#Cellular IoT connectivity

[biglisbonnews]

How ‘smart poles’ can save energy and enhance smart cities of the future Although “fixed position lighting” was recorded in Beijing as far back as 500 B.C., and London and Amsterdam introduced public street lighting in the 16th Century, Paris set the example of widespread street lighting. First, King of France, Louis XV, introduced oil lamps into the city in the mid 18th Century; then mass gas lighting was introduced in 1818 followed by electric lighting in 1878[1]. Since then, public street lighting has become an essential infrastructure for every city. https://blog.nordicsemi.com/getconnected/how-smart-poles-can-save-energy-and-enhance-smart-cities-of-the-future

[nawapon17]

Viasat to Take on Cellular Starlink With New Satellite Constellation | PCMag

[beardedmrbean]

Luxembourg-based satellite telecom operator OQ Technology is testing investor appetite for space-based Internet of Things (IoT) technology, seeking EUR 30 million in fresh funding as competition intensifies in the nascent market for satellite-enabled device connectivity.

The company, which has deployed 10 satellites since 2019, plans to launch 20 more as larger telecommunications companies and satellite operators begin developing similar IoT services. The Series B funding round follows a EUR 13 million raise in 2022 and aims to strengthen its global 5G IoT network coverage.

OQ Technology has secured initial backing through a convertible loan from the Luxembourg Space Sector Development Fund, a joint initiative between SES S.A. and the Luxembourg government. Previous investors, including Aramco's venture capital arm Wa'ed Ventures and Greece's Phaistos Investment Fund, are participating in the new round.

The startup differentiates itself by focusing on standardized cellular technology for narrowband-IoT, contributing to 3GPP protocols that allow existing cellular chips to connect with satellites. This approach contrasts with proprietary systems offered by competitors, replacing traditional bulky satellite systems with compact, cost-efficient IoT modems that offer plug-and-play functionality.

"The satellite IoT sector is still largely in the proof-of-concept phase," says the company representative. "While there's significant potential, companies face challenges in standardization and convincing industries to adopt these new technologies at scale."

In an effort to secure its supply chain, the company is exploring partnerships in Taiwan's semiconductor industry. It has begun collaborating with the Industrial Technology Research Institute (ITRI), though these relationships are still in the early stages. The company has shipped initial terminals to prospective Taiwanese clients, marking its first steps in the Asian market.

The global reach for semiconductor partnerships comes as the company expands its geographical footprint, having established subsidiaries in Greece, Saudi Arabia, and Rwanda. Plans for US market entry are underway, though regulatory approvals and spectrum access remain hurdles in some markets.

Current clients include Aramco, Telefonica, and Deutsche Telekom, primarily using the technology for asset tracking and remote monitoring in industries such as energy, logistics, and agriculture. While the company estimates a potential market of 1.5 billion devices that could use satellite IoT connectivity, actual adoption rates remain modest.

"The challenge isn't just technical capability," notes the company representative. "It's about proving the economic case for satellite IoT in specific use cases where terrestrial networks aren't viable but the application can support satellite connectivity costs."

Market dynamics are also shifting. Recent announcements from major tech companies about satellite-to-phone services have sparked interest in space-based connectivity, but may also increase competition for spectrum and market share. Several companies are pursuing similar standards-based approaches, potentially commoditizing the technology.

For OQ Technology, the ability to deploy its planned satellites and convert pilot projects into paying customers will be crucial. While the company's focus on standardized technology may reduce technical risks, successfully scaling the business will require navigating complex regulatory environments and proving the technology's reliability across different use cases.

[what-is-mobile]

WHAT IS MOBILE ?

A mobile phone, or cell phone,[a] is a portable telephone that allows users to make and receive calls over a radio frequency link while moving within a designated telephone service area, unlike fixed-location phones (landline phones). This radio frequency link connects to the switching systems of a mobile phone operator, providing access to the public switched telephone network (PSTN). Modern mobile telephony relies on a cellular network architecture, which is why mobile phones are often referred to as 'cell phones' in North America.

Mobile phones also support a variety of multimedia capabilities, such as digital photography, video recording, and gaming. In addition, they enable multimedia playback and streaming, including video content, as well as radio and television streaming. Furthermore, mobile phones offer satellite-based service

The first handheld mobile phone was demonstrated by Martin Cooper of Motorola in New Y

Mobile phones are considered an important human invention as they have been one of the most widely used and sold pieces of consumer technology.[7] The growth in popularity has been rapid in some places, for example, in the UK, the total number of mobile phones overtook the number of houses in 1999.[8] Today, mobile phones are globally ubiquitous,[9] and in almost half the world's countries, over 90% of the population owns at least one.[10]

History

Main article: History of mobile phonesMartin Cooper of Motorola, shown here in a 2007 reenactment, made the first publicized handheld mobile phone call on a prototype DynaTAC model on 3 April 1973.In 2001, the third-generation (3G) was launched in Japan by NTT DoCoMo on the WCDMA standard.[15] This was followed by 3.5G or 3G+ enhancements based on the high-speed packet access (HSPA) family, allowing UMTS networks to have higher data transfer speeds and capacity. 3G is able to provide mobile broadband access of several Mbit/s to smartphones and mobile modems in laptop computers. This ensures it can be applied to mobile Internet access, VoIP, video calls, and sending large e-mail messages, as well as watching videos, typically in standard-definition quality.

By 2009, it had become clear that, at some point, 3G networks would be overwhelmed by the growth of bandwidth-intensive applications, such as streaming media.[16] Consequently, the industry began looking to data-optimized fourth-generation (4G) technologies, with the promise of speed improvements up to tenfold over existing 3G technologies. The first publicly available LTE service was launched in Scandinavia by TeliaSonera in 2009. In the 2010s, 4G technology has found diverse applications across various sectors, showcasing its versatility in delivering high-speed wireless communication, such as mobile broadband, the internet of things (IoT), fixed wireless access, and multimedia streaming (including music, video, radio, and television).

