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.

While the Swarm network demonstrated the potential of satellite technology in connecting everything from agricultural sensors to ocean vessels, existing customers must now prepare to transition to alternative solutions. 

Starnote enables device manufacturers to connect to Skylo’s satellite networks using the existing Notecard ecosystem. It represents a blend of cutting-edge technology, user-centric design, and affordability ready to modernize the boundaries of Satellite connectivity. 

The End of Swarm: What You Need to Know 

SpaceX’s announcement of Swarm’s discontinuation last September set the countdown running for current users. The service will officially stop operations in March 2025. All Swarm devices, including the SpaceBEE modules, will stop transmitting data after this date, regardless of any remaining credit balances or service agreements. 

If you have an existing Swarm deployment, here are the next steps for your business: 

• Conduct an inventory of all deployments – Satellite connected devices are often deployed in remote or hard-to-reach locations. Without a complete device map, organizations risk leaving obsolete hardware in the field or ordering the wrong quantity of replacement hardware.  

• Document existing integration points and data flows – Swarm devices typically feed into complex systems, including dashboards, alerts, and analytics platforms. As organizations switch to alternatives, they’ll encounter different APIs and data formats; documenting these upfront preserves critical business processes and ensures a smooth data transition. 

• Download and back up all historical data – Access to the Swarm dashboard and API will be terminated alongside the service. This includes not just transmission data but also device configurations, network settings, and any custom integration parameters that might be valuable for setting up replacement systems. 

• Begin migrating to a different service – Swarm will not be providing an automatic transition to a new service. Customers are responsible for their migration strategies, including hardware replacement and software adaptations. This is particularly important for organizations with remote or hard-to-reach deployments. 

• Plan for a customer service interruption – A minimum 24-hour service interruption allows organizations to replace hardware, initialize and test devices, and redirect data flows. This buffer provides essential time for troubleshooting unexpected issues and ensuring all systems function correctly before full deployment. 

When it comes to migration planning, the earlier the better for maintaining continuous operations and benefitting from newer technologies. As the March 2025 deadline approaches, several viable alternatives have emerged in the satellite IoT space, each offering unique advantages that could allow your business to upgrade its capabilities.  

Your Satellite IoT Options 

Swarm might have been one of the first on the market, but as satellite technology has become more affordable and accessible, the options for connecting your devices have grown. However, significant challenges such as political hurdles, high module and data costs, and integration complexities remain to be addressed by many of these products; here are the options available to businesses looking to migrate away from Swarm. 

• Blues: Each Starnote for Skylo module costs $49, which includes 18KB of data. Additional data costs $0.75 per KB. Volume discounts are available for both hardware and messages. 

• Starlink direct-to-cell: Will be introduced for the IoT industry in 2025.  

• Iridium: Offers an Edge Pro Development Kit for $999, which includes hardware and free airtime for six months. Monthly service starts at $31.50 with no included data.  

• Sateliot: Provides an NTN extension to terrestrial coverage.  

• Astrocast: Sells the Astronode S communication module for $49, with service pricing not publicly available.  

• Globalstar: Offers the STM150M Module for $85 for embedding in an end product, with service pricing around $0.25/message.  

• Myriota: The development kit costs $199, including two modules and three months of free data. Service pricing is $500/month for 1MB of data.  

Each alternative has trade-offs, including hardware costs, data pricing, and integration complexity. Starnote combines the proven Notecard ecosystem with Skylo’s satellite network, offering a balance of affordability, ease of integration, and reliable coverage. 

Introducing Starnote for Skylo 

Starnote is designed to work with a Blues Notecard for cellular or Wi-Fi, adding redundancy to your device so that you will always be online if your primary connectivity solution fails. This flexibility ensures robust and uninterrupted connectivity to cater to diverse requirements across terrains and applications.  

Here are some key features of Starnote which businesses should take advantage of:  

• Advanced connectivity: Starnote combines LEO satellite backup connectivity with the ease and familiarity of cellular and Wi-Fi networks. This integration expands the coverage range and ensures reliable communication in remote locations.  

• Easy to use: Starnote maintains a JSON-based programming interface consistent with Blues’ Notecard solution. This feature ensures ease of use for developers, allowing them to access another major Radio Access Technology with a plug-and-play module.  

• Rapid integration: Starnote’s interface streamlines the development process, significantly reducing integration time. Its use of familiar interfaces allows developers to quickly incorporate satellite failover capabilities into their projects without the steep learning curve often associated with satellite technology integration.  

• Alignment with device lifecycles: IoT devices could be active in the field for up to 10 years. Starnote offers a practical financial model with 18KB of data included and no monthly costs for devices, beneficial for devices that are not always “active.”   

• Inclusive of satellite uplink and downlink data: The cost of a Starnote device includes both satellite uplink and downlink data. This bundling is crucial to its cost-effectiveness, simplifying the pricing model and making it more predictable for users.  

The Future of Satellite IoT: A Strategic Opportunity 

While Swarm’s discontinuation presents an immediate challenge for customers, it also creates an opportunity to upgrade your IoT infrastructure. Starnote’s dual-connectivity approach provides reliability that isn’t possible with satellite-only solutions. Combined with a developer-friendly ecosystem, organizations can migrate at speed with confidence in a future-proof design. 

Rather than viewing Swarm’s sunset as a forced migration, forward-thinking organizations can use this transition to build a more resilient and scalable IoT infrastructure. Get in touch with our team to begin your migration. 

Additional Resources 

• Learn more about Starnote on our Blog 
• Build a prototype with a Stanote for Skylo Dev Kit 
• Get started with our quickstart developer guide 

The post Navigating the Post-Swarm Era: Simplify Satellite IoT with Starnote appeared first on Blues.

Last year we introduced Starnote, a game-changing satellite connectivity agent. Starnote provides reliable satellite failover to any cellular or Wi-Fi Notecard-based solution in areas where connectivity can be challenging. And, with no subscription fees or lock in, its one of the most affordable satellite modems on the market. 

Unlocking Billions With Connectivity 

Satellite IoT is set to revolutionize the oil & gas, mining, and construction sectors, unlocking billions of dollars in potential savings and revenue. Here’s how it’s making an impact: 

Oil & Gas 

The oil and gas sector is poised to gain the most from advanced connectivity. Deploying advanced connectivity solutions is projected to optimize drilling and production throughput, adding up to $250 billion in value. The industry could unlock an additional $30 billion if Low Earth Orbit (LEO) satellites become available and increase productive drilling time to 94% from the current 90%, a significant boost in productivity. 

