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  1. 3 points
    Introduction: Data Analytics has traditionally been associated with the processes involved in using data to inform decision making. It builds on the underpinning principles of data management that are required to build any kind of IT system, including the integration of IoT operational and back-end business systems. In the context of IoT, Data analytics encompasses many approaches including big data, in-memory computing, cloud computing, NoSQL databases, data integration, and interactive analytics, as shown in the diagram below. Diagram courtesy of Jorge Lizama. GHD Historically, data analytics took the form of Decision / Executive Support Systems starting in the 1970s, then evolving into Online Analytical Processing (OLAP), Business Intelligence (BI) in the 1990s. It is common to think of data analytics in terms of the volume, velocity, and variety of the data. Volume refers to the quantity of data, velocity to the speed at which the data is generated, and variety to the different types of data. Over the past few years, two new Vs, value and veracity have been introduced. Veracity refers to the quality of the data, and value refers to the benefit that the organisations can gain from the volume and variety of data that is being delivered with great velocity, if they are able to depend on its veracity. Diagram courtesy of Arthur Baoustanos, aib Consulting Services The current approach to managing data collected from IoT devices is to sense/observe the data, move it into the cloud, process and analyse it there, visualise it for decision making purposes (using technologies including augmented reality), then either store or discard it partially/completely. In recent times the exponential growth of data has created situations where "traditional" analytical methods are not viable and the term big data analytics is being used to describe new analytical techniques developed to cope with these situations. Big data analytics is often associated with IoT because many IoT applications involve large numbers of sensors generating large volumes of data. Also, many IoT applications involve the integration of a large variety of data formats such as weather data, machine vision and the like. A key challenge of IoT systems that generate or integrate a lot of data is how to make sense of it and how best to make use of it. This is driving the uptake of cognitive computing systems that assist analysts in determining insights and drive outcomes not possible with traditional analysis. Planning for data analytics The critical questions that organisations will need to answer when embarking on the journey to advanced data analytics are: Where does the organisation want to go (goals)? How will we get there? What do we need to get there? Will our current structure allows us to get there? What changes do I need to make to get us there? It is important to start with the business objective: define critical business issues and decide where value will be derived. Then evaluate which data is required to assess the identified issues and determine any gaps in relevant data. Be as specific as possible about what decisions the company will make based on that information. Departments and divisions within the organisation should collaborate to understand exactly what information is required to address common business goals. Data could also be purchased from outside sources to complement internal data collection. Once an organisation has decided to optimise their efficiency using data analytics, they should look at long as well as short term goals, and set specific efficiency or process change targets in order to get the most out of their investment as shown in the diagram below. Diagram courtesy of Umesh Bhutoria, EnergyTech Ventures A gap analysis of people skills (users, engineers, managers), data (points and frequency) and investment needed to reach goals should also be carried out, to ensure that all stakeholders are willing to see the process out through trials to implementation. When approaching vendors, care should be taken not to over- or under- specify requirements. For more information, visit the Project Management for IoT page. It may also be beneficial to invite shortlisted vendors to site to conduct data discovery tasks or solve smaller problems that will help determine if they will be a good fit to help the organisation implement a large-scale data analytic solution. Challenges Industry uses a small fraction of available data due to siloed data in legacy systems and leaders’ scepticism about the impact of technologies such as IoT. For example, added value for a commercial building could be derived from integration of available data into building management systems and building intelligence systems to perform energy analytics and management to improve efficiency, or condition monitoring and predictive maintenance. Three factors which contribute to the slow uptake of IoT data analytics in industry are: multiple data points (including electrical, thermal and mechanical energy, as well as process and production data) which may be housed in separate servers proprietary or inflexible data collection and storage solutions which are difficult to integrate skills gaps in staff and management in understanding the benefits of data analytics Types of solutions There are several different models of IoT data analytics solutions as shown in the diagram below. Diagram courtesy of Umesh Bhutoria, EnergyTech Ventures A stand-alone system could involve purchasing metres or sensors and asking a vendor to integrate them. This model has the potential to be influenced by the vendor rather than the user organisation’s requirement and does not provide integration with existing data. The second model, data as a service, provides monitoring and automated reports, but will not necessarily include integration with legacy data. Insights as a service is a model that is gaining in popularity, and is applicable to organisations with mature data infrastructure, who know what data is available and how the organisation aims to use it. It is typically a cloud-based service that uses company, user and third-party data to provide insights, as well as offering support in using these insights to meet the goals of the organisation. Existing data is also connected and centralised, as shown in the diagram below. Diagram courtesy of Umesh Bhutoria, EnergyTech Ventures The choice of solution should be based on the benefits it will bring to the organisation, weighed against the pre- and post- purchase effort, cost and ease and flexibility of use. The role of data analytics in IoT A non-exhaustive list of advanced data analytic applications within IOT applications is listed below. The majority of the applications listed revolve around the broad categories of asset management, planning, and performance management. The IOT has helped businesses to address these applications in a more holistic manner than was previously possible. Predictive maintenance Energy usage optimisation and energy analytics Downtime minimisation Network performance management Device performance effectiveness Load balancing optimisation Loss prevention Capacity planning Asset management and inventory tracking Demand forecasting Pricing optimisation Disaster planning and recovery Yield management Sources: The information on this page has been sourced primarily from the following: Webinar titled The data management perspective on IoT by Arthur Baoustanos, Managing Director, aib Consulting Services Case Study titled Studying movement behaviour in a building: A case study of obtaining analytics from IoT Data Webinar titled “The Data Indigestion Crisis: New approaches to Energy Analytics” by Umesh Bhtoria, Founder and CEO, EnergyTech Ventures
  2. 3 points
    Description: Over the past few years, South East Water (SEW) in Victoria has been trialling a range of different Internet of Things (IoT) technologies with the goal of creating the most advanced water and wastewater network in Australia. The trials are aimed at identifying an IOT platform that will allow the connection of around one million monitoring and controlling devices across SEW’s water and wastewater network using a low power wide area network. This case study describes the activities to date. Source: Based on a webinar titled The Smartest Water Network in Australia delivered on 27 Sept 2016 to the Applied IOT Engineering Community of Engineers Australia by Andrew Forster-Knight, Group Manager Intelligent Systems, South East Water Biography: Andrew Forster-Knight has worked in the operation technology team at SEW for 13 years. He has a double degree in chemical engineering and science from Monash University. He is a patent holder of 3 patents for sensor and telemetry technology. He is passionate about innovation and excited about the possibilities of IoT. Introduction South East Water (SEW) is a government-owned statutory authority servicing over 1.6 million connections in the South East of Melbourne. SEW’s water network run from the Melbourne CBD down to the tip of the Mornington Peninsula, and up almost to Gippsland. The authority has 750,000 customers, growing at approximately 20,000 customers per year. It has billions of dollars’ worth of fixed assets, like pipe works, and about 24,000km of water and wastewater. SEW operates both a drinking water network and a sewage disposal network, as well as seven Class A Quality treatment plants that go along with those and some recycled water technology as well. This network includes: 350 + sewage pumping stations 200+ water pumping stations/ PRVs 70+ water storage facilities, 4000 + Pressure Sewer stations South East Water is different to many other water authorities because it maintains much of its expertise in-house. A key organisational driver for the organisation is around innovation, which can ultimately add value to the customer, effectively making their bills cheaper, through efficiency gains. A decade ago SEW operated a radio-based telemetry system but has now made the transition to a fully IP-based network, largely based on high-speed cellular communications, as well as some fixed fibre as well. In the past only large assets, such as the really big pumping stations and water tanks, had telemetry but with the high-speed backbones, SEW now has a much wider range of telemetry points including IP-based cameras, card access systems and other networks as well. In terms of the Internet of Things (IoT) the most significant development is the SEW is now augmenting that traditional high-speed network with the low-power, low data rate sensors. Currently, SEW has around 1,000 battery-powered sensors and this is expected to grow to around 6 million in the next 5 to 10 years. In total, SEW collects about 100,000 points in real time back to its data centre and through to our different enterprise departments and different analytics tools. Flow and rainfall ingress SEW’s journey began about 10 years ago when it designed a device, which by today's standard is quite primitive, which was a sewer manhole overflow detector. If there was a blockage in the sewer, it would rise up, tip a switch and the device would send an SMS which we’d capture, and process through our system. The thousand battery-powered devices that we've got in the network now, are iterations from that initial technology, now using data connectivity over the cellular network, standards-based protocols such as DNP3, and often incorporating smarter sensors using microelectromechanical systems (MEMS). A MEMs-based gas sensor for detecting hydrogen sulphide in the sewer developed in-house by SEW For example, rather than mechanical level devices, we use ultrasonics to scan the sewer to get a flow measure which we then integrate the systems in the cloud that are connected to the Bureau of Meteorology data. As soon as a rain event comes through the system, the data is automatically analysed, and we can try and pinpoint where rain is infiltrating our sewer network. Rainfall ingress is one of the major problems for sewage networks because obviously, we end up treating rainwater in our treatment plants, increasing costs. “If we can fix that problem with IOT technology, it will put us a long way forward and justify the installation expenses”, Forster-Knight said. Network pressure Another IOT application includes measuring water network flow pressure. Using traditional monitoring approaches, you have to build a cabinet on the street with electricity connection, secure a footprint of land there, install traditional telemetry gear in and flow metering equipment. SEW estimated the costs at between $30,000 and $50,000 just to get a flow monitoring point. The onset of the battery-powered IOT technology that’s available now has allowed SEW to miniaturise that. All the equipment, including a highly powered low-flow detecting mag flow meter, with bi-directional flow recording, pressure-sensing, and water quality, can now fit in a small plastic pit. That's sending data back daily, and alarms in real time. We can do this with a battery because you only wake the equipment up from deep sleep to send data on certain conditions. The price point of IOT driven technology for the same application is around $3,000 to $5,000 mark, allowing SEW to put many hundreds more of these into the network. The IOT approach has allowed SEW to develop virtual District Metering Areas to detect if there is any leakage in a zone of the network. Traditionally to do that, you'd have to close the entire zone down using mechanical valves and have one feed-in so that you can detect when there’s potential leakage. Having many more sensors deployed using two-way flow sensors allows SEW to create virtual zones by placing measurement devices at strategic locations. SEW can then do automated flow balance without having to compromise the integrity or operation of the network. SEW’s operational crews are now armed with a simple traffic light interface which highlights which zones are showing signs of leakage or pressure issues, allowing them to target their leak detection efforts. Previously leak detection crews would walk the entire network over a three period, using listening sticks, and then start again. This is improving both efficiency and accuracy, allowing SEW to find major leaks that may have gone undetected. Laboratory on a chip SEW has also