast, Airnote brings professional-grade air quality monitoring to any window. This cellular-powered device collects Air Quality Index (AQI) data including particulate matter (1μm, 2.5μm, and 10μm), temperature, and humidity; critical metrics for understanding local environmental conditions. 

Blues cellular connectivity eliminates the need for WiFi configuration, though the V3 Airnote supports optional WiFi if desired. The super-low powered design enables the Airnote to operate entirely on solar-powered internal capacitors, achieving true autonomous operation without requiring external power infrastructure, critical for widespread deployment across diverse urban environments. 

Governments and non-profit organizations deploy Airnote networks to provide air quality data to local populations, helping residents stay informed about environmental conditions. This democratization of air quality data empowers communities to make informed decisions about outdoor activities, understand pollution patterns, and advocate for environmental improvements. 

Arribada: Tracking Humanitarian Aid Distribution 

UN SDG: Reduced Inequalities (SDG 10), Zero Hunger (SDG 2) 

Arribada’s GeoSeals project transforms humanitarian logistics. Operating across Ethiopia, the system provides aid workers with real-time visibility into emergency nutrition supply distribution, addressing a critical challenge in humanitarian response: knowing when and where supplies are needed most urgently. 

GeoHubs installed at distribution point entrances scan RFID-tagged aid boxes as they move through the supply chain. When an RFID seal is broken, the location data is transmitted immediately via cellular or satellite connectivity. This creates a real-time digital map of supply distribution and remaining inventory across the entire distribution network. 

Cellular and satellite connectivity eliminates the need for local infrastructure, making the system viable in remote areas where humanitarian aid is most needed.  

Beewise: Protecting Pollinators with Robotics 

UN SDG: Zero Hunger (SDG 2), Climate Action (SDG 13), Life on Land (SDG 15) 

Beewise addresses a critical threat to global food security: declining bee populations. The BeeHome is a robotic beehive that remotely monitors and cares for bee colonies, helping beekeepers protect them from extreme weather, disease, and chemical exposure. 

The BeeHome monitors colonies 24/7 using AI-powered computer vision to detect threats, while a robotic arm automates essential beekeeping tasks. By combining computer vision, robotics, and cellular connectivity, Beewise enables beekeepers to manage more colonies more effectively, making commercial beekeeping economically viable while improving outcomes for bee health. 

Beewise reduces the labor required to care for colonies by up to 90%, and while global colony loss rates are around 50%, Beewise see rates below 8%. Dramatically lower operating costs combined with higher colony survival ensures stable bee populations to support food production worldwide.  

Byte Lab: Community-Driven Noise Pollution Monitoring 

UN SDG: Sustainable Cities and Communities (SDG 11), Good Health and Well-Being (SDG 3) 

The Ear1 from Byte Lab tackles an urban environmental issue: noise pollution. This cellular-connected device enables everyday citizens to monitor and contribute to noise pollution control in their communities, promoting healthier and more comfortable urban living conditions. 

The Ear1 high-sensitivity microphone captures a wide range of sound frequencies, providing data comparable to professional monitoring equipment at a fraction of the cost. Cellular connectivity eliminates complex setup requirements, enabling rapid community-wide deployment. 

By distributing monitoring capabilities across neighborhoods, the Ear1 creates comprehensive maps of urban noise pollution. This empowers communities with data to identify problem areas, track changes over time, and advocate for noise mitigation measures to address environmental quality issues that directly affect health, sleep quality, and overall well-being. 

Conservation X Labs: AI-Powered Wildlife Protection 

UN SDG: Life on Land (SDG 15), Climate Action (SDG 13) 

Conservation X Labs‘ Sentinel system represents the cutting edge of wildlife conservation technology. Leveraging AI and real-time edge computing, Sentinel enables early detection and rapid response to wildlife-related threats, fundamentally changing the speed and effectiveness of conservation interventions. 

Sentinel’s edge computer vision model uses AI to identify species, monitor behavior, and detect potential threats. When threats are detected, the device immediately sends alerts via cellular to conservation workers, who can respond in real time. This edge processing approach ensures rapid alerts even in areas with limited connectivity. 

The system achieves response times up to 1,000 times faster than traditional methods while saving up to 90% of operational costs. This dramatic improvement in both speed and economics makes intensive wildlife monitoring feasible for conservation organizations with limited budgets.  

Hello Everyday: Passive Activity Monitoring for Family Peace of Mind 

UN SDG: Good Health and Well-Being (SDG 3), Reduced Inequalities (SDG 10) 

Hello Everyday checks on loved ones aging in place without compromising their privacy and dignity. The device detects human activity to discreetly notify family and friends of signs of life, providing reassurance without intrusive surveillance. 

It passively detects activity up to 20 feet away using motion sensors; no cameras, no audio recording, no location tracking. It delivers a single daily text alert to designated contacts confirming that activity has been detected. This minimal intervention approach maintains users’ privacy while providing family and friends with peace of mind. 

Using Blues, Hello Everyday has created a zero-touch deployment device that plugs into power sockets, requiring minimal setup or WiFi configuration. Users can install it themselves with no technical skills. 

Meteorologisk Institutt Norway: Arctic Ocean Monitoring 

UN SDG: Life Below Water (SDG 14), Climate Action (SDG 13) 

Norway’s Meteorological Institute deploys smart ocean monitoring buoys in Norwegian and Arctic waters to collect critical environmental data for forecasting and climate research. These buoys provide wave heights, quantify breaking waves, and temperature measurements at the water’s surface in one of the planet’s most climate-sensitive regions. 

The Arctic is warming faster than any other region on Earth, making continuous monitoring essential for understanding global climate change. The institute’s connected buoys provide real-time data from locations that over an area and duration would be impractical or impossible to monitor continuously through traditional ship-based research missions, especially during Arctic winter conditions. 