Other digital technologies, including sensors and data analytics also help cut production costs by 10% to 20% through better seismic data processing and reservoir modeling. 

Mining 

Mining operations often take place in harsh, remote environments where maintaining communication networks is a challenge. Reliable connectivity ensures continuous monitoring of equipment and environmental conditions, enhancing safety and productivity. With Starnote, mines can achieve seamless data collection, enabling real-time decision-making that improves efficiency and reduces risks. 

Construction 

The construction industry is already benefitting from predictive maintenance, remote condition monitoring, and enhanced project management—all made possible by Satellite IoT. These technologies help companies save millions annually. 

Facing Terrestrial Limitations Head-On 

Industries that rely on remote locations, like oil, gas, and mining, face big challenges when it comes to staying connected. Without reliable communication, it’s tough to keep operations running smoothly, ensure safety, and make smart, data-driven decisions. 

Take the oil and gas sector, for example. It’s still recovering from the massive hit during the Covid-19 demand crash and the 2020 price war, which caused oil prices to drop by 59%. This showed just how vulnerable the industry is to global market shifts. Stronger, more reliable connectivity could help businesses adapt and stay resilient during tough times. 

Surprisingly, only 22% of executives plan to adopt new technologies, creating a significant gap in operational efficiency and safety improvements. This hesitation is costly, especially when many companies rely on expensive satellite communications that can cost over $200,000 per year per link. While the cost is high, it’s often unavoidable to keep operations running and respond quickly to emergencies. 

The financial stakes are high. A single half-day of pump downtime at a refinery can cost up to half a million dollars in lost revenue. That’s why dependable connectivity isn’t just a nice-to-have—it’s essential. 

The mining industry faces similar struggles. Operations often take place in harsh, dangerous environments, where reliable communication can be a lifesaver. Equipment failures or injuries are constant risks, and underground networks are notoriously unreliable. As mines get deeper and larger, keeping critical systems connected becomes even harder, with vital data capture equipment often out of reach of traditional networks. 

Why Starnote Stands Out 

Starnote isn’t just another satellite solution. It’s designed with simplicity, flexibility, and cost-efficiency in mind, offering users:  

• Seamless Integration – Starnote integrates seamlessly with Notecard, offering dual connectivity that adds satellite failover to any cellular solution with the same developer friendly experience. This allows for seamless movement between radio access technologies (RATs) through the use of the same set of APIs, hardware design and software architecture. 

• Pre-Provisioned Connectivity – Each Starnote device comes pre-configured with 18KB of satellite data, enough to send a 50-byte message daily for a year. This eliminates lengthy setup times and accelerates time-to-market. 

• Broad Coverage – Powered by Skylo, Starnote’s satellite network spans the U.S., Canada, Western Europe, and more, with coverage expanding rapidly. Whether your operations are in a desert, forest, or near shore location, Starnote keeps you connected. 

• Low Latency – Traditional satellite communications are plagued by delays that slow down real-time decision-making. Starnote’s low-latency connections ensure fast, reliable data transmission, so you’re always ahead of the curve.  

Real-Time Solutions for Real-World Problems 

Maintaining operational visibility and control remains an immense challenge across the oil, gas, mining, and construction industries. Starnote isn’t just about connectivity; it’s enabling real challenges in remote locations to be solved- no matter how isolated or harsh. Here are three key areas where Starnote delivers: 

Precise Asset Tracking  

Losing track of expensive machinery and vehicles isn’t just frustrating—it’s costly. Starnote provides real-time location data for every asset, giving you total visibility. This means better inventory management, optimized resource deployment, and enhanced security.  

A Safe and Secure Work Environment 

Picture this: A gas leak develops in a remote mining operation. Who learns about it first – your sensors or your workers? Starnote’s real-time monitoring provides continuous visibility into critical conditions – whether that’s environmental conditions like air quality, the operational status of equipment, or even worker health. Instead of reacting to accidents, you can proactively address risks before they escalate. Prioritizing safety protects your workforce and builds a culture of trust and care. 

Prevent Downtime through Predictive Maintenance 

Equipment breakdowns can halt operations and drain budgets. Starnote uses real-time data insights to anticipate potential failures, enabling proactive maintenance that minimizes downtime and extends the lifespan of your assets. 

The Future of Connectivity Starts with Starnote 

Starnote is more than just a satellite failover device—it’s a lifeline for industries that depend on reliable communication in the most challenging environments. By addressing the core issues of operational efficiency, safety, and decision-making, Starnote empowers businesses to thrive in remote locations without the usual complexities or high costs of traditional satellite failover solutions. 

Get in touch to discover how Starnote can connect your operations, wherever they are. 

Additional Resources 

• Download your guide to Industrial Equipment Monitoring with Blues 
• Discover Starnote and compare it to other satellite IoT solutions 
• Accelerate your product development with Blues partners, discover how with our Prodigy case study 

The post Starnote: Game-Changing Satellite Connectivity for Oil, Gas, Mining & Construction appeared first on Blues.

While the sensors needed to power these solutions are readily available, the inherent rural nature of agriculture often means they are deployed in areas without terrestrial network coverage. To bridge this coverage gap, satellite connectivity is deployed to provide persistent coverage.  

However, many satellite solutions create their own set of problems. They involve expensive hardware and unpredictable service costs such as monthly minimums and active device fees. Starnote is breaking away from the herd. 

Connectivity: The Achilles Heel of Smart Farming 

Smart agriculture reshapes farming by integrating embedded intelligence technologies into daily agricultural practices. Devices with various sensors collect data on soil moisture, crop health, and environmental conditions, facilitating informed decision-making.  

Despite their promise, the success of these technologies hinges on reliable connectivity. In remote areas, where smart agriculture holds the most potential for transformative change, inconsistent or non-existent cellular coverage is a substantial barrier​​. This connectivity gap limits the real-time transmission of data essential for precision farming, undermining the effectiveness of IoT technologies. 

Current smart agriculture solutions typically rely on local networks and satellite links to bridge this gap. Sensors, GPS systems, and drones have become more accessible, yet their dependence on continuous connectivity underscores a critical vulnerability.  