explored lab-on-chip technology in the water quality space, measuring for example free chlorine residuals. This is a very expensive process to do traditionally with large-scale assets required. By contrast, SEW is now using low-power printed sensors from a US company at a fraction of the cost, again allowing much greater distribution of the sensors. Similar sensors are being used for odour detectors that previously cost thousands, with associated powered sites, now available for $20 to $50. Automated Valves Another IOT technology SEW has embraced is a battery powered valve actuator from a small German company. SEW has hundreds of thousands of valves which are still mostly manually actuated, requiring an operator to go out with a large mechanical key. Valves can get stuck quite easily and there is traditionally no-visibility of the valve state or status (open or closed). An automated valve in the town of Nar Nar Goon in the Gippsland district The valves have cellular communications with microprocessors intelligently controlling the valve simulating human control with the ability to open the valve fast at first or slow, as required. The valve is powered by a briefcase size pack of lithium batteries buried next to the actuator. Again the valve is not awake all the time but responds to wake up call delivered via the SCADA system and the cellular modem. It also does a data session so it's really optimised for low power. So far we've been getting about two years life out of the battery pack, and then it's just a hot swap in the field with a recharged battery pack. SEW has installed about 35 of these devices so far, putting them where it makes strategic sense, like for flushing purposes. Traditionally an operator would open a valve and return four hours later to close it. So this really simple task can now be fully automated on both drinking water and wastewater networks. The network operators can now manipulate network flows, simply by clicking a button in the SCADA system, which is integrated with the sewer overflow detectors and the weather system as well. If the sewer network needs to have capacity, we can shut it down slightly. Forster-Knight said: “For a water or a wastewater company, the ability to control and manipulate your network in real time, from the back office is a huge step forward.” Pressure Sewers Another application that has developed is around its pressure sewer systems. Pressure sewers are effectively a replacement for the septic tank, normally found in rural areas, which can be an environmental risk if not maintained properly. With pressure sewers, every property gets a tank with a submersible pump and is connected into a much smaller version of the sewer system normally found in metropolitan areas. Working with local partners SEW has connected each installation via 3G cellular providing control and monitoring of each individual property. Because each property has to hold capacity, this allows SEW to smooth out the peak flows and pump during lower peak periods. “That's got huge ramifications for downstream investment. For example, it means we can use smaller pipes. We can use smaller transfer pump stations, and ultimately at our treatment plants, we can either defer major investment in the head works or downsize as required. That's where multi-million dollar savings have come through from an algorithm, running across thousands of machine to machine (M2M) connections,” Forster-Knight said. The current discharge profile is a typical diurnal flow pattern in a gravity sewer network, with morning and afternoon peaks. With pressure sewer, we have algorithms that hold certain pumps off, depending on how full the tank is, and empty them later in the day. The pressure sewer system also provides an analytical capability that SEW has never had before. For, example it is able to monitor pumps turning on and correlate it to rainfall data. If pumps turn on more frequently during rainfall it’s an indication there is a leak in a customer’s property and that’s something that we can feed back to them or it may be an indication of an illegal connection. Rainwater tank control Another application SEW has implemented is the manipulation of rainwater tanks to prevent flooding of local creeks and stormwater systems. SEE has instrumented a series of residence households so that they all don't discharge into the system at peak periods. Forster-Knight said: “The issue is that residents like to keep their rainwater tanks full. If they are empty and you get a storm, that buffers it okay. However, if another storm comes through the next day, you get still that huge runoff and the system can't handle it. “We thought there must be a smarter way. So we’ve put devices on every house now that measures the level of the tank. They talk to each other in real time, and also back to our central system. Once they get the prediction of the weather, they work themselves out so that they’ll each discharge their flow before the storm hits.” Every house is mapped by its roof size, and it’s a self-learning system. Every time it rains, the algorithm learns what happens to its tank profile, but the end-result is a smoother discharge into the stormwater system. This system has big benefits for suburbs that have constrained areas of stormwater, where the houses are so dense that normally there's not much that can be done. Typically every time it rains, their streets flood. As part of the system, SEW developed a smartphone app to give them visibility as to when it’s going to discharge, allowing them to do their own planning around it. Low Power Wide Area Networks Over the last 10 years, SEW’s battery powered smart devices were largely based on cellular communications. However, to move from thousands of devices to millions, Forster-Knight said SEW needs a low power wide area network. The issue is that cellular communications based devices still draw too much power compared to those operating on an LPWAN. A couple of years ago, South East Water went to market, for an LPWAN and got responses from around the globe. It shortlisted some technologies and did extensive trials. “All the technologies largely did what they said on the box, but the business models didn’t add up. The issue was that the ecosystems weren't there. We required an open system, with everything interoperable and secure. Really, we wanted the full wish list – battery mesh technology, long-range systems and the like, but we would have had to compromise because at the time the technology wasn't there. So we halted the project because we knew we wouldn't reach our vision for an IoT network.” Forster-Knight said. “However, in the last two years, a lot has changed, and it's going to continue to change. I think with the technologies that are emerging now, we will be able to get to the 10 to 15 years battery life that we need for our next phase of devices.” SEW is focusing their current investigations on NarrowBand IoT and LORAWan technology, with trials of both. Forster-Knight claimed they were among the most extensive trials in Australia and probably the world, for NB-IoT especially. What makes these systems attractive is their subscription-based approach, where the network will be there, making it plug and play. Forster-Knight said their ecosystems are already growing, and they “should be huge” in the next couple of years, providing a degree of future proofing and driving the cost down. NB-IoT is a licenced spectrum, so you get quality of service and a robust communications network. The LORAWan technology is currently in ISM free spectrum but is a strong contender according to Forster-Knight. Trialling process The trialling process begins with the Telcos providing SEW with desktop RF models, based on a terrain of Google Earth and others data sources. This allows predictions to be made. The next step is to conduct extent testing, with crews in the field driving and walking the streets to recalibrate those extents. The green area is the prediction of the extent of LPWAN coverage, which needs to be confirmed and calibrated. Within those areas of coverage, SEW is conducting extensive testing in the order of 50 to 100 test cases a day, covering every scenario, such as water meters, manhole sensors, fire hydrant sensors, near power stations, bodies of water, basements and even buried. We will be deploying between 700,000 and 800,000 devices just for our digital water meters and we have many more applications we want to do like those discussed so far. There should be over a million devices on this network. Our network will ultimately be an integration of our existing SCADA system with high-speed gateways on critical infrastructure integrated with the LPWAN for the non-critical stuff. Everything battery powered will migrate to the LPWAN network because the modules are going to be cheaper and the battery life is going to be longer. For any new capabilities, we will aim to leverage the same network. Operational management To manage all the data coming from the network, SEW built a network operations centre (NOC) at its new offices. This allows visualisation and control of all the devices in this case study in addition to CCTV and traditional SCADA. Engineers working in SEW’s Network Operations Centre. The NOC includes a six-panel display for detailed data and a large screen for situational awareness. We have real-time rotating networks through our sewer and water stations. All data analytics is done in this network operation centre. We have communications topology alerts, alarms, and health status as well as a rover system that interconnects all of the different corporate systems and will autonomously drill down as something happens in the network. “For example, if we have somebody open a door on an asset on the middle of the Peninsula, that will automatically drill down and it’ll tell you what vehicles are nearby, what jobs have been logged, any trends from the SCADA system,” Forster-Knight said. “It's a situational awareness tool that continually rotates throughout the day, and just gives that heads up to our operators so that nothing's ever missed. “As the IoT network rolls out the NOC Centre will really come into its own and the operations will really change and allow us to focus more on our core business of wastewater management.” Questions and Answers All questions from webinar participants All answers by Andrew Forster-Knight, Group Manager Intelligent Systems, South East Water Question: “What is the typical battery life?” Answer: That depends on the application. For something simple like an overflow switch that talks via exception and reports in a health check, you’ll you get ten years out of the primary lithium cells. For metering devices, the target life is 15 years with daily transmission and a payload of approximately 100 bytes. For more advanced stuff like water quality and flow measurement, we typically get between three and five years of battery life and that's a battery change onsite. We have a couple of patents in this area. One is for a low powered MEMS-based sensor where battery life is absolutely fundamental, so the entire design is built around a microcontroller that can run on an ultra-low current but is powerful enough to run any algorithms needed and still do all the communication. The device is called a Blockaid which includes an ultrasonic device with MEMs based gas sensors in it and includes some advanced algorithms optimised for running on a battery powered device. Question: What other patents do you have? Answer: One of the other patents that I’m involved with is a product called the OneBox, which is essentially a telemetry system, but it’s only using embedded electronics and has an algorithm. Again, the algorithms running on it integrate with our cloud-based systems to optimise those peak flows and smooth them out of the network. They're largely the two main ones that have been involved with, so everything from the core design through to user interfaces, and all-encompassing in the patents. Question: Is it your intention to market those products over water utilities? Answer: Yes. South East Water has a commercial arm called IOTA (http://www.iota.net.au/). Their mandate is to pick innovations out of South East Water, commercialise them and productize them and then take them outside of Victorian and outside of Australia which they have been doing. In Victoria, it's generally a shared system, so many of our innovations we will effectively give to any other Victorian Water Authority. We’re all owned by the same stakeholder being the Victorian government, but outside of that, there’s a commercial offering through our partners. Question: How are you securing your system? Are you concerned about network breaches?” Answer: Yes, security is at the forefront of everyone's mind here. With the networks we've got now, it's all cellular based but it’s all private network. We've got fibre into our buildings from the large Telcos so nothing goes over the public internet. Our protocols are encrypted where we ’re doing command and control. We've got some security from that aspect. Then there's the obvious physical security and everything else where the way we try and protect against that is for our remote assets is all about cameras, access control, and electronic keys. From there all the way through to our back-end systems. We’ve got security in place. We’re not saying that we’ve absolutely mastered that because I'm sure we haven't, but we're pretty comfortable in what we've got. It would take a huge effort for somebody to penetrate that network, and we do periodic penetration testing. For somebody sitting outside of our network and trying to wirelessly get in would be very difficult. Question: How much data are you sending per day from a typical monitoring station?” Answer: For devices where we want to get the 10 to 15 years battery life, we won’t be doing any more than 100 bytes a day, so really small packets on that low power Wide Area Network. For our traditional SCADA systems, where telemetry data is quite small, it would probably be around two to five kilobytes a day of real-time data. Because we're using them as gateways for cameras and other such devices, we get up to a couple of megabytes a day, and in some cases many megabytes depending on the activity the camera side. We've got over 9,500 M2M, SIM-card based connections. We use a platform called Jasper where you can optimise