Wonderware demo in Telford UK

Industrial IT software solutions provider, Wonderware UK, a division of SolutionsPT, is to host a two day event at which it will exclusively reveal the next generation of Wonderware industrial automation software, including updates to its HMI and SCADA offerings.

For 30 years, Wonderware has led the way with the world’s most innovative industrial software. On Tuesday 8th and Wednesday 9th November at the International Centre in Telford, UK, SolutionsPT will unveil ‘what’s next’ from Wonderware, showcasing the new software it believes will set the bar in industrial automation.

As well as allowing delegates an exclusive first look at Wonderware’s groundbreaking new SCADA release, the conference will also reveal the latest ‘Software as a Service’ offerings and will unveil the ways in which manufacturers can take a pragmatic approach to the Industrial Internet of Things with networking, data collection and cyber security solutions. The conference will also celebrate the 25th anniversary of the exclusive software distribution partnership between SolutionsPT and Wonderware in the UK and Ireland.

Conference timetable

The first day of the event will feature presentations from international keynote speakers, including a product representative from Schneider Electric, and Marc Van Herreweghe, Associate Vice President at the International Data Corporation (IDC), who will provide an industry expert perspective on the future of industrial automation. Attendees will also have the opportunity to listen to presentations from experts on topics including line performance, cloud solutions, disaster resilience and cyber security.

The conference’s Expo area will feature demonstrations of the next generation Wonderware software in action, as well as demonstrations by a number of the SolutionsPT partners, including ACP, Citect and Stratus Technologies. Other partners confirmed to appear at the Expo are ecom instruments, MDT Software, Ocean Data and WIN-911.

On the second day, SolutionsPT will host multiple training workshops, giving guests the opportunity to get hands-on with a variety of systems, including Wonderware Line Performance Suite, Next Generation HMI/SCADA, Wonderware Online and ACP ThinManager, which have all been designed to help build smart and connected industrial environments.

Hosted by SolutionsPT

Sue Roche, General Manager at SolutionsPT, said: “We’re incredibly excited to be able to unveil the next stage of Wonderware software, and demonstrate how the ‘factory of the future’ can become a reality.

AAEAAQAAAAAAAAgMAAAAJDE0N2FlYzEwLTMwMzUtNDVkOS04MzgyLWM4MWIzMGRlMTJhNQ“Delegates will be able to experience the next generation of industrial automation and get a first look at cutting-edge software solutions that are making connected, future-proof manufacturing environments a reality. We’re also looking forward to raising a glass to the long-standing relationship between SolutionsPT and Wonderware, and preparing for many more successful years to come.”

The event runs from 9:15am until 5:30pm and includes an evening gala dinner. Overnight accommodation is also available. Those interested in attending should register here:

http://wonderware.co.uk/events-webinars/next-generation-conference

Noise mapping offshore using wireless sensors

Many of the latest technology developments in relation to offshore oil and gas production installations have emerged from Norwegian research studies, because that industry represents the major part of the economy in Norway.  Such research studies do not only relate to better and more efficient methods of working, but they also investigate the health and safety aspects of the industry: an area of particular concern has been hearing damage to workers offshore, which is the predominant cause of work related illness. At the Yokogawa User Group meeting held in Budapest in May 2016, Simon Carlsen of Statoil ASA in Norway explained the background to a recent project that was undertaken to improve the efficiency of the noise surveillance and monitoring systems Statoil use offshore. This was also presented to a Society of Petroleum Engineers International conference on Health and Safety in Stavanger in April (Ref 1).

picture-3-from-pdf

The main Health & Safety tool used for monitoring noise exposure is the ‘Noise map’, which provides noise level contours within rooms and around machinery where workers are active. These are used to establish a course of action where noise levels exceed allowed limits, whether this action is to reduce or remove the noise source (if possible), insulate the area, issue PPE to workers, and/or impose working time restrictions. Noise maps have historically been based on manual surveys that take single point readings, which are then plotted onto a site map, typically from CAD drawings. Manually taking and plotting these measurements is arduous and time consuming, and typically would be updated only on around a four year cycle. Plus the readings are (obviously) not continuous, only record the conditions when each reading was taken, and generally do not record the added effects from workers using different machinery and tools in the area.

