Why Satellite Matters for Fleet Management 

The transportation industry has been stuck in the connectivity dark ages. Fleet operators are losing visibility of their vehicles at an alarming rate; 44% report losing track of vehicles monthly, resulting in revenue losses exceeding $1 million annually for logistics companies.  

What makes transportation unique is its mobile nature across diverse geographies. Unlike fixed applications, vehicles regularly traverse rural highways, mountain passes, international borders, and urban canyons. This mobility creates distinctive challenges: cross-border roaming complications that trigger unpredictable costs, regulatory compliance requirements that differ by jurisdiction, and cargo monitoring needs that can’t tolerate connectivity gaps. 

As your customers travel into more diverse operating environments, they’re demanding products with built-in resilience against these connectivity failures. The market is clearly signaling that connectivity must evolve to be a continuous experience that persists across all environments. 

The convergence of satellite and cellular connectivity technologies creates a new technical foundation that transportation product designers need to understand. With standardized hardware interfaces, intelligent network-switching, and unified data management, converged connectivity is rapidly becoming the expected standard in transportation rather than a premium option. This shift opens up new opportunities more reliable connectivity, but it also means current designs without satellite capabilities risk becoming obsolete.  

Five critical satellite technology developments that will shape your product strategy 

This inside scoop should guide product developers as they plan how to adapt to advances in satellite technology. Lucky for you, we’ve got the roadmap you need to future-proof your products. Let’s unpack some of the advancements in satellite connectivity that are accelerating innovation in transportation IoT. 

LEO constellations reshape hardware design (2025-2033) 

For transportation companies operating across diverse geographies, Low Earth Orbit (LEO) satellite constellations are eliminating the concept of coverage “blind spots.” The rapid deployment of Low Earth Orbit (LEO) satellite constellations is reshaping connectivity possibilities for IoT and embedded devices. Recent forecasts project an average of over 3,700 satellites launched annually between 2024 and 2033; that’s approximately 10 satellites per day! It’s particularly important to note that just four commercial broadband non-geostationary orbit (NGSO) mega-constellations (Starlink, Kuiper, G60, and GuoWang) will account for 65% of the satellites deployed in this period. 

The rapid increase in satellite launches creates both opportunities and challenges for hardware manufacturers. Companies making satellite connection (non-terrestrial network) chips and modems are becoming more important as device makers integrate satellite connectivity into their products. Two approaches are emerging: using specialized components in phones to process satellite signals or upgrading satellites to communicate using standards that work with regular phones. The satellite-upgrading approach faces regulatory hurdles about signal usage, leaving room for the chip-first solution to advance quickly because it’s easier to bring to market. For connected device manufacturers, you will need to consider how to include versatile radio components that can connect with these expanding networks while maintaining power efficiency and cost effectiveness.

5G meets satellite in new chipsets (2025 and beyond) 

The integration of 5G with satellite networks aims to provide 5G connectivity directly from space. We’re already seeing concrete progress, with companies like AST SpaceMobile establishing 5G voice and data connections from standard unmodified smartphones directly to LEO satellites, while Starlink plans to introduce voice and data capabilities for existing LTE phones in 2025. 

For device manufacturers, this combination means redesigning antennas and chipset architectures. The main challenges will be creating components that can seamlessly switch between ground-based and satellite networks, handle different latency profiles, and optimize power usage. Converged connectivity products offer a chance to build more integrated hardware that uses both cellular and satellite connectivity within a single system. 

Miniaturization enables new form factors (2025 and beyond) 

The trend toward smaller, more efficient satellite components is changing how connectivity hardware integrates into vehicles. The miniaturization of satellites, often referred to as “nanosatellites” or “cubesats,” is making them cheaper to produce, faster to develop, and less costly to launch than traditional satellites, democratizing access to space for a wider range of organizations. 

This trend toward minaturization applies to ground equipment too. New modular designs, like Notecard Cellular, serve as basic building blocks that fit easily into many types of IoT devices. Connection standards like the M.2 edge connector are becoming common across both cellular and satellite modules, making hardware design simpler. For product designers, this creates opportunities to build smaller, more energy-efficient devices with multiple connection options without adding much size, weight, or cost. When paired with advances in 3D printing and materials science, these compact components allow for new device shapes and uses that weren’t possible before. 