the profiles of all the SIM cards to share the costs across them, so whether it's a camera system, a laptop, or a telemetry device, we smooth them out. Roughly speaking we pay under $3 a month per device across that entire network. Question: Do you use edge computing concepts to minimise data transfer? Answer: It's not something we've done a heap of, but there’s a really big use case coming up for that it which is the disaggregation of flow data. That's done in the electricity AMI network now. They’re doing that where they can desegregate your data to say that your electricity is getting used on your washing machine, your fridge, etc by pulling it apart and doing pattern recognition. On the electricity side, they've got the benefit of having everything powered, so they can get that ten-second data grabs or even more frequently back through their IP backhaul. For us, that's going to be done with battery devices. We can't send that amount of data, so we do have to do that with edge computing. For example, water meters will have to process that data themselves. So they have to be super-efficient in order to do that and being able to send out summaries of that. This is a future thing. It's probably a few years away or a year, but our thinking is that the meters will do all of the processing as sufficiently as possible for a battery device, and send summaries of the disaggregation. That's definitely something in our thinking right now. Question: Is there any size limitation on the battery packs for actuated valves?” Answer: There's not. We get what the vendor provides at the moment, which is a briefcase size pack of regulated lithium batteries that are rechargeable. There probably isn't a limit to the size, but I think practicality it has to come into it. The bigger that battery pack, the more real estate, and the bigger the pit potential you have to dig and bury et cetera. But for our thinking getting two years out of a rechargeable battery pack, and being able to actuate a valve in real time is probably a good sweet spot for us. There has been some talk about building photovoltaic cells into the manhole covers, to trickle charge those batteries. We’re weighing up the investment to do that versus sending someone out for a 20-minute change over every couple of years, so it's a balancing act. Question: There have been news reports of lithium batteries blowing up in cell phones. Are there any concerns about that kind of thing happening in these battery-powered devices? Answer: For all of the stuff we do I the sewer network we actually lithium batteries that are intrinsically safe, certified. We have to be really careful about that because the gas build up in the sewer network could be explosive potentially. We pick the batteries that are designed to get that ATEX certification and they're generally pretty safe. Question: With so many sensors in the field, how do you prevent nuisance alarms from flooding the operator with alarms and notifications? Answer: That's something that can really kill a project or an initiative if you are flooding and spamming them with alarms. It’s about careful control and commissioning I guess of these devices. We discuss with the operations teams the threshold and alarm limits that are agreed on. With that said, all our devices are generally two-way communications, so that if there are thresholds causing nuisance alarms, we can quickly reconfigure them. It's not a huge issue for us because our analytics show the high frequency of alarms and we can get onto them pretty quickly. Question: Do you have a ballpark cost for a valve actuator?” Answer: It's around probably AU$15,000 by the time you install it, with road work and an excavator. The equipment itself is probably in the order of $10,000. It's a small start-up building these devices and they don't have a huge scale, but we think that will come over time. We're helping them to innovate and make them smaller and cheaper, but even at that price, they probably a fifth of the cost to do it the traditional way, which is building an actual chamber, and then having power from the grid power to do all that stuff. To us, it's a no-brainer to get the battery one. Question: Can you please explain how you work with the Bureau of Meteorology (BOM) in sourcing their data, and do you provide them with your data as well? Answer: We work pretty closely with the BOM head office here in Melbourne, as well as the other third parties weather date providers such as Weatherzone. We wrap all the data up at the integration layer in some REST APIs . Question: Who pays for the pressure sewer stations at the customer’s house, and who is responsible for maintaining parts? Answer: Some people that have been on backlog scheme for many years where they get this technology available get that device for free. Others that want to connect early pay a token contribution fee and that’s largely where the growth is coming from. SEW effectively maintains and operates every single pump, on behalf of the customer, so the customer doesn't touch the device. For the really high-value properties down, especially down the peninsula, you can’t subdivide if you've got a septic tank. But if you put a pressure sewer pump in, where you can choose the location of it, all of a sudden they can open up their land. Questions: Apart from power, what are the other advantages of LPWAN. Answer: With traditional cellular technologies like 3G or 4G, anything underground you may get a signal or you may not, and so there's a lot of use of external aerials etc. When you go to low power Wide Area that’s using NarrowBand technology, so a really small slice of the spectrum. With that you get a better penetration, so for example in the case of NarrowBand IoT, it's a 20 dB gain on existing GPRS technology. If you can imagine wherever you get a phone signal now and where it just drops out, in the case of NarrowBand IoT it's another 20 dB further penetration than that, which typically works at about seven times the distance. If you can imagine that all of a sudden this penetration is much better than what your current cellular technology is. With LPWAN, we can go further to those hard to reach places, like water meters under manhole covers etc. Also, there are a lot of cellular black spots right now, which under the low power wide area will line up and be available. Question: What type of algorithms are you using? Is it a genetic algorithm, or another such as the fuzzy logic control? What are using for sewer pumping stations level control? Answer: We do machine learning and we use the Microsoft Azure platform for a few things, but that's largely around water and network link detection. For the sewer algorithm, they're probably not that advanced. They’re typically reverse engineering flow curves, and putting polynomials around that so that we can, within the realms of an RTU or a small control app, apply basic controls to adjust the pumps to where they need to be. Question: Surely having a 3G SIM on 4000 plus tanks is cost prohibitive and uncompetitive. Answer: You've got to weigh up what you call uncompetitive in terms of costs. Six or seven years ago the proposed approached was to sewer the entire Peninsula using traditional gravity means and it was going to cost around $500 million to do it. You have no guarantee that somebody is going to connect in, with massive pipes, deep trenching, property and road description. With pressure sewer that all goes away. We delivered it for about $250 million just by the change of technology and deferred major capital investment. Also, the benefits from the ability to monitor each house in real time are pretty insignificant. The SIM costs are about a couple of dollars a month per device but we get much more value back in the return on investment through the data and control we get. Question: Can you please advise a typical cost per point for a connection that you are looking at to achieve for the system? Have you done any cost-benefit analysis? How do you justify the investment? Answer: There are some prices in the market for LPWAN technologies already through Sigfox and LoRA. My personal view, looking at the business cases I need to mount, is that LPWAN connection fees need to be no more than about $5 per endpoint per year, which is a fairly substantial reduction versus the current cellular costs of about $36. Cost-benefit analysis is done on a case by case basis and takes into account the risks. For example, with a single sewer spill, we could be up for hundreds of thousands of dollars in damage and insurance and EPI, etc. In addition, we get the benefit of securing our network. With the case of the IoT network and the million devices, we will absolutely be giving a robust business case that will have to stand up to scrutiny by government and others. It will be challenged and pulled apart, so for every aspect of this network, the feasibility of it will be really rigorous. Question: Has it been considered that you implement solar panels into the existing networks to maintain the battery charge?” Answer: Yes, we're working with a couple of R&D companies because we would like them integrated into covers etc to prevent theft. Nothing really exists off the shelf so we have to do the R&D. The question for us is how much do we spend in terms of design and R&D and potential maintenance of these cells versus putting a rechargeable battery in there and getting out there every couple years to replace it. Question: Is there a back up to the 3G network applications you had.” Answer: We actually run dual SIM, so we use multiple carriers both with private networks, fired back into our main data centres and also our disaster recovery site. If one of the Telcos or the signal is down for whatever reason the system will automatically switch to a completely independent carrier, and the signal will come through that way, so that's how we handle the redundancy. It's a good question because a lot of our critical assets are on that. Some of them we do have fibre too, but largely speaking it's much more efficient and easy for us to put a 4G dual SIM router, and have two independent carriers to do the backup. Question: Do you foresee any customer behaviour change programmes to help even out water services demand as is done for electricity demand in the electricity industry. Answer: That gets talked about very often here but I don't see it happening in the immediate future. At the moment we don’t have the time of use and the only way we're really going to get there is to have a digital metering network to get that data. You can change behaviour a bit in terms of how much people are using, but when as to when people are going to have a shower, or use water, some people see it philosophically a little bit different. However, if we did that we would get a lot of value. A lot of our assets are over-designed. If we could actually reduce demand and have it consistently reduced, we could downsize or defer augmentation. There’s a really big value in it and we're looking at it. Question: When you mention the reduction in pumping sizes and smoothing out of pumping load, have there been any other initiatives that have been aimed specifically at energy savings? Answer: We actually integrate directly with the Australian Energy Market Operator. We've got pool pricing, where we follow the price of the market and we actually shed when the price goes high by turning off operations at the treatment plant or run off diesel generators. That actually saves us a couple of hundred thousand dollars a year in electricity. We also do a heap of off-peak pumping demand forecasting to take pumps out of the peak time. Lots of little initiatives like that. Question: Has any residential smart water metering been rolled out in the network, and if so which technology? Answer: There's been a lot of trials in Australia and it’s a big focus in California. With the drought, there are arguments to say that if we had digital meters we potentially could have deferred Desalination because the efficiencies wouldn’t be that great. Around the world others have picked a technology and run with it, so they're largely AMR or AMI based systems using proprietary technology. We want IOT technology with open standards and that is only starting to happen now. There have been some announcements based on LoRA and also around SigFox which is in the proprietary bucket but with a big ecosystem. The Victorian Authority has done trials with different tech, and now I guess we're all looking for one that's going to stand up to a robust business case and deliver the customer value. Question: How does this of subscription system for Telecom assets works. Answer: For the current cellular system we use for M2M, that's a monthly fee based on the amount of data. I think there will be a similar process for the low power wide area networks. I think they will still have a tiered system where if you go over certain bytes or kilobytes you transfer into a different system, but largely speaking I expect that to be a fixed fee per year to get the data delivered to your door. Question: Do any of the Australian mobile carriers support LORAWAN network? Answer: No, not to my knowledge, but there are quite a few emerging companies that are going to become telecommunication providers for LORAWan, so in their own rights there will be Telcos providing an IoT network. Question: Do you have any issues with the penetration of water into the devices? Answer: It's a huge issue that we identified very early on. So we use IP 68 ratings, actually certifying to that and are potting electronics. That’s pretty much a standard now for any battery device we put out in the field. Question: This technology seems like it can be used in conjunction with Telstra Air. Would it be possible for Telstra to upgrade the SIM cards and allow them to also meet hotspots at Telstra Air network?” Answer: Yes, that’s effectively what it is. In the case of NarrowBand IoT, the Telcos will literally be reusing the same towers. In a lot of cases, it'll be a software upgrade to their cell tower and they’ll automatically be enabled for NarrowBand IoT. It will be a very minimal change for the Telcos and because it's licenced, the Telstra Air stuff is obviously Wi-Fi, this is a NarrowBand technology will work for the little devices sending small bytes of data, but yeah it's going to be an easy upgrade process for the Telcos.