Statoil R&D on wireless & noise instrumentation

Simon Carlsen of Statoil joined the R&D Department in 2006, bringing expertise in wireless instrumentation, and started investigating the feasibility of using wireless sensors and software techniques to create a real-time noise map. The system subsequently commenced became known as WiNoS, for “Wireless Noise Surveillance”, when formally initialised in 2013. This will consist of a network of wireless noise sensors, continuously monitoring the noise in the process area, using sound pressure level (SPL) measurements of four types: A-weighted SPL (I.eqA), C-weighted SPL (I.eqC), peak SPL (I.peak) and thirty one separate third-of-an-octave frequency band measurements from 25Hz to 16kHz. This data is much more comprehensive than the simple noise level measurements used to establish the noise maps, but will superimpose this data onto the historically available maps. These readings can then be used to update the map in real time, and create alarms available to operators.

The WiNoS sensors then use an industry standard wireless network infrastructure, which transmits the data into the control system, where special software produces the updates to the noise maps – typically on a one minute update rate (ie almost continuous). This live information can be used to create alarms to report back to workers in the area, to control their noise exposure. The objective is to reduce work-related hearing damage, by knowing the actual on-site conditions; to optimize operator time working on/near tools, to reduce daily exposure; and to provide instant feedback on the effect of noise reduction measures. In addition WiNoS allows for time synchronized measurements amongst the sensors in the network, and also allows the control room operator to trigger a download of a high resolution frequency spectrum waveform from any sensor of particular interest, to analyse the signature of the noise. This latter is a major part of the future development of the monitoring system, which will feed into plant condition and process performance monitoring studies.

noise-map-3

The WiNoS project development employed the expertise of the Norwegian companies Norsonic AS in the microphone design and the sound level measurements, and the Department of Acoustics at the research company SINTEF to develop the PC software that records the data and creates the noise maps. The software was also required to conform to the Statoil qualified communications protocol.

Choice of wireless network

A major part of the research feasibility study that preceded the WiNoS project was devoted to the choice of the wireless network to be used to efficiently and reliably transmit the data, relatively continuously from multiple sensors. The two suitable networks that were emerging at that time were WirelessHART and ISA100.

The WirelessHART system is now well-known and fairly widely used in Statoil facilities, but the early research trials showed mixed experience with the system and the relevant vendors – some of this was related to the lack of specification details written into the WirelessHART standard. But there were also challenges with achieving the power efficiency in the transfer of all the data required, and the requested large data transfer of the high-res waveform was not readily achievable.

The ISA100.11a wireless transmission standard was also in use in Statoil, and had been adopted for the wireless flammable gas detector pioneered by GasSecure in Norway – Statoil had been involved with the prototype field trials offshore. The initial trials on ISA100 equipment from Yokogawa provided high flexibility for the different application demands, allowed all the 31 one third octave values to be packed into one transmission telegram, and allowed a well-defined block transfer. The sensor could also achieve the two year life required from the installed battery pack, at the 1 minute update rate.

The decision was made that ISA100.11a was to be the preferred protocol for WiNoS, from a technical and project model perspective. Based on the earlier experience of development co-operation with Statoil, it was decided to invite Yokogawa to join the WiNoS project as a Co-Innovation partner, a role that they were keen to develop. In addition to providing the ISA100.11a wireless interface electronics for the sensor, and the interface into the third party control system, Yokogawa worked with Norsonic to develop the mechanical housing for the microphone sensor, and the electronic hardware to process the sound measurements using the Norsonic software, with the whole sensor assembly meeting ATEX requirements.

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A Yokogawa wireless temperature transmitter adapted to include the Norsonic microphone

Full system test

In March 2016, a network of 7 off Yokogawa ISA100 enabled wireless noise sensors were tested within the (land-based) industrial lab hall at Statoil Rotvoll, in Trondheim, which has dimensions 35x25x15 metres – and contains various pumps and process equipment. Further synthesized test noise sources were created using loudspeakers. The wireless sensors, the noise mapping software and the IT backhaul architecture all operated reliably and successfully.

winos-system-test

Dynamic noise map generated with the system test

 

A further test, offshore on an operational Statoil platform, is planned and scheduled for Spring 2017, for which Yokogawa will supply 20 production sensors and the ISA100.11a wireless system. A typical platform deck of 50×50 metres might in practice require around 12 noise sensors for effective coverage.

isa100_yta-a-xx

Possibly future noise mapping sensors will be added in high noise plant areas

The Statoil WiNoS system is now ready for development into a commercially available product for use as an offshore platform noise mapping tool. Future research on this system will involve investigation of 3D noise mapping systems. Statoil consider that the equipment application has potential for expansion into machinery condition monitoring, to include automatic process upset or fault and leak detection.

