Showing posts with label industrial wireless. Show all posts
Showing posts with label industrial wireless. Show all posts

From Factory Floor to Field: The Future of Industrial Wireless is Now

The Future of Industrial Wireless is Now

American industrial manufacturing stands at the threshold of a wireless communication revolution. Over the next three years, companies across the United States will accelerate their adoption of Wi-Fi networks, specialized wireless access points, Industrial Internet of Things field devices, and sophisticated sensor networks. This transformation stems from the demands of Industry 4.0, the remarkable advances in 5G, and manufacturers' urgent need for real-time data analytics that can drive a competitive advantage.


Wi-Fi Networks Reshape Industrial Operations


Manufacturing facilities nationwide are discovering that wireless access points deliver the flexible, scalable communication networks their operations demand. These systems must support everything from handheld scanners to autonomous guided vehicles, creating complex connectivity challenges that modern Wi-Fi infrastructure addresses with remarkable effectiveness.


Current market dynamics reveal significant opportunity and growth. The global wireless access point market reached valuations between $5.6 billion and $23.5 billion in 2024, depending on the analysts' definition of market boundaries. Growth projections consistently show compound annual rates between 6% and 10%, extending through 2034. Enterprise-grade and industrial-specific solutions command premium pricing, reflecting their specialized capabilities and the high-reliability requirements they entail.


The variation in market valuations tells an essential story about market segmentation. Basic consumer-grade access points occupy the lower end of this spectrum, while ruggedized industrial units capable of operating in harsh manufacturing environments command substantially higher prices. This differentiation becomes even more pronounced when examining equipment designed for hazardous industrial environments.


Hazardous Environment Solutions Demand Specialized Expertise


Oil refineries, chemical processing plants, and mining operations present unique challenges for wireless communication. These environments contain potentially explosive atmospheres where standard electronic equipment could trigger catastrophic incidents. Explosion-proof wireless communication devices address these risks through intrinsically safe designs that prevent ignition sources from reaching dangerous materials.


The explosion-proof mobile communication devices market reached approximately $660 to $710 million in 2024. Industry projections show this market expanding to between $995 million and $1.07 billion by 2029-2030, representing compound annual growth rates of around 8.5%. This steady growth reflects increasingly stringent safety regulations across industries where explosive atmospheres present ongoing risks.


Manufacturers of explosion-proof equipment must navigate complex certification processes to ensure compliance with relevant standards. ATEX certification governs European markets, while IECEx provides international standards, and UL certification covers United States requirements. These rigorous standards ensure that wireless devices can operate safely in environments containing flammable gases, combustible dust, or other hazardous materials. The certification process often takes months or years, creating substantial barriers to entry but also ensuring that approved devices meet exacting safety standards.


Companies operating in hazardous environments increasingly recognize that wireless communication capabilities provide competitive advantages that justify the additional costs and complexity. Remote monitoring reduces personnel exposure to dangerous conditions while enabling more frequent and comprehensive data collection. Predictive maintenance programs become more effective when sensors can continuously monitor equipment conditions without requiring personnel to enter hazardous areas for routine inspections.


Industrial Internet of Things Drives Market Expansion


Industrial Internet of Things field devices represent the backbone of modern manufacturing automation. These sensors, actuators, and controllers enable the real-time monitoring and control systems that distinguish Industry 4.0 facilities from their predecessors. Manufacturing companies deploy these devices to improve efficiency, reduce downtime, and optimize production processes in ways that seemed impossible just a decade ago.


The United States Industrial IoT market demonstrates remarkable growth momentum. Market valuation reached $135.6 billion in 2024, with projections showing expansion to $568.9 billion by 2033. This represents a compound annual growth rate of 17.1%, making it one of the fastest-growing technology sectors in American manufacturing.


Several factors drive this extraordinary growth trajectory. Manufacturing companies continue adopting automation technologies that promise improved operational efficiency. Advanced analytics and smart sensors integrate seamlessly with existing production systems, creating comprehensive monitoring capabilities that extend throughout entire facilities. Predictive maintenance programs reduce unexpected equipment failures while optimizing maintenance schedules based on actual equipment conditions rather than arbitrary time intervals.


Fifth-generation wireless networks enable ultra-low latency applications that were previously impossible. Real-time control systems can now operate wirelessly, with response times measured in milliseconds, opening up possibilities for the remote operation of critical manufacturing processes. Enhanced cybersecurity measures address the legitimate concerns that initially slowed industrial wireless adoption, providing robust protection against increasingly sophisticated cyber threats.


