SKYDATA-IoT

Applications

SKYDATA-IoT cellular connectivity is equipping industries globally with future-leading M2M capabilities; from EV Charging to Smart Metering and Diverse Clinical Trial applications.

Healthcare

Cellular connectivity in digital healthcare enables real-time patient monitoring and seamless data transfer due to its uninterrupted range of coverage. With access to over 700 networks across more than 200 countries, reaching even the most remote areas, healthcare providers and researchers can count on maintaining the integrity of their data through their connected devices with SKYDATA-IoT cellular connectivity.

Decentralized clinical trials (DCTS) take place outside of traditional trial sites, which are more accessible and convenient for participants. These trials are often in remote areas worldwide where infrastructure for continuous connectivity is minimal or nonexistent. In these scenarios, cellular connectivity is essential for real-time data transmission because of its wide-area coverage, reliability, security and scalability.

IoT devices can collect and transmit real-time patient data outside healthcare facilities. This enables healthcare providers to monitor and manage patients remotely, allowing for earlier interventions and reducing hospital readmissions. The integration of cellular connectivity improves patient monitoring by addressing the limitations of Bluetooth and WiFi. Cellular networks provide wide-area coverage, consistent and stable connections, carrier-grade encryption for enhanced data security, and can support large-scale deployments without requiring additional infrastructure. They can also simplify the operation of wearables for patients.

IoT devices can automate various healthcare processes, such as inventory management, asset tracking, and preventive maintenance. This automation enhances operational efficiency and reduces costs. Cellular connectivity can support IoT healthcare operations by providing more extensive coverage and reliability, enabling real-time data transmission and communication in areas where Wi-Fi or Bluetooth may be insufficient.

IoT devices can track and monitor a patient’s vital signs, medication adherence, and environmental conditions impacting health. Cellular connectivity enhances IoT healthcare operations by ensuring real-time data transmission, which improves patient safety through timely alerts and prompt responses to critical health changes.

IoT devices generate vast amounts of data that can be analyzed to gain insights into population health trends, disease surveillance, and early warnings of potential outbreaks. This information can facilitate more proactive and personalized healthcare interventions. Cellular for IoT can enhance existing connectivity by providing reliable and widespread network coverage, which supports real-time data transmission from devices. This will ultimately improve predictive analysis and enable more timely interventions.

IoT enables virtual consultations and remote healthcare services by connecting patients, doctors, and medical devices. This improves access to healthcare, especially for patients in rural or underserved areas. Cellular connectivity enhances the stability and integrity of connections for telehealth services by providing a more reliable and consistent internet connection than Bluetooth or Wi-Fi. Unlike localized wireless networks, which can be subject to interference and limited range, cellular networks offer broader coverage and seamless connectivity. This reliability is crucial for real-time consultations and remote monitoring, ensuring that patients and healthcare providers can communicate without interruptions, even in areas with limited infrastructure.

IoT-powered wearable devices, such as fitness trackers or smartwatches, can collect real-time health data, encourage healthy behaviors, and enable early detection of health issues. This promotes preventive care and empowers individuals to take control of their health. Utilizing cellular connectivity in smart wearables ensures there are no gaps in collecting real-time data, especially when Bluetooth or Wi-Fi isn’t available, allowing for continuous monitoring and timely health insights.

IoT devices can optimize energy consumption in healthcare facilities, monitor equipment utilization, and optimize workflow management. This leads to cost savings and increased sustainability.

Ev charging

SKYDATA-IoT multi-carrier cellular connectivity for IoT enables real-time monitoring and management of EV charging stations, remote billing and payment management, smart grid integration, and over-the-air updates for station software, which are essential for efficient and reliable EV charging infrastructure.

IoT allows for remote monitoring and management of charging stations. Charger status, availability, and performance can be monitored in real-time, allowing operators to address issues promptly and ensure efficient operation. SKYDATA-IoT Multi-carrier cellular connectivity is crucial in enhancing the remote monitoring and management of charging stations compared with single-carrier coverage because our reliable and broad network access ensures that charger status, availability, and performance data can be transmitted seamlessly in real-time, even in areas where single-carrier coverage is limited. This connectivity allows for prompt issue resolution and helps operators optimize the performance and efficiency of charging stations across various locations.

IoT enables intelligent charging algorithms that optimize charging based on factors such as electricity demand, grid capacity, and user preferences. This ensures efficient energy utilization, reduces peak loads, and helps balance the grid. SKYDATA-IoT multi-carrier cellular connectivity enhances IoT applications by improving reliability, increasing data capacity, and reducing latency, all of which are essential for optimizing intelligent charging algorithms. This connectivity allows IoT devices to switch between networks seamlessly, ensuring constant communication for real-time data analysis on electricity demand and grid conditions, while also extending coverage to remote areas. As a result, it leads to more efficient energy utilization and better grid balancing.