  3. 2 points
    Contact information for WPLAN systems and operators in Australia: Ingenu http://www.ingenu.com/ http://www.iotoz.com.au/ LoRa https://www.lora-alliance.org/ http://meshed.com.au/ https://www.thethingsnetwork.org/ http://www.nnnco.com.au/ NB-IoT http://www.3gpp.org/http://www.3gpp.org/news-events/3gpp-news/1785-nb_iot_complete SIGFOX https://www.sigfox.com/ http://www.thinxtra.com/ Taggle http://www.taggle.com.au/
  4. 2 points
    IMHO... IOT is a user of technologies rather than a being a technology itself so there is no single set of standards governing IOT. Device developers choose technologies based on the constraints they operate under. There are two broad categories of standards in which to make choices: network access (comprising the physical and data-link layers) and application protocol. A lot of standards that have been mentioned previously have to do with network access (Bluetooth, Zigbee, wifi, etc). These standards can be used by IOT but were not designed specifically for IOT. At the application layer, there are some protocols that could come to dominate the field - whether that will be MQTT, REST API, or something else is yet to be seen. I don't see that any standards org is going to come out and dictate that IOT must use this or that particular access method. A comparable analogy would be that no one dictates to you how you access the Internet - you may have ADSL, cable, mobile broadband, or some other means. However, once you are connected, if you want to browse the web, you must have a client that speaks HTTP at the application layer. Standardisation of the application layer would make IOT devices more inter-operable, and should enable a company that runs an IOT network to move from one service provider to another.
  5. 2 points
    Please contribute to this thread by adding information about government and other support and collaboration opportunities available to startups and other developers in the IoT space. Below is a start on this. Australian Govt Support R&D tax incentive https://www.business.gov.au/assistance/research-and-development-tax-incentive Commercialisation support https://www.business.gov.au/assistance The Industry Growth Centres http://www.industry.gov.au/industry/Industry-Growth-Centres/Pages/default.aspx IoT Alliance - Collaboration http://www.commsalliance.com.au/Documents/Publications-by-Topic/IoT http://www.iot.org.au/ http://www.iot.org.au/workstreams/ Workstream 6 is on IoT Innovation
  6. 2 points
    Following are some Ideas for community outputs gleaned from our initial survey and research. The text in brackets are my interpretation of what the output could look like. Please comment below on what other things you might like. Explanatory guides/webinars An overview of the basic framework. e.g. What happens after the front end data is collected. [An overall framework of IOT, spelled out in basic technical detail, i.e. the Body of Knowledge Framework] Reference guide to common acronyms. [Glossary with simply English explanations, part of wiki?] IOT for other engineers [A plain English version assuming no ICT knowledge whatsoever] Commercial guidance - what are current models and why aren't they suitable for the new technologies. + How others justify investment towards IOT technologies and what is happening in Australia [1)How to build a business case, and 2) How to select the right technology set] Guide to IoT standards and protocols Examples/Case studies of applications [1) to spark imagination of what is possible, and 2) Demystifies IOT] Expert forums where i can get in touch with people involved in IOT rollouts [Links to more specialist forums?] Industry/discipline specific application guides (electrical dist x2, power generation x2, asset mgt, mining,civil, geotechnical, mechanical [What would this look like? What is different between industries?] Guide to relevant grants supporting innovation using IOT Advanced tools Risk assessment methodologies needed when complex technologies are integrated. [Risk engineering guide for IOT] How IOT can be secure and be accessible for public development [Guide to security issues] Rasperry Pi or Arduino interfacing to environmental monitoring sensors and ("conventional") control systems, and expanding from there. [??] IOT Testing Lab for engineers to play and test solutions Product technology selection “IoT is so varied it can be daunting finding the right thing (product or service).” + “Access to high level but also detailed information about current technologies, products and challenges. Low priced self data analytics [Guides to specific segments of the IOT framework] Guides on wireless/satellite communications and power consumption. A directory of product / service providers. [Integrated guide, showing how providers focus on different parts of the IOT framework and different industries] new product/innovation newsletter Other STEM outreach guides i.e. IOT for high school students IOT challenge for engineering students Please comment below with additional suggestions.
  7. 2 points
    As far as buzzwords go, the Internet of Things (IOT) is breaking all records. Topping the Gartner Hype Curve for the last two years running, it has been described as THE defining technological trend of the next decade. The hype is around the projections that IOT technology will impact the vast majority of business processes in virtually every industry, effectively transforming the Internet and our economy as we know it. The message is clear for engineers starting their career – you need to know about this important technology if you want to have a full spectrum of skills that are attractive to employers of the future. IOT refers to the integration of physical objects with a range of communication technologies, enabling them to be monitored and/or controlled remotely over the internet. You can learn more about the technology in our Introduction to IOT, but a key message is that the opportunity is greatest for those prepared to understand how IOT can deliver innovation and provide leadership in building the business case for change in their field and in their organisations. To support our members, Engineers Australia is launching an online Community of Practice on 5 July 2016, called the Applied IOT Engineering Community. It’s a new and completely free service to student and graduate members, championed by the Information Technology and Electronics College of Engineers Australia. A key point of difference is that the community will primarily be online, allowing you to participate from your own desk or mobile device. This means regional members and those too busy to make face to face meetings can participate fully. Over the course of the next year we will have 48 webinars on the subject of IOT. If you participate in all of these and other community activities, it’s like getting a new qualification completely free. The first four webinars complement each other to provide a comprehensive overview, so we encourage you to sign up for those as a minimum. In addition, the community is supported by an online community platform with a calendar of events, discussion forum, member blogs, social media functions, a wiki and document library. The more ambitious young engineers will be actively participating in online discussion and using the social media function of the platform to blog their ideas about how to apply IOT in their field. This will help you build your thought leadership reputation and enhance career opportunities through building a following. A specific opportunity for recent graduates is to take up an official volunteer role to help run the community and manage the website. This is a great option for graduates seeking to network for job opportunities and add a current role to their resume. For further information, contact the community facilitator Tim Kannegieter, on <iotengineering@engineersaustralia.org.au>.
  8. 2 points
    Hi Geoff Three of us at MEA listened to your inaugural talk this morning on the IoT and thoroughly enjoyed it. You handled question time with panache and told us a few things we didn't know (SigFox - whatever that is - heading the list...) You also mentioned that folks likely to field a 'top-to-bottom' solution for an IoT application were still in the future, and likely to need a team of about 20 good folks to pull it off. Even counting our sales, marketing and administration folk - plus external industrial design and manufacturing support - brings us no-where near that number of staff. Yet we have built and are operating over a thousand on-farm IoT nodes across Australia, moving soil moisture and climate data to the cloud (our 'Green Brain' web app) with data available 'any time, anywhere' on an irrigator's mobile. But your point is valid - the IoT is a multi-disciplinary field requiring a very broad approach to engineering, product development and customer support. To end on a lighter note, one of our engineers found this IoT quote somewhere on-line: - “IoT is like teenage sex: Everyone talks about it, nobody really knows how to do it. Everyone thinks everyone else is doing it, so everyone claims they are doing it too.” Andrew (at MEA in Adelaide)
  9. 2 points
    Hi Andrew, the topic you raise is spot on, and is a core item I will address in my webinar on 5th July. The IoT when considered top-to-bottom - ie from the Cloud down to deloyed Things - encompasses just about every facet of ICT, software engineering and and electronics engineering. There are at least a dozen technology elements, each of which has a steep learing curve. And add to that the required knowledge of the system where IoT is to be applied. That said, many aspects of IoT technology are not new - just used in and integrated manner, often by engineers who are expert in the field where they wish to use IoT, but not in the actual IoT technologies themselves. One of the primary drivers for forming this community was the need to provide a means for those involved in IoT - both technology providers and technology adopters - to come together to help build critical mass.