Digital transformation investments continue accelerating across key industrial sectors. Manufacturing executives recognize that companies failing to modernize their operations risk losing their competitive position to more agile competitors. This recognition drives substantial capital investments in IIoT infrastructure that supports long-term strategic objectives while delivering measurable short-term operational improvements.


Wireless Sensors Enable Unprecedented Monitoring Capabilities


Wireless sensors transform manufacturing operations by providing continuous data streams that enable predictive maintenance, quality control, and process optimization. These devices eliminate the installation complexity and ongoing maintenance requirements associated with wired sensor networks while providing equivalent or superior performance in most applications.


Market research reveals significant variation in wireless sensor market valuations, reflecting different approaches to market definition and segmentation. The industrial wireless sensor network market reached approximately $5.2 to $8.0 billion in 2024, with projections showing growth to between $19.8 and $29.5 billion by 2030-2033. Growth rates consistently fall between 12.1% and 14.8% compound annually.


The broader wireless sensor market, which encompasses both consumer and industrial applications, exhibits substantially larger valuations. These markets reached between $11.9 and $22.9 billion in 2024, with projections extending to $49.0 to $150.4 billion by 2032-2034. Compound annual growth rates range from 16.5% to 21.3%, reflecting the explosive growth in consumer IoT applications, as well as the increasing adoption in industrial settings.


Within the United States specifically, the industrial wireless sensor market reached approximately $4.8 billion in 2024. This figure reflects substantial investments in advanced manufacturing technologies and automation systems, positioning American manufacturers for continued global competitiveness.


Manufacturing applications for wireless sensors continue expanding as technology capabilities improve and costs decline. Predictive maintenance programs rely on continuous monitoring of equipment vibration, temperature, and performance parameters to identify potential failures before they occur. Process optimization utilizes real-time data collection for quality control and continuous improvement initiatives, thereby reducing waste and enhancing product consistency.


Environmental monitoring ensures that production facilities maintain optimal temperature, humidity, and air quality conditions. Asset tracking enables the monitoring of location and condition for mobile equipment and inventory, thereby reducing losses and enhancing utilization rates. Safety monitoring systems detect hazardous conditions and trigger emergency responses that protect personnel and facilities.


Connectivity Technologies Create New Possibilities


The wireless communication landscape supporting industrial manufacturing encompasses several complementary technologies, each optimized for specific applications and requirements. Wi-Fi 6 offers higher data rates, improved efficiency, and enhanced performance in environments with high device densities. Wi-Fi 6E extends these capabilities into the 6GHz frequency band, reducing congestion and improving reliability. Wi-Fi 7 represents the emerging standard that promises even higher throughput and lower latency for demanding applications.


Industrial wireless protocols address specific manufacturing requirements that general-purpose Wi-Fi networks cannot adequately support. WirelessHART was purpose-built for industrial process automation, providing the reliability and security that critical control systems require. ISA100.11a offers another industrial wireless networking standard optimized for manufacturing environments. Bluetooth Low Energy is designed for short-range, low-power applications where extended battery life takes priority over high data rates.


LoRaWAN enables long-range, low-power, wide-area network applications that connect sensors across extensive industrial facilities or multiple locations. These networks support applications where devices transmit small amounts of data infrequently but require coverage across vast areas.


Cellular technologies are increasingly supporting industrial applications as fifth-generation networks mature and expand their coverage. Public 5G networks offer ultra-low latency and high bandwidth for critical industrial applications, while private 5G networks provide dedicated connectivity for facilities that require enhanced security and control. Private networks enable manufacturing companies to customize network parameters according to their specific requirements, while maintaining complete control over data traffic and security policies.


The Next Three Years Promise Accelerated Growth


Industrial automation will experience unprecedented wireless device adoption between 2025 and 2028. Current projections indicate that the installed base of active wireless IIoT devices will grow from 56.5 million units in 2023 to 110.3 million units by 2028, representing a compound annual growth rate of 14.3%. This expansion reflects the maturation of wireless technologies and growing confidence among manufacturing executives in the reliability and security of wireless solutions.


Technology convergence creates opportunities that individual technologies cannot deliver on their own. Artificial intelligence and machine learning integrate with wireless sensor networks to enable sophisticated real-time decision-making and autonomous operations. Edge computing brings processing power closer to data sources, reducing latency and enabling faster response times for critical applications.


Fifth-generation wireless networks will enable use cases that current technology cannot support. Remote control of industrial equipment becomes practical when networks can guarantee ultra-low latency and high reliability. Real-time quality control systems can make instantaneous adjustments based on sensor feedback, improving product consistency while reducing waste.


