NFL Advances In-Stadium Wireless Connectivity
(Image courtesy of www.sportsauthorityfieldatmilehigh.com) With the NFL season kicking off, we decided to investigate one of the more overlooked aspects of the game: in-stadium wireless communication. Surprisingly, several aspects of the game experience rely heavily on wireless communication: coaches headsets on the field and in the booth, concession stand payment processing, and, of course, fans with smartphones. Anyone who has attempted to connect to publicly available wireless internet in a stadium, concert venue or otherwise generally crowded area knows that connectivity is finicky at best and nonexistent at worst. In the era of instant score updates, fantasy leagues, Twitter and other social media applications, fans expect to be able to use their smartphones during a live-game experience. Additionally, even just a few years ago coaches themselves dealt with connectivity problems: … The tablet computer in his left hand — a high-tech replacement for the black-and-white printed pictures coaches have used for decades to review plays — kept losing its Internet connection, leaving Belichick unable to exchange images he and his coaches rely on to make in-game adjustments. The fault is apparently in a new private Wi-Fi network the NFL installed in stadiums this year to great fanfare. Internet service is erratic, making a system financed by one of the world’s richest sports leagues little better than the one at your local coffee shop. … Of course, since then, the NFL has gone out of its way to better incorporate wireless communication technology into the stadium experience for fans and personnel alike. This year, the Denver Broncos 3,000 5 GHz wireless antennas in Mile High Stadium (we should note, the claim of ‘most of any NFL venue’ is unverified): To increase fan connectivity, Broncos announce install of 3,000 5GHz wireless antennas at stadium, believed to be the most of any NFL venue. pic.twitter.com/ES2CWZhJ0z — Patrick Smyth (@psmyth12) September 5, 2017 For the NFL, and other large events, the question of connectivity has more to do with bandwidth capacity than access to a wireless network. Most cellular carriers provide access to LTE networks in the populated areas where stadiums and event centers are located, but the sheer amount of data being used during an event like the Super Bowl has grown exponentially over the years. In 2014, data usage at Super Bowl XLVIII totaled around 2.5 terabytes. Super Bowl LI, played in February 2017, saw nearly 12 TBs transferred throughout the game over WiFI alone, with Facebook and Snapchat accounting for almost 10 percent of the total bandwidth. Verizon and AT&T customers combined to use another 20 TB of data over those networks. With those numbers in mind, it makes far more sense to utilize high-bandwidth technology like WiFi, rather than relying on the LTE networks to support those big data figures. When IIoT and the NFL Collide The average consumer thinks of WiFi as a broadband service facilitated by a router in one’s home or office. When scaled to the usage size of a football stadium-worth of bandwidth consumption, however, a regular router will not suffice. Instead, these stadiums use wireless communication technology that has been deployed with regularity in the Industrial IoT for years: signal repeaters and access points peppered strategically throughout the necessary coverage areas. Just like companies in the utilities, oil and gas, precision agriculture and smart city industries, these stadiums are relying on industrial-strength WiFi platforms to handle the data demands of teams, vendors and fans. An additional consideration for stadiums and critical industries is the security of these networks, so tech vendors must be able to supply built-in security measures within the access points. These networks must be secure, flexible and reliable in order to support the massive demand being made for hours on end. The New Generation of Stadium Experiences We tend to take internet access for granted these days. Connectivity is already nearly ubiquitous and only growing each year, so it makes sense that stadiums would eventually start to catch on to the technology being used to propagate these industrial-strength networks. At this point, it is not just the NFL that is working on pushing the stadium experience into the next generation, other professional sports leagues, music venues, and festival sites are catching up to the IIoT technology that is proving to be a literal game changer.