© Nickdenbow, Processingtalk.info, 2016

References

 

Mourning Alice Endress

The Endress+Hauser Group is in mourning for Alice Endress. Following a brief illness, the widow of the company founder died peacefully in her sleep on 6 July surrounded by her family. She was 97 years old.

Alice Endress-Vogt was born on 14 May 1919 in the community of Schwyz in central Switzerland. After attending a trade and hotel management school, she moved to the south of Switzerland where she met Georg H Endress who was performing his military service in Tessin. The couple married in 1946 and had their first child, a son, one year later. Three more sons and four daughters followed.

Throughout her life, Alice Endress deliberately maintained a distance from the company that her husband started in 1953. For many Endress+Hauser employees she was nevertheless an important and esteemed person. She was present at many company events until the last months of her life, especially in the Basel region, and always felt very comfortable in the midst of things. She attended the annual Endress Family Day in Berlin as recently as May 2016.

Alice Endress was laid to rest in Arlesheim, Switzerland next to her husband who passed away in 2008. Family and companions said their final farewells during a service at the Arlesheim Cathedral on 19 July.

The Future for the IIOT

Technews in South Africa has recently published their 2016 Industry Guide to the Industrial Internet of Things (IIOT). The whole publication is available on line, despite being a massive 60 page publication, with many and varied articles on this all-pervading topic. This Annual Supplement to the SA Instrumentation and Control magazine draws on example applications from Europe and the USA, as well as from suppliers who provide the technology capability. This industry guide can be downloaded from the SAIC Archives, on http://www.instrumentation.co.za/archives.aspx.

The challenge the Editor, Steven Meyer, gave me, was to comment on the future direction of the ‘Internet of Things’, so inevitably I turned to some of the new gurus of the industry, who seem to be given the label “Futurists”, or “Trendwatchers” – and it is a growing discipline!

What these guys say

The latest trend evident in the presentations at conferences and corporate presentations, such as those organized by automation suppliers like Emerson and Yokogawa, is for a look into the future, and speculation as to what is to come in the next 15 years. Apart from the information about their new products, and new applications of their systems enabling better automation, these conference organizers also now offer a presentation from a “Trend-watcher” or “Futurist”. Inevitably basing their arguments on the way technology has grown, in relation to computing power, mobile phones, and the Internet, these presentations try to explain the IOT, Internet Of Things, of today – to then discuss what the IOT will really provide, and what will be accepted as normal, in ten years’ time.

Richard van Hooijdonk, a ‘Trendwatcher’

For the Yokogawa European conference, their Trendwatcher was Richard van Hooijdonk, from the Netherlands. A well-known Radio lecturer, Richard is also a lecturer at the Nyenrode & Erasmus University (maybe they made a new subject area for him?). Entitled ‘Trends 2030’, his presentation linked the IOT with the growth of robots; with wearable and injected (into the body) electronics; with ‘Big Data’; with 4D printing and with cybercrime.

NARIM Congres 2015 foto: Robert Tjalondo; www.rockinpictures.com 2015

Richard van Hooijdonk, Trendwatcher

Van Hooijdonk backs up what he says with his actions, at least enough to make us stop and think. He has had an RFID code implanted into his arm, which not only establishes his body with an IP address, but provides the access code to the electronic lock on his apartment, so that he is recognized and the door is unlocked when he turns the door knob. The unit also is programmed with the number for his Bitcoin account. While admitting that the injection process was not painless, his whole approach was that such technology will become smaller and cheaper, with future volume application. So the injections will be less painful, at least!

Personal sensors vs robot automation

Probably everyone in the audience understood and could relate to different parts of Richard’s view of the major future developments likely. Certainly I could understand the function of some wearable electronic systems that monitor heart rate, temperature and blood pressure, etc, but lost the plot when this device was also bio-chemically analysing data from an internal pill or pills that circulate around and analyse the blood and other fluids, to look for symptoms or diseases that need treatment, and then automatically call the Doctor!