Starnote: Connectivity That Cultivates Smarter Agriculture 

Starnote offers the manufacturers of Smart Agricultural solutions the ability to guarantee connectivity in remote areas, a critical advantage that supports the use of advanced technologies. This connectivity empowers precision farming tools to function optimally, enabling real-time monitoring and management of crops and livestock without the constraints of geographical isolation. This allows farmers to: 

Streamline operations: Combining Starnote with Notecard, farmers can gather essential data to enhance crop production efficiently. This integration facilitates the optimal allocation of resources, significantly reducing water consumption, fertilizers, and herbicides. The result is a more sustainable farming practice that boosts yield and conserves vital environmental resources. 

Monitor conditions remotely: Starnote’s capabilities extend to developing applications that provide farmers with insights into agricultural conditions, such as soil moisture levels, weather fluctuations, and pest infestations. 

Manage precision irrigation: Starnote enables the deployment of precision irrigation systems that rely on real-time data to water crops exactly when and where water is needed, minimizing waste and maximizing efficiency. This approach conserves water resources and supports optimal crop growth conditions, leading to higher yields with less water. 

Track livestock health and location: Utilizing Starnote, farmers can implement advanced livestock monitoring solutions that track the health, well-being, and location of their animals in real time. This could involve wearable sensors for animals that monitor vital signs and movements, transmitting data back to the farmer or veterinary specialist for analysis.  

Farm machinery tracking and monitoring: By utilizing intelligent monitoring tools on heavy machinery, farmers can track wear and tear and use predictive maintenance capabilities to ensure their machinery runs smoothly, tackling issues before they cause costly breakdowns. 

Starnote: Bridging Barriers, Conserving Resources 

With Starnote’s reliable satellite connectivity, farmers in the world’s most remote corners can now access real-time data crucial for making informed decisions. This connectivity ensures that vital information on soil moisture levels, crop health, and environmental conditions is readily available, enabling farmers to optimize irrigation schedules, reduce resource wastage, and improve crop yields.  

Bridging the digital divide is a critical step to the universal adoption of smart agriculture. It ensures that innovative farming solutions like IoT devices and UAVs can operate seamlessly, irrespective of the location’s connectivity infrastructure. 

Beyond operational efficiency and overcoming connectivity hurdles, Starnote is pivotal in promoting environmental sustainability within the agriculture sector. Farmers can optimize water, fertilizers, and pesticides through precise resource management enabled by constant data flow. This contributes to the conservation of natural resources and the reduction of agricultural runoff, a leading cause of pollution in bodies of water. 

The Proof is in the Pasture: Experience the Starnote 

Starnote’s reliable, efficient connectivity is ready to revolutionize smart agriculture. It addresses the most pressing challenges of remote farming areas, enabling the integration of intelligent machines that drive data-driven decisions, enhance crop yields, and promote environmental stewardship. 

Blues’ Starnote’s impact extends beyond the immediate benefits of enhanced connectivity. It lays the groundwork for sustainable agricultural practices that balance the demands of increasing global food production with the imperative of preserving our planet for future generations.  

Discover how Starnote can elevate your agricultural operations to new heights. Book a demo with our experts today. 

Further Resources: 

• Check out the Starnote online 

• Read the blog: An Introduction to Starnote 

• Purchase the Starnote for Skylo Starter Kit 

The post Harnessing Starnote’s Persistent Connectivity to Boost Smart Agriculture appeared first on Blues.

The transportation sector is facing a complex landscape of technological advancements, rising costs, and increasing demands for efficiency and safety. Reliable, uninterrupted connectivity is crucial in navigating these challenges. From managing data complexities to dealing with legacy infrastructure constraints, the journey towards a fully connected future has been anything but straightforward.  

Blues’ Starnote for Skylo is overcoming the barriers that have hindered the adoption of satellite connectivity in transportation. By enabling improvements in efficiency, safety, and overall experience, the world is on the brink of experiencing the possibilities of global connectivity in transportation. 

Driving Transportation’s Connected Future 

In the transportation sector, the option to connect your devices via satellite marks a pivotal shift towards smarter, more efficient, and responsive systems. IoT in transportation is anticipated to increase from $186.12 billion in 2023 to $292.08 billion by 2029, with a CAGR of 7.8% during the forecast period. 

Satellite IoT technology is transforming transportation by enhancing traffic management, public transit, electric vehicle systems, railway communications, as well as many other use cases. Here are some of the ways that access to real-time data and reliable connectivity is driving smarter, more connected transportation networks globally.  

• Advancements in Traffic Management and Safety: Satellite IoT-powered intelligent transportation systems (ITS) can dynamically adjust traffic signals, provide real-time route guidance, and facilitate sustained communication between vehicles and infrastructure. 

• Transforming Public Transit Systems: By installing IoT sensors on buses, trains, and other public transport vehicles and connecting them via satellite, transit authorities can monitor the location, speed, and condition of their fleet in real time. Satellite IoT also enables real-time passenger information systems, offering accurate arrival times, service alerts, and alternative route suggestions. This improves the convenience and accessibility of public transit. 

• Facilitating the Adoption of Electric Vehicles: Satellite IoT is essential for the growing electric vehicle (EV) ecosystem. It allows for smart charging infrastructures, optimized battery management, and facilitates vehicle-to-grid (V2G) communication. Connecting EV charging stations via satellite enables real-time energy consumption monitoring, load balancing, and remote maintenance. 

• Enhancing Railway Communications and Safety: Satellite IoT technology in railway systems allows for accurate tracking of trains, cargo, and passengers, optimizing logistics and improving security. It can also support personalized passenger services, including real-time travel updates, on-board entertainment, and paperless ticketing, to enhance the overall travel experience. 

Turbulence in Transition: What’s Holding Us Back 

However, establishing a robust and consistent connection can be difficult. Traditional land-based networks often struggle to cover remote and underserved areas, leading to communication gaps that can impede operations, compromise safety, and reduce efficiency. 

Some of the connectivity issues that affect the transportation industry include: 

• Value Chain Coordination: Aligning stakeholders within the transportation sector is no small feat. Each player has a distinct role and perspective, from manufacturers and service providers to regulatory bodies and end-users. While diversity is a strength, it also makes establishing universal standards and protocols incredibly complex.  

• Use Case Fragmentation: Each use case, whether cargo tracking, smart manufacturing lines, or remote monitoring, has unique requirements and technological needs. This fragmentation makes it difficult to create a one-size-fits-all solution, necessitating a more tailored approach that can slow down standardization efforts and increase costs. 