Rugged IIoT Solutions That Can Weather Any Storm
Mount Washington Observatory (MWO) is a research facility located at the heart of what many consider the “home of the world’s worst weather.” Think thick ice, dense fog, drifting snow, powerful winds, sub-arctic temperatures, rapidly changing conditions and more fog. The New Hampshire-based facility provides critical research data on the Earth’s climate and doubles to protect the lives of the MWO crew, US Forest Service Snow Rangers and New Hampshire Fish and Game employees by providing real-time weather updates. Collecting data is critically important for MWO operations and the safety of those it helps protect. In this vicious and unforgiving environment, FreeWave’s rugged IIoT solutions are responsible for delivering the data that is invaluable to research and safety efforts. Powering through Fog and Ice The extreme conditions at the MWO facility range from fog with 50-100 mph winds to sub-arctic temperatures that are accompanied by 140+mph winds and thick ice. The weather is known to change frequently and fast, with ice accretion rates of up to 12” per hour — and visibility is often limited or non-existent. These extremes make it the ideal location for studying the environment and climate. However, when search and rescue teams are deployed the situation can quickly become dangerous. They rely on MWO’s real-time data to assess conditions. As you can imagine, there is little room for connectivity issues when people are out in the elements. Ruggedized IIoT Solutions The key to establishing a network at Mount Washington is robust and hardened technology that will perform in the Summer and Winter extremes. For more than 13 years, FreeWave 900MHz spread spectrum radios have delivered the data that the crew relies on to survive some of the most intense weather in North America. While the technology is constantly exposed to the rough conditions, it performs day-in and day-out, providing critical data around the clock. Check out the full case study, including a description of the network here: https://www.freewave.com/mount-washington-observatory/
7 Tips for OEMs to Improve SCADA Networking Communications
From remote field sensors to Supervisory Control and Data Acquisition (SCADA) and I/O modules, industrial wireless radios connect your device and sensor ecosystems with robust and reliable links. Furthermore, wireless data radio networking technology connected to I/O modules for SCADA applications have become faster, smarter and their firmware now easier to upgrade. More options and frequencies, including 2.4 GHz for short range I/O and 900MHz for long range data networking, continue to improve SCADA-based network communications for robotics, industrial automation, unmanned systems and heavy machinery. So what do Original Equipment Manufacturers (OEMs) need to know when deciding upon which technology to use? Below are seven tips for OEMs to consider when reviewing industrial wireless communication options. 1) Assess Technology Options for the SCADA Network Start first by identifying your needs, goals, and limitations. When it’s time to research technology options, observe what’s available today and what’s going to be available in the future, heeding the “buyer beware” saying. Communication products vary in many ways, and each manufacturer and/or technology has advantages and disadvantages. No single product—and likely not a single manufacturer—can meet all application needs. 2) Reduce Costs While some companies seek to continue to preserve existing investments of wired and wireless technologies, wireless options have clear advantages for SCADA systems. Most obviously, wireless installations reduce labor and material costs by avoiding hard-wiring remote assets. Speed of deployment adds savings. Wired systems can take days or weeks to be properly installed. Wireless networks generally require only the end points to be installed, saving substantial time and costs. Networks need to scale gracefully as the number of end points increases. After installation savings, scalability is the biggest advantage of wireless over hard-wiring, including slow integration into wired systems as it’s implemented. 3) Consider Hybrid Benefits Toss out any old perceptions. If you need mobile SCADA network access, find somebody that offers it. If you have a microwave tower place, use it. Piggyback slower licensed radio networks with faster 902-928 MHz frequency hopping, AES encrypted networks. Know that you can install I/O capable radios (analog and digital signal, 4 to 20 and 1 to 5) to relay contact closures or other data without adding a new Progammable Logic Controllder (PLC) or Remote Terminal Unit (RTU). 