[macnman-techno]

What is the difference between LoRa and LoRaWAN?

Introduction:

LoRaWAN serves as the communication protocol connecting the LoRa signal (which carries sensor data) to the respective application(s). To simplify, think of LoRa as the radio signal transporting the data, while LoRaWAN acts as the governing framework that dictates how this data travels and communicates within the network.

What is LoRa? 

LoRa, short for Long Range, is a wireless technology known for its extended range and energy-efficient characteristics. It operates within unlicensed wireless frequencies, similar to how Wi-Fi utilizes the unregulated 2.4 GHz and 5 GHz bands. The specific frequency employed by LoRa varies depending on the geographic location of the deployment. For instance, in North America, LoRa operates in the 915 MHz band, while in Europe, it utilizes the 868 MHz band and in India it is 865 MHz to 867 MHz.  

It is crucial to be aware of the legally permitted frequencies for LoRa deployments in each respective location. In terms of its communication range, LoRa can transmit data up to a distance of 10 kilometers in ideal conditions with a clear line of sight.

Low Power Wide Area (LPWA) technology can be categorized into two main types. On one hand, there's cellular LPWA, which utilizes mobile networks. Examples of cellular LPWA technologies include Narrowband IoT (NB-IoT) and Long Term Machine Type Communications (LTE-M). On the other hand, there's non-cellular LPWA like LoRa, which disseminates data by dividing it into encoded packets and transmitting them across various frequency channels and data rates.

What is LoRaWAN? 

LoRaWAN is a network protocol that serves as the bridge between the LoRa signal, which carries sensor data, and the applications that use this data. In simpler terms, LoRa represents the radio signal responsible for transmitting the data, while LoRaWAN is the communication protocol that manages and defines how this data is transmitted across the network.

LoRaWAN offers several valuable advantages, including low power consumption, extensive coverage range, and cost-effective connectivity for devices that don't require high data transfer speeds. It's an excellent choice when cellular connectivity is too expensive or Wi-Fi coverage is unavailable. Some of the most compelling use cases for LoRaWAN include:

Agriculture: LoRaWAN's long-range capabilities provide reliable connectivity for rural applications where high data transfer rates are not necessary, making it ideal for agricultural applications. LoRaWAN sensors for agriculture are used for cattle management, soli monitoring, and temperature monitoring.

Asset Tracking and Logistics: LoRaWAN supports cost-effective location tracking of assets, with optimized battery life, making it a practical choice for asset management and logistics.

Smart Metering: LoRaWAN's sensors have the ability to reach even in underground utility locations makes it a suitable choice for smart metering applications.

Smart Homes: LoRaWAN can penetrate obstacles like walls and supports battery-powered devices with low data consumption, making it an attractive connectivity option for smart home applications.LoRaWAN sensors for smart homes are used for Air quality monitoring, water quality monitoring, and temperature & humidity monitoring. 

Healthcare: The low power consumption, affordability, and reliability of LoRa technology make it suitable for connected health applications. IoT solutions based on LoRa hardware can monitor high-risk patients or systems around the clock, ensuring comprehensive health and medical safety management.LoRaWAN Gateways and sensors enhance production practices, enable efficient tracking and monitoring of shipments, and facilitate the development of cutting-edge medications. 

Industrial Applications: LoRa-enabled devices and sensors play a crucial role in the transformation of industrial IoT operations like mentioned above. They digitize legacy processes and equipment, leading to increased profits, lower costs, and enhanced efficiency. These devices provide real-time data for predictive maintenance, machine health monitoring, reduced downtime, and more.

[estimote]

Why Apple's 2nd Gen UWB Chip is Exciting?

With over 10 years of experience in spatial and location technologies, including Bluetooth, Ultra Wideband, and Cellular IoT, we at Estimote are thrilled about the newly announced iPhone 15 and its upgraded second-generation Ultra Wideband chip.

In this blog post, we'll explain why we're excited, we will try to forecast the potential use-cases of this second-gen chip, and highlight the opportunities for developers to create groundbreaking context and location-aware apps.

SPATIAL AWARENESS

Many people aren't aware, but every iPhone from the iPhone 11 onwards has a hidden super-power. It can measure the distance and orientation to nearby phones or other compatible devices. Think of it as an invisible string connecting your phone to objects with AirTags attached, a HomePod, or even your car.

This super-power is made possible by the first generation Ultra Wideband chip (U1 chip). This chip is a small radio transmitter that sends, receives, and processes tiny radio signals. These signals are so low-power that they're almost indistinguishable from the background noise in a broad range of frequencies (5-9 GHz). That's why it's called Ultra Wideband, or UWB for short.

Whenever a nearby device communicates with an iPhone using UWB, the phone calculates the duration of this interaction. The greater the distance, the more time it takes for the radio signal to make the round trip. The U1 chip then multiplies this travel time by the speed of light to determine the inch-level distance to nearby phones or tags.

iPhones equipped with the UWB chip use this distance data to create magical user experiences. For instance, when you AirDrop files to friends close by or search for your misplaced keys, your iPhone directs you to the corresponding AirTag. And when you walk into your living room your music can seamlessly start playing on your HomePod. These are just a few examples of what the U1 chip offers, and there's so much more on the horizon.

LOWER POWER UWB CHIP

The new iPhone 15 as well as new Apple Watch Series 9 feature a second-generation UWB chip. Reports indicate that a primary difference with that model is the shift in the chip manufacturing process from 16nm to 7nm. This simply means that the transistors have become smaller. As a result, they use less energy and switch more quickly, leading to enhanced performance, greater range, and new possibilities.

