#IoT monitoring

[semimediapress]

Nordic acquires IoT cloud startup Memfault for $120 million

June 27, 2025 /SemiMedia/ — Nordic Semiconductor has announced the acquisition of U.S.-based IoT software startup Memfault for $120 million, aiming to bolster its device lifecycle management and over-the-air (OTA) services across its low-power wireless chip portfolio. Memfault offers a cloud-based platform for monitoring, debugging, and updating embedded systems, particularly those based on…

[slowlydeafeningdefendor]

Transforming Water Management with Smart Technology

A smart water meter is a device that wirelessly communicates with either a local or wide area network, enabling remote monitoring of water usage and leak detection. This technology helps reduce water wastage and is gradually replacing traditional water consumption measurement methods. Recognized as a key innovation in smart water management, smart meters offer numerous benefits.

How Smart Water Meters Work

Smart water meters utilize wireless connections to remotely capture readings, providing continuous data availability. These meters are considered "smart" because they gather detailed water consumption data along with timestamps, securely transmitting this information to water suppliers or municipalities via an automated control system. This communication can be one-way to the utility (Automated Meter Reading, AMR) or two-way between the utility and the consumer (Advanced Metering Infrastructure, AMI).

Equipped with high sensitivity, smart meters can detect even the smallest leaks. If the meter does not register a drop to zero within a specified time frame, both the utility company and the homeowner are alerted about a potential water leak.

Key Features and Benefits

Accurate Measurement: Smart water meters provide precise measurements of water usage, crucial for effective smart water management.

Integration with Smart Infrastructure: These meters seamlessly integrate into smart cities, homes, and eco-friendly businesses, aligning with IoT monitoring systems.

Remote Monitoring and Operation: They enable remote monitoring and operation, eliminating the need for manual readings and enhancing efficiency in water management.

Real-Time Updates: Smart water meters provide real-time updates on water usage, contributing to water and cost savings, increased revenue, and improved customer satisfaction.

Optimization of Water Delivery: Data collected from smart water meters allows municipalities and utility companies to optimize water delivery by monitoring household usage patterns, a key aspect of smart water management.

Streamlined Billing: Smart meters streamline bill payments by consolidating them with other utility bills, simplifying the billing process for consumers.

Leak Detection: Smart water meters play a critical role in detecting small leaks that often go unnoticed. With up-to-date data, users can promptly identify and address leaks, leading to savings on water bills.

Conclusion

Smart water meters offer a transformative solution to water management challenges. They enable efficient resource utilization, cost savings, and environmental sustainability through precise measurement, remote monitoring, and leak detection capabilities. By seamlessly integrating into smart infrastructure, these meters empower both consumers and utility providers to make informed decisions, optimize water delivery, and promptly address leaks.

With the ability to provide real-time updates and streamline billing processes, smart water meters pave the way for smarter, more sustainable smart water management practices. Embracing this technology promises a future where water resources are conserved, costs are reduced, and communities thrive.

[customiotsolutions]

Maximizing the Value of Your Connected Devices: A Guide to IoT Device Lifecycle Management

The Internet of Things (IoT) has transformed from a futuristic concept to a tangible reality, revolutionizing various industries. Original Equipment Manufacturers (OEMs) are at the forefront of this revolution, deploying billions of connected devices that generate massive amounts of data. However, effectively managing these devices throughout their entire lifecycle is crucial for maximizing their value and minimizing risks.

IoT Device Lifecycle Management is a comprehensive process that oversees every stage of an IoT device's journey, ensuring secure operation and performance from initial design and manufacturing to deployment, operation, and eventual retirement. This strategic framework offers several benefits for OEMs:

Enhanced Security: With a vast attack surface for cyber threats, robust security measures at every stage safeguard devices from potential breaches and protect sensitive data.

Improved Performance: Proactively identifying performance issues, minimizing downtime, and extending device lifespan through IoT monitoring platforms and predictive analytics tools.

Reduced Costs: Streamlining device deployment, operation, and retirement processes can help reduce overall costs and improve efficiency.

Scalability and Flexibility: Adaptable device lifecycle management strategies allow for seamless integration of new devices and facilitate future growth without compromising efficiency.

Data-Driven Decision Making: Integrating IoT data to develop innovative services, optimize product offerings, and drive new revenue streams.

The key stages of IoT Device Lifecycle Management include planning and design to define device requirements and select hardware and software, deployment to provision and configure devices, and operation for monitoring, performance optimization, and maintenance.