4) Maximize SCADA System Value With telemetry technologies, such as spread spectrum radios, the same radio used in RTUs can act as a slave device sending data back to the SCADA host, and as a repeater to other field devices or other RTUs. This allows almost limitless network expansion by using remote sites as a series of repeaters, and by using radios in the RTUs to poll the instrumentation. Polling the instrumentation creates a second network reporting wirelessly back to the RTU. This shorthaul network is the equivalent of a local area network (LAN). 5) Don’t Use a Proprietary SCADA System By using a non-proprietary SCADA system, users gain real-time access, control, and monitoring of their network (including all the devices and functions of their network). They can manage requirements of an ever-growing system allowing them to manage their network in real-time with fewer bodies and hours invested. Security and safety improves with better monitoring. For instance, some industrial systems don’t contain a process for monitoring the cathodic integrity for corrosion (like in water/wastewater and oil and gas) to avoid disaster. But with deployment of a wireless system, they can. They can begin by monitoring simple things, such as pump stations at wells, using I/O radios communicating back to the central SCADA system to get up-to-date information on the tanks’ or pipelines’ status. End users can more quickly resolve an emergency wirelessly, instead of manually. 6) Seek SCADA System Flexibility Advanced flexibility of radio communications offers benefits to new SCADA system deployments and upgrades performance of existing SCADA systems. For example, in water/wastewater industrial applications, there need to be generation/distribution, lift stations, system monitoring, and treatment facility systems in place (or planned) to meet the expanding growth of a community’s population and/or service areas to meet future requirements. Each year, many industries deploy more frequency hopping spread spectrum (FHSS) SCADA solutions to help monitor and manage critical infrastructure. Several manufacturers (including FreeWave Technologies) offer FHSS radios capable of retrieving data from remote locations. And although wireless IO (input/output) has been available, only recently have both capabilities been offered in one communication solution. 7) Seek Easy-to-Use SCADA Software OEMs implementing and using a SCADA network systems for data communications want a simplified, rapid setup and easy management of a network. That includes ability to manage multiple frequencies and multiple networks within one system. A centralized storage and management center provides easy access to system configuration and diagnostics data. Technicians in remote or harsh weather environments need robust reporting capabilities. Software like FreeWave’s ToolSuite can manage data communication diagnostics and configuration.
IIoT Top News — Security Remains Top of Mind
Cybersecurity has been top of mind for industry experts and consumers alike. The WannaCry ransomware is putting a legitimate scare into affected companies, although many are apparently preparing to call the hackers’ bluff. Yesterday, another cyberattack was announced as well, and it has the potential to be far more lucrative for the developers. The common denominator between the two? A leaked exploit developed by the NSA that leverages a Windows file-sharing protocol. These attacks are indicative of the long-term game of cat and mouse that the government and private enterprise faces for the foreseeable future of security and counterintelligence. Moving forward, the growing network of connected devices for the Industrial Internet of Things (IIoT) faces similar security threats. This week, we found several stories demonstrating some of the solutions surrounding those potential security issues. The 9 Best Practices for IIoT from a Dell Security Expert At a recent presentation for 2017 Dell EMC World Conference, Rohan Kotian, Dell EMC’s senior product manager for IoT security, spoke about his nine best practices for improved IIoT security. His number one strategy? Simply understanding the concerns. Many IoT devices come out of the box with few security controls in place, and understanding the risk is the most important step in addressing them. In this article from Tech Republic, you can read Mr. Kotian’s other nine best practices, including studying the attack trends, classifying risk, and leveraging fog computing. IIoT Market Expected to Approach One Trillion Dollars by 2025 Grand View Research writes that the industrial Internet of Things will experience explosive