Why is power consumption so crucial? Reduced power usage can result in a superior user experience and introduce entirely new use-cases and applications. For instance, with the new UWB chip, new AirTags when upgraded could last up to 2-3 years on a single coin battery, as opposed to the current 1-year lifespan with the U1 chip.

Having more transistors also means stronger computing power, better signal processing, and more effective noise filtering. This is why Apple also announced a 3x improvement in UWB range and unveiled a new precision finding feature for the Find My app to locate friends around.

UNTRACKED INDOOR LOCATION

Another potential future application of the lower power UWB chip might involve a technique named Downlink TDoA. This stands for "time difference of arrival," a new standard championed by the FiRa organization. It lets UWB-enabled phones passively receive signals from UWB beacons or anchors.

Imagine your car in a tunnel where GPS is unavailable. UWB beacons in the tunnel transmit radio signals to your phone. Your phone captures these signals, and using the time difference of their arrival, it can calculate the exact position of the car inside the tunnel. With Downlink TDoA, beacons don't collect any data from to the phone. The precise location is determined solely by the UWB chip on the phone. This approach is seen as safer and more privacy-centric than traditional real-time location systems (RTLS). As a result, it's often referred to as Untracked Indoor Positioning.

This innovative, privacy-centric way of determining indoor positioning could also be applied in airports, malls, museums, and more. It could effectively deliver what the iBeacon promised years ago, but with inch-perfect accuracy and superior security.

To make such experiences possible, a low-power UWB processor like the second-gen chip is essential. The phone would need to constantly detect UWB signals from nearby beacons, and it's crucial that this happens efficiently.

SPATIAL COMPUTING AND VISION PRO

There's also speculation that the UWB chip may eventually interact with Apple's new smart glasses. This makes a lot of sense. Currently, Vision Pro determines its spatial orientation in a room using computer vision and image processing. Using the UWB chip and radio signals for this purpose would use order of magnitude less power. Preserving power could allow Apple to design more compact and lighter smart glasses in the future.

FUTURE APPLICATIONS OF UWB

Ultra Wideband technology has many more uses than just distance positioning. It was originally developed for military use in radars. Essentially, UWB signals sent from the phone could reflect off nearby objects and return to the UWB chip. By examining these reflections phone can identify the shape, orientation, or movement of objects.

RADAR AND HEALTH MONITORING

There are many research papers where UWB radar is used to count people in a room or even detect human heartbeats. Given Apple's focus on health & fitness, it's entirely possible for future iPhones equipped with UWB on your nightstand to monitor heart rate or breathing. Non-contact monitoring could be useful for elderly individuals living alone or young children. It could identify falls or irregular heartbeats and notify caregivers or family members. This might not be implemented on the second-gen processors, but could be expected from the future UWB revisions and the new software.

HANDS-FREE PAYMENTS

Another potential use for an improved UWB chip could be in payments. While NFC has been popular for close-range payments, UWB could transform the entire experience. Imagine approaching a payment terminal, and without needing to pull out your phone or move it near the terminal, the payment is processed securely. This technology might lead to genuinely hands-free shopping. Customers could just grab items and leave the store. With devices powered by the UWB chip communicating with other UWB-enabled tags and payment terminals, the items someone has would be detected, and the cost automatically taken from the associated account, all while ensuring security through spatial authentication.

Beyond shopping, UWB could also make peer-to-peer payments easier. Instead of sifting through apps, just being nearby could prompt a payment screen on your iPhone, asking if you want to split the bill, recognizing your friend's device by its spatial position.

ACCESS CONTROL AND HANDS-FREE AUTHENTICATION

Finally, Apple's new second-gen UWB chip, can revolutionise the way we access and interact with spaces. Imagine arriving at a hotel. As you approach your room, the door recognises your smartphone and automatically unlocks without you having to fumble for a keycard or even touch the door.

Workplaces, especially those that involve machinery or secure data access, can benefit from hands-free authentication. Consider a research laboratory with multiple machines and computers. Instead of using passwords, keycards, or fingerprint scans, devices equipped with UWB sensors could detect the presence of an authorised UWB chip-carrying employee and unlock automatically.

The incorporation of the second generation UWB chip into a broader range of devices could dramatically transform the way we interact with the world, making our experiences smoother, more intuitive, and more secure. From hotels to workplaces, the possibilities for hands-free access and seamless interactions are vast and exciting. If you are interested to learn more about UWB and differences between BLE and UWB see our other blog-post about our UWB Beacons and try Nearby Interactions API and our SDK building next-gen mobile apps.

[rainyducktiger]

5G NTN Market Intelligence Report: Key Drivers, Restraints & Opportunities

Introduction

As the global digital ecosystem evolves, connectivity is becoming as essential as electricity. While terrestrial 5G networks have already begun transforming industries through ultra-low latency and blazing-fast speeds, there are still major gaps in coverage — especially in remote, rural, or maritime areas and across air and space. To close this connectivity gap, the industry is turning to 5G Non-Terrestrial Networks (NTN).

5G NTN integrates satellite and airborne communication systems with terrestrial cellular networks, offering seamless global coverage and creating a new frontier for communication infrastructure. With its potential to redefine global connectivity, the 5G NTN market is expected to experience explosive growth through 2032, fueled by technological advances, increased adoption of autonomous systems, and the booming satellite communication sector.

What Are Non-Terrestrial Networks (NTNs)?

Non-Terrestrial Networks refer to communication systems that rely on space-based and airborne platforms rather than conventional ground-based cellular towers. These can include:

Low Earth Orbit (LEO) satellites

Medium Earth Orbit (MEO) satellites

Geostationary Earth Orbit (GEO) satellites

High-Altitude Platform Stations (HAPS) such as balloons and unmanned aerial vehicles (UAVs)

When integrated with 5G, NTNs promise uninterrupted global coverage, including in areas where terrestrial infrastructure is impossible, costly, or impractical.