Implementing an effective IoT device lifecycle management strategy is essential to unlock the full potential of connected devices and maximize return on investment. Bridgera offers a comprehensive suite of IoT solutions and services. Their IoT monitoring platform provides real-time visibility into connected devices, allowing businesses to proactively address issues. Bridgera's team of experts can help develop customized device lifecycle management strategies aligned with specific needs and goals.

In conclusion, IoT device lifecycle management plays a vital role in maximizing the value of connected devices for OEMs. By prioritizing security, optimizing performance, reducing costs, and leveraging data-driven decision making, businesses can thrive in the rapidly expanding IoT landscape.

[thingsupiot]

What Is An IoT Platform?

In today’s rapidly evolving technological landscape, the Internet of Things (IoT) has emerged as a game-changer, transforming the way we interact with the world around us. Central to the success of IoT implementations is the concept of an “IoT platform.” If you’re new to this exciting world, this blog will guide you through the fundamentals of what an IoT platform is, its capabilities, how it works, different types available, how to choose the right one, and the essential features you should look for.

What is an IoT Platform?

At its core, an IoT platform is a comprehensive software solution that serves as the backbone for connecting, managing, and analyzing IoT devices and data. Think of it as a unifying hub that brings together various components of an IoT ecosystem, from devices and sensors to applications and analytics tools. The primary goal of an IoT platform is to simplify the complexities of IoT deployments, enabling seamless communication and interaction between devices, users, and systems.

How Does an IoT Platform Work?

IoT platforms work by enabling devices to communicate with each other and with central management systems via the internet. Here’s a simplified breakdown of the process:

1. Data Collection:

IoT devices equipped with sensors collect data from their surroundings. This data can include temperature readings, location information, energy consumption, and much more.

2. Data Transmission:

The collected data is transmitted to the IoT platform through wired or wireless connections. These connections can be cellular networks, Wi-Fi, Bluetooth, or even low-power options like LoRaWAN.

3. Data Storage and Processing:

The platform stores and processes the incoming data. It can perform data filtering, aggregation, and analysis, extracting meaningful insights from the raw data.

4. Decision-Making:

Based on the analyzed data, the platform can trigger automated actions or alerts. For instance, if a temperature sensor detects a critical rise in temperature in a manufacturing facility, the platform can send alerts to relevant personnel.

5. User Interfaces and Applications:

IoT platforms provide user interfaces and APIs that allow developers to create applications that visualize and interact with the data. These applications can be accessed through web browsers or mobile devices.

Different Types of IoT Platforms

There are many different types of IoT platforms available, each with its own strengths and weaknesses. Some of the most common types of IoT platforms include:

1. Cloud-based platforms:

These platforms are hosted on the cloud and provide a variety of features, including device management, data storage, data analytics, and security. Cloud-based platforms are a good choice for businesses that need to manage a large number of devices or that need to scale their IoT solution quickly.

2. On-premises platforms:

These platforms are installed and hosted on-premises, giving businesses more control over their data and security. On-premises platforms are a good choice for businesses that have specific security requirements or that need to comply with regulations.

3. Hybrid platforms:

These platforms combine the features of cloud-based and on-premises platforms. Hybrid platforms can be a good choice for businesses that need the flexibility of a cloud-based platform but also want the control and security of an on-premises platform.

4. Open source platforms:

These platforms are free and open-source, which means that they can be customized and extended to meet the specific needs of businesses. Open source platforms are a good choice for businesses that want to save money or that need a high level of flexibility and customization.

 5. Proprietary platforms:

These platforms are developed and owned by a single vendor, which means that they are not customizable or extensible. Proprietary platforms are a good choice for businesses that want a turnkey solution that is easy to deploy and manage.

The best type of IoT platform for a particular business will depend on its specific needs and requirements. Businesses should carefully consider their needs before choosing an IoT platform.

How to Choose an IoT Platform

Choosing the right IoT platform is crucial to the success of your IoT initiatives. Here are some pointers to consider:

1.Scalability:

Ensure the platform can accommodate your growth needs as you add more devices and users.

2. Interoperability:

Look for a platform that supports a wide range of devices, protocols, and communication methods.

3. Security:

Prioritize platforms that offer robust security features to protect data and devices from cyber threats.

4. Analytics and Insights:

Consider platforms with advanced analytics capabilities to turn raw data into actionable insights.

5. Ease of Use:

Opt for platforms with user-friendly interfaces and tools that simplify device management and application development.

6. Integration:

Choose a platform that can seamlessly integrate with your existing systems and technologies.