growth over the next decade, going from a $109 billion industry in 2016 to an expected $933.62 billion by 2025. The massive market increase will be driven by a number of factors, one of which continued investment by government agencies and corporate leaders. As the report states, “The role of the Internet of Things (IoT) is increasingly becoming more prominent in enabling easy access to devices and machines. Government-sponsored initiatives and innovative efforts made by key companies, such as Huawei, GE, and Cisco, are anticipated to enhance the adoption of IIoT worldwide over the forecast period.” IIoT Presents Unique Security Challenges Security is always a top priority in the Internet of Things, but IIoT applications present unique challenges. In this article from CSO Online, Phil Neray, CyberX’s vice president of industrial cybersecurity, writes that despite the growth of IoT applications in oil, gas, electric, and pharmaceuticals, “The fact is that all of these devices were designed a long time ago.” That means IIoT innovators have the challenge of integrating the newest technology into systems that may be decades old. This sort of retrofitting can make security a real challenge and there are few experts available who have both the knowledge of legacy systems and the latest IIoT solutions. Sprint to Deploy LTW Cat 1 by End Of July The Internet of Things relies heavily on low-power communication protocols to perform, so a recent announcement on FierceWireless.com that Sprint will be releasing LTE Cat 1 by the end of July is music to IoT developer’s ears. LTE Cat 1 is designed to support low-power applications on the Sprint network such as vehicle telematics and industrial IoT applications. “As one of the leading enablers and solution providers of the internet of things, Ericsson believes in its power to transform industries and capture new growth,” said Glenn Laxdal, head of Network Products for Ericsson North America. “Ericsson looks forward to partnering with Sprint to deploy Cat M1 next year and bring the transformative power of IoT to the Sprint Nationwide network.” The announcement also noted that Cat M would be following in mid-2018. TE Cat M1 and LTE Cat NB1 will support other applications requiring ultralow-throughput and power consumption.
British Antarctic Survey Leverages Ruggedized Data Transport
Antarctica inhabits a unique place in the human exploration mythos. The vast expanse of uninhabitable land twice the size of Australia has birthed legendary stories of human perseverance and cautionary tales about the indomitable force of nature. However, since those early years, Antarctica has become a rich research center for all different kinds of data collection – from climate change, to biology, to seismic and more. And although today there are many organizations with field stations running this data collection, the nature of its, well, nature still presents daily challenges that technology has had a hand in helping address. Can You Send Data Through Snow? British Antarctic Survey (BAS) – of recent Boaty McBoatface fame – has been collecting data from its field station network for more than 60 years. Over that time, BAS has become a global leader for polar science and polar operations, collecting data on sediments, ice cores, the polar atmosphere and the ever-changing ice shelves – all of which are vitally important for helping predict the climate of the future. To collect this data, BAS required a network that could reliably transmit it in what could be considered one of the harshest environments on the planet. This means deploying GPS equipment, motion and atmospheric sensors, radios and more that could stand up to the daily tests. In order to collect and transport the data in this harsh environment, BAS needed a ruggedized solution that could handle both the freezing temperatures (-58 degrees F in the winter), strong winds and snow accumulation. Additionally, the solution needed to be low power due to the region’s lack of power infrastructure. The Solution BAS found that FreeWave’s 900 MHz radios could handle this myriad of requirements. The organization deployed 19 radios across its network, each connected to a remote GPS station containing sensors that track the movement of the Brunt Ice Shelf near one of the primary research stations. The GPS sensors determine the Shelf’s position and dynamics before sending the data back to the station. There are several other specs that make the deployment of these radios operationally viable for British Antarctic Survey, but to find out more check out our case study with all the details: https://www.freewave.com/case-studies/british-antarctic-survey/!