Download a Free Sample Report:-https://tinyurl.com/423kdpjr

Market Drivers

1. Expanding Need for Global Connectivity

One of the core drivers behind 5G NTN is the demand for reliable communication in remote and underserved regions. From rural communities and oceans to deserts and polar zones, NTNs bridge the digital divide by extending coverage to locations that were previously beyond reach.

2. Surge in Satellite Deployment

The rapid increase in commercial and government satellite launches, driven by private firms like SpaceX (Starlink), Amazon (Project Kuiper), and OneWeb, is creating a robust backbone for the 5G NTN ecosystem. These constellations are enabling high-bandwidth, low-latency communication, unlocking the full potential of NTN-based 5G services.

3. Defense and Disaster Recovery Applications

Military operations, search and rescue missions, and disaster recovery efforts require secure and resilient communication systems that work even in the most adverse conditions. NTNs offer uninterrupted service, even in the event of natural disasters or conflict-induced infrastructure damage.

4. Growth in Autonomous Systems

The expansion of autonomous vehicles, drones, and IoT devices in sectors like logistics, agriculture, mining, and transportation creates a growing need for consistent, wide-area, high-reliability networks. NTNs support machine-to-machine (M2M) and IoT communication even in areas far removed from urban infrastructure.

5. Integration with 3GPP Standards

The inclusion of NTN capabilities in 3GPP’s Release 17 has solidified NTN's role in future 5G ecosystems. This standardization ensures interoperability between satellite networks and traditional 5G terrestrial systems, speeding up deployment and adoption.

Market Segmentation

By Component:

Hardware (Satellites, Ground Stations, Antennas)

Software (Network Management, Orchestration)

Services (Consulting, Implementation, Managed Services)

Hardware remains the largest segment, but software and service layers are becoming crucial for network optimization, security, and predictive maintenance.

By Platform:

Low Earth Orbit (LEO)

Medium Earth Orbit (MEO)

Geostationary Earth Orbit (GEO)

High-Altitude Platform Stations (HAPS)

LEO satellites currently dominate the 5G NTN landscape due to their low latency and high throughput, making them ideal for real-time applications like video streaming, remote diagnostics, and autonomous vehicle coordination.

By Application:

Maritime & Offshore Communication

Remote Sensing

Emergency & Disaster Recovery

Defense & Military

Telemedicine

Aviation

Rural Broadband Expansion

Industrial IoT

The defense sector is an early adopter, while commercial growth is being driven by rural broadband, maritime, aviation, and autonomous transport use cases.

By End User:

Government and Public Sector

Commercial Enterprises

Aerospace & Defense

Telecommunication Providers

Telecom providers are increasingly collaborating with satellite operators to offer hybrid terrestrial-satellite solutions, especially in emerging economies.

Regional Insights

North America

North America, led by the U.S., is a leader in the 5G NTN space due to its advanced aerospace sector, extensive government funding for space programs, and private sector giants like SpaceX. The region is also witnessing robust demand in defense, autonomous vehicles, and rural broadband initiatives.

Europe

Europe is making significant strides with the European Space Agency's initiatives and the EU's ambitions for digital sovereignty, driving investments in both GEO and LEO constellations.

Asia-Pacific

APAC is forecast to be one of the fastest-growing regions, driven by rural connectivity programs in India, China’s space race, and Japan's heavy investment in satellite IoT networks.

Industry Trends

LEO Satellite Mega-Constellations

The deployment of thousands of LEO satellites is reshaping the telecom landscape. These mega-constellations offer near-global, low-latency coverage, directly addressing the gaps left by traditional terrestrial networks.

Direct-to-Device Communication

One of the most disruptive trends is the ability of NTN networks to offer direct-to-device (D2D) connectivity, eliminating the need for ground-based relays or additional hardware for smartphones and IoT devices.

AI-Driven Network Management

Artificial intelligence and machine learning are increasingly used to manage 5G NTN networks, optimize bandwidth, predict congestion, and ensure fault tolerance in real time.

Convergence with IoT

5G NTN is seen as a key enabler of massive Machine-Type Communication (mMTC) for IoT devices, particularly in industries like shipping, agriculture, oil & gas, and wildlife monitoring, where cellular connectivity is limited.

Challenges

While the market outlook is highly promising, several challenges could slow adoption:

High Initial Costs: Satellite development, launch, and maintenance require significant capital investment.

Latency Issues (for GEO satellites): Although LEO addresses latency for real-time use cases, GEO satellites still face delays that may not be suitable for all applications.

Spectrum Regulation: Allocating spectrum for NTNs on a global scale involves complex international agreements.

Security Concerns: The potential for cyberattacks on satellite communication links remains a key concern for both commercial and government users.

Future Outlook: Forecast to 2032

According to industry analysts, the 5G NTN market is poised for double-digit compound annual growth (CAGR) through 2032. Key factors contributing to this trajectory include:

The convergence of AI, IoT, and 5G with satellite and HAPS systems.

Private-public collaborations that accelerate satellite launches and network rollouts.

The rising role of NTNs in national defense and security strategies.

Ongoing efforts by global telecom providers to expand their coverage footprint, particularly in emerging economies.

By 2032, the market is expected to evolve from early adopter niche applications to mainstream commercial and consumer deployments, potentially enabling new services such as space-based cloud computing, truly global emergency communications, and fully autonomous transportation networks.

Conclusion

The 5G NTN market represents a paradigm shift in the future of global connectivity, offering seamless coverage to every corner of the planet. As terrestrial and non-terrestrial networks converge, industries from healthcare to defense and logistics to entertainment will benefit from enhanced reach, reliability, and resilience.