  10. 2 points
    New community site is online!
  11. 1 point
    When all is said and done, there has usually been more said than done! This is surely true of the IoT. I agree with IoT’s promise, but see few of its practitioners. Much of the IoT hype talks about connecting the fridge to the stove, although why, I can’t imagine. Business cannot thrive without customers, and who are they in IoT land, once the Early Adopters have tired of its promise? I can claim some small expertise in this area, having successfully launched an On-Farm Internet-of Sensors system called Plexus three years ago, moving soil moisture and climate data using solar-powered mesh networks across the farm and up to a web-application in the cloud that allows farmers to access their irrigation data from anywhere, at any time. To break into this field required a huge investment of funds over three years, a multi-disciplinary approach that hauled together electronic, mechanical, communications and software engineers, plus external industrial design skills, a manufacturing link into China, all sorts of technical skills to set up the production line, and some thirty years of previous environmental measurements in the bush merely to battle-harden the troops. Then you have to sell it and keep it working until you’ve crossed the ‘valley of death’ between early adopters and the early majority. So the hard reality is that breaking into the whole IoT technological arena is non-trivial; it’s no place for the faint-of-heart or the weak-of-purse or the inexperienced-yet-hopeful. But it is fun, and at last, slightly lucrative. Dr Andrew Skinner FIEAust CPEng NER South Australian Professional Engineer of the Year, 2015
  12. 1 point
    Introduction IoT engineers need the ability to think at a systems level, and acquire cross-domain skills across engineering, business and application sectors. The main technical skill domains for IoT can be simplified to sensors and embedded systems, data analytics and integration, security, and IoT platform interoperability. To commercialise IoT solutions through startups or other commercial structures, business planning and innovation skills are also important. Having skills that span business engineering and multiple application areas can be very useful for IoT engineers, business people and other professionals. For example, being able to conceptualise how IoT systems can be applied to the needs of specific industries, or used to address cross-industry issues such as climate change or mobility. As the IoT uses similar technologies to address the needs of multiple industries and cross-industry applications, it is likely that as IoT uptake grows, the demand for IoT professionals will fall at the intersection of engineering, business and domain skill sets as shown in the diagram below. Diagram courtesy of Frank Zeichner, University of Technology Sydney. Another reason to expand skills beyond the technical domain is the need to understand the market context of IoT solutions in particular application industries. For example when designing the physical nature of Things and their required data analytics, IoT professionals need to understand why the Things have been deployed, where they are deployed and their value to the owner. The IoT Alliance Australia has done some work in mapping skills to IoT roles. A summary of the skills mix for some key roles for IoT engineers and business professionals is shown in the diagram below. Diagram courtesy of Frank Zeichner, University of Technology Sydney. Many of these skill levels are yet to be attained. For example, board members’ knowledge of IoT data security and how it relates to risk management is typically quite low. It is also a challenge to up-skill staff while maintaining business as usual. IoT education Formal education and skills development for IoT is in its very early days. The IoT is a complex ecosystem of technologies, sensing, actuating, communications applications and services, visualisation, security and operating systems. While academic courses for individual technical elements are plentiful, not many cover all or most of these areas, as well as incorporating business skills and domain specific learning. A non-exhaustive list of Australian courses that cover some IoT skills areas are shown in the table below. Diagram courtesy of Frank Zeichner, University of Technology Sydney. Accrediting bodies within Australia for the development of IoT education courses are shown in the following table. Diagram courtesy of Frank Zeichner, University of Technology Sydney. The emerging model for tertiary education in IoT is shorter, more focused units, and there is also a key role to be played by skill-based learning in the VET sector. It is likely that these two sectors will overlap for IoT education. There is also considerable industry involvement in developing courses to give IoT professionals the skills that they will need in the workforce. Because the IoT is changing the models of how we collect, share, analyse and interpret data, much IoT skill development will be gained through trialling and piloting solutions in real world contexts, which can then be recorded and eventually passed on through formal education. Educational institutions are also starting to embed industry and application specific practical exercises in their courses, to allow graduates to be more ready to conceptualise and solve problems in practical and business contexts. Engineering IoT skill sets Engineers wishing to enter the field of IOT have a number learning curves they need to go up in order to become fully competent. The diagram lists general areas where learning curves must be tackled, with just a few examples are relevant to those particular areas in the right hand column. Table by Geoff Sizer, CEO, Genesys Electronics Design At the systems level, IOT involves quite complex systems, so we need to conceptualize, visualize and specify what those systems must be. A business case must be developed that make sense and convinces those controlling the purse strings that there's a benefit or money to be made. If accepted, we then need to implement it. Because of the cross-disciplinary skills required, for most parties, this will mean finding experts who can assist them in the process. User interfaces present their challenges in that you have to decide what platform, what the user interface will look like. What are the design approaches to reducing the complexity experienced by the user? Then of course we have the design skills required to implement user interfaces on platforms such as iOS and Android and mobile devices, and web browsers. A thick client is a client application running on the end platform that providers a higher level of capability than a simple web browser. In terms of cloud services, we need to select a platform, establish and then operate the services on that platform. The virtual servers running in the cloud typically are hosting the database and big data analytics are applied over this, feeding back into the user interface. In terms of connectivity, we have wide area networks and low-powered wide area networks emerging, and then local area networks and personal area networks. Collectively, these provide connectivity between the cloud services and user interfaces, and the databases, down to the deployed things. This is hierarchy is typical. LTE stands for long-term evolution of cellular data and cellular telephony. 3G, 4G, 5G, and emerging Narrowband IoT. There are also standalone systems separate from the telecommunications network, providing wide area connectivity for extremely low-power devices at low cost. e.g. Sigfox, LORA, Ingenu and Taggle. Local area networks and personal area networks, there are ones that people will be familiar with. Typically Bluetooth and perhaps USB and WiFi and Ethernet. Cable-based connection systems still play their part, so Ethernet, RS-485 and CAN bus, and wireless mesh networks. Zigbee, people may be familiar with, but the 6LoWPAN, which is an open source equivalent of that, providing meshed wireless connectivity down at the premises or deploy site level. Things are the devices themselves. Challenges exist in this area because a thing consists not only of the electronics and firmware to undertake the core function of the device, but also the elements required to provide connectivity. A developer in this space may be familiar with what he needs to do to control the device or interface with the system down at the deployed equipment level, but achieving connectivity back up the chain to the rest of the Internet of Things may be an additional challenge outside of a core skillset that then requires additional expertise. For student engineers and recent graduates, the Internet of Things will provide a rewarding career paths and there are plenty of opportunities for more experienced professionals. The slide below outlines career paths from the perspective of ICT, electronics and software professionals, and considers emerging and evolving technologies where new skill sets will have to proliferate through the engineering community. Table by Geoff Sizer, CEO, Genesys Electronics Design There are parallel skill sets to be learned, particularly how to apply the technologies at the system level in the systems that the engineers are developing and deploying. Also, how to interface with the service providers in the space, which is going to be a significant challenge and calls for a lot of collaboration. Sources: Webinar titled “Flattening the IoT Learning Curve” by Frank Zeichner, Industry Associate Professor, Schools of Systems, Management and Leadership, University of Technology Sydney Presentation by Geoff Sizer, Chair of Engineers Australia’s ITEE College and CEO, Genesys Electronics Design titled How the Internet of Things will affect every engineer
  13. 1 point
    View the recording: This webinar has passed. Members of Engineers Australia can view the recording free on the IoT section of MyPortal. Simply logon and navigate to Practices > Business Planning and Innovation. Others can purchase the recording on EABooks. Title: Your brilliant idea! Technology start-ups dissected Presenter: Stuart Waite, CEO, Timpani What you will learn: The ecosystem of support for Internet of Things (IOT) startups in Australia How to deal with, or drive, digital disruption Practical advice on how start up your own technology-led business. Description: This webinar explores how to create a technology-led start-up. It examines the Australian Startup ecosystem - particularly for businesses focused on the Internet of Things. Questions addressed include: What are the best practices for successful start-ups in Australia? What support infrastructure is available? Where can a start-up obtain funding? How can you use IOT to develop innovative business models that challenge traditional thinking? The webinar then presents some examples of interesting IoT case studies that current Australian startups are tackling. About the presenter: Stuart is a startup investor, advisor and digital transformation consultant. He's focused on the strategic direction and delivery of innovative products to a multitude of platforms across Mobile, Web, TV and the Internet of Things.At age 30 Stuart founded a software development company in the UK, selling 7 years later to Alcatel-Lucent. He has three times built and managed cross-functional teams in excess of 100 people which included transforming the operating structure of News Corp Australia’s digital team, introducing scaled agile and lean design thinking methodologies. When: 12 midday AEST (Sydney) on 15 November 2016. The presentation will last 30 minutes followed by question time. Where: The presentation is by webinar. After registering you will be sent details of how to logon. Cost: This presentation is free to members of Engineers Australia (EA), the Australian Computer Society (ACS), the Institution of Engineering and Technology (IET) and IEEE. Just provide your membership number during registration for the event. The cost for non-members is $30. How to register: Please register on the Engineers Australia event system. Note, to register you need to have a free EA ID which you can get on the first screen of the registration page. Take note of your ID number for future events.