Cellular and satellite connectivity enable continuous data transmission year-round along the harsh Norwegian coast (with waves exceeding 15 meters) and in harsh Arctic conditions. This long-term data collection supports forecasting, climate modeling, ecosystem monitoring, and understanding of how Arctic changes are affected by global climate patterns. 

Radnote: Radiation Monitoring in Conflict Zones 

UN SDG: Climate Action (SDG 13), Peace, Justice, and Strong Institutions (SDG 16) 

A partnership between Blues and Safecast, Radnote brings cellular-connected radiation monitoring to areas where radiological hazards pose ongoing risks. The system has been deployed extensively across Ukraine, where damaged nuclear infrastructure and radiological threats require continuous monitoring. 

Radnotes are solar-powered and connect via cellular networks, with future plans to include satellite backup, making them resilient to the power outages and infrastructure damage common in conflict zones. This addresses a critical vulnerability in Ukraine’s existing radiation monitoring network, which relies on wired internet connections that have proven unreliable during the ongoing conflict. 

Data from Radnote networks creates live radiation maps that communicate safe zones to the general public through accessible web interfaces. This transparency enables residents to make informed decisions about travel and outdoor activities while providing authorities with comprehensive situational awareness for emergency response planning. 

Building Your Own IoT for Good Solution 

If you’re inspired to develop an IoT solution that addresses environmental, health, or social challenges, consider these principles that unite successful implementations: 

1. Start with Impact: Define the specific problem you’re solving and how you’ll measure improvement. The most successful projects have clear, measurable outcomes. 
2. Design for the Environment: Whether deploying in Arctic waters or African distribution centers, your solution must operate reliably in its target conditions without complex technical support. 
3. Prioritize Simplicity: Especially for solutions deployed by non-technical users or in resource-constrained environments, simplicity in deployment and operation is more valuable than feature complexity. 
4. Plan for Scale: Solutions that address global challenges need economic models that support wide deployment. Consider how unit economics change at 100, 1,000, and 10,000 devices. 
5. Leverage Cellular IoT: For applications requiring infrastructure independence, global coverage, or deployment in challenging environments, cellular connectivity often provides the optimal balance of capability, reliability, and economics. 

The organizations featured here demonstrate that connectivity is more than a technical capability; it’s an enabler of solutions to some of humanity’s most pressing challenges. From protecting threatened species to monitoring nuclear safety, from improving healthcare access to understanding climate change, cellular IoT is helping build a more sustainable and equitable future. 

Interested in developing an IoT solution with social or environmental impact? Visit blues.com to explore how cellular connectivity can power your next project. For technical documentation and getting started guides, check out dev.blues.com.

The post IoT for Good: How Blues Customers Are Solving Global Challenges with Connected Solutions appeared first on Blues.

IoT connectivity is revolutionizing how commercial equipment manufacturers deliver value by enabling real-time monitoring, predictive insights, and service-based business models that were previously impossible. From critical infrastructure monitoring to precision industrial control, rapid product development, and connected refrigeration systems, IoT is transforming equipment from one-time purchases into intelligent services. 

In this blog, we explore three examples of how companies in the commercial equipment ecosystem are leveraging IoT connectivity powered by Blues to transform their industries. 

RACO Manufacturing: Reliable Remote Monitoring for Critical Infrastructure 

RACO Manufacturing has spent over 75 years providing remote monitoring and alarming for municipalities, industrial facilities, and water and wastewater operations. Many of these systems are deployed in locations where reliable communications cannot be assumed, including isolated lift stations, remote wells, unattended tanks, and treatment infrastructure. Over time, RACO has evolved from basic alarm autodialers such as the well-known industry workhorse Verbatim, which relied on Plain Old Telephone Service (POTS), to cellular-based remote monitoring systems designed around a simple reality: alarms must get out even when networks fail.

Simple Injection: Precision Chemical Dosing in Remote Operations 

Simple Injection recognized a critical gap in industrial chemical injection systems: existing products lacked the remote control and monitoring capabilities that operators desperately needed. In oil and gas operations where injection sites are separated by vast distances, field personnel spend a significant amount of time traveling between locations to check tank levels and adjust injection rates. 

The Speedgoat system transforms chemical injection into an intelligent, remotely managed operation. The connected system combines sophisticated pump control with integrated cellular connectivity and real-time tank level monitoring, all accessible through a dashboard and smartphone app. 

The business impact is immediate and measurable. The system can automatically adjust pump speed to meet target injection rates, calculate precise dosing based on flow rates, and optimize methanol usage by injecting only when environmental conditions require it, eliminating unnecessary chemical consumption. 

Speedgoat’s certified design ensures reliable operation while providing critical environmental protection. The leak-safe design diverts any seal leakage back to the inlet line rather than allowing chemicals to reach containment areas or the ground. 

The system also eliminates batch truck requirements in many scenarios, allowing operators to schedule precise chemical doses remotely. 

“The Speedgoat with Blues connectivity solved the problem our customers told us about—they needed reliable remote access to monitor and control their injection systems,” explains Matthew Kull, Owner and Developer at Simple Injection. “With cellular connectivity built in, operators can now manage dozens of sites from their dashboard without the constant travel and guesswork. That’s transformed how our customers approach chemical injection management.” 

Prodigy: Engineering Ideas into Reality Through Connected Innovation 

Prodigy has spent nearly four decades transforming innovative concepts into market-ready products for customers, several utilizing Blues technology. The product development firm brings together electrical engineers, firmware developers, and mechanical engineers to tackle complex design challenges across multiple industries. 

The Smart Meter Reader project for NextEra Analytics demonstrates Prodigy’s capability to deliver connected solutions at speed. NextEra Analytics operates independently from Florida Power & Light’s regulated utility operations, creating strict regulatory requirements for data separation. Consulting activities must remain completely separate from utility-held customer data, which means real-time electrical usage must be collected directly at customer sites using independent measurement systems rather than accessing utility meters. 