With standardized frameworks, ambitious satellite constellations, and expanding demand for universal connectivity, 5G NTN is not just the next step for telecom — it is the future of how the world will stay connected.

Read Full Report:-https://www.uniprismmarketresearch.com/verticals/information-communication-technology/5g-ntn

[comxus]

Wired vs Wireless Networking: Which One Powers Your Connection?"

The Backbone of Digital Communication

In the current digital era, networking is essential to our ability to access information, collaborate, and communicate.

It describes how computers and other devices are connected to share resources, data, and internet access, which facilitates faster, easier, and more effective daily tasks. A reliable network is necessary whether you're managing office chores, streaming films at home, turning in school assignments online, or operating a multinational corporation.

Networks are the unseen threads that bind our digital lives together, whether they are in our homes, offices, or classrooms.

All of this is made possible by two main forms of networking: wireless networking, which sends data over the air, and wired networking, which connects devices using physical cables.

Together, they power the modern world, and each has unique advantages, applications, and strengths.

What is Wired Networking?

Data transmission between devices via physical cables is referred to as wired networking.

To create dependable and fast connections, this kind of networking usually makes use of coaxial cables, Ethernet cables, or fibre optic lines.

It is frequently utilised in environments like desktop PCs, data centres, and office LANs (Local Area Networks) where dependability and speed are crucial.

Fibre optic cables, which are renowned for their incredibly quick data transfer over long distances, and Cat6 cables, which support gigabit speeds, are popular cable types.

 Because of their reliable performance and security, wired networks are favoured in business settings.

What is Wireless Networking?

Through the use of radio waves and technologies like Wi-Fi, Bluetooth, and cellular networks, wireless networking enables devices to share data and communicate without the need for physical cables.

In our daily lives, it powers connections for smart TVs, laptops, smartphones, and other IoT (Internet of Things) devices like security cameras and smart speakers.

The mobility that wireless networking provides, enabling users to remain connected from any location within range, is one of its greatest benefits.

It is the preferred option for homes, cafes, public areas, and mobile devices due to its versatility and ease of use.

Wired vs Wireless: Key Differences

There are a number of important considerations when contrasting wired and wireless networking.

Wired networks typically offer faster and more reliable connections, making them ideal for tasks like gaming or streaming videos.

Wireless networks, on the other hand, are more mobile, allowing users to move around freely without being constrained by wires.

Another factor to take into account is security; wireless networks require robust encryption to shield data from unwanted access, whereas wired connections are by nature more secure because they require physical access.

Due to hardware requirements and cable routing, wired networks can be more complicated and time-consuming to set up during installation, while wireless networks can be deployed more quickly and easily.

[global-research-report]

Industrial Wireless Sensor Network Market Insights: Key Players, Innovations & Opportunities

The global industrial wireless sensor network market size is expected to reach USD 11.37 billion by 2030, growing at a CAGR of 12.1% from 2024 to 2030, according to a new study conducted by Grand View Research, Inc. The benefits offered by industrial wireless sensor network (IWSN) over wired networks, such as mobility, self-discovery capability, compact size, cost-effectiveness, and reduced complexity, are anticipated to play a significant role in increasing global demand.

IWSN is an advanced method of communication between two or more remotely located devices without interruption. The systems comprise nodes that act as access points to form a better communication system. In IWSN, sensor nodes are connected through various wireless technologies such as ZigBee, Wi-Fi, Bluetooth, and WirelessHART. Increasing adoption of wireless communication, need for strong connectivity across remote locations, and demand for network infrastructure are expected to fuel market growth.

Recent advancements in the fields of Internet of Things (IoT) and Artificial Intelligence (AI) have further increased demand for wireless networks and strong connectivity. Accelerated adoption of these technologies by the oil and gas, manufacturing, utilities, and automotive verticals is expected to boost the growth of the industrial wireless sensor network market. In addition, key players in the market are investing heavily in R&D to explore the scope of the technology for innovations, integration, and new product developments. For instance, ABB Ltd., which has 7 research centers and more than 8,000 technologists, invested USD 1.5 billion in R&D in 2016.

The hardware segment is anticipated to witness substantial growth as they detect activities and send information from one device to another through various communication technologies. Increasing miniaturization of electronic components and advancements in communication technology make it possible to develop a seamless network. The software handles device-specific tasks, such as initialization of hardware, memory management, and process management, as well as scheduling. The software segment generated the highest revenue in 2023 and the trend is expected to continue over the forecast period.

Global players in the IWSN market are collaborating with new entrants to provide improved products and systems with enhanced performance. In January 2017, Honeywell Process Solutions collaborated with AEREON to develop solutions that help the industrial sector improve operational efficiency, safety, and reliability.

Industrial Wireless Sensor Network Market Report Highlights

The software segment is anticipated to emerge as the fastest-growing segment over the forecast period owing to the increasing demand for advanced process & control monitoring, data collection, and data processing software.

The gas sensors segment is anticipated to emerge as the fastest growing segment due to rapidly increasing focus on workplace safety in industries such as oil & gas, pharmaceuticals, chemical & petroleum, building automation, and food & beverages.

The Asia Pacific regional market is expected to grow at the highest CAGR from 2024 to 2030 owing to the significant growth in manufacturing sector in developing countries such as India and China.

The cellular network segment is expected to witness fastest growth over the forecast period due to the rapidly growing demand for Low Power Wide Area Network (LPWAN) technologies-based Internet of Things (IoT) devices using LTE-M and Narrowband-IoT (NB-IoT) networks.

Curious about the Industrial Wireless Sensor Network Market? Get a FREE sample copy of the full report and gain valuable insights.