  14. 1 point
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    View the recording: This webinar has passed. Members of Engineers Australia can view the recording free on MyPortal. Simply logon and navigate to Overview > Introduction to IoT. Others can purchase the recording on EABooks. Presenter: Geoff Sizer, Chair of Engineers Australia’s ITEE College and CEO, Genesys Electronics Design Description: Internet of Things (IOT) has been described as the defining technical trend of the coming decade, impacting every industry and business process. This webinar will provide an introduction to IOT for engineers from any discipline including ICT professionals not expert in the area. We also introduce the Applied IOT Engineering Community and outline how its activities will help any engineers drive innovation in their field. IOT refers to the integration of physical objects with a range of communication technologies, enabling them to be monitored and/or controlled remotely over the internet. However, IOT is far from simple. The spectrum of technologies that enable IOT include advanced electronics and sensor/actuator technologies, next generation communication networks, cloud services to store the massive proliferation of data, big data analytics to make sense of it, mobile app development to interface with it and a whole range of protocols to enable it all to work together. A key driver of IOT has been the relentless miniaturisation of computer chips, sensors, actuating devices, and radio transceivers in microcontroller ICs. This trend how now reached a tipping point where embedded systems can now be built into things and devices of almost any size at an affordable cost with sufficiently low power to enable batteries to operate the devices for up to ten years. This trend is opening a vast new landscape of potential applications for control systems. While there are a number of technical challenges still to be resolved to take full advantage of the potential of IOT technologies, the main challenge is business related. Chet Geschickter, research director at Gartner, said: "Many organizations have yet to establish a clear picture of what benefits IoT can deliver, or have not yet invested the time to develop ideas for how to apply IoT to their business. The second set of hurdles are the organizations themselves. Many of the survey participants have insufficient expertise and staffing for IoT and lack clear leadership." This webinar will set out the case for every engineer to develop their knowledge and skills in this exciting field. When: 12 midday AEST (Sydney) on 5 July 2016 . The presentation will last 30 minutes followed by question time. Where: The presentation is by webinar. After registering you will be sent details of how to logon. Cost: This presentation is free to members of Engineers Australia (EA), the Australian Computer Society (ACS), the Institution of Engineering and Technology (IET) and IEEE. Just provide your membership number during registration for the event. The cost for non-members is $30. How to register: Please register on the Engineers Australia event system here. Note, to register you need to have a free EA ID which you can get on the first screen of the registration page. Take note of your ID number for future events. About the presenter: Genesys founder and CEO Geoff Sizer has a lifelong passion for electronics and technology, and an ongoing commitment to the electronics engineering profession. He has more than 35 years experience in electronic product development ranging from complex systems to simple consumer goods for a diverse range of industries and applications. Geoff is a Fellow of Engineers Australia, a Chartered Professional Engineer and registered on the National Professional Engineers Register. As a former President of the IREE, Geoff was instrumental in the formation of the ITEE College in Engineers Australia and is currently its chair. He has championed the formation of the Applied IOT Community of practice.. During his career Geoff has acted as a Director or Chief Technical Officer for several leading technology firms including Advanced Systems Research Pty Ltd, Advanced Spectrum Technologies Pty Ltd, EMC Assessors Pty Ltd, Telezygology Inc and Embertec Pty Ltd.
  15. 1 point
    Introduction Energy harvesting, also known as power scavenging, is the term used to describe methods for powering IoT devices from its local environment, rather than by mains power or primary batteries. The main sources of environmental power are photovoltaic, thermoelectric, kinetic, and radio frequency. These are complement by energy harvesting and power storage systems. A key misconception is that people equate power scavenging with perpetual life, that device will run forever. However, all systems have limitations. For example, a rechargeable cell powered by a solar panel will die after a period of time or a set number of cycles. So the intelligent design of energy harvesting systems is important, and this may or may not include a battery. Kinetic Kinetic energy harvesting systems are powered by physical motion. Available wherever thing are moving. Examples range from sources of micro-power, such as switches/buttons and watches/wearables through to larger sources such as wind and water. The micro-sources produce a small spike of energy that is just enough to send a small piece of information. The larger sources do not have to be traditional wind power or hydroelectric systems. From an IOT perspective, it is possible to create miniature devices that fit inside pipes to power a single device. It is possible to fit energy harvesting devices inside pipes with moving water to power an IOT device measuring the flow in remote locations. Thermoelectric Thermoelectric energy harvesting systems are powered by differences in temperature, usually between a source at a higher or lower temperature and the ambient environment. Thermoelectric sources are often available in industrial settings which often have, for example, cold or hot pipes. There are even products that can generate power from the difference between skin temperature and the surrounding air, to power a wearable device. Solar Solar, also known as optical energy, has been used for a long time has been used in many different applications because the power density that can be generated from a solar cell is reasonable significant for its size. The main challenge with optical energy is to model how big a solar panel, and associated power storage system, needs to be to make sure that an IoT system will function through natural variations in light levels and in the worst case scenario. Radio Frequencies RF energy harvesting system, and the closely related induction charging, can extract energy from radio waves, in the same way that old crystal set radios extracted enough energy from AM broadcasts to listen to them without a batter. However, this approach has the lowest efficiency of all the harvesting techniques because the amount of power that must be broadcast in order to get a tiny little bit of power exchange over even a small distance is huge. The most useful example of this technique is the use of passive RFID tags, which normally consist of a tiny chip and very thin antenna. As the RFID tag passes through a gate or scanner, there is a wireless power exchange that's very short range. The main reason RFID tags can be manufactured for few cents and last such a long time is because have no battery. Engineering challenges The main engineering challenge is knowing when it is appropriate to use energy harvesting. There are a small number of applications where energy harvesting just makes sense, such as switches and some solar cells on devices that are visited regularly. However, many people fall into the trap of including energy harvesting in their IoT design because they can, when it fact it might not make sense to use it. For example, a kinetically charged dog tracking collar is possible but a battery may much more cost effective. Possible applications where energy harvesting does make sense are: Unusual form factors –e,g, where you've got to get something really thin, woven into clothing etc. Massive deployment applications – e.g. where it's not commercially feasible to replace or recharge batteries. Inconvenient locations – e.g. places that are really difficult to get to. Power storage Power storage option range from batteries through super-capacitors to solid-state options. The main factors to consider are cycle life, before the component needs to be replaced, the rate at which it goes flat, the overall storage capacity and the length of time the charge is available to execute the IoT device’s function. A comparison of common power storage options. Diagram curtesy of Simon Blyth, LX Group. High density rechargeable battery technologies generally have a self-discharge problem and can be hard to charge up using the small sources of power available via some sources of energy harvesting. Super capacities obviously only hold their charge for a very short time but provide an alternative in the right contexts, particularly where the device is being charged/discharged frequently. Examples may be on rotating equipment etc. Energy harvesting chips Many manufacturers are now making chip-based solutions that make it easier to design an energy harvesting system into an IoT device. Comparison of a range of chip-based energy harvesting systems. Diagram curtesy of Simon Blyth, LX Group. Selection of the right energy harvesting chip would relate to the overall architecture and design of the IoT device. Technology companies Key suppliers of energy harvesting technologies include: Micropelt Laird PowerFilm IXYS Kinetron Volture WiTricity IDT Cota Powercast muRata Panasonic Maxwell Cymbet Infinite Power Solutions Sources: Information on this page was primarily sourced from the following: A webinar titled Power Scavenging in IoT Design by Simon Blyth, CEO, LX Group
  16. 1 point
    until
    Recording: This event has now passed. The recording is available free for EA members on MyPortal. Navigate to Industry Specific Applications > Smart Cities Others may purchase the recording at EABooks. Title: How machine vision helps realise the Smart City concept Presenters: Ryan Messina, Director and Systems Engineer, Messina Vision Systems What you will learn: How to design for humans and why machines think differently. What role machine vision brings within larger networks. How uncertainty affects information systems. Developing information systems that grow and cope with tacit knowledge. Description: This presentation will discuss machine vision and unstructured data types in the use of IoT systems. These technologies unlock many new opportunities, some examples of these are generating traffic flow control and monitoring, feeding into an IoT system and how this information can benefit a Smart City. We will discuss methods to measure environmental conditions that can impact how systems operate in the tested conditions. Further, we will suggest methods of contingency planning using information to turn a human-operated task to semi-autonomous and could eventually be capable of being a completely autonomous system. About the presenter: For the past three years Ryan Messina has been the Director and Systems Engineer at Messina Vision Systems focused on delivering machine vision solutions for rugged environments, his experience covers many industries including surveillance, manufacturing, Defence, agriculture and infrastructure. Ryan has a bachelor of Engineering (Robotics and Mechatronics) from Swinburne University and uses machine vision to assist gather additional information. When: 12 midday AEST (Sydney) on 4 July 2017. The presentation will last 30 minutes followed by question time. Where: The presentation is by webinar. After registering you will be sent details of how to logon. Cost: This presentation is free to members of Engineers Australia (EA), the Australian Computer Society (ACS), the Institution of Engineering and Technology (IET) and IEEE. Just provide your membership number during registration for the event. The cost for non-members is $30. How to register: Please register on the Engineers Australia event system. Note, to register you need to have a free EA ID which you can get on the first screen of the registration page. Take note of your ID number for future events.