Edge computing moves to orbit (2026) 

The concept of edge computing is extending beyond terrestrial networks into space, giving fleet operators new options for managing the massive data volumes generated by connected vehicles. Companies like KaleidEO are planning to launch satellites equipped with edge computing capabilities by 2026. These satellites will be able to process data directly in orbit, significantly reducing latency and bandwidth usage while enabling more efficient data handling for applications such as Earth observation and environmental monitoring. 

Similarly, a converged connectivity system might use cellular networks for data-heavy tasks when possible, and satellite connections for important but less data heavy tasks when cellular isn’t available. Product designers should think about how this edge computing in space could enable new ways to process data, compress information, and selectively send only what’s needed. 

AI rewrites networking protocols (2026) 

Artificial Intelligence is now being built into satellite systems, creating new options for intelligent networking and improving communication protocols. AI and machine learning are used in both space systems and ground stations, helping with autonomous operations, improved situational awareness, and faster decision-making. For fleet managers, this allows for smarter data routing, network control, and the ability to predict maintenance needs before problems occur. 

Looking ahead, we can expect generative AI to influence satellite technology. Promising uses include designing better satellites, AI adjusts features like shape, size, and setup to match mission needs to create lighter and less expensive designs. AI can also improve image analysis, signal processing, and finding unusual patterns by pulling important information from complex data. For IoT product developers, this means creating systems that can work with AI-powered networks and potentially change how they send data to take advantage of AI-enhanced routing and processing abilities. 

Mapping the future of your connected fleets  

The innovations we’ve explored, from LEO constellations to AI-driven networking, are the high-octane fuel powering the next five years of IoT development. The manufacturers who integrate hybrid connectivity solutions into their development won’t just navigate the coming technological shifts; they’ll lead the fleet!  

Don’t let your connected products run out of gas before they even hit the open road. Download our comprehensive white paper on hybrid connectivity for fleet management and get the roadmap to the technical foundations driving your next generation of products. 

Additional Resources 

• Custom vs Hyperscale: Untangling the EVSE Connectivity Dilemma  

• Fueling the Future of AI with Optimized Data Streams 

• Find an example project to accelerate your transportation product 

The post Satellite Connectivity Forecast: 5 Trends Product Managers Need to Know appeared first on Blues.

It is common to have EVSE operators manage the connectivity provider and even cloud instance. With many new operators entering the market, especially smaller scale operations, time is of the essence. This has posed a challenge to operators that may lack the skillset, time, or resources to build a custom module in house. For OEMs and SIs, monetizing customers past the point of sale of equipment is also a major obstacle. Offering a full-solution approach not only allows manufacturers to overcome these hurdles, but also creates a new perpetual revenue stream and shapes a more sticky customer. 

When to build custom connectivity 

Unlike off-the-shelf solutions, a custom solution allows for full customization, giving you complete control over the design and implementation of your EVSE charging network. 

Organizations who opt to build their entire connectivity infrastructure in-house do so to create a customized connectivity system to cater to their unique requirements. 

Pros of building custom connectivity 

• Cost-efficient for companies with existing in-house expertise and resources to spare 
• Full customization and control over the connectivity and packaging solution 
• Flexibility to adapt to future market demands based on specific product roadmaps 
• Ability to tailor the user experience to the brand’s vision 
• Complete and sole ownership of proprietary data 

Cons of building custom connectivity 

• Absence of in-house expertise can lead to costly setbacks, impacting profitability and brand credibility 
• Opportunity cost in dedicating resources to building connectivity rather than allocated to build your core product 
• Prolonged development timelines result in missed market opportunities 
• Requires extensive training and hiring, impacting resource allocation 
• Managing supply chain complexities delay GTM timelines 
• Full data security burden rests on the organization’s shoulders 
• Providing timely maintenance solutions necessitate ongoing costs and expertise 
• Greater risk of failure – 75% of in-house IoT undertakings fail to achieve their intended results 
• Necessitates expertise to build a connectivity infrastructure with flexibility to meet today’s and tomorrow’s EVSE needs 
• Rigorous testing and certification processes cause delays and incur even more costs 
• Typically results in higher total costs when accounting for BOM, in-house training and hiring, ongoing maintenance and security, and custom provisioning 

….download and read the whole whitepaper by using the form below:

The post Custom vs Hyperscale: Untangling the EVSE Connectivity Dilemma appeared first on Blues.