However I could relate to the emphasis placed on robot automation, which particularly included advanced drones that can now use optical imaging to identify sections of fields or crops which need spraying with insecticide or seeds or fertiliser etc: the drones are self-programmed to fly over the field in a regular search pattern. Automated and self-checking robots for window cleaning, lawnmowers, carpet cleaning and floor polishing, litter picking and hoovering are all about to take over such manual jobs. Robotics will then take over other duties, like planting out seedlings and watering individual pots in garden centres. In the kitchen the fridge will know when it has run out of specific items like eggs, milk and butter, and order them automatically from the grocer, on a schedule.

Relating this to IOT

In terms of automation the IOT offers the interlinking between multiple devices, pieces of home equipment for example: the alarm clock rings, after having consulted your schedule, weather and traffic reports, to decide when you need to be awake: the curtains open, or alternately the lights are switched on, the bath is filled and the coffee pot or kettle switched on to brew a drink. But these actions may not have to be programmed, the devices themselves, and other sensors, will have been fed into a big ‘consequences’ database in the cloud somewhere, that uses pattern recognition to learn repeated sequences, and can then take over and run these sequences automatically. This ‘Big Data’ processing facility, using pattern recognition, creating artificial intelligence that can process all this data, is a necessary adjunct to the simple sensors – we can’t look at all that mass of information ourselves. Such data processing can be seen in a small way already, when the supermarkets collect your purchase pattern information, and use this to predict when you will buy these same goods again: if you don’t buy them when the computer thinks you should, it can send you a reminder, or even a special offer, to tempt you back to the store. Alternatively, look for a price for a flight on-line: suddenly adverts for that flight appear on every web page you access, and alongside your emails that mention keywords like ‘holiday’.

Jack Uldrich, a ‘Futurist’

The Emerson European User Group conference on the other hand, brought Jack Uldrich over from the USA. Jack started life as a naval intelligence officer, and developed an ability to talk American almost as fast as my brain can translate the words being used. He now describes himself as a Futurist, and consults for many major investment groups, plus is a regular guest on CNN and CNBC. In his website (jackuldrich.com) he presents a paper describing the ten ways IOT will “Open up a Future of Opportunity”.

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Jack Uldrich, a Futurist, looking over his own shoulder?

Jack sees the alarm clock wake-up routine quoted above as the simplest use of IOT: a more comprehensive view is that sensors in your pyjamas, mattress, home lighting systems and the kitchen monitor everything from your diet to your sleep pattern, and tell you to modify your behaviour to improve your lifestyle – for example tell you to reduce the caffeine intake after 6pm, and tell your bedroom lights to slowly get brighter as soon as you come out of REM sleep – whatever that is!

I leave you to read the rest of the paper: but Uldrich takes IOT with Big Data as just one of the major triggers for change. The other factors he lists are Social media, robotics, biotechnology, nanotechnology, AI and renewable energy, which will all coalesce to focus on the intelligent automation of our lives.

New opportunities  

Jack Uldrich sees some major business entrepreneurs emerging as a result of the technology changes around us already, identifying Spacex in satellite launchers (the re-useable ones that now land on ocean barges); Tesla new designs of electric cars, and their plans to develop a 0.5 million units a year production facility for the required car batteries by 2020; GE producing 3D printed aero-engine parts (such as turbine blades) by 2020; and Deloitte recently moving into an office building in Amsterdam that can use IOT sensors to automatically reduce energy consumption by 85%. Richard van Hooijdonk also pointed to disruptive new ideas overturning established markets, mentioning Uber in taxi services; BnB in renting holiday houses; Spotify in music; and Netflix in taking over the video rental market digitally.

These Trendwatchers/Futurists do have a place in business. In fact, van Hooijdonk teaches companies how to anticipate and deal with major changes that might disrupt their business, by creating their own internal disruption team. In this way they may avoid the fate of Kodak, Blockbuster, and Proctor & Gamble. There are obviously many profitable careers opening up in presenting trendwatching lectures, some forecasting IOT scenarios for the future.

But what about the IOT?