  17. 1 point
    Introduction An IoT startup is a technically-lead small business that typically has yet to define its business model. Startups usually try several different routes to market prior to settling on an approach that has a good market fit. A key early goal for IoT startups is to identify the problem that is being solved by the use of IoT technology. The problem also has to be big enough for organisations to justify investing in a solution. Once a problem has been identified, the startup describes their hypothesis and identifies assumptions and risks. The next phase is to plan and test, building something simple to test the assumptions. Results are analysed and the hypothesis re-evaluated, and so on in a spiral fashion until a final business model is proven. The above process can be an emotional roller coaster, with many peaks and troughs. Peaks can be associated with initial excitement around an idea, seeing prototypes working, interest from a potential customer, obtaining funding etc. Troughs are associated with the realisation that its not as easy as first thought, mistakes, lost customer opportunities, cashflow crunches, realisation of a lack of skills, etc. Other challenges include decisions around quitting a day job etc. Individuals who launch or lead the establishment of new businesses are often described as entrepreneurs. Entrepreneurs need to have a certain amount of resilience to cope with the above challenges. They also need a lot of energy and self-motivation. There is a huge amount of literature around innovation generally and the Lean Startup methodology has found favour in recent times. This includes concepts such as minimum viable product to test ideas before committing further. A whole industry has grown up around support for technology led start ups. This include business accelerators/incubators and a range of investment companies ranging from seed/early stage angel groups, equity crowdfunding and late stage venture capital. These organisations often host several startups that share technical and business system resources. IoT specific challenges Startups in the IoT space is more challenging that other fields because it requires a combination of hardware, software and business models. Technical challenges that need to be addressed during business planning include consideration of the full range of technologies and practices outlined in this wiki. In addition, there are a number of national inhibitors/enablers of the entire IoT industry in Australia which really need to be addressed in order to foster more IoT Startups, illustrated below: Source: A report commissioned by the Communications Alliance Australia on Enabling the Internet of Things for Australia For example, it is currently difficult to deliver IoT led innovation in the healthcare sector due to the very high number of regulatory barriers that must be cleared. Similarly, the smart city concept is difficult to address due to the highly fragmented nature of efforts around this area. Links The following organisations are encouraging IoT Startups in Australia: The IoT Alliance Australia has a workstream on Startups and Innovation. The Australian government supports the IoT Ecosystem, e.g. Thinxtra obtained funding to roll out its Sigfox LPWAN network Sources: The information on this page was primarily sourced from the following: A webinar titled Your brilliant idea! Technology start-ups dissected by Stuart Waite, CEO, Timpani
  18. 1 point
    The Internet of Things (IoT) is expected to deliver a tidal wave of data. It has been estimated that 25 gigabytes of data is generated by the average smart car every hour. This will be a major challenge for any operator of fleet of smart cars. In the future, it is conceivable that all cars will be generating this amount of data and there were roughly 18 million vehicles in Australia alone, in 2015. This is just one example in a myriad of potential applications of IoT. One project that is generating more data than almost any other in the world is the Square Kilometer Array. It's an international astronomy project currently being built in Australia and South Africa. High frequency radio telescopes are being installed in South Africa and low and medium frequency radio telescopes are being installed in west Australia. This will be a coordinated system of 3000 radio telescopes with a combined area of one square kilometer. The system is going to be operational by 2020 and the computer infrastructure to handle the amount of data that will be coming from that system does not yet exist. The square km array is expected to generate 30 petabytes of data a day. There is no cloud service that can currently accommodate 30 petabytes of data per day. You may have seen charts which show generation of data from the IoT and production of storage devices, and they're diverging quite significantly. The world is already generating much more data than we can afford to store. Another example of such a large data volumes is Large Hadron Collider, which generates 10 times less data, about three petabytes of data per day, but they can still cannot afford to store it and process offline because they don't have the luxury to store all that data. Sometimes physicists complain they could miss some important revolutionary discoveries simply because they can't afford to store the data. So the world is becoming familiar with dealing with data in terms of petabytes (1015) and spy agencies around the world are reportedly collected data in the realm of Yottabytes (1024). However, experts are now saying that the IoT will force us to think in terms of Brontobytes (1027). To compare, three exabytes (1018) is the amount of data contained in half a million of libraries of the size of US Library of Congress, which is considered the largest library in the world. These large projects and the IoT generally is driving a paradigm shift towards new architectures for data analytics. Source: A presentation by Arkady Zaslasky, Data 61, CSIRO in a presentation titled Harnessing the IoT Data Flood
  19. 1 point
    This page lists a range of micro examples of IOT across a variety of industries: Smart Homes and Buildings: Security: Remote monitoring of properties can be freed of the need for wiring, making installation much easier. It is also easier to install remotely controlled actuators such door and gate locks. In addition, IoT systems can add a level of intelligence to home security systems, alerting you to unusual activity, letting you know if you are leaving home with a door or window open etc. Toothbrush. One may consider, “Why would you want to connect to a tooth brush?” Currently a dentist would advise you that you need to get your teeth cleaned by your dentist every 6 months but that isn’t necessarily the case. In fact some people might need to get their teeth cleaned by a dentist every 3 months because they’re not very good at brushing their teeth. For some people it could be every 9 months. Air conditioning: The point is being reached where your home can learn about its occupants and their patterns of behavior. For example a text message could be sent to the owner as notification at 10 am Monday morning advising that the air-conditioning is still on but with no-one at home, asking if the system should turn the air conditioning off. Intelligence enables a user experience that wasn’t previously possible because the instrumentation wasn’t available. Whitegoods: Whirlpool, is a manufacturer of white goods and they are starting to ship their products now within embedded connectivity. They aim to gain a better idea of how they their products are being used by their customers and to close the loop on the engineering process. They aim to deliver a product into the market in a way that facilitates the feedback to the design and engineering process. This will assist in optimising things like averting unnecessary part replacements, being able to make intelligent decisions about warranty lengths. It can also assist in maintenance by delivering the ability to repair products in place and to diagnose the problem before the technician gets there rather than having to visit firstly to diagnose the problem, order parts and the return later to effect the repair. This would naturally reduce the cost of warrantee repairs for the organisation. Swimming Pools: pHin is a company incubated at Playground Global that provides an end-to-end lifecycle of pool management service around delivery of chemicals, pool maintenance and everything to do with your swimming pool. The device pictured measures the chemical makeup of the swimming pool that it's floating in. It's connected via Bluetooth to a low-power hub and can be managed through a phone. It all started from one very simple IoT idea to build this floating device that would tell the homeowner when they needed to put chlorine in the pool but they've developed the business model out so that it now encompasses managing the entire ecosystem of your pool. If you need a pool technician, they'll automatically call it out. If you need chemicals, they'll automatically deliver it. They can do preventative maintenance on your pumps. They can help ultimately look at your electricity usage, etc.. Child activity: Elanation is a business that encourages kids go outside to play.Kids have a wearable device and they earn points by playing in the physical world so that they can come inside and play on their iPads and play games. There is an associated that runs on Apple devices and an entire backend for managing that business. Their wearable devices are manufactured in China Other devices are: the Quirkey smart egg tray, which lets users know when they need to buy eggs. Infrastructure: Asset management: A lot of servicing is typically done on a rules basis such as tightening the bolts every 2 years when in fact every 2.5 to 3 years may be sufficient if a condition based servicing model were used. IOT can be used to more easily instrument all elements of infrastructure to enable this. Another asset management business is SkyGrid which were accelerated through the muru-D accelerator which is Telstra's accelerator. Their whole idea is they can track anything, anywhere, at any time. They're really focused in the asset management space like vehicles, like all of the assets that are on a construction site or on an oil rig. They're starting to do smart hot water systems and working in the plumbing space or making those sorts of devices a much more intelligent pro-active maintenance aspect to their business. Concrete: A concrete truck company was pouring slabs of concrete and had been waiting for about 45 minutes to move on to the next one. The 45 minute period had been determined from some calculations for the worst case conditions such as temperature and humidity, for the concrete slab to harden. As a result, there was a high-cost for the cement truck and operator remaining idle waiting for a period of time to start the next pour. A simple sensor was created to place in to the concrete, to provide feedback to the operator that the next pour could proceed. The business was able to double its productivity just by that very simple, low cost sensing. The business process was optimized in a manner where commercially and technically it wasn’t previously viable to do so. Bridge monitoring: Sensors can be installed on bridges to measure the fatigue of various components in order to better enable predictive maintenance. It can also enable better measure what what kind of loads the bridge is being subject to. While predictive maintenance concepts have been around for a long time, it has previously been cost prohibitive to hard-wire sensors to large pieces of infrastructure. Safety helmets: A number of companies are designing and producing safety helmets that can monitor the users movement and impacts to the helmet. For example, if it detected a severe impact followed by no movement it may automatically call emergency services right away. Pipeline management: A Victoria water utility called GWM Water covering 71 towns and 32,000 properties implemented a rural pipeline intelligence project. This involved installing telemetry on rural meters and the pipeline network. The business case was around the usual of lower costs, reduced downtime, avoidance of upgrades and improved water security etc. The project used LPWAN technology from Taggle with 46 gateways and nearly 14,000 devices. A remote Terminal Unit was added to each of the existing water meters with a batter life of 10+ years. Data was recorded every hour and transmitted daily. Building information management (BIM) systems: A developing application of augmented reality where high quality digital visualisation glasses can be built into safety helmets for work on a building site. The glasses use sophisticated tracking, laser sensors and stereo cameras to track the user's location and project relevant digital overlays on building features as the user moves around. Building Management Systems will also be greatly impacted. Smart Cities: Parking: Smart parking is dependent on parking sensors. One of the daunting aspects of installing parking sensors is the actual insulation of hundreds of thousands of sensors in the environment. Ease of installation is a key success factor. Waste management: Rather than emptying garbage bins on a regular basis sensing allows optimization of the way in which that garbage is collected. Sensors can detect how full the bin is and even odours. Lighting: While sensors can be used to detect movement and light only as required, IoT can take this to a new level by mapping usage of public thoroughfares. Livability: Sensors can be used to determine a whole range of environmental indicators of livability in cities including noise, heat, air pollution, wind tunnel effects etc. Agriculture Animal tracking: A lot of people are considering how we track animals. One of the challenges with animal tracking is the replacement of the existing ear tag with a device which allows the location of the beast to be known any given point in time, this will add mass to that existing ear tag. At the moment there are problems where existing ear tags fall out because of their mass, and increasing Tag mass will exacerbate the problem. In this instance ultra-unit cost and additionally ultra-small