What’s New in IIoT
Industrial IoT (IIoT) is making waves as we inch closer to the end of the first quarter of 2017. Recently, Network World and Forbes, published articles exploring the proliferation of Smart Sensors deployed for Edge networks. We are starting to see more coverage addressing the big challenges of IIoT, as well as the big opportunities. Other, IIoT-focused publications continue to highlight the latest mega-trends and research from leaders in the IIoT trenches. Recent IIoT Headlines Four Artificial Intelligence Challenges Facing the Industrial IoT By @AAllsbrook | Published on @Forbes “Companies building IoT devices are solving this challenge by using gateways, also known as edge-based processing, to connect to cloud-based IoT platforms. This enables the machines to get data to the internet. However, connecting devices isn’t as easy as updating software; instead, it’s an investment in retrofitting old machines, replacing existing equipment, and enabling a workforce to leverage this equipment.” 5 Things to Think about for Industrial IoT Readiness By @ryan4francis | Published on @NetworkWorld “In order to achieve the full potential of the IIoT, the gap between these two cultures needs to be bridged so that the competing priorities of IT and OT are met. We’re beginning to see the emergence of “industrial technologists,” who bring a combined IT/OT perspective to the enterprise. These “industrial technologists” understand that for IIoT to be a reality, “always on” availability needs must be met. Because they live in both worlds, they play a key role in meeting both OT and IT priorities.” 3 Keys to Financial Success in the Industrial Internet of Things By @Scott_Nelson19 | Published on @CIOonline “One of the most frequent misperceptions about the IIoT is that it is all about the machines. Traditionally automation saves cost by reducing the number of people required to operate the line. The machines are important, but today operational improvement, particularly of legacy systems, comes from leveraging and facilitating human knowledge and action.” IoT Edge Shifts Data Gravity in the Enterprise By @AAllsbrook | Published on @iotagenda “But the internet of things is changing this gravitational constant in our technical universe. As IoT matures, the black holes of data gravity we have been placing into clouds will be ripped apart by millions of smaller data planets. These smaller planets will be located in our factories, warehouses, buildings, homes and everywhere else IoT runs to make data actionable.” Smart Grid: Overcoming Data Exchange to Increase Efficiency By @S_Allen_IIoT | Published on @SmartDataCo “As sensors bring connectivity to more endpoints than ever before, utility decision makers are able to obtain detailed data for Advanced Metering Infrastructure (AMI) and Distribution Automation (DA) networks. With rugged wireless solutions, the sensor data is readily available in real-time for IT decision makers. The unrestricted access to data from all network endpoints forces decision makers to shift their focus from Big Data to Smart Data – the data that matters most to the business. It also drives the need for real-time analytics in order to streamline operations. This not only simplifies the convergence issue, but it drives Smart Grid efficiency.”
Network Management Solutions for IIoT
The shift towards digital technology solutions and the rise of the industrial Internet of Things (IIoT) have transformed operations for many organizations. Currently, there are a number of wireless communication solutions available that are specifically designed for IIoT, M2M and SCADA networks. These technologies monitor, collect and transfer critical data in challenging environments to support mission critical use cases. As technology continues to advance, Sensor-to-Server (S2S) technologies have emerged to support advanced data practices, such as predictive analytics. IIoT has not only increased the number of devices in the field, but has also brought the OT and IT departments closer together. This convergence is challenging for many businesses as they look to find technology that will meet evolving demands. IT, for example, needs better field visibility as industrial networks become more connected every day. This need has driven a strong demand for detailed, real-time information solutions that will support IT network operations. Having a network management system (NMS) at the access layer helps meet those needs and companies like E2E have begun to offer NMS solutions specifically for IIoT, M2M and SCADA networks. These networking solutions help overcome some of the major visibility issues from an IT perspective and are suitable for operation in challenging environments . FreeWave’s NMS Partnership FreeWave recently announced a new technology partnership with E2E Technologies. E2E’s Stingray Network Management System (NMS) will support FreeWave’s WavePro™ wireless communication solutions. Stingray is optimizable for IT professionals looking to manage individual components of a limited IoT or M2M communications system within a larger IT network management framework. Companies in energy, utilities, municipalities, government, oil and gas, and more will benefit from this solution as they now have a technology solution designed to help bridge the IT/OT convergence gap.