Industrial Wireless Sensor Network Market Segmentation

Grand View Research has segmented the global industrial wireless sensor network market report based on component, sensor network, technology, application, end use, and region:

Industrial Wireless Sensor Network  (IWSN) Component Outlook (Revenue, USD Million, 2018 - 2030)

Hardware

Software

Services

Industrial Wireless Sensor Network  (IWSN) Sensor Network Outlook (Revenue, USD Million, 2018 - 2030)

Temperature Sensor Networks

Pressure Sensor Networks

Level Sensor Networks

Flow Sensor Networks

Humidity Sensor Networks

Motion & Position Sensor Networks

Gas Sensor Networks

Light Sensor Networks

Chemical Sensor Networks

Others

Industrial Wireless Sensor Network  (IWSN) Technology Outlook (Revenue, USD Million, 2018 - 2030)

Bluetooth

ZigBee

Wi-Fi

Near Field Communication (NFC)

Cellular Network

WirelessHART

ISA 100.11a

Industrial Wireless Sensor Network  (IWSN) Application Outlook (Revenue, USD Million, 2018 - 2030)

Machine Monitoring

Process Monitoring

Asset Tracking

Safety & Surveillance

Industrial Wireless Sensor Network  (IWSN) End Use Outlook (Revenue, USD Million, 2018 - 2030)

Automotive

Oil & Gas

Utilities

Mining

Food & Beverage

Manufacturing

Others

Industrial Wireless Sensor Network  (IWSN) Regional Outlook (Revenue, USD Million, 2018 - 2030)

North America

S.

Canada

Mexico

Europe

UK

Germany

France

Asia Pacific

Japan

China

India

Australia

South Korea

Latin America

Brazil

Middle East & Africa

South Africa

Saudi Arabia

UAE

Key Players of Industrial Wireless Sensor Network Market

Cisco Systems, Inc.

Huawei Technologies Co., Ltd.

Advantech Co., Ltd.

Honeywell International Inc.

Analog Devices, Inc.

Texas Instruments Incorporated

Intel Corporation

ABB

NXP Semiconductors

Sensirion AG

Order a free sample PDF of the Industrial Wireless Sensor Network Market Intelligence Study, published by Grand View Research.

[theboonofwireless]

Enhancing Carrier Network Performance Through Cellular Network Optimization

In today’s hyper-connected world, the demand for fast, reliable, and seamless mobile connectivity is higher than ever. As mobile networks continue to expand, ensuring optimal Carrier Network Performance has become a top priority for telecom operators. A well-optimized network not only improves user experience but also enhances operational efficiency, reduces costs, and supports the deployment of emerging technologies like 5G and IoT. This is where cellular network optimization plays a crucial role in maintaining high-quality mobile services while addressing challenges such as congestion, latency, and interference.

Understanding Carrier Network Performance

Carrier Network Performance refers to the overall efficiency, reliability, and speed of a mobile carrier’s network. Several key metrics determine the performance of a carrier network, including:

Network Speed: The data transmission rate, typically measured in Mbps or Gbps, impacts browsing, streaming, and download speeds.

Latency: The time it takes for data to travel from the source to the destination, crucial for applications like online gaming and video conferencing.

Coverage Area: The geographical range where users can access network services without interruptions.

Call and Data Reliability: The ability of a network to maintain stable calls and data connections without drops or failures.

User Experience: The overall satisfaction of customers based on network speed, availability, and seamless connectivity.

As user demand grows and new technologies emerge, mobile carriers must continuously refine their infrastructure and strategies to maintain high Carrier Network Performance.

The Role of Cellular Network Optimization

Cellular network optimization involves enhancing the efficiency, capacity, and coverage of a network through advanced technologies and strategic planning. It ensures that a mobile network operates at peak performance by addressing congestion, improving data throughput, and reducing dropped calls. Below are key strategies used in optimizing cellular networks:

1. Small Cell Deployment

Small cells are low-powered cellular radio access points that enhance network capacity in densely populated areas. By strategically placing small cells in urban locations, stadiums, and transportation hubs, carriers can offload traffic from macro towers, reducing congestion and improving performance.

2. Network Slicing

With the advent of 5G, network slicing allows operators to create multiple virtual networks within a single physical infrastructure. Each slice is tailored to meet specific needs, such as high-speed data for video streaming or low-latency connectivity for autonomous vehicles. This improves Carrier Network Performance by optimizing resource allocation.

3. AI-Driven Network Optimization

Artificial intelligence (AI) and machine learning (ML) are being integrated into cellular network optimization to analyze traffic patterns, predict congestion, and automate adjustments. AI-powered algorithms help dynamically allocate bandwidth and reroute traffic to ensure optimal network performance in real-time.

4. Dynamic Spectrum Management

Efficient use of available spectrum is critical for improving network performance. Dynamic spectrum sharing (DSS) enables carriers to allocate spectrum resources based on real-time demand. This ensures seamless transitions between different frequency bands, reducing interference and improving overall efficiency.

5. Carrier Aggregation

Carrier aggregation is a technique used to combine multiple frequency bands to increase network capacity and speed. By aggregating different carriers, mobile networks can deliver higher data rates and improved reliability, especially in areas with high user density.

6. Edge Computing for Reduced Latency

Edge computing moves data processing closer to the user, reducing the time needed for information to travel between devices and servers. By deploying edge computing infrastructure, mobile carriers can enhance the performance of applications that require ultra-low latency, such as real-time gaming and industrial automation.

7. Network Densification

Network densification involves increasing the number of cell sites to improve coverage and capacity. This includes deploying additional base stations, using small cells, and integrating Wi-Fi offloading to distribute network traffic more effectively.

Challenges in Cellular Network Optimization

While cellular network optimization offers numerous benefits, it also comes with challenges that carriers must address:

Infrastructure Costs: Deploying small cells, upgrading base stations, and investing in AI-powered solutions require significant financial investments.