Cybersecurity concerns continue to demand attention as wireless networks become increasingly prevalent throughout industrial facilities. Cyberattacks targeting United States utilities increased by nearly 70% in 2024, highlighting the critical importance of robust security measures. Industrial facilities must implement comprehensive cybersecurity strategies that address the unique vulnerabilities introduced by wireless networks, while maintaining the operational flexibility that makes wireless technologies attractive.

Regulatory compliance drives the adoption of wireless monitoring systems as safety and environmental regulations become increasingly stringent. Automated monitoring and reporting capabilities reduce compliance costs while improving accuracy and consistency. Wireless systems enable more frequent monitoring in locations where manual data collection would be impractical or unsafe.


Sustainability initiatives increasingly rely on wireless sensor networks to monitor and optimize energy consumption, emissions, and waste reduction efforts. Manufacturing companies face growing pressure from customers, investors, and regulators to demonstrate environmental responsibility. Wireless monitoring systems provide the detailed data necessary to identify opportunities for improvement and verify the effectiveness of sustainability programs.


Implementation Challenges Require Strategic Planning


The adoption of wireless technology in manufacturing environments presents several challenges that require careful consideration and strategic planning. Integration complexity increases significantly when wireless systems must interface with existing legacy equipment and control systems. Many manufacturing facilities operate equipment installed decades ago that lacks modern communication capabilities, requiring substantial infrastructure upgrades or specialized interface equipment.


Standardization remains an ongoing challenge as different wireless protocols serve different applications and requirements. Universal standards do not exist across wireless technologies, which can complicate implementation and limit interoperability between systems from other manufacturers. Manufacturing companies must carefully evaluate protocol selection to ensure long-term compatibility and avoid situations where technology becomes locked in.


Security concerns extend beyond traditional cybersecurity considerations. Wireless networks introduce new attack vectors that criminals and nation-state actors actively exploit. Industrial control systems face significant risks because successful attacks can result in physical damage, environmental releases, or safety incidents. Comprehensive security strategies must address these unique risks while maintaining the operational flexibility that justifies the adoption of wireless technology.


Reliability requirements in industrial environments often exceed those in commercial or consumer applications. Manufacturing processes cannot tolerate communication failures that might be acceptable in other contexts. Wireless systems must demonstrate reliability levels comparable to wired alternatives, often requiring redundant communication paths and failover mechanisms that increase system complexity and costs.


Market Opportunities Attract Investment and Innovation


The rapid expansion of wireless technologies in industrial manufacturing creates substantial opportunities across multiple industry segments. Technology vendors providing wireless infrastructure, sensors, and integration services experience growing demand from manufacturing companies seeking competitive advantages through improved operational efficiency.


Industrial equipment manufacturers increasingly integrate wireless capabilities into traditional manufacturing equipment. This integration simplifies installation while enhancing equipment utilization and facilitating more efficient maintenance scheduling. Equipment manufacturers that successfully integrate wireless technologies often achieve competitive advantages through differentiated product offerings and improved customer value propositions.


System integrators specializing in wireless industrial network design and implementation find growing demand for their expertise. Manufacturing companies often lack the internal capabilities necessary to design and implement complex wireless networks, creating opportunities for specialized service providers. Successful system integrators combine deep technical knowledge with practical experience in manufacturing environments.


Cybersecurity providers develop solutions specifically designed for industrial wireless networks. Generic cybersecurity products often prove inadequate for industrial applications that combine operational technology with information technology systems. Specialized cybersecurity solutions address the unique requirements and constraints of industrial environments while providing the robust protection that wireless networks require.


Manufacturing's Wireless Future Takes Shape


American industrial manufacturing will experience transformative changes over the next three years as wireless communication technologies mature and expand throughout production facilities nationwide. This transformation encompasses increased Wi-Fi and wireless access point deployment, particularly in hazardous environments where specialized equipment ensures safe operations. Industrial Internet of Things field devices will proliferate as companies recognize their potential for improving efficiency and reducing costs.


Market projections consistently show strong growth across all wireless technology segments. The Industrial IoT market leads with compound annual growth rates of 17.1%, followed by wireless sensor networks growing at 12% to 15% annually, and steady wireless access point expansion at 6% to 10% compound rates. These growth rates reflect the substantial value that wireless technologies deliver to manufacturing operations.