• Misaligned Incentives: Conflicting interests among stakeholders can also stall progress. For instance, connectivity providers invest heavily in infrastructure with the expectation of a return. Yet, the primary beneficiaries of enhanced connectivity may differ, leading to disputes over who bears the costs and reaps the rewards.  

• Data Complexities: In an era where data is king, concerns around privacy, ownership, and interoperability loom large. Ensuring the security of transmitted data while navigating the labyrinth of global data protection regulations is a monumental task.  

• Deployment Constraints: Finally, the legacy infrastructure of the transport sector, combined with regulatory uncertainties, acts as a brake on the adoption of new technologies. Upgrading existing systems to support advanced connectivity requires significant investment, and without clear regulatory guidelines, stakeholders are often hesitant to commit the necessary resources.  

A robust, reliable solution is needed to fill these gaps and propel transportation forward. In areas where traditional networks cannot reach, satellite connectivity fills the void, ensuring operations can continue without interruption, regardless of location. 

Buckle Up: Starnote in the Driver’s Seat 

By embedding Starnote alongside the Blues Notecard you can experience true wireless harmonization enabling your devices to be connected via WiFi, Cellular, or Satellite depending on the local coverage for each channel. This solution allows transportation companies to unlock new levels of efficiency, safety, and global communication. Enabling optimized routing, predictive maintenance, and swift emergency response amongst many other benefits: 

Optimized Operations and Efficiency 

Starnote’s reliable backup connectivity provides real-time insights into asset performance, fuel consumption, and route efficiency. This data-driven approach enables fleet managers to make informed decisions, reduce operational costs, and improve overall efficiency. Moreover, predictive maintenance becomes possible, as Starnote allows for continuous monitoring of asset health, enabling proactive servicing and minimizing downtime. 

Improved Safety and Emergency Response 

With Starnote, vehicles can transmit critical data in real-time, regardless of their location. This enhanced connectivity allows for swift emergency response, as well as proactive monitoring of potential safety issues, such as engine anomalies or dangerous weather conditions. By enabling timely communication and data transmission, Starnote contributes to improved safety standards. 

Real-time Data Exchange  

Starnote enables continuous, real-time data exchange between assets, operators, and stakeholders, regardless of location. This perpetual flow of information, allows for the continual transmission of vital data, such as location, speed, fuel consumption, and engine performance, allowing operators to monitor and optimize their fleets in real-time. This enhanced visibility and communication foster a more agile and responsive ecosystem, where stakeholders can quickly adapt to changing conditions, mitigate risks, and seize opportunities as they arise. 

Maintained Data Ownership and Enhanced Security  

Starnote prioritizes data security and privacy by ensuring that all transmitted data is encrypted and protected. The Notecard’s robust security features, combined with Blues’ expertise in navigating global data protection regulations, help stakeholders comply with the complex landscape of data privacy laws. Furthermore, Starnote’s effortless integration with existing systems promotes data interoperability, allowing stakeholders to leverage the full potential of their data while maintaining control over its use and distribution. 

Rapid Deployment and Adoption 

By providing a flexible, easily integrated solution, Starnote helps bridge the gaps between manufacturers, service providers, regulatory bodies, and end-users. The Notecard’s developer-friendly API and low-code integration process enable stakeholders to adopt Starnote’s satellite connectivity without requiring significant changes to their existing systems or protocols.  

Untangle Fragmentation 

Starnote’s versatile design accommodates diverse use cases, from cargo tracking and passenger connectivity to remote monitoring. The Notecard’s modular architecture allows developers to tailor the solution to their specific needs, while still benefiting from the underlying satellite connectivity provided by Starnote.  

The Catalyst For Connected Mobility 

We can all move faster towards our destination when we know exactly what’s in front of us. By removing the ambiguity of spotty communication and the danger of driving blind (literally and figuratively), possibility takes on a whole new meaning. 

Whether you’re a developer, a fleet manager, or an industry leader, the time to embrace the transformative potential of Satellite IoT is now. With Starnote as your gateway to an always-connected future, the open roads are calling. 

Additional Resources 

• Check out the Starnote for Skylo online 

• Read the blog: An Introduction to Starnote 

• Purchase the Starnote for Skylo Starter Kit 

The post Starnote Accelerates Satellite Connectivity in Transportation appeared first on Blues.

Leveraging satellite networks ensures that devices, from remote sensors to mobile messaging to trackers, are never without coverage or connectivity. 

Blues’ Starnote for Skylo enables device manufacturers to connect to satellite networks using the existing Notecard ecosystem. It represents a blend of cutting-edge technology and user-centric design poised to redefine the boundaries of Satellite connectivity. 

Starnote features  

Starnote is designed to work in conjunction with a Blues Notecard for cellular or Wi-Fi, adding redundancy to your device so that you will always be online if your primary connectivity solution fails. This flexibility ensures robust and uninterrupted connectivity to cater to diverse requirements across terrains and applications. 

Here are some key advantages that businesses experience when integrating Starnote into their operations: 

• Advanced connectivity: Starnote combines LEO satellite backup connectivity with the ease and familiarity of cellular and Wi-Fi networks. This integration expands the coverage range and ensures reliable communication in remote locations. 

• Easy to use: Starnote maintains a JSON-based programming interface consistent with Blues’ Notecard solution. This feature ensures ease of use for developers, allowing them to access another major Radio Access Technology with a plug-and-play module. 

• Rapid integration: Starnote’s interface streamlines the development process, significantly reducing integration time. Its compatibility with familiar programming paradigms allows developers to quickly incorporate Satellite capabilities into their projects without the steep learning curve often associated with satellite technology integration. 

• Alignment with device lifecycles: Understanding the misalignment of costs with device lifecycles, Starnote offers a more practical financial model. It avoids the burden of continuous monthly costs for devices, which is particularly beneficial for devices that are not always “active.”  

• Inclusive of satellite uplink and downlink data: The cost of the Starnote device includes both satellite uplink and downlink data. This bundling is crucial to its cost-effectiveness, simplifying the pricing model and making it more predictable for users. 

Starnote simplifies and expands the accessibility of satellite IoT applications. By offering a versatile, user-friendly, and affordable device, the promise of global connectivity becomes a reality, allowing our customers to keep their devices connected. 