Features of an IoT Platform

A comprehensive IoT platform should possess the following features:

1.Device management:

This includes the ability to onboard devices, monitor their status, and remotely control them. This is essential for managing a large number of devices and ensuring that they are operating correctly.

2. Data storage:

The platform must be able to store large amounts of data from IoT devices in a reliable and secure way. This data can be used to generate insights and improve decision-making.

3. Data analytics:

The platform must be able to process and analyze data from IoT devices to derive valuable insights. This can help businesses to improve efficiency, optimize operations, and make better decisions.

4. Security:

The platform must be secure to protect data and devices from unauthorized access, tampering, and cyberattacks. This is essential for ensuring the trust and confidence of users and stakeholders.

5. Connectivity:

The platform must support a variety of communication protocols and networks to connect IoT devices to the internet. This allows devices to communicate with each other and with the platform.

6. Application development:

The platform must provide tools and frameworks for developers to build and deploy IoT applications. This makes it easy to create custom applications that meet the specific needs of businesses.

7. Scalability: 

The platform must be able to scale to handle a growing number of devices and users. This is essential for meeting the needs of businesses as they grow and expand.

8. User interfaces:

The platform must provide intuitive user interfaces for managing devices and accessing insights. This makes it easy for users to interact with the platform and get the most out of it.

Conclusion

In the world of IoT, platforms play a pivotal role in enabling seamless connectivity, data management, and application development. As a beginner, understanding the concept and capabilities of IoT platforms provides you with a solid foundation to explore the endless possibilities of IoT technology. Whether you’re a developer, business owner, or simply curious about IoT, these platforms are your gateway to a smarter and more connected future.

[exeggcute]

what the hell... chick-fil-a uses kubernetes? like in their actual restaurants?

[gummybearstastelikesadness]

Saw a few reblogs mention stuff about the possibility of other technology being corrupted and how that would work. But maybe Danny only unintentionally affects CCD or CMOs sensor visual technology.

Simplified terms, CCD sensors convert photon origin image elements into light intensity based electrical charges. Those electrons eventually are amplified and converted into voltage via an output node. CMOs sensors are similar with additional digital conversions, they are more prone to noise/image grain and lower resolution. (Most cell phones use CMOs due to it being cheaper.)

Instead of ambiently affecting technology he could affect photon reflection in an area “corrupting” images but not the technology itself. So tech still works but the visual resolution is impaired when focused on him. (Photon interference does affect wifi signals, but is range based and can block or even boost signals.)

Also if he did dramatically affect photons he could potentially stop a lot of rogue’s and Batman’s plans. Trackers could be impaired, range activated traps could be delayed or unable to work, optical recognition devices (like ID scanners), probably a lot of other stuff too both unintentionally and intentionally.

There’s also a potential effect on kryptonions due to photons relationship with solar radiation. So Danny and other ghost could possibly increase or decrease a kryptonions strength. Not in a kryptonite way but a solar processing way, since energy from different types of stars affects kryptonions differently.

Bruce has been having some trouble trying to figure out why the security camera feed at Damian's school keeps on corrupting. The pattern is consistent with a normal students schedule. Classes that change every class period, cameras fizzing out as the unknown walks to their next class, and occasional irregularities in the pattern. The irregularities easily chalked up to the unknown talking to friends or going to the bathroom.

Bruce has every single student with that class schedule pulled up of every student that has the schedule of the Unknown and is even more concerned, noticing that his son has two overlapping classes with the Unknown.

Bruce checks what students have recently transferred schools and sees only one student who's schedule and recent appearance matched.

A student by the name of Daniel "Danny" Nightingale.

[electronicssystemsanddevices]

Monitoring with Fire Annunciators and Temperature Transmitters

In today’s industrial landscape, where precision and safety are paramount, integrating advanced monitoring and alert systems is no longer optional—it’s a necessity. ESD, a leader in process instrumentation, offers cutting-edge solutions designed to meet the evolving demands of manufacturing, chemical processing, and automation sectors. Among its most vital innovations are Alarm Annunciators and Temperature Transmitters, both of which play a pivotal role in maintaining welfare, reliability, and preferred process control.

The Role of Alarm Annunciators in Industrial Welfare

An Alarm Annunciator is an essential component in any control panel, tasked with alerting operators to abnormal conditions in real-time. These devices are engineered to display faults and activate audible or optical alarms whenever a process variable exceeds its safe operating limits.

At ESD, our alarm annunciator systems are built with configurable logic, LED indicators, and relay outputs to ensure prompt attention to critical situations. From power plants to water treatment facilities, our annunciators ensure that every alert is visible, distinguishable, and immediate, helping mitigate possibilities and prevent downtime.