Gartner, a leading information technology research and advisory company, forecasts that 6.4 Billion ‘things’ will be connected to the Internet by end 2016, up 30% from 2015, and that this number will reach 20 Billion by 2020. These devices will generate a market for service spending of USD235 Billion in 2016, so this spend will be approaching USD1000 Billion worldwide by 2020. Admittedly only around a third of these connections will be in business operations, two thirds will be in consumer areas. But the major market demand will be for services, where businesses employ external providers to design, install and operate their IOT systems. In reality this means processing the information available using Big Data techniques, to allow the client to get on with his own business, yet benefit from new technology. “IOT services are the real driver of value in IOT, and increasing attention is being focused on new services by end-user organisations and vendors,” said Jim Tully, vice president and analyst at Gartner.

So the attention Gartner speaks of can already be seen coming from the major automation suppliers, who are offering 24/7 services to analyse the data available from industrial internet based sensors, or from plant sensors connected over a VPN link via the Internet. The GE, Emerson and Yokogawa companies of this world see their customers using their products, but that these products have far more capability than the customer can absorb, so they need to be the supplier who provides the expansion and development services. Otherwise someone else will jump in and pinch the client’s attention, and the work.

We already have GE supporting their aero-engines with wear and condition monitoring systems, then extending this to their compressors and pumps on LNG liquefaction plants, with teams of GE people monitoring and reporting back to their clients. These teams might only be in three or four places around the world, all linked by the internet, but they can control their maintenance staff on site. These guys are directed to the machine or plant area that needs attention: and the whole contract is no longer measured in man hour charges, but in percentages of the plant output capability, when the equipment availability is maintained above X%. Similarly we see automation companies developing similar contracts, where they use the IOT inputs to enable plant performance improvements, so that a South African plant benefits from operational experience learned from a similarly linked up Canadian plant: and the payment is a proportion of the performance improvement.

There are opportunities also for specialists to develop expertise in their own specific areas, eg for machine manufacturers to link all their own machines worldwide, and be the leaders in offering the most efficient, reliable widget production machinery: but eventually these will be linked into a major supplier of widget production and business services.

The IOT benefit will come from collaboration and learning, matching patterns and experience from knowledge gained elsewhere: it needs AI, which could be ‘artificial intelligence’, or may be ‘Automated Intelligence’ – and it will come from Big Data, from multiple small sensors, interconnections, and collaboration!

Total Exploration and Production chooses Emerson maintenance services

Emerson has been selected by Total Exploration and Production Services to provide control and safety system maintenance services that will support Total’s upstream oil and gas operations around the whole world.

The ten-year frame agreement is part of Total’s Integrated Control and Safety Systems standardisation strategy. It is the first of its kind between Total and an automation systems provider and formalises the already robust relationship between the two companies.

Emerson will be responsible for servicing, maintenance, obsolescence planning, on-call application support, spare parts management, and reporting activities relating to integrated control and safety systems used in selected Total onshore and offshore sites. This includes Emerson’s DeltaV distributed control systems and DeltaV SIS safety systems, along with its AMS asset management software.

“This agreement strengthens Emerson’s excellent relationship with Total and enables our services team to support Total in its continuous efforts to optimise the efficiency of their operations and ensure high safety performance,” said Mike Train, president of Emerson’s Automation Solutions business. “We appreciate being trusted to maintain critical automation systems that will help Total continue to run their operations safely and reliably.”

Platon/Roxspur acquired by TT Electronics

It’s always interesting when your old company gets taken over, once again! Particularly when you thought it was being screwed up, by the acquirers. So I was disappointed to have missed a news release nearly 15 years later, about a subsequent take-over in 2014.

The event was that Roxspur Measurement & Control was acquired by TT Electronics for GBP8m in July 2014. The good news was that the TT annual report for 2014 suggested that Roxspur provided a GBP0.4m operating profit, included in their results at the end of 2014.

Roxspur was absorbed into the TT Electronics Industrial Sensing and Control division,  which had a sales revenue of GBP61m in 2015, and an operating profit of GBP11.4m. So Roxspur is now a small-ish cog in this much bigger wheel.

TT Electronics describes itself as manufacturing a comprehensive range of temperature, pressure, flow and level products designed for aerospace, industrial, oil and gas, power generation and water management applications through its Roxspur sub-brands Brearley, Platon, Sensit and Nulectrohms. The TT Electronics total sales revenue in 2015 was reported as GBP524m, with an operating profit of GBP30m. So Industrial Sensing and Control is in fact a very significant part of the whole.