Real world applications 

There is no limit to what you can build with Starnote for Skylo, but here are a few industries suited to satellite connectivity for improved efficiency, cost savings, and operational capabilities. 

• Marine telematics: Starnote for Skylo’s satellite connectivity ensures uninterrupted communication for vessel tracking and emergency services in maritime operations. This enhances safety and operational efficiency, especially in remote near shore areas which traditionally suffer from unreliable communication methods. 

• Smart agriculture: In agriculture, Starnote’s real-time data capabilities enable precision farming even in remote locations. Farmers can optimize resource use, increase crop yields, and reduce environmental impact through efficient data-driven decision-making. 

• Mining and construction: Starnote provides robust connectivity in remote mining and construction sites by supporting critical functions like equipment tracking, predictive maintenance, and emergency alerts.  

• Transportation: Starnote offers reliable tracking and monitoring of vehicles and cargo for logistics and supply chain management, ensuring efficient operations and enhanced supply chain visibility. 

How does the Starnote’s features translate into tangible business impact for device manufacturers:  

• Enhanced efficiency: Starnote’s reliable connectivity and data capabilities improve operational efficiency, such as more precise resource allocation in agriculture or smoother and safer navigation and tracking in the maritime industry. 

• Cost savings: Starnote is available for $49, offering improved connectivity at a much lower cost per device compared to other options on the market, which can cost $200-300. Each device comes with 18KB of data and once this is used up, additional data costs $0.75 per KB. There are no monthly subscriptions or minimum usage costs, so you only pay for the data you use, when you use it. 

• Operational capabilities: Expanding the developer-accessible programming model – used by the Notecard for Cellular, Wi-Fi, and LoRa – into the satellite domain simplifies the integration process. It allows industries to adopt Satellite without requiring extensive technical expertise​. 

How Starnote compares to competing solutions  

Blues’ Starnote offers a blend of features, affordability, and accessibility that sets it apart from its competitors.  

Comparing features and pricing 

• Starlink direct-to-cell: Will be introduced for the IoT industry in 2025 

• Swarm (acquired by SpaceX): Previously sold its hardware device for $119, with a monthly fee of $5 for up to 750 packets of 200 bytes each. 

• Iridium: Offers an Edge Pro Development Kit for $999, which includes hardware and free airtime for six months. Monthly service starts at $31.50 with no included data. 

• Sateliot: Provides an NTN extension to terrestrial coverage. 

• Astrocast: Sells the Astronode S communication module for $49, with service pricing not publicly available. 

• Globalstar: Offers the STM150M Module for $85 for embedding in an end product, with service pricing around $0.25/message. 

• Myriota: The development kit costs $199, including two modules and three months of free data. Service pricing is $500/month for 1MB of data. 

Starnote combines affordability, user-friendly design, and versatile connectivity in one package. This blend makes satellite IoT more accessible, especially compared to higher-priced alternatives. Starnote offers practicality and versatility that others can’t match. 

The brightest star in the Satellite IoT sky 

Starnote’s design and functionality were custom designed to meet the evolving demands of the industries that rely on this technology, ensuring it remains a relevant and impactful tool in the Satellite connectivity space for years to come. 

Blues’ vision for the future of connectivity is one where barriers are broken down and communication is seamless, regardless of location or circumstance. Starnote is a cornerstone of this vision. Its unique blend of advanced technology, ease of use, and versatility positions it as a product and a beacon of progress in the IIoT landscape.  

We invite you to join us on this journey. Whether you’re a business looking to leverage Satellite networking, a developer keen on exploring new technologies, or someone passionate about the future of connectivity, Starnote has something to offer.  

Book a personalized demo of Starnote. 

Purchase the Starnote for Skylo Starter Kit. 

Check out the Starnote quick start guide. 

The post Starnote: Blues’ Trailblazer in Global Satellite IoT appeared first on Blues.

To fill these gaps in coverage, developers have increasingly relied on satellite technology, which offers persistent global connectivity. Over time, the cost to launch and maintain a satellite has decreased tremendously, driving a rapid increase in the number of satellites and constellations while putting downward pressure on data costs. This dynamic will only accelerate over time and continue to unlock new previously cost-prohibitive use cases and applications.

In this piece, we’ll examine the current state of the Satellite IoT, explore the obstacles standing in the way of widespread satellite IoT adoption, and explain how Starnote for Skylo’s developer-centric design overcomes these obstacles.

So, strap in and prepare for a journey into the final frontier.

Connecting the Constellations: Understanding the Current State of Satellite Technology

The satellite market is experiencing transformative growth characterized by rapid expansion and technological advancement. According to a recent forecast by ABI Research in early 2023, the revenue from satellite IoT connections is expected to increase from $2.3 billion in 2022 to $9.5 billion by 2030. This equates to a Compound Annual Growth Rate (CAGR) of 19.6%, highlighting the growing demand and potential of satellite connectivity in various industries and applications.

The sheer number of satellites is also exponentially rising. As of late 2023, approximately 6,000 satellites orbit Earth, with around half in Low-Earth Orbit (LEO). Projections indicate a major upswing, with estimates ranging from 20,000 to 58,000 satellites by 2030. The approval of 5G  connectivity over non-terrestrial networks (NTN) by 3GPP in 2022 heralds a new era where satellites function akin to “cell towers in space,” enhancing connectivity for various applications.

The satellite market is on the brink of a significant transformation, bolstered by the advent of direct-to-cell services, exemplified by initiatives like Starlink. These services bypass traditional terrestrial telecommunications infrastructure by providing high-speed, low-latency broadband internet directly to end-user devices through compact user terminals. This allows them to offer high-speed satellite connectivity.

While direct-to-cell services hold promise, their impact on IoT remains uncertain. We need more clarity on the overall business model and data fee structure to assess whether or not it is a viable connectivity solution for IoT.

This always-on global connectivity will unlock innovations we cannot yet imagine. More data from aggregated and analyzed sources in the cloud will lead to greater intelligence and more robust modeling and predictions. Companies can finely tune complex systems based on telemetry from components anywhere in the world. Autonomous vehicles across settings from agriculture to transportation will benefit from centimeter-level positioning and instantaneous communication. Mesh networks with intelligent routing will extend far beyond where terrestrial infrastructure reaches today. Emergency response and regional healthcare solutions will save more lives when enabled by satellite IoT systems.