Manufacturing companies that effectively implement wireless technologies will achieve more agile, efficient, and intelligent production processes. These capabilities translate directly into competitive advantages in an increasingly demanding global marketplace. Success requires careful attention to integration challenges, comprehensive cybersecurity planning, and thoughtful selection of wireless technologies appropriate for specific manufacturing applications.


The wireless revolution in American manufacturing has begun, and companies that embrace these technologies strategically will position themselves for sustained success in an increasingly connected industrial landscape. The next three years will determine which manufacturers lead this transformation and which struggle to keep pace with rapidly evolving competitive requirements.


Analynk Wireless
(614) 755-5091
https://analynk.com

Analynk's Enclosures: Enabling Safe Wireless Connectivity in Hazardous Industrial Environments

hazardous access point enclosures

Industrial settings have increasingly embraced wireless access points (WAPs) to streamline operations, enhance productivity, and enable real-time data transmission. However, deploying WAPs in hazardous areas, such as oil and gas refineries, chemical plants, and mining facilities, introduces unique challenges and safety risks. Forward-thinking companies like Analynk have provided cutting-edge hazardous access point enclosures to mitigate these concerns.

Hazardous areas earn their classification due to flammable gases, vapors, dust, or fibers that can ignite or explode when exposed to sparks or heat. Standard WAPs can pose a significant threat in these volatile environments, as they lack the necessary safeguards to prevent explosions. 

Analynk offers rugged, explosion-proof enclosures for WAPs in hazardous areas. These enclosures stand out with their unique features that prioritize safety while maintaining functionality. 

Moreover, Analynk has incorporated advanced design and mechanisms into their enclosures allowing for the safe dissipation of heat and relief of internal pressure should ignition occur within the enclosure. Analynk's enclosures have become a popular choice in hazardous area wireless connectivity by containing potential ignition sources and minimizing the risk of explosions.

The practicality and effectiveness of Analynk's hazardous access point enclosures are evident in their widespread adoption across industries. Oil and gas companies have successfully used these enclosures for remote monitoring and control of drilling operations, significantly enhancing safety and efficiency. Chemical plants have leveraged them for real-time data collection and analysis, leading to process optimization and reduced downtime.

Analynk's unwavering commitment to quality and safety has earned them a well-deserved reputation in the industry. Their enclosures have undergone rigorous testing and certification processes, ensuring they meet international standards such as ATEX, IECEx, and UL. This dedication to excellence has made Analynk a trusted partner for businesses operating in hazardous areas worldwide.

Analynk, has emerged as a leader in this field, providing innovative solutions that prioritize safety without sacrificing performance. By empowering industries to harness the benefits of wireless connectivity in hazardous areas, Analynk is paving the way for a safer, more efficient future.

Analynk Wireless
(614) 755-5091
https://analynk.com

Hazardous Area Access Point Enclosures for Safety, Reliability, Convenience and Cost Savings

Hazardous Area Access Point Enclosures


Industrial wireless networks are a much-needed solution for hazardous areas where wired connections are impossible. Wireless networks are also an ideal choice for temporary or mobile applications.


Industrial Wireless Networking is a newer technology quickly becoming the standard for companies that need to transmit data wirelessly in hazardous areas. Industrial wireless networks are gaining traction in hazardous areas with distinct advantages over hard wiring. However, some disadvantages make it less desirable than hard wiring.


Industrial wireless networks are a cost-effective solution to provide reliable, secure, and fast internet access in hazardous areas. In recent years, the demand for industrial networks increased with the increasing popularity of IoT (Internet of Things). This industrial network segment is seeing a surge in demand as more instruments and supervisory control systems connect their devices to the Internet.


Wireless has been a solution to many challenges faced in industrial networking, from remote locations to temporary installations, with the convenience of mobility and reduced installation costs.  


An access point is a device that establishes a wireless local area network, often known as a WLAN. An access point uses Ethernet to connect to a wired router, switch, or hub and broadcasts a WiFi signal to a specific region of a building or plant. However, a significant challenge remains: how to prevent access points from causing ignition and protect the access point against harsh environmental conditions? 


Hazardous Access Point Enclosures
 are enclosures used to protect wireless access points in hazardous areas. They provide safety to the wireless network equipment and the people who work in the area.

Some of the hazards that might be present in a hazardous area include combustible gases, oxygen-rich atmospheres, and flammable dusts. These hazards can cause a fire or explosion if they come into contact with an open flame, spark, or heat source.


To ensure that access point devices can operate reliably in hazardous environments such as oil rigs or chemical plants, they need protection from combustible gases, dust particles, and corrosive chemicals.