IoT enables seamless payment and billing systems for EV charging. Users can pay through smartphones or RFID cards, while operators can accurately track energy consumption and generate detailed billing reports. SKYDATA-IoT multi-carrier cellular connectivity enhances the point of sale for EV charging stations by ensuring robust and reliable communication, even in areas with poor signal coverage. This technology allows charging stations to connect to multiple cellular networks simultaneously, improving transaction speed and reducing downtime. As a result, users can easily complete payments through various methods, such as mobile apps or RFID cards, while operators gain real-time access to data for better management and customer service.

EV charging stations benefit from network advantages like reliable communication, real-time data exchange, and remote management, all of which enhance operational efficiency. Cellular networks provide a suitable fail-back option by offering redundancy, broad coverage, cost-effective deployment, and flexibility, ensuring that charging stations remain operational even if primary internet connections fail. This combination improves reliability and scalability, accommodating the growing demand for electric vehicle infrastructure.

Renewable energy

Cellular connectivity in renewable energy applications allows for remote monitoring and control, predictive maintenance, integration with the electricity grid, and participation in demand response programs, ultimately maximizing efficiency and reliability.

IoT devices facilitate the integration of renewable energy sources, such as solar and wind, into the power grid. Real-time data and control allow utilities to manage fluctuations in supply and ensure grid stability.

Our multi-carrier solution ensures inverters are always connected to the strongest network.

Smart metering

Offering advantages such as remote monitoring, predictive maintenance, grid integration, and participation in demand response programs, maximizing efficiency and reliability.

IoT-enabled smart meters provide real-time data on energy consumption, enabling utilities to accurately bill customers, identify opportunities for energy efficiency improvements, and empower consumers to monitor and manage their energy usage.
The ability to leverage low-power wide-area networks (LPWAN) such as NB-IoT and CAT-M, with additional security through static IPs or VPN.

Fleet management

IoT enables real-time tracking and monitoring of vehicles, goods, and assets. This allows companies to effectively manage their fleet, optimize routes, reduce fuel consumption, and improve delivery accuracy.
IoT sensors in vehicles collect and transmit data on the health and performance of various components. This enables predictive maintenance, preventing breakdowns and reducing downtime. Telematics systems also provide valuable insights into driver behaviour, allowing for safer and more efficient operations.
IoT can be used to collect data from various sensors and devices placed on roads, bridges, and vehicles, allowing for dynamic traffic management. This includes adjusting traffic light cycles, rerouting vehicles based on congestion, and improving overall traffic flow.

Point-of-Sale

Cellular connectivity in point-of-sale (POS) applications offers benefits such as location flexibility, reliable payment processing, and a backup in case of network outages. It allows businesses to deploy POS systems in various settings, ensures seamless payment processing, and serves as a reliable backup during network disruptions.

IoT technologies can enable self-checkout processes, allowing customers to scan and pay for items independently. This reduces waiting times and enhances the overall shopping experience.
IoT devices can be used to track real-time inventory levels, manage stock replenishment automatically, and provide updates on product availability. This helps retailers optimize their supply chain, minimize stockouts, and reduce overstocking.
IoT-enabled smart shelves use sensors to monitor product levels, detect when items are out of stock, and automatically alert store employees. Such shelves can also display pricing information and promotions in real-time, enhancing the overall shopping experience.

Agriculture

IoT devices can automatically control irrigation systems based on real-time data. This helps conserve water by only irrigating when necessary, resulting in significant water savings and reduced costs.
IoT sensors can monitor various factors such as soil moisture, temperature, humidity, and nutrient levels in real-time. This helps farmers to optimize irrigation, fertilization, and pest control, resulting in higher crop yields and reduced costs.
IoT devices can be used to track the health, behaviour, and location of livestock. This helps farmers to ensure their animals are in good health and detect any potential issues early on.
IoT sensors can control and monitor factors like temperature, humidity, lighting, and ventilation in greenhouses. This enables farmers to create optimal crop growing conditions, resulting in better crop quality and higher productivity.
IoT devices with cameras and imaging systems can monitor crops for signs of diseases, pests, and nutrient deficiencies. This allows farmers to take immediate action and minimize crop loss.
IoT can track and monitor the entire supply chain of agricultural products, from farm to the end consumer. This allows for better inventory management, quality control, and traceability.

Your unique deployment

At SKYDATA-IoT, we cater to a wide range of industries. No matter what application, our solutions are designed to meet your specific needs. Our connectivity is designed to work seamlessly with almost any application, hardware device or cellular gateway.

As part of your IoT ecosystem, we will provide reliable and secure connectivity and flexible and scalable data plans that meet your specific needs.