2017 IIoT Prediction Series, Part 5: Major Public Utility Company Closes Doors
As 2017 kicks into full gear and a particularly interesting 2016 fades into the rearview mirror, we took a look around the IIoT landscape to see what this year might potentially have in store. Today, we wrap up the 2017 series – let us know what you think! On Tuesday, we started our predictions by looking at the potential development of Fog Computing at the Edge and its impact on cybersecurity. Wednesday, we predicted that the rise of IIoT applications will outpace consumer IoT apps. Thursday, we wrote about the challenge facing IIoT businesses as the workforce ages and new skills are needed for the ongoing IT/OT Convergence factor. On Friday, we predicted that the growth of smart cities infrastructure would force a connectivity standard for the IIoT industry. A Public Utility Closure in 2017 The maturation of interoperability standards and evolution of remote data collection technologies are forcing critical infrastructure and utility organizations to adapt at a new pace, in light of aging infrastructure and high percentages of the workforce that are nearing retirement. Existing management continues to struggle to match the IT and operations resources needed to build a comprehensive, integrated portfolio of applications that must work together to support the organization’s goals. The prediction A public utility company will close its doors in 2017 due to challenges surrounding the adoption and implementation of modern IoT technologies. There are numerous forces that support the prediction. Here’s our take on the big ones: Are you Taking Advantage of Fog Computing at the Edge? According to analysts, utility organizations are becoming more comfortable hosting critical infrastructure data and applications in the Cloud. But, in an effort to further optimize processes and shorten response times, utilities need to explore ways to host applications at the device/sensor level (i.e., the Edge otherwise known as Fog Computing). A decentralized network architecture that brings computing power closer to where data is generated and acted upon enables utilities to analyze, control and automate closer to the “Things” in the Industrial Internet of Things. In electric power, for example, where even milliseconds are vital, certain processes can move away from the Cloud and closer to the Edge. In an industry where cloud computing presents its own sets of challenges, can utilities go one step farther to look at new ways to optimize the “things” at the edge? IT-OT Convergence Presents Plenty of Challenges With identifiable business benefits and rapidly developing technologies that are closing the IT/OT divide, there are functional and operational differences between IT and OT groups that exist and complicate integration or convergence. IT and OT groups typically have fundamentally different charters, focus and personnel within their respective organizations. The challenges to IT/OT convergence are not the sensors, hardware, software or technology, but how each group perceives each project or opportunity and in turn, the solutions, which are skewed by their respective domains. In order for IT/OT convergence to be successful, communication is essential and in turn, there needs to be a clear understanding of each group’s roles – something we see utility organizations struggle with mightily, especially as an aging workforce butts heads with the next generation of digital-centric employees. However, the careful selection of technology for IIoT or industrial applications can help drive the convergence of IT/OT systems. For example, in electric utilities, the rollout of Advanced Metering Infrastructure (AMI) and Distribution Automation (DA) networks is truly an OT application. The source of the data will fuel IT/OT convergence because it is the data analytics applications such as outage detection, fault management, prepay and others that bring value to the Smart Grid. If utilities can proactively take a systems level view of its infrastructure and integrate legacy systems with modern IT systems, the convergence of IT/OT groups may prove less strenuous. Cyber-threats to the Utility Utilities are at the forefront of the Industrial IoT with complex and comprehensive networks for advanced metering infrastructure, energy management, distribution management and substation automation. The estimated growth in IIoT applications for utilities and energy industries will increase to more than 1.5 billion devices by 2020. This explosive growth in networks, smart sensors and devices, and automated systems requires utilities to address, implement and monitor the security of their data networks because these are the networks providing command and control of critical infrastructure that is the Smart Gird. As technology has evolved, so has the intelligence and sophistication of cyber terrorists and their tactics. If utilities do not build a comprehensive security layer, especially across its internet-connected systems, there is little faith they’d be able to combat against such tactics as Denial of Service and Intrusion – the two top threats according to the Federal Communications Commission (FCC). If utilities don’t invest in hardened/proven networking and communications equipment, network access control programs, data encryption strategies, advanced monitoring technology and explore various other tactics for limiting exposure to harmful cybersecurity threats, they may be forced out of business anyways. Today, it is not a matter of “if” a cyber-attack is going to take place, but when. We hope you are ready. All in All We hope this prediction is one that doesn’t come to light in 2017, especially with all the direct investments being made in our critical infrastructure projects across the nation. However, a competitive organization is both agile and proactive in meeting market demands – something utilities need to learn from as business continues. That does it for our list of 2017 IIoT predictions – hope you enjoyed and please be sure to send your questions and comments below!