The horizon of satellite IoT is ripe with opportunity, particularly in sectors where remote monitoring and data collection over large or difficult-to-access areas can enable new services and efficiencies. The implications are significant: satellite operators and IoT platform providers are scaling their services, putting downward pressure on data costs while simultaneously improving throughput and accessibility and unlocking new applications.

Monumental Satellite IoT Innovations    

Now that we’ve covered the satellite IoT sector as a whole, let’s briefly look at a few incredibly innovative companies whose solutions are paving the way for the next generation of globally connected products:

• Swarm’s Low-Cost Global Connectivity: Swarm introduced the world’s most affordable satellite connectivity for IoT devices, utilizing ultra-compact “grilled-cheese-sized” satellites. This innovation of uniquely small satellites offered connectivity at a fraction of the cost of existing satellite solutions, unlocking new possibilities that were previously financially unviable. In 2021, SpaceX acquired Swarm.
• RockBLOCK’s Versatile Satellite Communication: RockBLOCK offers robust satellite IoT connectivity through the Iridium network. Its compact, low-power design supports global operation, facilitating seamless data transmission from remote locations, which is crucial for developers seeking to integrate satellite communication into diverse applications.
• Lacuna Space’s Revolution in Connectivity: Lacuna has combined ultra-low cost tracking with global, no-blank spot satellite connectivity with seamless integration with terrestrial LoRaWAN networks into a solution capable of operating on battery power for up to 5 years. Ideal for solutions sending low amounts of data, Lacuna has become a leader in asset tracking, smart agriculture, logistics, and more.
• Skylo Enables Seamless Dual Connectivity: Skylo’s technology is built on top of the latest cellular industry standards (3GPP NTN), removing the need for separate satellite modems or antennas, and making satellite connectivity affordable and accessible for all.

Roadblocks to Satellite IoT Adoption

Despite all this innovation and the falling price of satellite data, significant challenges to widespread Satellite IoT adoption remain. Here are some of the most pressing issues connected product developers are facing when looking to add satellite connectivity to their solutions:

• The Politics of Space: One of the most impactful yet challenging obstacles is the politics of connectivity. Achieving global connectivity requires a satellite network provider to work with every country and various international bodies to gain approval to operate within their borders. This is a painstaking process that often leads to patchwork coverage.
• Exorbitant Module Cost: Existing satellite modules are expensive, often costing upwards of $200, driving developers to either forego or downscale deployments.
• High Data Cost: While the cost of satellite data has declined, it is still incredibly high when compared to other RATs. This high-cost forces developers to perform time-consuming byte optimization, leading to a lower data sampling frequency and reduced data payload.
• Active Device Fees: Many major satellite network providers charge a monthly fee per active device, causing service costs to be opaque and unpredictable.
• Integration challenges: The developer experience for satellite solutions is incredibly complex and, for many, inaccessible. The issue is compounded by the fact that few use cases rely solely on satellite connectivity, meaning developers must develop solutions leveraging multiple RATs, manage the complexity of multiple modules with their own distinct firmware requirements, and incur duplicative module costs.

These challenges highlight the need for innovative solutions that offer enterprises cost-effective, transparent, and developer-friendly options.

Industries Primed for Satellite IoT Transformation

Satellite IoT can be used in an almost limitless number of ways, but several industries and use cases will see tremendous benefits by integrating backup satellite connectivity into their devices:

• Marine telematics: Satellite innovations revolutionize marine operations by delivering cost-effective, high-frequency connectivity in near-shore areas and ensuring seamless coverage across open seas. These cutting-edge technologies empower comprehensive resource tracking, facilitate oceanic data collection, and enhance maritime management, thereby driving substantial advancements in logistics efficiency and safety standards.
• Smart agriculture: Satellite connectivity empowers farmers to make informed, data-driven decisions, even in regions with unreliable cellular coverage. Using satellite connectivity, agricultural operations can efficiently optimize crop production, minimize resource consumption, and remotely monitor environmental conditions. This innovative approach enhances yields and promotes sustainability in farming practices.
• Oil and gas: Persistent global connectivity is paramount for offshore rigs and remote wells in the oil and gas sector. Satellite connectivity enables precise asset tracking, real-time predictive maintenance insights, and emergency alerts, bolstering operational efficiency and safety.
• Mining: Maintaining connectivity is essential in isolated mining and construction sites. Satellite connectivity enables global resource monitoring and seamless integration of location data from various sources, ensuring efficient management and safety of heavy equipment.
• Transportation: In the transportation sector, satellite back-up connectivity is essential for tracking vehicles and containers, as well as monitoring the temperature of goods along shipping routes.

With Starnote for Skylo, the ‘Sky’s Just the Beginning

As satellite IoT technology becomes more affordable and accessible, the opportunities for global connectivity are expanding rapidly. However, significant challenges such as political hurdles, high module and data costs, and integration complexities remain to be addressed.

At Blues, we’re meeting these challenges head-on through the launch of Starnote for Skylo, our solution for adding backup satellite connectivity to your Notecard-based product.

Here’s what makes Starnote for Skylo different from other satellite IoT modules:

• Affordable Hardware with Bundled Data: At just $49 with 18kb of bundled data, Starnote is a cost-effective way to add backup satellite connectivity to your Notecard-based solution.
• Native Failover Capability: Deployed in partnership with any Notecard, Starnote offers effortless backup failover satellite connectivity.
• Zero Monthly Active Device Fees: One of the only satellite IoT offerings without a monthly active device fee.
• Fast-Tracked Time to Market: Pre-provisioned satellite connectivity, effortless data routing, low code technology, a straightforward JSON API, and the same unmatched Notecard developer experience reduce your time to market from years to months.

If you’ve been searching for an affordable yet exceptionally capable backup satellite connectivity solution paired with an unmatched developer experience, then your search ends here.

The post Satellite IoT: The Final Frontier of Wireless Connectivity appeared first on Blues.

Today, a divergent approach to connected product development has mired the IoT industry. This divergent approach has led to a cumbersome product development experience where the choice of radio access technology (RAT) has to be made upfront, cloud orchestration platforms are only aligned around a single RAT, and hardware device designs are highly differentiated amongst RATs. 

Blues set out to clear the divergent obstacle stifling IoT innovation through an innovative approach called wireless harmonization.  

So, what is wireless harmonization? Here’s how we define it: 

Wireless harmonization is an architectural approach that abstracts the complexity of connected product development by allowing developers to seamlessly transition between connectivity technologies at any point in the product lifecycle, whether prototype or deployment, based on the wireless connectivity available at the point of deployment.  