The Smart Meter Reader was specifically designed to meet this compliance requirement while maintaining the speed and accuracy NextEra Analytics needed for effective energy consulting. The mobile, cloud-connected device captures usage data compliantly and securely without relying on utility-side access, enabling fast energy analysis while respecting regulatory boundaries. This approach replaces manual meter reading processes that consumed significant labor resources while introducing timing delays and transcription errors. 

Automated meter readings cut manual labor requirements by up to 80%, transforming the economics of energy audits. Tasks that previously required dedicated personnel walking sites with clipboards now happen automatically with cellular-connected devices that stream data directly to cloud analytics platforms. 

The system’s flexible, reusable design supports multiple site deployments, allowing energy consultants to maintain device inventories that rotate across measurement campaigns rather than installing permanent infrastructure at each location. This approach dramatically reduces capital investment while accelerating project timelines. 

Because NextEra Analytics operates independently from the regulated utility operation of Florida Power & Light (also owned by NextEra Energy), strict regulatory rules require a clear separation between consulting activities and utility-held customer data. As a result, real-time electrical usage must be collected directly at the customer site using independent measurement systems. The Smart Meter Reader was specifically designed to meet this requirement by capturing usage data compliantly, securely, and without relying on utility-side access while still enabling fast, accurate energy analysis. 

Secure cellular connectivity enables rapid data collection, providing real-time insights into energy usage patterns. Engineers access current data through cloud dashboards rather than waiting for field personnel to complete site visits and manually input readings. 

“Blues lets us focus on what we do best: engineering innovative solutions for our clients,” says David Mackenzie, VP Product Development at Prodigy. “Instead of spending months wrestling with complex cellular integration, we used Blues to deliver the Smart Meter Reader from concept to field deployment in just eight weeks. That speed to market is what gives our clients the competitive advantage they need.” 

Rather than spending months on cellular integration challenges, the Prodigy team leveraged Blues cellular connectivity to go from zero to prototype rapidly so they could focus on core measurement and automation features. 

See These Solutions Live at CES 2026 

These customer examples illustrate how connected products are transforming commercial equipment manufacturing across multiple industries, from critical infrastructure monitoring and precision chemical injection to energy management and connected refrigeration systems. 

The common thread across these success stories is the elimination of connectivity complexity, allowing for a focus on core product innovation. RACO Manufacturing’s dual-connectivity infrastructure monitoring, Simple Injection’s automated chemical dosing, Prodigy’s accelerated development timelines, and True Manufacturing’s predictive refrigeration maintenance all share a similar approach: partnering with proven connectivity solutions that work out of the box, allowing engineering teams to focus on the innovations that differentiate their products. 

Want to see these products in action? All these companies will be showcased at the Blues booth during CES 2026 in Las Vegas. It’s a unique opportunity to meet the teams behind these innovations, see live demonstrations, and discover how cellular connectivity is enabling the next generation of intelligent equipment. 

Book a meeting with our team on the ground to discuss your connected product, or stay up with exclusive content, booth updates, and behind-the-scenes insights as we gear up for the show. Follow Blues on social media to stay updated on: 

• LinkedIn: www.linkedin.com/company/buildwithblues 
• YouTube: @BuildWithBlues 
• Threads: @buildwithblues 
• Instagram: @buildwithblues 

The post Commercial Equipment Connected: Three Blues Customer Success Stories appeared first on Blues.

IoT is revolutionizing how transportation and logistics companies operate by providing real-time visibility, predictive insights, and automated decision-making capabilities that were previously impossible. From securing global cargo shipments to optimizing airport ground operations, IoT connectivity is enabling companies to solve longstanding problems while creating entirely new competitive advantages. 

In this blog we explore three examples of how companies in the transportation and logistics ecosystem are leveraging IoT connectivity powered by Blues to transform their operations. 

Clarios: Enhancing Fleet Performance Through Battery Intelligence 

Clarios, the world’s largest automotive battery manufacturer, produces around 150 million batteries annually for more than 100 countries. Today, through its Connected Services platform, Clarios is delivering cloud-based solutions that go beyond the battery – helping fleets predict issues, prevent downtime, and optimize performance. 

Why Transparency Matters: Commercial fleets face a complex reality: battery life isn’t just about manufacturing – it’s driven by highly variable operating conditions. Frequent short trips, long idle periods, extreme temperatures, and heavy vibration accelerate battery aging. These factors make maintenance planning difficult and increase the risk of unexpected failures. 

Connected Intelligence for Predictability: Clarios has developed a system that monitors batteries and the vehicle’s low-voltage network in real time. Sensors capture voltage, current, and temperature data, while proprietary algorithms predict the optimal time for replacement – helping prevent breakdowns before they happen. 

The solution also detects issues in the charging system, such as an alternator that is aging or incorrectly sized, which can compromise battery health and shorten its lifespan. 

More Efficiency, Less Idling: Another innovation reduces unnecessary engine idling. Data shows that in 80% of cases, battery power alone can maintain driver comfort overnight without running the engine. This saves fuel and cuts operating costs by up to $3,300 per truck annually. 

Clarios’ Connected Services portfolio includes solutions such as Battery Manager and IdleLess, delivering actionable insights that improve reliability and reduce costs for fleet operators. 

Cagatay Topcu, VP of Connected Services at Clarios, explains: “By standardizing data collection and moving intelligence to the cloud, we can rapidly respond to customer pain points. When a customer reports an issue, we ship monitoring devices, collect data for a few weeks, and deliver a solution. This approach has unlocked use cases we never imagined – from preventing unexpected downtime to eliminating unnecessary idling – all from monitoring the same battery data.” 

Rehrig Pacific: Revolutionizing Delivery Operations with Smart Material Handling 

Rehrig Pacific has been innovating in the supply chain industry for decades, but the Duo Lift 2.0 marks a pivotal shift in last-mile delivery operations. This smart electric pallet jack remains the first and only retractable powered lift engineered to transition directly from delivery trucks into cold storage coolers. The system adapts to multiple pallet footprints while maintaining strength, compact maneuverability, and end-to-end route readiness. 