Data that Drives Electric Vehicles
There was a lot of hype surrounding electric vehicles when they first hit the market for consumers. Supporters saw electric vehicles as a key solution for battling gas prices and making a positive impact on the environment. Over the years, several countries throughout the world have incentivized the purchase of electric vehicles through subsidies available to both the car makers and the buyers. However, as we roll into 2017, sales are short of expectations in the U.S. Currently, we’re seeing only about 400,000 electric vehicles on the road. In President Obama’s First term, he said that he believed the U.S. could have one million electric vehicles on the road by 2015. When January 2016 hit, the estimate was looking like it could take up to another four years to accomplish the goal – especially with continuing low gas prices and troubled electric vehicle battery technology. To help further the push towards electric vehicles, the White House recently hosted an electric vehicle datathon to find and discuss what data would drive the deployment of more electric vehicles on U.S. roads. The event was co-hosted by the U.S. Department of Energy and four National Laboratories. The White House announced that electric vehicle experts, automakers, charging-station providers, cities and states collaborated with software-development and data-analysis communities as the group looked for answers to the electric vehicle challenges. Together, they worked to better understand how plug-in (electric) vehicles contribute to and help the environment and economy. They also worked to find out find out what it will take to make U.S. consumers more interested in purchasing electric vehicles. Electric Vehicles and the Right Data Electric vehicle manufacturers, well aware of the challenges and slow adoption, have also worked to provide U.S. citizens with appealing electric vehicle options. During the R&D process, these manufacturers are challenged with improving vehicles to increase purchases and usage in the U.S. Battery challenges aside, careful selection of communication technology is essential to improving data and performance of these vehicles. Without proper data collection and transport, vehicle performance cannot be analyzed and improved. One of the leading electric car companies uses Sensor-to-Server (S2S) solutions for RTK base station communications to improve data and correlation. As the Internet of Things (IoT) infiltrates more areas of our everyday life, S2S solutions designed to be robust and reliable in heavily industrial environments work as a communication solution for many industries across the board. From typical industrial environments like oil/gas and water/wastewater, to smart cities and the automotive industry and more specifically, electric vehicles. S2S solutions offer high-speed, long range connectivity with 900 MHz RF technology and they can support third party applications. As the electric vehicle industry looks to data for overcoming challenges, these solutions are designed to collect, protect, transport and control critical data from network end points all the way back to the server. Electric car manufacturers have a ways to go in terms of driving more adoption from consumers, but they have a nice selection of IoT and sensor-based technologies to help improve data and communications.