Precision Monitoring with Temperature Transmitters

A Temperature Transmitter is another cornerstone of industrial process control. It converts temperature sensor signals into standardized output signals, enabling seamless communication with control systems. These devices are crucial for maintaining consistent product quality, optimizing energy utilization, and ensuring safety in temperature-sensitive processes.

ESD temperature transmitters are known for their high accuracy, fast response time, and resistance to industrial environmental conditions. With robust housing and digital communication protocols, our transmitters are ideal for both legacy structures and Industry integration.

Why Select ESD?

With experience in automation and instrumentation, ESD stands out as a trusted manufacturer and supplier of reliable process monitoring devices. Our solutions, including alarm annunciators and temperature transmitters, are tailored to meet the stringent demands of modern industries, ensuring continuous show and performance.

Whether you're upgrading an existing system or designing a new one from scratch, ESD offers discussion, customization, and post-sales support to help you every step of the way.

Ready to enhance your industrial monitoring and welfare systems?

Explore our range of high-performance products at www.esd-india.com or contact us to discuss how we can help you achieve your automation goals.

[jigarpanchal]

MeshTek’s Smart IoT Framework: Building the Future of Connected Systems

MeshTek’s advanced IoT development service in action — where powerful software meets real-time automation. From smart connectivity to integrated mesh-based communication, the setup represents how businesses can monitor, manage, and optimize connected devices through a seamless, intelligent platform. The background workspace and digital overlays highlight MeshTek’s vision for scalable, secure, and low-latency IoT ecosystems designed for the modern world.

[thetatechnolabsusa]

IoT for Smart Ambulances - Real-Time Monitoring During Emergencies

Theta Technolabs explores how IoT empowers smart ambulances with real-time patient monitoring, GPS tracking, and data sharing during emergencies. These technologies improve emergency response, enable remote diagnostics, and ensure faster, data-driven medical decisions—saving critical time and lives.

[aknitech]

Discover Real-World IoT Device Examples for Industrial Use

Want to see real IoT devices examples in action? At Aknitech, we implement IoT device monitoring, PLC integration, and access control IoT devices across various industries. Empower your systems with the next generation of automation solutions. Tags: iot devices examples, iot device monitoring, plc integration, access control iot devices, iot examples

[edge-sense]

IoT for Water Management Solutions | EdgeSense

EdgeSense delivers intelligent IoT for Water Management solutions designed to monitor, control, and optimize water usage in real time. Our IoT-enabled sensors track flow, detect leaks, and offer predictive analytics to reduce waste and ensure sustainability. Ideal for industries, utilities, and smart cities seeking efficient, data-driven water management.

[svsembedded]

HealTrack: Smart Patient Monitoring with ThingSpeak and IoT | Vitals in ...

[onedatasoftwaresolutions]

How IoT is Shaping the Future of Remote Patient Monitoring in Healthcare

Introduction

In the lush intersection of healthcare innovation and digital transformation, a quiet revolution is underway — one that does not demand patient presence in clinical corridors or reliance on in-person diagnostics. Enter the Internet of Things (IoT), a technological maestro orchestrating a profound metamorphosis in remote patient monitoring (RPM) and connected healthcare ecosystems.

As healthcare pivots toward preventive care, patient empowerment, and real-time data, IoT is no longer a futuristic ideal — it is the foundation of smart healthcare delivery. This comprehensive guide explores how IoT is transforming the healthcare industry, particularly through remote patient monitoring systems, redefining patient outcomes, provider efficiencies, and the entire care continuum.

The Rise of IoT in Healthcare: A Paradigm Shift

The Internet of Things, at its core, refers to a network of interconnected devices that collect, transmit, and analyse data. In the realm of healthcare, these “things” range from wearable medical devices and smart implants to connected diagnostic tools, all of which enable remote health monitoring.

With global healthcare systems under pressure from ageing populations, chronic disease prevalence, and resource constraints, IoT emerges as a timely remedy offering continuity of care without geographical or logistical limitations.

What is Remote Patient Monitoring (RPM)?

Remote Patient Monitoring (RPM) is the practice of tracking a patient’s health data outside of conventional clinical settings, often from the comfort of their home. IoT-enabled RPM systems use a mix of biosensors, wearable tech, and wireless communication to monitor vital signs such as:

Heart rate

Blood pressure

Glucose levels

Oxygen saturation

Sleep patterns

Respiratory rate

The captured data is then transmitted securely to healthcare providers, allowing for real-time insights, early intervention, and continuous care without hospital visits.