Spectrum Limitations: The availability of licensed spectrum is limited, making it essential for operators to maximize efficiency through spectrum-sharing technologies.

Interference Issues: Overlapping signals from multiple cell sites can lead to network interference, affecting performance and reliability.

Regulatory and Compliance Hurdles: Network expansions and upgrades are subject to local and international regulations, which can slow down optimization efforts.

User Demand Fluctuations: Sudden spikes in mobile traffic, such as during major events or natural disasters, require dynamic network adjustments to maintain service quality.

The Future of Carrier Network Performance and Optimization

As mobile networks continue to evolve, the future of Carrier Network Performance will be shaped by innovative solutions and next-generation technologies. Some of the key trends shaping the future include:

6G Development: While 5G is still expanding, early research into 6G aims to deliver even faster speeds, improved energy efficiency, and ultra-reliable connectivity.

AI-Driven Self-Optimizing Networks (SON): AI-powered SONs will enable automated real-time network adjustments, reducing manual intervention and enhancing performance.

Quantum Communication: Quantum encryption could revolutionize network security, ensuring ultra-secure data transmission for critical applications.

Integration of IoT and Smart Cities: With billions of IoT devices coming online, mobile carriers must enhance network capacity and efficiency to support smart city infrastructure and industrial automation.

Conclusion

Optimizing Carrier Network Performance is crucial for delivering seamless connectivity and meeting the growing demands of mobile users. Through advanced cellular network optimization strategies such as small cell deployment, AI-driven automation, and dynamic spectrum management, telecom providers can ensure that their networks remain fast, reliable, and future-proof. As we move towards the next generation of wireless technology, continued investment in network optimization will be essential to unlocking the full potential of digital communication.

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IoT Connectivity Market Share and Size Outlook with Industry Forecast 2032

The IoT Connectivity Market Size was valued at USD 8.43 billion in 2023 and is expected to reach USD 51.51 billion by 2032, growing at a CAGR of 22.33% from 2024-2032.

The Internet of Things (IoT) has become a cornerstone of the digital transformation revolution, connecting billions of devices, systems, and services across industries. From smart homes and connected vehicles to industrial automation and healthcare, the expansion of IoT applications has led to an explosive demand for robust and scalable connectivity solutions. As enterprises adopt cloud computing, edge intelligence, and real-time data analytics, the need for reliable IoT connectivity is more critical than ever.

IoT Connectivity Market Size, Share, Scope, Analysis, Forecast, Growth, and Industry Report 2032 highlights the dynamic evolution of this sector. The market is expected to witness substantial growth due to advancements in low-power wide-area networks (LPWANs), 5G integration, and the proliferation of smart devices. With governments and industries embracing digital infrastructure, IoT connectivity is playing a vital role in driving innovation, efficiency, and competitive advantage.

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Market Keyplayers:

Aeris Communications India Pvt. Ltd. (Aeris IoT Platform, Aeris Mobility)

AT&T Inc. (AT&T IoT Services, AT&T Control Center)

Cisco Systems Inc. (Cisco IoT Solutions, Cisco Jasper)

Huawei Technologies Co. Ltd. (Huawei IoT Cloud, Huawei 5G IoT Solutions)

Orange (Orange Business Services, Orange IoT Solutions)

Sierra Wireless (AirLink Routers, Octave IoT Platform)

Sigfox (Sigfox IoT Network, Sigfox Backend Services)

Telefonaktiebolaget LM Ericsson (Ericsson IoT Accelerator, Ericsson Device Connection Platform)

Telefónica S.A. (IoT Global Platform, Telefónica IoT Connectivity)

Telit IoT Platforms, LLC (Telit IoT Modules, Telit Connectivity Platform)

Verizon Communications Inc. (Verizon IoT Solutions, Verizon ThingSpace)

Vodafone Group Plc (Vodafone IoT Platform, Vodafone Automotive)

Hologram (Hologram IoT SIM Cards, Hologram Data Plans)

Particle (Particle IoT Devices, Particle Cloud Platform)

EMnify (EMnify IoT Platform, EMnify Cellular IoT Solutions)

Moeco (Moeco IoT Network, Moeco Data Management)

Market Trends

Several key trends are influencing the growth and direction of the IoT connectivity market:

5G Deployment and Integration: The global rollout of 5G networks is accelerating the capabilities of IoT systems, offering ultra-low latency, high-speed data transfer, and enhanced device density. This opens new opportunities for mission-critical applications in sectors like healthcare, autonomous vehicles, and smart cities.

Edge Computing and Decentralized Intelligence: Instead of relying solely on centralized cloud servers, edge computing processes data closer to the source, reducing latency and bandwidth usage. This trend is particularly impactful in industrial IoT (IIoT), where real-time decision-making is essential.

Expansion of LPWAN Technologies: LPWAN protocols like NB-IoT, LoRaWAN, and Sigfox are seeing increased adoption due to their ability to support long-range communication with minimal power consumption. These technologies are ideal for applications such as agriculture, asset tracking, and utility monitoring.

Interoperability and Open Standards: As the IoT ecosystem expands, there's a growing need for standardized communication protocols that ensure seamless connectivity between devices from different manufacturers. Open-source platforms and industry alliances are working to address these challenges.

Security and Data Privacy Focus: With more connected devices comes increased vulnerability. Security-by-design principles, encrypted communication, and AI-driven threat detection are becoming standard features in connectivity solutions.