The need for Hazardous Access Point Enclosures is increasing daily due to new wireless network technology and are a requirement for all access points operating in hazardous industrial areas. These enclosures protect the access points from dangerous areas and environments. They have various features to ensure the environment is protected and secure for the personnel working in the area.


Some of these features include:


  • Compliance with international standards
  • Resistance to extreme temperatures
  • Permits installation in any location within a hazardous area
  • Protection against dust and water ingress


Industrial wireless networks have a lot of benefits over hard wiring. The lack of wires makes installing and moving around in hazardous areas easy. In addition, you can eliminate the cost and hassle of having to replace or repair wires if they break or get cut. Access points are critical components of industrial networks, and Hazardous Area Enclosures are an essential safety measure for access point manufacturers when applying their products in these settings.

Industrial Wireless Networking Considerations

Industrial Wireless Networking Considerations

Implementation of complex monitoring and control processes by industrial automation systems in the chemical industries, power plants, oil refineries, and water delivery systems are typical. The industrial networks for process automation at these sites typically encompass broad areas, with highly dense networks with hundreds or thousands of nodes. 

The harsh industrial environment presents several obstacles for wireless communications, the most significant of which are dependability, fault-tolerance, and low latency. Unpredictable changes in temperature, humidity, vibrations, and pressure and the presence of highly reflective (metal) items and electromagnetic noise make industrial surroundings stressful.

In these installations, thousands of devices provide measured values (such as temperature, pressure, flow, and location) to actuators that control processes and servers that coordinate the manufacturing steps. Wiring is often tricky and expensive, particularly in combustible and explosive areas (for example, in the presence of flammable gases in an oil refinery.) Remote or inaccessible places are difficult to reach, and mobile nodes can only be connected intermittently.  Even though the amount of data is relatively low in an industrial application, dependability and latency are crucial, and complete data delivery in real-time is a must. 

Key constraints that hinder the actual deployment of wireless networks in such settings are battery capacity and device power consumption. Communication and power wires, ideally, can be eliminated to provide a completely wireless system. To that end, the devices should be energy efficient and capable of running for years on a single charge from a battery. Furthermore, wireless networks bring logical benefits to maintenance and commissioning, such as "plug-and-play" automation systems to reduce downtime and speed up tests, as well as "hot-swapping" malfunctioning modules.

Wireless Communication Terminology and Definitions

Wireless Communication Terminology and Definitions

Antenna – A device that converts electrical energy into propagating electromagnetic waves or the reverse.

Antenna Polarity – The orientation of the directionality of electromagnetic waves produced by an antenna. Common polarities are vertical, horizontal, and circular. Receive antennas should be oriented such that its polarity matches that of the transmitting antenna polarity.

Bandwidth – The amount of spectrum occupied by a signal. For example, a standard IEEE 802.11g transmission will use a nominal 22 MHz of bandwidth. An IEEE 802.15.4 transmission on which ZigBee, WirelessHART, and ISA100 Wireless are designed will use a nominal 5 MHz of bandwidth.

Carrier – A single frequency sinusoidal signal represented by a vertical line or spike in frequency.

Channel – A term used to identify a physical communications link and includes the characteristics of the entire path of information flow from transmitter to receiver. A channel is defined by electrical and electromagnetic characteristics of the transmission medium such as bandwidth and distortions.

Interference – RF power, typically in the RF band of interest, that disrupts communications by inhibiting the ability of a receiver to decode a transmission. Sources of interference could include anything that radiates electromagnetic (EM) energy such as machinery and undesirable radio devices.

Signal-to-Noise Ratio (SNR) – Ratio of signal power to naturally occurring emissions such as thermal noise and cosmic background radiation. Maximizing SNR is the primary goal of wireless communications.

Signal-to-Noise-And-Interference Ratio (SNIR) – Ratio of signal power to the sum of naturally occurring noise power and interference power. Minimizing the contribution of interference to SNIR is an important goal of a wireless communications system.

Power Decibels – A logarithmic representation of a voltage or power relative to a reference. Power is converted to decibels by the equation 10 P  10log p . The notation dBW and dBm represent power levels relative to 1 Watt and 1 milliwatt, respectively. The notation dB denotes a ratio of two numbers and should not be used to denote power.

Link Budget – Calculations that predict the probability that a transmission will be successfully detected and decoded by the receiver. A link budget will account for transmission power, signal formatting, noise, signal distortions, interference, receiver characteristics, and the link reliability requirements.