To put it another way, through wireless harmonization, we’ve consolidated the many disparate, messy pieces of IoT into a single, unified experience: 

• Rather than a specific hardware and software design for each RAT, we created a single unified hardware design and a standardized software interface that accommodates every RAT. 

• Instead of routing IoT data through multiple RAT-specific cloud orchestration platforms, we built a single cloud orchestration platform capable of routing data received from any RAT to the cloud.  

• Rather than sorting through numerous location data points captured from multiple sources, we analyze multi-source location data to automatically determine a device’s best location, giving you a single location to focus on. 

Thanks to this architectural breakthrough, developers can now move freely between RATs such as cellular, LoRa, and Wi-Fi with minimal design changes. This approach enables developers to focus on developing ground-breaking applications and then decide which RAT to leverage, leading to better products in less time. 

Now that we’ve defined wireless harmonization let’s outline the critical issue hampering IoT innovation and connected product development— the problem of wireless divergence. 

 Convergent Suppliers, Divergent Development  

In the past few years, the IoT wireless connectivity market consolidated, giving rise to a market narrative around wireless convergence. Semtech acquired Sierra Wireless, UnaBiz acquired Sigfox, Telit acquired Thales Cinterion’s IoT business, and many more. 

These acquisitions created suites of solutions under a single roof, allowing customers to source multiple IoT connectivity needs from a single supplier. The industry reduced procurement complexity by removing the need to procure connectivity solutions from multiple suppliers, achieved greater economies of scale, and put downward pressure on bill of materials (BOM) cost.  

The industry should celebrate the supply-side efficiency improvements brought on by this consolidation; however, this strategy entirely neglects the product development experience, does nothing to solve the problem of wireless divergence, and certainly hasn’t achieved wireless convergence. 

Wireless convergence is the idea that assumes these disparate and highly differentiated technologies like cellular, Wi-Fi, LoRa, and satellite can converge into a single, homogenized, blended approach. However, the reality is wireless convergence is not possible —at least in the foreseeable future — given how vastly different RATs are. 

Rather than fixating on wireless convergence, Blues took a distinctive approach by addressing the challenge of wireless divergence. Recognizing the substantial variations among RATs (Radio Access Technologies), Blues crafted a sophisticated ecosystem that gracefully navigates and mitigates the intricacies inherent in these diverse technologies. 

Before we dive deeper into wireless harmonization, let’s examine the critical shortcomings associated with a divergent wireless ecosystem: 

• Developers are still forced to commit to a RAT at the beginning of the development lifecycle, even before they fully understand the product’s requirements. 

• Cloud orchestration and data routing platforms are still RAT-specific, causing enterprises to execute multiple redundant implementations and incur greater costs while introducing greater operational complexity.  

• Each RAT is supported by a distinctively designed hardware device featuring a unique form factor and specific software architecture. 

The impact of this engineering oversight is tremendous. Enterprises are developing siloed, disparate IoT solutions, product development cycles are lengthy and resource-intensive, and teams must commit to a RAT at product inception, even before they fully understand their customers’ requirements and real-world demands. 

Failure to solve the problem of wireless divergence is one of the core reasons the IoT space has consistently underperformed expectations and struggled to achieve its full potential. Simply put, the product development experience has been neglected, and there is too much complexity standing between developers and their ideal product. 

At Blues, we set out to solve this problem by developing a wireless ecosystem that abstracts the distinct complexities of each RAT to create a unified and simplified IoT experience.  

Understanding Wireless Harmonization  

Let’s take a deep dive into how we put wireless harmonization into practice and what it means for developers building with our products.  

Since our ecosystem is harmonized, our hardware (the Notecard) is interchangeable, and our connectivity is portable. This allows developers to build a connected product that utilizes multiple RATs while leveraging the same software and hardware design. In essence, you can develop your product and then decide which RAT(s) to leverage afterward. 

Our framework is comprised of 3 core pillars: Harmonization of Radio Access Technologies, Harmonization of Location, and Harmonization of Data Flow. We’ll get to those shortly, but first, here’s a real-world example highlighting the profound impact of a harmonized wireless architecture:  

An enterprise has built and shipped a solution that leverages the Notecard Cellular, but after meeting with some of your end users, you discover there’s demand for this solution in rural, cell-signal-challenged areas that require LoRa connectivity. 

An enterprise has built and shipped a solution that leverages the Notecard Cellular, but after meeting with some of its end users, they discover there’s demand for their solution in rural, cell-signal-challenged areas. The current solution doesn’t need a low-latency network connection, so LoRaWAN connectivity is ideal. 

But since they built with Blues, all they need to do is take the Notecard LoRa and plug it into the same M.2 edge connector that the Notecard Cellular was using, and they’re done.  

It’s that easy. 

There’s no hardware re-design, additional software development, lengthy time-to-market, or additional resource allocation. This pioneering approach dramatically streamlines product development and brings the world of IIoT into a new era. 

However, there are certain constraints developers need to be cognizant of; primarily, their host firmware application should only target the Notehub core APIs that are supported across all Notecards. For example, Notecard Cellular features like GPS tracking aren’t supported because they are unavailable on the Notecard WiFi. 

The 3 Pillars of Wireless Harmonization 

Harmonization of Radio Access Technologies: Connecting the Unconnected 

The cornerstone of our harmonization of radio access technologies (RATs) is the Notecard. The Notecard is a low-power, secure System-on-Module that seamlessly supports a spectrum of RATs like cellular, Wi-Fi, and LoRa — and in the case of the Notecard Cell+WiFi, it dynamically supports multiple RATs. 

Since the Notecard is harmonized across RATs, developers have the freedom to prototype with, for example, Wi-Fi and then deploy with LoRa or cellular. All our Notecards can be integrated into your product through an M.2 edge connector and hardware communication interfaces like Serial and I2C that are compatible with just about any microcontroller. 

Here’s a quick overview of each Notecard Blues currently offers:  

• Notecard Cell+WiFi: features global connectivity options for both wideband (LTE Cat-1) and narrowband (LTE-M, NB-IoT & GSM) while supporting precise asset tracking through GPS/GNSS, Cell tower or Wi-Fi triangulation. 