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Market Segmentation:

By Enterprise Type

Buildings and Home Automation 

Smart Energy and Utility 

Smart Manufacturing

Smart Retail

Smart Transportation

Others

By Enterprise Size

Small and Medium-sized Enterprises

Large Enterprises

By Component

Solution

Services

Market Analysis

North America currently dominates the global IoT connectivity landscape, driven by early technology adoption and strong infrastructure. However, Asia-Pacific is emerging as the fastest-growing region due to its expanding industrial base, smart city initiatives, and rising digital transformation efforts in countries like China and India.

Enterprises are shifting from traditional SIM-based connectivity to eSIM and iSIM technologies, offering flexibility and remote management capabilities. These innovations simplify global device deployment and streamline connectivity across borders and networks.

Future Prospects

The future of the IoT connectivity market is shaped by continued advancements in network infrastructure, emerging technologies, and evolving business models.

Satellite IoT Connectivity: Satellite-based solutions are gaining popularity for providing connectivity in remote and underserved areas, enabling global asset tracking and rural monitoring.

AI and Predictive Maintenance Integration: AI-powered analytics will increasingly be embedded into connectivity platforms, enabling real-time diagnostics, failure prediction, and performance optimization—especially in industrial and automotive sectors.

Smart City Ecosystems: Urbanization is driving massive investments in smart city solutions, including connected traffic systems, public safety monitoring, energy management, and waste control. IoT connectivity will serve as the digital backbone for these applications.

Commercialization of 6G: While still in early research stages, 6G is expected to redefine IoT connectivity by offering ultra-high-speed, ultra-reliable, and low-latency communication, paving the way for new applications in robotics, AR/VR, and immersive environments.

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Conclusion

The IoT connectivity market is evolving rapidly, enabling a world where machines, sensors, and systems interact seamlessly to drive efficiency, innovation, and intelligence. As businesses and governments recognize the potential of interconnected devices, the demand for secure, scalable, and cost-effective connectivity solutions will only intensify.

By 2032, the industry is set to become a multi-billion-dollar ecosystem, integrating technologies like 5G, edge AI, and satellite communication. The players who prioritize interoperability, cybersecurity, and agility will lead this next wave of digital transformation. The IoT connectivity market is not just growing—it’s shaping the future of how we live, work, and connect.

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Healthcare Video Conferencing Solutions Market: Key Trends and Growth Drivers

The global healthcare video conferencing solutions market size is expected to reach USD 114.46 million by 2028, according to a new report by Grand View Research, Inc. The market is expected to expand at a CAGR of 4.9% from 2021 to 2028. The key factors driving the market include robust urbanization and increasing penetration of telemedicine solutions. Furthermore, technological advancements by market players are anticipated to positively influence the market growth.

Market players witnessed tremendous growth in their revenues during the COVID-19 pandemic due to the increased demand for their video conferencing solutions. For instance, Adobe observed a 15% increase, and Pexip LLC witnessed around a 54.5% increase in their revenues from 2019 to 2020. However, they are not certain regarding the demand for their video conferencing solutions after the pandemic. For instance, Zoom Video Communications, Inc. in its 2020’s annual report stated that as the COVID-19 pandemic is getting curbed due to the widespread availability of vaccinations, it might result in a decline in paid hosts and users as people/patients will no longer be required to stay at home and they can directly visit the clinics and hospitals for the treatment of their medical problems.

Investments by major companies to launch new technologically advanced products in the market are expected to fuel the market growth. For instance, in April 2021, Intrado Corporation launched the SD-WAN Thin Edge, which is developed in collaboration with Infiot, which develops solutions for remote-first applications. It is designed for connecting remote workers, fixed and mobile sites, and IoT devices over LTE cellular networks.

Market players are investing in many strategic initiatives, such as acquisitions, mergers, partnerships, and product launches, to maintain a competitive edge in the market. For instance, in December 2020, Intrado Corporation acquired Asparia, Inc., a provider of patient engagement solutions for hospitals, medical practices, and health systems.

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Healthcare Video Conferencing Solutions Market Report Highlights

• The growing technological advancements, coupled with the adoption of telemedicine solutions, is expected to boost the market growth

• Based on deployment mode, the on-premise segment led the market in 2020 owing to its high adoption by the healthcare providers

• By component, the hardware segment held a dominant market share in 2020 owing to the growing technological advancements related to the segment

• North America led the market in 2020 with a revenue share of more than 35.0% owing to the presence of major market players

• The Middle East and Africa is expected to be the fastest-growing regional market from 2021 to 2028 owing to the rise in the number of healthcare facilities and the need for continuous training for medical students and new doctors, especially during the pandemic

• Major players are involved in new product launches, mergers & acquisitions, and collaborations to grow in the market

Healthcare Video Conferencing Solutions Market Segmentation

Grand View Research has segmented the global healthcare video conferencing solutions market on the basis of deployment mode, component, and region:

Healthcare Video Conferencing Solutions Deployment Mode Outlook (Revenue, USD Million, 2016 - 2028)

• On-premise

• Cloud-based

Healthcare Video Conferencing Solutions Component Outlook (Revenue, USD Million, 2016 - 2028)

• Software

• Hardware

• Services

Healthcare Video Conferencing Solutions Regional Outlook (Revenue, USD Million, 2016 - 2028)

• North America

o U.S.

o Canada

• Europe

o U.K.

o Germany

o France

o Italy

o Spain

• Asia Pacific

o Japan

o China

o India

o Australia

o South Korea

• Latin America

o Brazil

o Mexico

o Argentina

• MEA

o South Africa

o UAE

List of Key Players of Healthcare Video Conferencing Solutions Market

• Adobe

• Pexip AS

• Zoom Video Communications, Inc.

• Intrado Corporation

• Vidyo, Inc.

• Plantronics, Inc.

• Logitech

• Huawei Technologies Co., Ltd.

• Cisco

• Avaya Inc.

Order a free sample PDF of the Healthcare Video Conferencing Solutions Market Intelligence Study, published by Grand View Research.