Link Margin – The difference in decibels (dB) between the ability of a receiver to successfully receive a transmission and the expected minimum received power. A link margin of 10 dB indicates that a signal could be attenuated by an additional factor of 10 before it can no longer be received. A link margin should accommodate reasonable unexpected attenuations, distortions, and interference not directly addressed by the link budget.

Transmitter – The device responsibility for transmitting information wirelessly.

Transmit Power – the average amount of RF energy per unit power emitted by the transmit antenna. This is typically specified in Watts, dBW, or dBm.

Bit Rate – The average or peak amount of data transmitted during an interval of time. This is represented as bits per second (bps).

Duty Cycle – The percentage at which a transmitter is active.

Modulation – The method by which information is used to modify the behavior of an RF carrier. Different modulations exist such as amplitude modulation (AM), frequency modulation (FM), and phase modulation (PM). Digital modulations are discrete versions of the above modulations. Common modulations used in industrial communications include binary phase shift keying (BPSK), quadrature phase shift keying (QPSK), and quadrature amplitude modulation (QAM), among others. Wi-Fi uses a combination of BPSK, QPSK, and QAM depending on channel quality.

Error Control Coding (ECC) – A method to increase reliability of a communications link by adding data redundancy that can detect and correct errors produced by the channel. ECC increases the amount of bandwidth requirements or decreasing the amount of useful information over a channel.

Frequency Hopping (FH) – A process by which the carrier frequency is changed during or between transmissions accordingly to a pre-defined synchronized method. With FH, transmitter and receiver must tune to the same frequency at precisely the same time. FH hopping adds a layer of complexity to a system but also makes interception or disruption of the wireless system more difficult, thereby making the system more reliable.

Spread Spectrum – A process of spreading RF energy beyond what is needed to transmit information for the purpose of improved medium access, better interference immunity, or minimization of signal detection.

Payload – The information being transmitted. The size of the payload factors into transmission duration. All communication systems have a limit to the size of a payload before fragmentation is required. Not all communication systems support fragmentation. At the lowest layers of a communication system, the payload includes all data encoding and framing.

Receiver – The device responsible for decoding incoming transmissions in accordance with an established protocol.

Received Signal Strength Indicator (RSSI) – A measurement of received signal power.

Received Signal Quality Indicator (RSQI) – A measurement of the quality of the received signal

Sensitivity – The minimum signal strength, SNR, or SNIR required by a receiver to decode an incoming transmission.

Adjacent Channel Interference (ACI) – RF energy that is adjacent to the channel containing a desired signal.

Adjacent Channel Rejection (ACR) – The ability of the receiver to suppress ACI.

Dynamic Range – The difference between the maximum and minimum received signal power. A large dynamic range is particularly helpful in accommodating strong ACI that leaks past RF filtering.

Selectivity – The ability of a device to decode a transmission on one frequency without interference from transmissions on other frequencies.

Reprinted from Guide to Industrial Wireless Systems Deployments by the National Institute of Standards and Technology.

Analynk Wireless
(614) 755-5091

Coming This June: Analynk's Hazardous Area 4G LTE Antenna

Hazardous Area 4G LTE Antenna

Analynk Wireless, an innovative manufacturer of hazardous area antennas and access point enclosures and wireless instrumentation for the process control industry, announced a 4G LTE antenna rated for Class I, Division 1 Groups C & D, ATEX, and IECEx Zone 1 areas.

4G, which stands for "Fourth Generation," is a standard developed by the International Telecommunications Union (ITU) in 2008, established explicitly by the ITU-R. (which deals with radio communications). Today, 4G is better known for its broadband capabilities and dramatically higher speed than 3G, which pioneered data access in the cellular space. 

The ITU standard mandated a minimum download speed of 100 Mbps, which was highly hypothetical at the time. In reality, several years later, carrier networks are only now realizing these goals. A wireless network must be capable of downloading at a rate of at least 100 Mbps to qualify as true 4G.

Analynk will introduce the new product this June 2021.

For more information, contact Analynk Wireless, LLC, 790 Cross Pointe Road, Columbus, OH 43230

Call them at 614-755-5091 or visit https://analynk.com.