What sets the Duo Lift apart is its embedded IoT platform, designed to deliver real-time asset awareness, predictive insights, and proactive service support. Unlike traditional equipment that waits to break midroute, the Duo Lift continuously monitors operational health and transmits critical diagnostics through cellular connectivity. The system includes RFID reading, GPS geolocation, preventive maintenance alerts, and technician-level intelligence that supports smarter scheduling, strategic parts deployment, and reduced unplanned downtime. 

For a leading beverage distributor that implemented the system across their fleet, the results created measurable operational and workforce impact. Here were some key takeaways:  

• Driver turnover dropped by 50%. 
• Workers’ compensation claims declined by 15%. 
• Pallet replacement spend fell by 35% due to improved asset accountability and recovery cycles.  
• Technicians also recaptured 12 hours per week, previously spent on unplanned maintenance responses, by shifting to a predictive and scheduled service model. 

Lance Pesdan, Rehrig Pacific’s Director of Delivery Service Support said, “IoT-enabled tracking tools provided greater visibility and control over assets, allowing for more efficient and informed decisionmaking across the supply chain. The Duo Lift replaced multiple pieces of equipment with a single, streamlined solution.” 

The real story, though, extends past visibility. The Duo Lift was built to remove strain, add durability where it matters most, and convert data into anticipatory support, not reactive repair. It is compact by design, connected by default, and engineered to move more while asking less of the people who rely on it. 

In a supply chain still catching up to the speed, safety, and expectations of modern delivery, the Duo Lift underscores a fundamental evolution. The right equipment, paired with live intelligence and proactive support, doesn’t just improve delivery. It redefines how delivery works. 

The industry is shifting fast. Tools that travel farther, shrink steps, reduce spend, and retain people longer will lead it. The Duo Lift is built for that moment and for what comes next. 

Optimizing Airport Ground Operations with Real-Time Vehicle Tracking 

Modern airports are complex operational environments where hundreds of ground vehicles, including pushback tugs, catering trucks, de-icing vehicles, and shuttle buses, must be coordinated safely and efficiently. Airport ground operations face several challenges: increasing air traffic, labor shortages, and pressure to reduce aircraft turnaround times. 

One innovative Blues customer is transforming how airports manage their ground vehicle fleets through real-time tracking and analytics. By equipping airport ground vehicles with cellular connectivity, they’re providing operations managers with complete visibility into fleet location, utilization, and performance. 

The system captures continuous location data, movement patterns, and operational metrics from each vehicle, transmitting this information in real-time to a centralized operations dashboard. This visibility enables airports to optimize vehicle allocation, reduce idle time, and improve coordination between ground service providers. 

AI-powered analytics transform tracking data into actionable intelligence that drives both efficiency and cost savings. Predictive maintenance algorithms analyze vehicle diagnostic data to identify potential equipment failures before they occur, enabling airports to schedule repairs during off-peak hours rather than responding to unexpected breakdowns during critical operations. This proactive approach reduces costly equipment downtime and extends vehicle lifespan. 

Smart scheduling capabilities optimize fleet deployment based on historical patterns and real-time demand. The system automatically routes the nearest available vehicle to each task, minimizing idle time and reducing fuel consumption. By identifying underutilized assets and operational bottlenecks, airports can ensure they have the right number of vehicles, eliminating unnecessary capital expenditures while ensuring sufficient capacity during peak periods. The result is a leaner, more cost-effective operation that delivers better service with fewer resources. 

The impact on workforce efficiency is particularly significant. Labor shortages in aviation have made it critical to maximize productivity from existing staff. By reducing time spent searching for equipment or coordinating vehicle movements, the system allows ground crews to focus on value-added activities.  

For airports competing to attract airline partners, these operational improvements deliver a tangible competitive advantage. Faster, safer turnarounds mean airlines can fly more profitable schedules while reducing costs and improving reliability for passengers. 

See These Solutions Live at CES 2026 

These three customer examples illustrate how IoT connectivity is transforming transportation and logistics across multiple dimensions; from securing global supply chains to optimizing airport operations, revolutionizing material handling, and solving longstanding fleet management challenges. 

Want to see these Transportation and logistics solutions in action? All three companies will be showcased at the Blues booth during CES 2026 in Las Vegas. It’s a unique opportunity to meet the team behind Blues, see live demonstrations, and discover how cellular connectivity is enabling the next generation of connected technology. 

Book a meeting with our team on the ground to discuss your connected product, or keep up with exclusive content, booth updates, and behind-the-scenes insights as we gear up for the show. Follow Blues on social media to stay updated on: 

• LinkedIn: www.linkedin.com/company/buildwithblues 
• YouTube: @BuildWithBlues 
• Threads: @buildwithblues 
• Instagram: @buildwithblues 

The post Transforming Transportation and Logistics with IoT: Three Customer Success Stories appeared first on Blues.

The innovators leading this transformation share a common insight: delivering actionable environmental intelligence requires connectivity that works anywhere, from remote ocean waters to dense bushland. These companies have eliminated the complexity of building cellular infrastructure by partnering with Blues, allowing them to focus their engineering resources on solving critical environmental challenges rather than wrestling with connectivity protocols and carrier relationships. 

In this blog, we’ll explore five examples of how IoT is enabling smarter energy management and more effective environmental monitoring today.  

Enable IoT: Soil Monitoring for Continuous Agricultural Intelligence 

Enable IoT has developed the Sense M30, a remote sensing device that brings precision agriculture into a new era. By providing continuous, real-time monitoring of soil composition and environmental conditions, Enable IoT is helping farmers optimize resources, improve yields, and support carbon-neutral farming practices. 

Traditional soil testing involves periodic manual sampling, creating significant gaps in understanding soil conditions throughout the growing season. The Sense M30 changes this entirely. The compact device, planted directly in soil, harvests readings every 30 minutes on critical soil composition metrics including carbon, nitrogen, phosphorus, and potassium levels. It also features an optical rain sensor and measures air temperature, pressure, and humidity. Modular ports allow farmers to connect research-grade accessories like electrical conductivity probes. 