Guest Post: Keep the Data Flowing in Oil and Gas
By Joyce Deuley, Sr. Analyst and Director of Content at James Brehm & Associates LLC State of the Industry This year has proved challenging for oil and gas companies: falling prices, crackdowns from environmental regulations, growing concern about the destabilization of land due to fracking, as well as an increasing gap between jobs and skilled engineers to name a few issues. Royal Dutch Shell, for instance, recently terminated its plans to drill off the Arctic coast of Alaska for the “foreseeable future”—this is after $7 billion dollars and more than five years spent on exploratory drilling (with disappointing results) and the purchase of costly leases and permits for the privilege to do so (Daily Mail). The Arctic Circle has been viewed by many as a “holy grail” in terms of rich oil and gas reserves—the largely untapped Great White North, if you will. Initiatives in the Baltic have also come under discussion lately, as Russia negotiates the political quagmire it has found itself in concerning territorial disputes. Still, it isn’t all doom and gloom. Our reliance on oil and gas for manufacturing, shipping, transportation, energy, and more hasn’t dissipated—rather, it will continue to increase with the rising population and result in rapidly expanding urbanization. More food will need to be shipped globally, more cars will be driven, more homes will be heated, more materials will need to be made, etc., providing rich opportunities for oil and gas companies to invest in scalable solutions, as well as to firmly root themselves as valued players in the market. Investors, and other interested parties, are paying close attention to the oil and gas markets to better determine how best to mitigate depleted reserves and improve overall productivity and efficiency: keeping their bottom lines low and profit margins high. To pull back from an environmental and global perspective on the state of the industry, let’s instead bring it into a sharp focus with its current business challenges. Problems with efficiency include legacy pipeline and refinery infrastructure that hasn’t been updated or modernized in decades, a shortage of skilled labor as qualified engineers approach retirement, the need for increased monitoring and control across remote areas, and the mission-critical need for the aggregation, interpretation and management of unprecedented amounts of data. But, effectively managing that data can present major challenges for oil and gas providers: with so many devices at the edge, they are practically drowning in the seemingly endless flood of information that is collected. The need to find reliable data management platforms that help remove complexities associated with data visualization is critical for these companies’ ability to identify and enact valuable business decisions. What to Do About It It is no secret that the Internet of Things (IoT) has proven to be disruptive across a myriad of markets. While the technologies and principles of the IoT have been around for decades, predominantly within the manufacturing and processing industries, its relatively nascent presence within the consumer electronics and wearables markets has helped rebrand the IoT with a level of “sexiness” it previously lacked. But at the heart of the IoT is a near-obsessive desire to decrease operational and deployment costs, meet compliance regulations and to dramatically increase productivity and efficiencies. The oil and gas industry happens to be one of the largest growing areas for IoT deployments and has found many ways to benefit from connected solutions, such as pipeline and wellhead monitoring. Oil and gas pipelines can span across hundreds of miles of rugged terrain. The ability to monitor such a territory can be challenging, as harsh winters and debilitating droughts, forest fires and or heavy rains can put stress on the integrity of a pipeline, plus the remote nature of its location can prevent technicians from being able to regularly service it. Another challenge is knowing when and specifically where a problem occurs. For instance, if there is a malfunction that results in a leak along one of the more remote sections of a pipeline and there is no sensor to alert someone, we could be looking at a nightmare of a situation: environmental damages, not to mention untold amounts of costly clean up, repairs and definitive losses to the oil and gas company at large. By utilizing connected sensors along the lengths of their pipelines, oil and gas companies can overcome these challenges and monitor flow, pressure, integrity of the pipeline and more. Empowered by the IoT, oil and gas providers can receive near real-time information about their entire operation, enabling decision makers to better manage their technicians, as well as improve overall production and reduce maintenance and operational costs. As oil and gas companies wait for the stock market to pivot from $50 a barrel, they need to look seriously at implementing business solutions that are going to help them weather this lull. The IoT provides many opportunities for oil and gas providers to tighten their belts by increasing efficiencies and production, ultimately reflecting in a more cushioned bottom line. Pipeline monitoring and control applications can help reduce non-productive times by up to 30%, which is just one small example of how dynamic transformations could be made by the IoT. About Joyce Deuley As Sr. Analyst and Director of Content, Joyce researches and interprets market trends, locates opportunities for growth, and researches the current happenings in the M2M and IoT space, providing our clients with up-to-date and actionable information. Joyce specializes in technical communication, translating complex data into layperson-accessible presentations, articles, and white papers. Additionally, Joyce manages, contributes, edits, and designs our newsletter, The Connected Conversation. She currently offices out of, and is a founding member of Geekdom, a tech accelerator-like co-working space in San Antonio, TX. Previously, Joyce worked as a Secondary Researcher at Compass Intelligence, learning the M2M markets alongside James Brehm. While at Compass Intelligence, she gained experience in market research, competitive analysis, content strategy, as well as qualitative research. Joyce graduated with a B.A. in English, focusing on Professional and Technical Communication, from the University of the Incarnate Word (UIW) in San Antonio. She