Antennas Designed for Hazardous-Classified, Industrial Hardened Applications

Antennas Designed for Hazardous Areas

Wireless communication has seen increasing prevalence in the industrial process measurement and control field for several years.  It has provided years of reliable communications for monitoring and controlling processes, where using cables is either too costly or impractical. The absence of wires saves space, reduces the potential for damage, and simplifies modifications to the equipment layout. Implementing wireless communications in hazardous areas, whether through WiFi or other radio frequency channels, presents a particular set of challenges to successful implementation. Points of network access and further transmission and receiving equipment can require a level of isolation and hardening appropriate for the hazardous environment. In response to customers' desire to incorporate the technology across an ever-widening array of application scenarios, vendors continue developing and releasing new products and technologies that expand the potential for industrial wireless communication.

Many industrial process control operations can benefit from wireless connections between measurement and control devices. Analynk Wireless provides patented hazardous area explosion-proof antennas for industrial installations. Analynk antennas are operable across an extensive temperature range and provide substantial impact resistance, signal output, and third-party ratings for hazardous environments. These rugged antennas are for global application in the industrial process control field. Analynk hazardous area antennas are very robust and intended for industrial applications. All hazardous area antennas have UL listed Class I, Groups C and D, ATEX/IECEx Certification, and range of frequencies available- from 900MHz, 2.4GHz, and Cellular GPS, 4G, Iridium, and dual bands.

For more information, contact Analynk Wireless.
(614) 755-5091

Evaluation of the Technologies Potentially Suitable for IWSAN Solutions Covering an Entire Industrial Site With Limited Infrastructure Cost and Trade-Offs

Wireless Technologies

An excellent 2020 publication from the National Center for Biotechnology Information, U.S. National Library of Medicine on industrial wireless technologies:

Industrial 5G Communications

Industrial 5G Communications
Smartphone users aren't the only ones waiting for 5g. Industrial companies are patiently looking forward to the new 5G wireless mobile standard. Owners and operators see industrial 5G as key to making their production plants and operations more flexible, more autonomous, and more efficient than ever before.

Today, most industrial facilities still communicate via wires and cables. With the advent and adoption of the new 5G communications standard, that will all change. 

With 5G peak download speeds of 20 Gb/s (gigabits per second) and 5G peak upload speeds of 10 Gb/s, wireless data transmission for comprehensive factory networks and equipment will communicate at speeds comparable or better than cables. 

The potential of 5G implementation is truly mind boggling, particularly when you consider its huge effect on Industry 4.0, making factories much more productive and less costly to operate. 5G technology has the potential to integrate picking systems, industrial robots, quality control systems, warehousing and autonomous vehicles - harmoniously tying the entire manufacturing process together through a secure, ultrafast, and robust network.

All major industries, including chemicals, primary metals, water treatment, automobiles, aerospace, power generation and oil & gas production, are biding their time and evaluating the promise of 5G's features for their processes. For example, factories will be able to simultaneously transmit data for an astounding 1 million IIoT devices per square kilometer! This easily accommodates all the wireless field instruments for a production line or even an entire plant. Speeds for industrial 5G are at the lower end of the millisecond range. This means instant response to systems upsets or process abnormalities. With 5G, the virtues of augmented reality in the industrial environment will be fully realized, opening the door for a new level of interchange between man and industrial process.

There’s nothing new about wireless communication in industry. Private LTE (Long-Term Evolution) networks are already being used, and process control equipment companies have been successfully implementing Industrial WLAN for quite some time. But since 5G is not yet widely available, Industrial WLAN research and development continues in parallel. However, these networks are nowhere near 5G in terms of performance and speed. 

Even though the international mobile radio standards organization 3GPP (3rd Generation Partnership Project) published the commercial mobile wireless network standard for 5G in late 2018,  there still are no published standards for the industrial 5G. 3GPP expects to have that completed by the middle of 2020.

Analynk Wireless, LLC
(614) 755-5091

Industrial Wireless Systems Radio Propagation Measurements

Radio frequency (RF) propagation measurements were conducted at three facilities representing a cross-section of different classes of industrial environments. Selected sites included a multi-acre transmission assembly factory typical of the automotive industry; a small-sized machine shop primarily engaged in metalworking located on the NIST campus in Gaithersburg; and a steam generation plant located on the NIST campus in Boulder. A spread spectrum correlation sounder was used to take the measurements at a continuum of points throughout the facility by fixing the transmitter and moving the receiver at a constant rate throughout each facility. The data collected from the RF propagation measurements of each site was analyzed. Analysis is based on channel impulse response (CIR) measurements collected during the measurement using equipment developed by the National Institute of Standards and Technology. The results of the analysis include a tabulated summary and detailed exploration of various industry accepted channel metrics such as path loss, delay spread, and K factor. Interpretation of the measurements contributes to an improved understanding of radio frequency propagation in factories and an additional perspective on deploying wireless communication devices within factories.