Their AI backend aggregates this data to predict carbon capture in soil, helping agricultural organizations qualify for carbon credits. Recent hardware iterations have added pH sensing capability, enabling AI to estimate phosphate levels for fertilizer management when prices remain volatile. 

The technical challenge was creating smart agricultural technology that could operate autonomously in fields for years without maintenance, surviving buried in soil while transmitting data via cellular on a compact battery with a small solar panel. 

Mike Bower, Managing Director of Enable IoT says, “We’re a soil science and AI company, not a telecommunications company. Blues gave us cellular connectivity that just works, so we could focus our energy on what we do best: turning environmental data into actionable intelligence for farmers.” 

The result is a device that provides farmers with real-time soil data to guide smarter irrigation decisions. It operates autonomously with zero site infrastructure requirements and no power requirements as the device has its own long-life battery with solar panel recharging. The Sense M30 delivers AI insights that enable carbon tracking, certification, and provides continuous monitoring that drives sustainable yield improvement. 

Silicon Vandals: Transforming Bushfire Intelligence with Aerial IoT 

Silicon Vandals’ Samara is taking on one of the greatest challenges in bushfire mitigation: tracking fuel moisture content across vast, difficult-to-access bushland. Inspired by helicopter seeds that spin into a gentle descent, Samara uses biomimicry to enable aerial deployment of sophisticated environmental sensors, unlocking insights into areas previously too hard to monitor. 

Monitoring forested terrain has yet to fully leverage modern environmental sensing technology. Simply put, there are limited engineers available to trek through dangerous landscapes to install and maintain sensor systems. Traditional methods involve costly, complex installations or manual measurements, resulting in sparse coverage and critical data gaps. 

Once deployed, Samara tracks an array of critical bushfire indicators. The low-powered device provides both direct and modelled fuel moisture readings, a key measure for agencies to forecast risks and plan hazard reduction. Samara also captures CO₂, temperature, humidity, and vapour pressure deficit to build a clearer picture of local risk conditions. 

“Our mission at Silicon Vandals is to pursue high-impact projects that solve overlooked problems,” says Tom McMenamin. “Samara represents exactly this philosophy: using rapid experimentation and field testing by users to address a critical environmental challenge that existing solutions couldn’t effectively tackle.” 

Samara uses dual connectivity, cellular with satellite backup, to ensure reliable data transmission even from the most remote bushland. The system also automatically increases upload frequency during anomalous events, so critical changes in conditions are reported quickly. 

Sofar Ocean: Building a Global Ocean Intelligence Network 

Tim Janssen founded Sofar Ocean with a clear mission: address the critical gap in global ocean data. “In an age in which IoT and GPS provide so much data about the world around us, our oceans are being left behind. Today, most of our oceans remain unmapped and unmeasured, which severely impacts our ability to model and predict ocean and climate processes.” This inspired Spotter, a scalable platform designed to bring the same level of sensing and intelligence to the sea that GPS and IoT brought to land.  

Traditional oceanographic instruments are expensive and difficult to deploy, resulting in sparse ocean monitoring coverage. This has resulted in sparse ocean monitoring coverage, leaving vast areas of the world’s oceans essentially invisible to scientists, 

maritime operators, and coastal communities. Spotter transforms this through simple, affordable design. Each Spotter buoy is small, solar-powered, and easily deployed by hand from small boats or by air drop. The devices maintain science-grade measurement quality while remaining affordable, democratizing access to ocean intelligence.  

Each buoy records wave spectra, sea surface temperature, and atmospheric pressure, while deriving wind speed and direction from wave data. With Smart Mooring, Spotter extends below the surface to measure temperature, currents, sound, and water level. Data transmits in real time through Iridium satellite and LTE links via the Sofar dashboard and API.  

“Our mission is to connect the world’s oceans to contribute to a more sustainable future,” explains Tim Janssen. “We are hyper-focused on collecting as much data as we can, as quickly as we can, complementing other organizations, both government and commercial.”  

The value Sofar delivers spans multiple user communities. Researchers use Spotter to monitor climate and ecosystems in real time. Shipping operators use the data through Sofar’s Wayfinder platform to optimize routes and cut emissions. Defense and government users rely on Spotter for environmental awareness and mission planning. The network approach means that every deployed Spotter contributes to a shared, planetary-scale dataset that benefits all users. 

Voltaic Systems: Ensuring Reliable Power for Remote IoT Deployments 

Voltaic Systems has established itself as a leader in solar power solutions for off-grid applications. Their battery health monitoring system, powered by Blues, addresses a fundamental challenge in remote IoT deployments: ensuring that high-value devices like cameras, sensors, and gateways maintain reliable power in locations where traditional infrastructure is unavailable.  

Voltaic’s CORE Solar Systems provide easy-to-deploy, scalable power for industrial IoT devices. The goal of 100% uptime can be impaired by unexpectedly high-power consumption, shading from structures or vandalism. With traditional solar deployments, underperforming systems can go unnoticed until the device stops reporting, by which point, the damage is done. 

Voltaic’s solution turns this reactive model into a proactive one. The cellular monitoring device is pre-installed on the battery. Once the battery is connected to a device, it sends detailed performance data to the cloud every 30 minutes, providing installation teams with deployment confirmation and giving users detailed insights into battery state of charge, power production, and power consumption.  

“The ability to remotely monitor and diagnose issues with the solar panels has been invaluable” notes Jeff Crystal, COO at Voltaic Systems, “They pay for themselves just in support and engineering time. We regularly review fleets of devices and are able to coach customers to improve device placement or increase solar panel size in order to reduce the risk of running out of power. We would not be able to do this without the battery health monitor.” 

See These Solutions Live at CES 2026 

These five companies represent the breadth of energy and environmental monitoring applications: precision agriculture, solar power management, utility grid optimization, bushfire prevention, and ocean intelligence. Despite their diverse applications, they share a common insight, successful IoT deployment requires eliminating connectivity complexity to focus engineering resources on solving critical environmental challenges. 