I, and everyone else, have to hope that the succession of acquisitions that were imposed on the Platon  variable area glass and metal tube flowmeter measurement business after 1999, have brought some of the employees some benefit.  Over the previous 8 years the Basingstoke based team had built the flow measurement business, which included the well known pre-Internet Flowbits catalogue, into a GBP10m business. So this small part of the corporate group at that time was probably worth more than GBP8m. It faced the biggest business trading profile challenge ever, with the arrival of the Internet, just as it was hyped into a broader paper based catalogue for industrial engineers, renamed as “Controlbits” by the new acquirers.

There are still paper catalogues around, in 2016, but hyped up earnings expectations appeared to kill off the Platon catalogue. The chaos catapulted me, after a year recovering from being made redundant, into a new career, which I do not regret. It also spawned some spin off start-up companies, which have done well. Even the Platon Pension scheme, which had to be the subject of a Government funded rescue, has at last started to pay out some of the pensions due, as from 2015.

So there were benefits! Ironically I did, at that time, and maybe still have, a minimal number of shares in TT Electronics!

 

Yokogawa invests into Silicon Valley fog computing

 

Yokogawa Electric Corporation announces that it has invested in FogHorn Systems Inc, a Silicon Valley start-up that is a leading developer of fog computing* technology. Yokogawa aims to foster development of fog computing technology through its investment in this company. In so doing, Yokogawa hopes to expand the range of solutions that it provides.

Due to the continued growth of cloud computing services and the huge number of devices that have access to cloud resources, there is a growing concern over issues such as network congestion and data processing delays. Fog computing is gaining traction as a technology solution to this problem.

Co-Investors with Yokogawa

FogHorn Systems, a pioneer in the development of software for fog computing applications with outstanding expertise in this field, has attracted the interest of various companies that are promoting IoT. Led by March Capital and GE Ventures, the company has succeeded in raising $12 million in funding from multiple investors, including Yokogawa, Robert Bosch Venture Capital GmbH, and Darling Ventures. There is also a group of investors who invested in the company prior to this round of fundraising. Yokogawa’s stake in the company is worth $900,000.

Yokogawa offers a wide range of control solutions that help its customers improve the safety and efficiency of their operations and make the most effective use of their assets. These solutions include field instruments, control systems, manufacturing execution systems (MES), and management information systems. Industrial IoT (IIoT) technology is making rapid inroads in the control field, and it is expected that fog computing’s enablement of real-time and distributed processing in edge computing applications will significantly accelerate its adoption.

Through this investment in FogHorn Systems, Yokogawa will gain access to the latest fog computing technologies and will also make available its knowledge and expertise in process control and plant operations that will help this company further refine its fog computing technology. Yokogawa aims to make use of fog computing to strengthen the solutions that it provides.

‘Process Co-Innovation’ from Yokogawa

Yokogawa has drawn up a long-term business framework and formulated a vision statement that reads: “Through ‘Process Co-Innovation’ Yokogawa creates new value with our clients for a brighter future. ‘Process Co-Innovation’ is a concept for an automation business that will utilize all of Yokogawa’s measurement, control and information technologies. Accordingly, Yokogawa will seek not only to optimize production processes but also the flow of material and information within and between companies, including their value and supply chains”.

Yokogawa is committed to working with customers to create value through the effective use of IIoT, a key to ‘Process Co-Innovation’. Tsuyoshi Abe, Yokogawa vice president and head of the company’s Marketing Headquarters, said of this investment: “Highly reliable and stable communications are an essential requirement in manufacturing and many other fields. Fog computing is a breakthrough that helps to enhance the use of cloud resources. It is also expected to provide Yokogawa many more opportunities to utilize IIoT in its control business. In line with our corporate brand slogan of ‘Co-innovating tomorrow’, Yokogawa will use FogHorn’s technology to develop new solutions and create new value in collaboration with its customers and partners.”

* Fog computing:

Fog computing is an architectural concept for the realization of edge intelligence and the suppression of communications with the cloud by establishing a ‘fog’ distributed computing layer between the cloud and devices in the field. Fog computing eliminates communications delays and fluctuations by locating the processing of certain data near the field devices that generate the data and sending only essential information to the cloud. As such, there are high expectations that this technology will lead to a number of new IoT applications.