Types of IoT Devices Powering RPM

A cornucopia of devices underpins the growing IoT-based healthcare landscape:

1.Wearable Health Monitors

Fitness trackers, ECG monitors, and smartwatches now serve clinical purposes, tracking vital stats and transmitting them directly to care teams.

2.Smart Glucose Monitors

IoT-enabled glucometers record blood sugar levels and send data to apps for trend analysis and insulin dosing.

3.Connected Inhalers

Used by asthma or COPD patients, these devices track inhaler usage and detect inhalation patterns, enabling proactive respiratory care.

4.Remote ECG Patches

Thin, non-intrusive patches that record ECG over extended periods and alert clinicians to arrhythmias or other cardiac anomalies.

5.Smart Beds & Mattresses

Integrated with sensors, these can detect movement, sleep quality, and pressure distribution — crucial in elder care or post-operative settings.

Key Benefits of IoT in Remote Patient Monitoring

1.Real-Time Monitoring & Alerts

Continuous data streams allow for proactive intervention. Abnormal readings trigger alerts that can potentially prevent emergencies or hospitalisations.

2.Enhanced Access to Care

For patients in rural or underserved regions, IoT bridges the geographical gap, making quality care accessible regardless of location.

3.Data-Driven Clinical Decision Making

IoT ensures a data-rich clinical environment, enabling personalised treatment plans based on real-time metrics rather than periodic check-ins.

4.Improved Patient Engagement

With real-time access to their health stats, patients become active participants in their care, fostering better compliance and self-management.

5.Reduced Healthcare Costs

Fewer hospital readmissions, reduced ER visits, and decreased inpatient monitoring translate into significant cost savings for providers and patients alike.

Integrating IoT into Healthcare Infrastructure

Successfully incorporating IoT into RPM systems involves a blend of:

Cloud infrastructure for scalable data storage

APIs for EHR/EMR integration (Electronic Health Records)

AI & Machine Learning for anomaly detection and predictive analytics

Secure wireless communication protocols like Bluetooth, Zigbee, and 5G

HIPAA/GDPR-compliant data handling to ensure confidentiality and trust

Challenges in IoT-Powered Remote Patient Monitoring

Despite the promise, certain hurdles must be delicately navigated:

1.Data Privacy & Cybersecurity

Healthcare data is intensely sensitive. The risk of breaches increases with each connected node, necessitating robust encryption, multi-factor authentication, and security-first development practices.

2.Data Overload

Providers risk becoming overwhelmed by vast volumes of data. Smart filtering, AI triaging, and automated insights are essential to manage and utilise the data effectively.

3.Network Reliability

RPM systems are dependent on uninterrupted connectivity. Poor network infrastructure can hinder the effectiveness of real-time monitoring.

4.Regulatory Compliance

IoT healthcare devices must undergo rigorous validation and obtain certifications (FDA, CE) before clinical deployment.

The Role of AI & Predictive Analytics in RPM

IoT’s true potential is unlocked when paired with Artificial Intelligence. Here’s how:

Predictive alerts for early detection of deterioration

Pattern recognition for chronic condition management

Natural Language Processing (NLP) to extract insights from physician notes and user feedback

Behavioural analytics for understanding medication adherence or lifestyle habits

Such synergy transforms raw data into actionable intelligence, empowering clinicians to make informed, proactive decisions.

What the Future Holds: IoT & RPM in 2030 and Beyond

Predictive Healthcare

With AI advancements, future systems will not only monitor but also forecast health events, enabling a shift from reactive to predictive care.

Customised Home Care Devices

Expect smart, modular devices tailored to individual health profiles and conditions — like plug-and-play kits for chronic disease management.

Blockchain for Data Integrity

Distributed ledgers may soon ensure tamper-proof health records, enabling trust in long-term monitoring and multi-provider collaborations.

Voice-Activated Medical Assistants

Think Siri or Alexa but medically inclined — IoT-integrated, voice-controlled RPM interfaces that help elderly patients or those with disabilities.

Final Reflections: A New Era of Patient-Centric Care

IoT is not merely a tech trend — it is the architect of a new healthcare paradigm. By transforming remote patient monitoring from a novelty to a necessity, it places the patient squarely at the heart of a connected, compassionate, and data-empowered system.

Healthcare providers, policymakers, and innovators must now align around this vision championing interoperability, privacy, and inclusive access to usher in a future where optimal care transcends the boundaries of clinic walls.