Want to see these energy and environmental monitoring solutions in action? All five companies will be showcased at the Blues booth during CES 2026 in Las Vegas. It’s a unique opportunity to meet the Blues team, see live demonstrations, and discover how reliable connectivity is enabling the next generation of environmental intelligence and sustainable energy management. 

Book a meeting with our team on the ground to discuss your connected product, or keep up with exclusive content, booth updates, and behind-the-scenes insights as we gear up for the show. Follow Blues on social media to stay updated on: 

• LinkedIn: www.linkedin.com/company/buildwithblues 
• YouTube: @BuildWithBlues 
• Threads: @buildwithblues 
• Instagram: @buildwithblues 

The post Powering a Sustainable Future: How Blues Customers are Transforming Energy and Environmental Monitoring appeared first on Blues.

A new wave of companies is proving that IoT for commercial buildings and facilities can be both sophisticated and simple by delivering enterprise-grade insights through plug-and-play devices that just work. These innovators share a common thread: they’ve eliminated connectivity complexity by partnering with Blues to focus their engineering resources on solving real problems rather than wrestling with cellular infrastructure.

In this blog, we will share four examples of how IoT is transforming commercial building operations today.

Impact Service Group: From Reactive to Predictive HVAC Management 

Impact Service Group provides HVAC maintenance services through a network of over 500 vendor partners. Their Remote Equipment Monitor (REM) device represents their entry into IoT solutions, and it’s transforming how they deliver maintenance services. 

The problem Impact Service Group set out to solve is familiar to anyone managing commercial buildings: incomplete information leading to inefficient service. “Often the only information we get from the manager of a site is ‘my store is hot,'” explains Clayton Callander, President of Impact Service Group. “We can’t create a useful work order for the technician because we don’t have the necessary information.” 

This lack of diagnostic data created multiple inefficiencies. Technicians were unable to adequately prepare for service calls, leading to scheduling challenges and wasted time. Perhaps most frustrating were emergency overtime calls, with roughly two-sevenths of HVAC failures occurring during weekends and holidays when overtime rates apply, representing a significant cost burden for customers. 

Impact Service Group’s solution bridges a critical gap in the building automation market: serving commercial building managers who want equipment-focused data without paying for full building automation systems. The REM device focuses specifically on the needs of the technicians servicing the equipment, providing a “check engine light” for HVAC systems that enables predictive rather than reactive maintenance. 

By choosing cellular connectivity over WiFi, Impact Service Group eliminated what could have been a significant deployment barrier. “It’s so difficult to work with large companies to get IT approval to connect to their networks,” Callander explains. “Cellular is just a much easier way to go, it doesn’t require any involvement from the IT department of the company.” 

The result is a true plug-and-play solution. “The goal for this device was for it to be installed by any HVAC technician with zero training or specialized knowledge. We mail these devices to our vendors, and the technician installs them in about 15 minutes; it’s very straightforward,” Callander emphasizes. 

Lift AI: Bringing Predictive Intelligence to Elevator Maintenance 

Lift AI has developed intelligent monitoring systems that give elevator operators visibility into their equipment performance. Their $500 device transforms reactive maintenance into predictive, data-driven operations; a dramatic departure from the traditional approach of waiting for failures to occur. 

“We’re looking for spikes in vibration, acceleration, deceleration; things that indicate abrupt stops or shutdowns. We give customers a ‘check engine light’ for lifts,” explains Rob Wurth, CEO of Lift AI. “We focus on anomalies and trend analysis. If vibration is getting worse, that should guide maintenance priorities.” 

What makes Lift AI’s solution remarkable goes beyond the analytics; it’s the accessibility. While competitors offer elevator monitoring systems that cost $10,000 per unit, Lift AI’s approach makes intelligent monitoring economically viable for a much broader market. By integrating cellular connectivity directly into their device, they’ve created a solution that’s 95% cheaper than alternatives while delivering the insights operators need to prevent failures and optimize maintenance schedules. 

Lift AI operates an equipment-as-a-service model with flexible data subscriptions that start with basic trip tracking and scale as needs grow. This approach aligns costs with value delivered, making it easier for building operators to justify the investment. The result is a solution that works for both single-building operations and multi-site portfolios. 

“What sets Lift AI apart is our focus on the business use case and application engineering. We use best-in-class partners and products to move quickly and cost-effectively,” Wurth notes. That strategic focus enabled Lift AI to recently execute a complete remote firmware upgrade of their entire deployed fleet without physically accessing a single device. This kind of platform evolution, executed seamlessly through cellular connectivity, demonstrates the maturity that modern IoT infrastructure can deliver. 

Satellite: Bringing Intelligence to Portable Sanitation 

Satellite is tackling the challenge of optimizing the management of temporary and portable bathroom facilities. Their Satellite Sense solution brings IoT-enabled monitoring to portable toilets, tracking usage, status, and location for optimized servicing and fleet efficiency. 

For companies managing fleets of portable toilets across construction sites, special events, and temporary locations, the traditional approach has been reactive and inefficient. Service routes are typically based on schedules rather than actual need, meaning some units get serviced too frequently while others overflow between visits.  

Satellite Sense transforms this model through real-time monitoring. The device tracks usage patterns, providing data that enables route optimization based on actual need rather than fixed schedules. GPS tracking prevents loss and ensures accountability across distributed fleets. Tip-over and status alerts enable rapid response to problems, improving customer service and preventing minor issues from becoming major complaints. 

The efficiency gains are substantial. By optimizing service routes based on actual usage data, companies can reduce fuel consumption, minimize labor costs, and improve asset utilization. The remote monitoring capability means dispatchers can make intelligent decisions about which units need service rather than sending trucks to check on every unit manually. 