mass or weight is really important. Cropping: There are numerous case studies now of smart approaches to crop management, e.g. environmental monitoring of crops. Ovass is a startup on smart crop data and analytics focused on reducing scouting effort around pests, disease and nutrition. Cisco has a joint venture with NSW government to improve agricultural practices using IoT. Deploying sensors rather than monitoring manually can improve the quality and consistency of montoring, as manual monitoring can be costly and inaccurate if environmental conditions outside of the monitoring period affect results. FarmBot covers water management. Detecting when animals or irrigation are using water in tanks, the quality of that water and providing that information back to the farm so they can much more closely manage and monitor their water usage across large farms in the middle of nowhere. They use satellite technology to get the data back to the cloud. Ovass does deep data analysis in the agriculture sector, aggregating data from multiple agricultural farms to provide a very, very deep analysis of what's happening inside that farm, using sensors to gather that data such as use of water, use of pesticides, yield of how much that the crops are actually generating etc It's a business that's using agricultural big data to provide some amazing insights that are then being supported by the data they're getting from sensors throughout farms. Transport Pallet Tracking: Pallet tracking is an example where a lot of people think of GPS. They ask for or say that they need a GPS tracker. Now for a truck that might make sense, where for the last 10 or 20 years people have been instrumenting trucks with a really expensive $3000 tracker that takes a lot to install. Now we’re getting to the point where users wish to not just track the truck but also wish to track the container, the pallets within it and individual boxes on the pallets. For those kinds of application, a lot of the time a pallet or a box might spend its life inside buildings. It may go from one country to another, into a shipping container, into a truck, into a warehouse or into a storeroom. There are some boxes and logistical applications where the device never really sees the light of day, and remains out of GPS range. GPS would be a really poor choice technology for some applications and there are other better options. In application such as tracking moving vehicles, response time and latency become really important. Smart cars: It has been estimated that 25 gigabytes of data is pushed by the average smart car every hour. They have microprocessors and dozens of sensors that collect lots of data including the route of the car, speed, performance of components, road conditions etc. The current challenge is how best to use this data for the benefit of the users. Environment Wildlife monitoring: CSIRO is involved in the continental scaled tracking of flying foxes to research mobility patterns of individuals. It developed a lightweight sensor device weighing 15 grams with GPS on it, including an accelerometer, and a radio transmitter. When the flying foxes stop at a nest, or base camp, then the data is uploaded to a hub and then transmitted to a processing center. Water health: Sensing for leakages of chemicals, sewage, turbidity and other pollution indicators. Other applications include bushfire detection, water levels in rivers, wildlife populations through listening for sounds etc, Manufacturing Automatic detection of hazards: CSIRO is involved in a project called Guardian Angel, which automatically monitors where people are in relation to moving machines. It can then take preventative action to stop accidents. Real time monitoring of yield: Before IoT, yield was managed as the end-to-end production from the factory over months or weeks. With IoT, floor supervisors can intervene to improve a situation arising from a machine or worker because this KPI is delivered in real time. There are also opportunities for training workers, safety, and standardisation. One affordable, wearable technology used in manufacturing is Epson glasses, which can provide augmented reality views to pinpoint particular production issues. Health Caring for the elderly in their home: One example of the application of cognitive computing in IoT is in health care for the elderly in their own homes (curtesy IBM). Asking the elderly to wear sensors is problematic because they may not raise an alert when they should or they alert when they shouldn’t and people stop wearing them after a while. An alternative approach is to instrument other things in the house such as fridge doors, light switches, bathrooms, movement sensors, and maybe infrared sensors etc. The cognitive software can then build up an understanding of what normal looks like. When something abnormal happens, the system can then raise an alert and make a call to the emergency services. Medical aids: One emerging technology is the Proteus pill, a pill with a digestible sensor. It can be used to monitor how much medication patients have taken and when they take it. This allows medical professionals to monitor whether patients are taking their medication correctly. Exercise monitors: The Garmin Vivofit is an example of a wearable exercise monitor. Home monitoring of patients with chronic diseases: The Australian department of health (DOHA) is developing a large scale project with Swinburne University which is studying the health and economic outcomes of introducting IoT home monitoring devices to high-risk patients with chronic disease. Utilities Smart metering of water: Australian smart metering company WaterGroup has developed a campus-wide smart metering solution for both water and gas for Australian National University in Canberra, with automatic alerts, data analytics and integration with sustainability management systems. This included a retrofitted data-logging device on existing meters, which converted them to smart meters. This system measures baseflow and detects leaks, and was able to return water savings that provided a return of investment in less than a year. Watergroup has also installed a Sigfox smart water metering system for Coffs Harbour City Council (the first Sigfox commercial smart metering system outside of Europe and North America), which covers around 80% of the population of the council area. Automotive Car to Car: Vehicles may be able to talk to each other for safety reasons such as collision avoidance, and for efficiency reasons such as better convoy performance in logistics. Car to Infrastructure: There are multiple ways vehicles could interact with infrastructure such as parking systems, highway safety features etc. Diagnostics: As with many consumer goods, diagnostic information can be sent from the the various things that make up a car and this can be used to deliver superior services to the owner and also to improve design of components. Ti can also improve investigation of equipment faults and better manage the need for product recalls. Sharing economy: Making cars themselves, internet enabled things can improve the ability to automate ride sharing business processes. Ownership changes: Processes around ownership changes of vehicles can be improved when the digital identity of the automobile is manifested at the point of manufacturing. Personalised Media: Vehicles with common IoT technology may be able to recognise you so that regardless of what vehicle you are in, it will deliver personalised media. This can be used for entertainment purposes such as in rental cars or can be used for business purposes across large fleets used in logistics or public transport. Driver behaviour modification: GoFar have a smart device that goes in your car and it scores your driving. It has a Bluetooth connection to your phone. It's helping you to drive better with logs and scores providing feedback. The economic incentive is to save you a lot of fuel. It helps you track your expenses and monitor / reduce your emissions. They did a successful Kickstarter, crowdfunding. Energy Energy Demand Management: Economics is the key driver for this application, as it affects the unit price of power. It also has implications for the environment and energy security. Demand can be controlled on the user side by introducing smart metres with circuit breakers. Hybrid Generation Systems: A smart hybrid generation system is used to run the King Island power supply in Tasmania (Hydro Tasmania). It combines energy from wind turbines, solar panels, batteries and diesel generators and also performs demand-side management using IoT devices. Smart metres installed homes allow users to monitor their electricity usage over the internet. Sources: The information on this page was primarily sourced from: Webinar titled IoT Application Development with Open Data-Driven Computing Platforms by Prof Dimitrios Georgakopoulos, Swinburne University of Technology. Webinar titled Augmented reality for ‘in context' visualisation of IOT data by Allan Thompson, PTC Technical Manager, LEAP Australia
  20. 1 point
    Question from 5-Jul Webinar: Do you feel it's more likely that enterprise will look to develop IoT development capabilities in house or rely on external consultancy? Answer: The technologies and engineering skills require to implement IoT system top-to-bottom are extensive, and it is unlikely that typical engineering teams using IoT in their systems or developing IoT-capable products will have the full range of required capabilities. Additionally, these skills are different from the core skills required to design and develop the primary functions of the system or product. It is likely that most organisations will require the services of external consultancies, or full service providers such as the large industrial automation and building management system providers.
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    Hello all, Here is a starting point for ways to measure value addition by the community. Please comment and offer suggestions so we can finalise and turn it into a matrix. Value Measurement-IoT Practice Community (Draft).docx
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    In order to be cost competitive in the medium to long term, Australian innovators must be cunning and target niche markets where we have a natural competitive advantage. Any IoT product which takes off in the consumer space risks being overwhelmed by a flood of cheap competing products from overseas - including wearables, home automation and other fads and "flavour of the month" applications. The first mover advantage in these spaces is likely to be short lived. Areas to focus on include e-health, agriculture, transportation, mining and smart cities.
  23. 1 point
    The success of the Applied IOT Engineering Community depends very much on the engagement of its members. As such we would very much like you to optimise your settings so that you are aware of what is going on and can engage fully. Due to privacy laws we can't do this for you. Following are the steps you need to take to be fully engaged: Firstly you need to be logged on to make changes to your settings. Click the sign in button at the top right or register if you have not already done so. Subscribe to our fortnightly newsletter, which lists upcoming webinars and changes to the wiki. To subscribe: Click the down arrow under your name in the top right corner. Selected Account Settings >> Notification Settings Then tick the "Send me News and Information" box. Follow the main forums: Click on the Forums tab > then the IOT Engineering forum then click the Follow button top right Choose you frequency of emails (we recommend "when new content is posted" otherwise you can't participate in the live conversation). Repeat for the Industry News forum and also the Community Agenda forum if you want to get more involved. Follow new resources and announcements: Click on the Resources tab > then Case Studies Press the Follow button and select frequency of emails. Follow the Wiki: Click on the Wiki tab, then index and click the follow button. The above are the most important ones. However, we also suggest that you bookmark the following useful pages in your browser: Calendar of events Webinar Recordings On your profile page (down arrow in top right corner) A) upload an image of yourself (picture icon next to circle) and B) Say something about yourself by clicking the "Edit Profile" button. C) Tick any appropriate organisation membership. D) Consider enabling status updates so you can share what you are doing in the IOT space; E) Tick "news and information" and "automatically follow content" in the Notification Settings ; Do please choose to receive emails frequently as most communities thrive with regular interaction. Finally, don't forget to make a contribution by: Starting a discussion thread, ask a question or make a comment in the IoT Engineering Forum. Add a company announcement to the Industry News Forum or comment on any announcement. Add an IoT event you have heard of, or are hosting, to the Other IoT Events section of the Calendar Make a comment on any page of the Wiki. Post a blog and tell your friends about.
  24. 1 point
    I'm joining this community to gain knowledge of IoT and transfer that into a senior high school educational setting. After a successful career in computer systems/software engineering within the defence sector, I have moved to the education sector to teach and inspire the next generation of kids. I can see a real opportunity to teach Yr 11 and Y12 students about IoT and how it might impact on their lives. I'm thinking of creating a hybrid IoT simulated/real environment for students to create, design and test. A project like this also helps me maintain my MIEAUST and contribute to CPD! I look forward to making connections that will help my students get hands on with IoT.
  25. 1 point
    The spectrum of technologies that enable IOT include advanced electronics and sensor/actuator technologies, next generation communication networks, cloud services to store the massive proliferation of data, big data analytics to make sense of it, mobile app development to interface with it and a whole range of protocols to enable it all to work together.
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