This technical paper, provided by the National Institute of Standards and Technology (NIST), addresses concerns about the lack of industrial wireless networking reliability, determinism, and security through a multi-phased approach.


Analynk Wireless
(614) 755-5091
https://analynk.com

Top 6 Reasons to Deploy Wireless Networking in Industrial Facilities

Wireless technologies offer great value over wired solutions. A reduction in cost is just one of the many benefits of switching to the wireless networking system. There are many benefits, including enhanced management of legacy systems that were previously not possible with a wired networking connection. Here is an overview of some of the value-added benefits of adopting wireless networking in industrial plants.

#6 - Efficient Information Transfer

A significant advantage over wired networks is that the time required to reach a device is reduced. This results in a more efficient transfer of information between network segments that are geographically separated. The industry wireless networking standards use IP addresses to allow remote access to data from field devices.

#5 - Operational Efficiencies

Migrating to wireless networking can help in improving operational efficiencies as well. Plant managers can troubleshoot and diagnose issues more easily. The system facilitates predictive maintenance by allowing the monitoring of remote assets.

#4  - Enhanced Flexibility 

Enhanced flexibility is another reason for deploying wireless networking solutions in an industrial setting. Additional points can be awarded easily in an incremental manner. The wireless system can also integrate with legacy systems without any issues.

#3 - Improved Information Accuracy 

Adopting wireless networking also results in improved accuracy of information. The wireless system is not prone to interferences. As a result, the system ensures consistent and timely transfer of information from one node to another.

#2 - Reduced Installation Costs

Savings in installation costs is the key benefit of a wireless networking system. The cost of installing a wireless solution is significantly lower as compared to its wired counterpart. Installing a wireless network requires less planning. Extensive surveys are not required to route the wires to control rooms. This reduced installation cost is the main reason industrial setups should consider going wireless instead of having a wired networking system.

#1 - Human Safety 

The most significant factor that should influence the decision to migrate to wireless networking is the human safety factor. Wireless technologies allow safer operations, reducing exposure to harmful environments. For instance, a wireless system can be used in taking a reading and adjusting valves without having to go to the problematic area to take measurements.

Analynk Wireless, LLC
(614) 755-5091

Industrial Wireless Security

Industrial Wireless Security
Industrial control systems (ICS) cybersecurity is a branch of general cybersecurity in which the systems being protected have physical characteristics which if compromised can lead to down-time, injury or death, and economic loss.

Industrial control systems include supervisory control and data acquisition (SCADA) systems, localized work-cells, enterprise control systems, and cloud-based factory collection systems. Traditional information technology (IT) systems differ from operational technology (OT) systems primarily in their cybersecurity priorities. In general, IT systems defend against data extractions. Encryption used to provide confidentiality is of primary concern. In OT systems, confidentiality is no longer of paramount concern. While eavesdropping can lead to reverse engineering of proprietary factory methods and design, it is usually more important to keep the factory running. Therefore, technologies must assure that both cybersecurity controls and cyber-attack do not limit or prevent the capability of the factory running with high availability. Table 1 lists the priorities of IT and OT systems. It is important for IT professionals to recognize that wireless security practices used in the office may not be available for factory deployments. If they are available, they may not be desirable to maintain system availability. Securing the industrial network can be summarized in the following considerations:
  • Secure the physical environment; 
  • Secure the end-points; 
  • Secure the controller; 
  • Secure network transmissions/data. 
Industrial wireless networks have the same consideration as wired networks with the addition of protecting the electromagnetic spectrum allocated for the industrial wireless network operation.
Table 1 - Typical Priorities of IT and OT Systems
The number of devices connecting to industrial networks is increasing at a rapid rate. It exposes systems to security breaches and cyberattacks. As a result, security is paramount for industrial operations. Some manufacturers think wireless will create new vulnerabilities in the network that may result in potential threats. Just making the wireless network accessible through a password is not adequate. One key concern is how to identity and eliminate rogue access points. Therefore, wireless intrusion detection systems and intrusion prevention systems are in demand.

In addition, isolation of production devices on a separate network from corporate networks, internet traffic, and phone and surveillance systems is necessary. In other words, one can employ an “island” approach to networking that limits the movement of traffic and devices between islands. By properly segmenting a network, it can limit movement between networks to appropriate devices and block the movement of devices that are unnecessary or provide little value.


Reprinted from Guide to Industrial Wireless Systems Deployments produced by The National Institute of Standards and Technology. A free copy of this entire publication is available here.