What makes Satellite’s solution particularly interesting is the cellular connectivity strategy. For portable toilets deployed to remote construction sites or rural events, WiFi isn’t a reliable option. With Blues, Satellite can ensure continuous monitoring regardless of location, without having to connect to temporary site or event WiFi which isn’t always available.  Ken Schomburg, Director of R&D, explains, “Our customers have their hands full just servicing the toilets, they can’t be expected to deal with any connectivity issues.  The Satellite Sense product requires zero connectivity configuration, thanks to the Blues Notecard using the cell network.  And satellite connectivity is in the works at Blues, aiming to provide trouble free 100% coverage for our products.” 

SkyCentrics: Unlocking Grid Incentives for Commercial Equipment 

SkyCentrics has developed a solution that connects two critical trends in commercial buildings: the push for energy efficiency and the growing importance of grid flexibility. Their SkyBox device provides open-standard grid signal certifications, making commercial building equipment grid-flexible and eligible for utility and demand response incentives. 

“The challenge SkyCentrics addresses is translating between different communication protocols,” says Tristan de Frondeville, CEO at SkyCentrics, “Many commercial buildings utilize equipment that communicates via Modbus or BACNet, industrial protocols that aren’t designed to interact with utility grid signals. The SkyBox acts as a translator, converting building management system protocols into grid-connected devices that can participate in demand response programs and access utility incentives. It is important to have a solution to connect directly to the machines for the 85% percent of buildings with no BMS.” 

For original equipment manufacturers (OEMs) and building owners, this translation capability opens up new revenue opportunities through utility incentive programs while supporting broader energy efficiency and grid resilience goals. The plug-and-play cellular connectivity means deployment doesn’t require complex network integration or IT involvement. The SkyBox can be installed and immediately begin communicating with both building equipment and utility systems. 

This approach reduces integration costs through open-standard compliance while enabling buildings to participate in energy efficiency programs, demand response initiatives, and grid resilience efforts. As utilities increasingly need buildings to act as flexible loads that can adjust consumption in response to grid conditions, solutions like the SkyBox become essential infrastructure for the modern commercial building. 

“Cellular connectivity is critical here, it provides a reliable, secure communication channel that’s independent of the building’s network infrastructure, ensuring that grid signals can reach equipment even during network outages or reconfigurations.” de Frondeville adds, “This reliability is essential when buildings are participating in demand response events that may occur during peak load or emergency conditions.” 

See These Solutions Live at CES 2026 

These four companies represent diverse applications: HVAC optimization, elevator monitoring, grid integration, and portable sanitation management. Yet they share a common insight: successful IoT deployment requires eliminating connectivity complexity to focus engineering resources on solving real problems. 

Want to see these commercial buildings and facilities management solutions in action? All four companies will be showcased at the Blues booth during CES 2026 in Las Vegas. It’s a unique opportunity to meet the team behind Blues, see live demonstrations, and discover how cellular connectivity is enabling the next generation of connected technology. 

Book a meeting with our team on the ground to discuss your connected product, or keep up with exclusive content, booth updates, and behind-the-scenes insights as we gear up for the show. Follow Blues on social media to stay updated on: 

• LinkedIn: www.linkedin.com/company/buildwithblues 
• YouTube: @BuildWithBlues 
• Threads: @buildwithblues 
• Instagram: @buildwithblues 

The post Smarter Buildings, Smarter Operations: How Blues Customers are Transforming Facilities Management appeared first on Blues.

I’ve been on countless calls with companies at this inflection point. They’ve proven their product works, secured funding or executive buy-in, and the market is pulling them forward. Reality sets in; the security approach that worked for 50 devices in a controlled environment won’t cut it for 5,000 devices deployed across factories in Asia, distribution centers in Europe, and field sites in North America. 

As the world becomes more connected through internet-enabled devices, we face the reality that security breaches can bring down city infrastructure, production lines, and even people’s homes. According to recent research, more than half of organizations with IoT devices face targeted cyberattacks every week. In the manufacturing sector alone, an average of 6,000 IoT malware attacks occur weekly. Even more sobering: 89% of organizations using IoT and connected products have already experienced successful cyberattacks, with each incident costing an average of $250,000. 

But here’s what keeps me up at night on behalf of our customers: it’s not just the frequency or cost of attacks. The security landscape fundamentally changes when you go from managing devices in a lab to managing them on a global scale. The threats multiply and the attack surface expands exponentially. 

Security Challenges That Scale with You 

When you’re building connected products for scale deployment, you’re solving for security across an evolving matrix of challenges: 

Geographic Dispersion and Regulatory Complexity 

Your devices aren’t just in one factory or one region anymore. They’re operating under GDPR in Europe, CCPA in California, and a patchwork of other regulations globally. When you’re managing devices across continents, a single security vulnerability can cascade into regulatory nightmares in multiple jurisdictions simultaneously. 

An Expanding Attack Surface 

The math should concern every connected product builder: if each device represents a potential entry point for attackers, going from 100 to 10,000 devices multiplies the risk exponentially. Each device-to-device connection, each device-to-cloud pathway, each firmware version in the field represents a potential vulnerability.  

Operational Continuity at Scale 

At scale, you can’t just “patch and reboot” when you discover a security vulnerability. You’re dealing with devices in remote locations where physical access is expensive or impossible. You need security measures that protect without disrupting operations and update mechanisms that work across thousands of devices without creating new vulnerabilities in the process. 

The Threats You’re Defending Against 

Let’s walk you through the threat landscape that all large device fleets face. Understanding these threats is the first step to building resilience against them: 

Device Tampering in Distributed Environments 

When devices are deployed in controlled factory environments, physical access controls can be implemented. But when you’re deploying equipment in remote locations, customer facilities, or public spaces, you can’t assume physical security. An attacker with physical access could extract credentials, alter sensor readings, or compromise the device to serve as a beachhead for broader network attacks. 