Connectivity is pivotal in securing the future of EVSE (Electric Vehicle Supply Equipment) collegially known as EV Chargers. Let’s explore how connectivity addresses the pain points faced by manufacturers while unleashing the true potential of EVSE

The Growing Need for Connected EV Chargers

As electric vehicles become increasingly prevalent, the need for a robust and efficient charging ecosystem has become paramount. EVSE (Electric Vehicle Supplier Equipment) manufacturers encounter several hurdles in their quest to build a sustainable and accessible charging infrastructure. From limited charging stations to user concerns about range anxiety, these challenges pose significant obstacles to widespread EV adoption. Let’s explore these challenges in more detail:

• Limited Charging Infrastructure: As the adoption of electric vehicles gains momentum, the demand for charging infrastructure is growing exponentially. However, the limited availability of charging stations hinders the widespread accessibility of EV charging. Many regions lack an adequate charging point network, leading to charging deserts, dissuading potential customers from purchasing EVs.
• Range Anxiety and User Concerns: Range anxiety remains a prominent concern among potential electric vehicle buyers. The fear of running out of charge before reaching their destination deters many from switching to EVs.
• Grid Integration and Load Management: As the number of electric vehicles on the road increases, grid integration and load management become critical challenges. Charging many EVs simultaneously can put immense stress on the electric grid, leading to potential overloads and blackouts.

The Role of Cloud Connectivity in EV Charging

Cloud connectivity forms the foundation of modern EVSE infrastructure, enabling communication between charging stations and the cloud platform. Through embedded IoT modules that boost efficiency and productivity, EV chargers establish a secure and real-time connection with the cloud. This helps in facilitating data transmission and remote management.

Manufacturers access many benefits by easily integrating EVSE with a cloud platform. Let’s explore some of these advantages:

• Remote Monitoring and Management: Cloud connectivity empowers manufacturers with comprehensive visibility into charging sessions. Real-time monitoring allows them to track charging progress, monitor performance metrics, and detect potential issues remotely. With proactive insights, manufacturers can promptly address maintenance needs and ensure optimal charger functionality.
• Firmware Updates and Enhancements: Staying up-to-date with the latest technological advancements is crucial for EVSE. Cloud connectivity streamlines firmware updates, allowing manufacturers to push enhancements and security patches remotely.
• Data Offload and Analysis for Optimization: Cloud-connected chargers collect valuable data during charging sessions, including energy consumption, user behavior, and charger performance. By offloading this data to the cloud, manufacturers gain profound insights into charging patterns and user preferences.
• Payment and Billing Solutions: Cloud connectivity simplifies payment processing for EVSE services. Drivers can make payments through various methods, such as credit cards or mobile apps, with the help of cloud-connected chargers.
• Enhanced Security and Privacy Measures: Contrary to security concerns, reputable cloud connectivity providers implement robust security measures to safeguard user data and charger operations. Cloud infrastructure often offers better security mechanisms than local networks, ensuring user data privacy and preventing unauthorized access to chargers.

The Impact of Connectivity on the EVSE Ecosystem

As cloud connectivity becomes increasingly prevalent in EVSE, its profound impact extends beyond individual chargers, shaping the entire EVSE ecosystem. Let’s understand the wide-ranging effects of cloud-connected chargers and their impact on the future of EVSE technologies.

Sustainability and Energy Efficiency Considerations

Cloud-connected chargers play a pivotal role in promoting sustainability and energy efficiency in the EV industry. Manufacturers can gain valuable insights into charging patterns and energy consumption with access to real-time data transmission and analysis. This data-driven approach allows for the optimization of charger performance, ensuring that energy is utilized efficiently and wastage is minimized. As more chargers become cloud-connected, the collective impact of these optimized charging sessions contributes to overall energy conservation and a greener transportation landscape.

Smart Grid Integration and Demand Response Capabilities

The seamless integration of cloud-connected chargers with smart grid systems revolutionizes the management of both grid and electric vehicle charging.  Grids and utility companies can partner with charging operators to ensure the grid stays stable even during peak demand times in exchange for lower rates and other incentives. Charging operators can implement dynamic demand response strategies by accessing real-time data on charging demand and grid capacity. During peak periods, cloud-connected chargers can adjust their charging rates intelligently, aligning with grid demand and available renewable energy sources. This smart grid integration prevents grid stress and enhances grid stability and resilience, creating a more reliable and sustainable charging infrastructure.