• Notecard LoRa: Achieve ultra-low power, long-range communication, and industry-leading security with the Notecard LoRa. These features make it ideal for battery-powered device clusters and rural and remote IIoT applications. 

• Notecard Cellular: Combines prepaid cellular connectivity, low-power design, and secure “off-the-internet” communications in one System-on-Module. 

• Notecard WiFi: Built the next generation of line-powered device clusters with a high sampling rate by leveraging our secure, low-power Notecard WiFi. 

• Notecard WiFi Chips Edition: Designed to be easily integrated into mass-produced products, Blues packages ultra-low-power architecture, market-leading security, core firmware, and Wi-Fi connectivity into a single compact device. 

• Notecard LoRa Chips Edition: Transform even the most cost-sensitive, space-constrained products into data-driven intelligent products with the mass-production ready Notecard LoRa Chips Edition. 

Harmonization of Location: Finding the Unfindable 

GPS/GNSS changed the world profoundly. The advent of real-time location tracking allowed humanity to create powerful applications and connect people in ways we’ve never thought possible. 

However, like all technologies, it has its limitations. Here are 3 limiting factors of GPS/GNSS: 

• Satellite Communication is Power-Hungry: The time and energy needed to track multiple satellite signals continuously or almost continuously consumes much power. Furthermore, devices often track different satellite constellations that operate at slightly different frequencies, meaning their antenna must be configured to receive all these, increasing power consumption even more. 

• Time-Consuming Computation: Communicating with multiple satellites to triangulate a device’s location is time-consuming due to the distance signals have to cover and the involvement of multiple satellites. 

• Unreliable Indoors or in Dense Urban Environments: GPS/GNSS cannot locate devices indoors as the long-range frequencies cannot get through walls and roofs. Additionally, if the device is located in a dense urban area like New York City, it will not deliver an accurate location due to multi-path errors. 

At Blues, we’ve overcome the limitations of single source location tracking by layer in location data from multiple sources such as cell towers, and Wi-Fi, in addition to GPS/GNSS, and analyzing that data in Notehub to calculate the “best location” of a device automatically. 

Notehub automatically evaluates how granular that data is, when it was sent, and a variety of other factors to provide you with the single, most accurate location of your device. Notehub takes the numerous data points from multiple sources and compiles them into a single location. 

This harmonized approach abstracts the complexity of multi-source device tracking by making it as easy as single-source tracking, which is imperative for enterprises tracking fleets of devices constantly moving. 

Harmonization of Dataflow: Explaining the Unexplained 

Data is the reason we’re here.  

It’s the cornerstone of business applications and AI models. The success of most business applications and AI models hinges on the ability to relay mountains of valuable data in real-time. 

By integrating connectivity into a physical product, enterprises gain access to previously untapped datasets that provide unprecedented insight into their products and customers. 

But all too often, wireless connectivity providers have made it difficult for developers to capture this data and route it where it needs to go. 

At Blues, we engineered and developed Notehub, a cloud orchestration layer for seamless data routing, easy provisioning at scale, and remote asset management. 

The primary goal of Notehub is to easily route your valuable data to where it needs to go. It natively supports secure routing to AWS, Azure, GCP, Snowflake, and numerous other cloud platforms — often in a “no-code” manner. 

While this is a tremendous improvement from most other cloud orchestration layers, Notehub’s critical innovation is that it is a single platform capable of seamlessly managing and routing data captured from multiple RATs to the cloud. It is a single platform for all your IoT data, regardless of RAT. 

Currently, most other cloud orchestration layers are RAT-specific, so connected product developers leveraging multiple RATs must route their data through several disparate platforms and then onto a single cloud destination where the data can be digested and utilized. 

By removing the need for multiple redundant, unnecessary cloud orchestration platforms, Notehub dramatically reduces implementation complexity, expenses, and operational maintenance. 

Notehub’s cloud-agnostic and omni-RAT architecture, coupled with its elegant but powerful JSON interface, empowers enterprises to build game-changing business applications faster than ever.  

Embracing Change: Don’t Dread Network Sunsets

Network sunsets are a natural part of technological evolution, especially in the Cellular world. 

Despite the predictability of sunset events, history is rife with manufacturers who have overlooked the importance of creating contingency plans to address them. 

Here are just a few examples of how sunsets caused dramatic impacts on manufacturers: 

• In the wake of the 3G sunset, some Nissan vehicles were left with an obsolete 3G modem, which left drivers without the use of several internet-enabled features. This led to costly recalls and damaging class action lawsuits. 

• Sparking fears of ‘alarmaggedon,’ the 3G sunset prompted the Alarm Industry Communications Committee to raise concerns that roughly 2 million burglar intrusion systems, fire alarms, and personal emergency alerts would go offline. This caused providers like ADT to scramble for a fix amid the pandemic’s microchip crisis. 

As an integral element of our wireless harmonization framework, Blues places a strong emphasis on designing an architecture that makes network sunsets painless.  

We have streamlined the sunset experience with our swappable Notecard design. When the next sunset event arises, companies that have chosen Blues will effortlessly transition by simply unplugging the existing Notecard from its M.2 edge connector and plugging in the new one.  

Similar to transitioning between RATs, no hardware re-design or software implementation is needed. This approach allows companies to future-proof their products by avoiding product obsolescence and dramatically reducing sunset-related expenses and reputational risk. 

Futureproofing Your Connected Products with Blues 

Blues’ wireless harmonization approach offers a forward-thinking solution to the challenges connected product developers face today and into the future.  

Blues has given enterprises a massive head start on building the next generation of AI-powered products by harmonizing access to connectivity technologies, accurate device location data, and dataflow. 

Our revolutionary approach to network sunsets protects the products you worked so hard to build from obsolescence through our modular, swappable Notecard design that eliminates the need for costly hardware re-designs and software implementations. 

The end result of this hyper-focus on simplicity is an ecosystem elegantly designed to empower developers, foster innovation, and ultimately allow IIoT to achieve its full potential.  

It all boils down to a fundamental decision:  

Will you continue to grapple with unnecessary complexity and glaring architectural flaws at every stage of your connected product’s lifecycle? 

Or will you build your connected products around Blues’ simplified, flexible, forward-thinking, future-proof ecosystem that fosters innovation and offers a genuine competitive advantage? 

The choice is abundantly clear. So, if your mind is already made up, right this way.

The post Wireless Harmonization: A New Era for Connected Product Development appeared first on Blues.