Man-in-the-Middle Attacks on Cellular Networks 

One reason many manufacturers prefer cellular connectivity is that it’s inherently more secure than WiFi and off the public internet. But “more secure” doesn’t mean “completely secure.” Sophisticated attackers can still intercept communications on cellular networks, potentially stealing credentials, injecting false data, or manipulating device behavior.  

Denial of Service That Cripples Operations 

Imagine your fleet of connected industrial equipment suddenly going silent, not because of a connectivity or power problem, but because attackers have deliberately overwhelmed your devices or network infrastructure. For a company with thousands of devices in production environments, a successful DoS attack means production downtime, missed SLAs, and potentially dangerous operational conditions.  

Building Security That Scales: The Blues Approach 

Now, let’s shift from problems to solutions. At Blues, we’ve architected our platform specifically to address security challenges. Here’s how we think about it: 

Security Starts with Your Hardware 

Our approach starts at the hardware level with Notecard’s secure element, a dedicated cryptographic processor that stores encryption keys and manages secure communications. These keys are “burned in” during manufacturing and never leave the device, meaning you’re not passing keys over networks, storing them in firmware, or relying on software-only security measures that can be compromised. 

This matters at scale because every device in your fleet has the same cryptographic foundation. You’re not dealing with weak credentials or default passwords that attackers can exploit. 

Layered Encryption Architecture 

We provide multiple layers of encryption that you can enable based on your security and regulation requirements: 

• VPN-level encryption is enabled by default and provides a secure, private channel between Notecard and Notehub operating off the public internet. 

• TLS-level encryption for customers who need additional transport security from device to cloud. 

• Event-level encryption for customers with the most stringent requirements, where data payloads are encrypted on the device and stay that way until decrypted once data arrive in your cloud. At this level, your data is never in plain text in transit or at rest. 

Device Management and Secure Over-the-Air Updates 

Here’s where our architecture really shines for hyperscale deployments. We enable secure firmware updates without requiring devices to implement complex bootloaders or update mechanisms themselves. Notecard can facilitate updates to host firmware through our Outboard DFU (Device Firmware Update) capability. 

The security benefit? Even if a device gets compromised, bricked, or corrupted firmware is loaded, you can recover it remotely without physical access. At a scale where sending technicians to remote locations is expensive or impossible, this is the difference between a manageable incident and an operational catastrophe. 

No Keys in Firmware 

Here’s a security practice that many developers miss: storing third-party API keys or credentials in firmware is one of the easiest ways to compromise your entire fleet. Our proxy architecture solves this problem. If your application needs to call an external API, you can configure that a in Notehub and store the API key there. Your device firmware makes a call through Notehub, which calls the service on your behalf and returns the result to the device. API keys never live in device firmware where they could be extracted and exploited. 

Looking Ahead: The Security Challenges We’re Solving Next 

As I talk with customers scaling to tens of thousands of devices, their needs are shaping our roadmap: 

Fleet-Level Security Visibility 

At scale, customers need better visibility into the state and security of their entire fleet. Which devices are running which firmware versions? Are there devices behaving anomalously? How do you identify and isolate potentially compromised devices before they affect others? 

We’re building features that will give customers fleet-level visibility and controls to monitor device health, identify outliers, and take action at scale. 

Graduated Rollout and Rollback 

Staged rollout capabilities are crucial for hyperscale security. You need to be able to deploy updates to a subset of your fleet, monitor their behavior, and either continue the rollout or roll back if issues emerge. This is table stakes for managing security updates across thousands of devices without risking your entire operation. 

SOC 2 and Regulatory Compliance 

For enterprises operating at scale, SOC 2 compliance and readiness for emerging regulations like the EU’s Cyber Resilience Act (CRA) are critical when deploying across multiple markets and industries. We’re prioritizing SOC 2 certification and CRA readiness on our roadmap to ensure that when you build on Blues, you’re building on a platform that meets the compliance requirements you need and your customers demand.  

What This Means for Your Scale Deployment 

What does this mean for real deployments? If you’re building connected products for large-scale deployment, here’s how Blues’ security architecture translates to operational benefits: 

Regulatory Compliance Across Regions 

With our layered encryption, secure architecture, and commitment to meeting new regulations, you can meet stringent regulatory requirements without building custom security infrastructure for each region. Security is built into the platform, and you enable the level of protection your use case requires. 

Reduced Attack Surface 

By using cellular connectivity that operates off the public internet, combined with VPN-level encryption by default, you’ve immediately reduced your attack surface compared to WiFi or internet-connected devices. Add TLS and event-level encryption to create an in-depth defense that makes successful attacks exponentially harder. 

Operational Resilience 

Our secure over-the-air update capabilities allow you to respond quickly to vulnerabilities without sending teams into the field. And as we develop our staged rollout features, you’ll have even more control over how and when updates deploy across your fleet. 

Simplified Security Management at Scale 

Perhaps most importantly for hyperscalers, you’re not building and maintaining your own security infrastructure, managing certificate authorities, building VPN infrastructure, or writing custom bootloaders. You’re leveraging a platform built specifically for IoT device security at scale. 

The Bottom Line for Hyperscalers 

Here’s what I want you to take away from this: security at scale isn’t just “security, but bigger.” It’s fundamentally different, and the complexity—regulatory, operational, and financial—compounds. 

But here’s the good news: if you build on the right foundation, security at scale is achievable. At Blues, we’ve architected our platform for companies scaling connected products to tens of thousands of devices across continents. We’ve thought through the security challenges of deployment, operation, update, and long-term fleet management. 

If you’re at that inflection point where your successful pilot is becoming a large-scale deployment, where you’re looking at thousands of devices across multiple countries, where the security approach that got you here won’t get you there, let’s talk, because security at hyperscale is too important to figure out as you go. 

Additional Resources: 

• IoT’s Security Crisis and the Path to Embedded Intelligence 

• Fleet Management at Scale: When Your 1,000-Device Deployment Becomes 10,000 

• Get started with a Blues Developer Kit 

The post IoT Device Security for Hyperscalers: Building Resilient Connected Products at Global Scale appeared first on Blues.