Enabling the Future of EVSE Technologies

Cloud connectivity acts as a catalyst for ushering in an era of cutting-edge EVSE technologies. One such advancement is wireless charging, where cloud-connected chargers facilitate seamless communication between EVs and charging pads, eliminating the need for physical connections.

Additionally, cloud-connected chargers enable revolutionary Vehicle-to-Grid (V2G) integration, empowering EVs to draw power from the grid and feed excess energy back into it, enhancing grid balancing capabilities.  In exchange for credits and favorable rates, using energy dense batteries in electric vehicles helps utilities maintain grid stability, without the use of polluting and expensive-to-maintain peaker plants.

Moreover, cloud connectivity facilitates AI-driven charging management, allowing chargers to adapt charging schedules based on user preferences, electricity rates, and grid conditions, creating personalized and optimized charging experiences.

The Market is Demanding more from EVSE

In the past, it was easy for a manufacturer to pass full ownership to integration partners and end users.  This includes everything from cybersecurity to prototyping a working, viable solution. The dizzying array of cyberattacks targeting operations has left customers with a heightened sense of awareness of the risks that come with IoT products, leading them to demand more from their EVSE partners.

In the world of SaaS where everything is a service, reducing risk, lowering barriers to entry, and providing a seamless solution has left many customers with a preference to offload responsibility to manufactures. At the same time, manufactures seek additional revenue streams and are being lured in by the As-A-Service model of perpetual revenue and increased customer lock-in. Thus, there is an increase in which EVSE are fully bundled not just with the hardware itself, but with the connectivity as well. These hurdles can make something as simple as cloud integration bundled in an elegant package difficult for an operator to build on their own.

Embracing Connectivity for Scalable and Future-Proof Solutions

OEMs and SIs must embrace connectivity as an essential aspect of their products in order to thrive in the rapidly evolving EVSE landscape. Cloud-connected chargers can seamlessly accommodate emerging technological advancements and industry standards, ensuring that manufacturers stay ahead of the curve. The ability to scale up infrastructure efficiently to meet the growing demands of EV owners and operators is critical for long-term success.

Embracing cloud connectivity fosters a collaborative ecosystem where manufacturers can continuously refine and improve their charging solutions. Data-driven insights from cloud-connected chargers provide valuable feedback, enabling OEMs and SIs to make informed decisions and optimize their products for maximum efficiency and user satisfaction. This iterative approach ensures that their solutions are always aligned with the evolving needs and preferences of electric vehicle owners.

Harnessing the Potential of Connectivity in EV Charging

The significance of cloud connectivity in EVSE goes far beyond the realm of mere convenience. For EV charger manufacturers, embracing cloud connectivity opens the gateway to many advantages, revolutionizing the landscape of electric vehicle charging infrastructure. From real-time monitoring and data-driven decision-making to smart grid integration and future-proofing, cloud-connected chargers lay the foundation for an efficient, sustainable, and intelligent EV charging ecosystem.

Driving the Future with Blues’ Notecard and Notehub

As a trailblazer in IoT connectivity solutions, Blues has introduced the game-changing Notecard, empowering EVSE manufacturers with seamless cloud connectivity. With Notecard, OEMs and SIs can offer solutions that remotely manage charging sessions, optimize charger performance, and proactively address maintenance needs, all in real time. Additionally, Notecard facilitates firmware updates and enhancements, ensuring chargers remain up-to-date with the latest features and security measures.

Notehub, Blues’ powerful cloud platform, serves as the backbone of cloud-connected chargers, effortlessly managing data offload and analysis. Notehub’s robust capabilities enable manufacturers to gain valuable insights into charging patterns, user behavior, and energy consumption, empowering them to make data-driven decisions and enhance charger efficiency.

Every Notecard customer receives 500MB of complimentary data, which doesn’t expire for 10 years, as well as free cloud credits.

EV charger manufacturers can embrace cloud connectivity with confidence by taking advantage of Blues’ comprehensive suite of IoT. With Blues’ Notecard and Notehub, the future of electric vehicle charging becomes more than just a vision; it becomes a transformative reality.

Learn more about how Blues can help solve EV Infrustructure here.

The post Accelerating Sustainable Mobility: The Critical Role of Connectivity in EVSE appeared first on Blues.