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Summer Rewind: Modernizing the Electricity Grid with the Advanced Distribution Management System

02/09/2024
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Summer rewind: If electrification is the future of energy, the grid must become more efficient and more reliable across Canada. Jenna Gillis, Manager of Distribution System Integration at Hydro Ottawa, joins thinkenergy to discuss the process. Listen to episode 136, as she shares how Ottawa’s electricity grid is being updated with an Advanced Distribution Management System (ADMS) and what this means for you, your family, and residents throughout the region.

Related links

●     EV Everywhere Pilot Project: https://hydroottawa.com/en/save-energy/save-energy-homes/ev-everywhere

●     Trevor Freeman on LinkedIn: https://www.linkedin.com/in/trevor-freeman-p-eng-cem-leed-ap-8b612114/

●     Hydro Ottawa: https://hydroottawa.com/en 

 

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Transcript:

Trevor Freeman 

Hey everyone. Well, it's officially summer, and the think energy team is taking a break to recharge over the next two months, but also to plan our content for the fall. So stay tuned for some great episodes in the fall. Not to worry, though, we still have our summer rewind to keep you engaged. This is where we pick out some of the great past episodes that we've done and repost them. So whether you're lucky enough to be sitting on a dock or going on a road trip or if you're just keeping up with your commute through the summer, it's a great time to revisit our past content. You will hear past episodes from my predecessor and the host chair, Dan Sagan, as well as a couple of mine from the past few months, and you're welcome to check out your own favorite past episodes as well. Wherever you get your podcasts. We hope you have an amazing summer, and we'll be back with new content in September, and until then, happy listening.

 

Trevor Freeman  00:07

Hi, welcome to think energy, a podcast that dives into the fast-changing world of energy through conversations with industry leaders, innovators and people on the frontlines of the energy transition. Join me Trevor Freeman, as I explore the traditional, unconventional and even up and coming facets of the energy industry. If you've got thoughts, feedback or ideas for topics that we should cover, we'd love to hear from you. Please reach out to us, I think energy at hydro ottawa.com. Hi, everyone, welcome back. I'm pretty excited about today's topic, because we're going to be tackling something a little bit technical. And that's always fun. And today is going to be the first of what might end up being a few different episodes looking at this term called grid modernization. So today, we're going to do just a high-level overview. And then over the next few months, there'll be a couple of different episodes that will dive deeper into some of the specific aspects of grid modernization. So that term grid modernization can be a little bit daunting, but that's okay. Our goal here is to pull apart these topics to better understand what they are and how they impact all of us, you know, from those of us working in the energy sector, all the way to the end users of our product, if you will, our electricity customers. So let's start by a bit of a primer. And I think it'll be helpful to start by talking about what the grid is. So the electrical power grid has been called the world's largest machine, and the greatest engineering achievement of the 20th century. And for good reason, thinking of it as a machine is a great metaphor, because just like a car, or a sewing machine or a snow blower, there are a lot of parts. And if any one of those parts breaks or isn't working as it's supposed to be, that will impact the overall function of the machine. And the same is true for the grid. And the parts we're talking about here are the holes, the conductors or wires, the transformers, the switches, as well as the many different sensors and meters and communication devices that help the humans in the mix, monitor and control things. The difference though, is that you know, even for a complex machine, like a car, there are hundreds or maybe even a couple 1000 parts. But the electricity grid, even if we just look at let's say hydro Ottawa as territory, there are hundreds of 1000s of parts. And if we scale that up to Ontario's grid, we're talking about millions and millions of individual parts all working together, so that when you turn your lights on at home, electricity that was generated hundreds or 1000s of kilometers away, flows into your device and makes it work. That's pretty impressive. And if any one of those millions of parts breaks, there's an impact somewhere on the grid. If multiple things break, or if there's something really critical that isn't working. That's a major problem. And we've seen these major problems. We've seen large scale outages. And you know, we tend to focus on Ontario's grid on this show, because that's what we call home. But our grid is connected to our neighboring grids, who are connected to their neighbors to form really an interconnected North American grid across Canada and the United States. It really is a modern engineering marvel. And, you know, we didn't just get here by chance. This was kind of designed, you know, back at the early days of the 20th century in the early 1900s. Electrical pioneers met for the first time in what is now Kitchener, Ontario to discuss what it would look like to wire Ontario's customers together to form a provincial electricity grid. Our predecessor company, the Ottawa hydroelectric commission, connected to that provincial grid in 1916. So, what we know as the Ottawa grid and our service territory is over 100 years old today. Before that, across Ontario, reliable and continuous power in the region was kind of uncommon, and really dependent on whether someone in the area like a major business or a wealthy individual had invested in a localized electricity grid for their own needs. An interconnected provincial grid was designed and implemented with a goal of making electricity available to all Ontarians regardless of where they lived. And that kind of evolution of the grid in Ontario is similar to how it worked in other parts of North America and indeed the world. That's kind of how grids came about in the last century. Ontario's electricity grid, however, like all grids around the world, was really designed as a one-way street. So, the idea was to generate and then transmit, and then deliver that electricity to customers in that order. Back then, those pioneers really couldn't have imagined an electricity grid that would need to support two-way interactive things like small scale distributed renewable energy, you know, solar panels on roofs or electric vehicles, or energy storage, and a whole host of other things that, you know, want to do more than just draw power from the grid. As we've talked about the ongoing energy transition, and electrification, which is being driven by the pressures of climate change, is really driving a societal shift to bring the electricity system into the 21st century, and to make sure it's powered with clean, renewable electricity. So, our grid is starting to undergo this major transformation. And we won't be able to do that effectively or affordably by just using the same strategies and technologies and the same pace that we've been doing it at over the last 100 plus years. We need to take it to the next level; we need to rethink what we're doing to upgrade the grid and how we're doing it. And that's really what grid modernization is, it's not saying we don't have a modern grid, it's realizing that the grid of 10 years from now needs to be different in a much bigger way than it's different from how it was 10 years ago, that pace of change needs to happen quicker. And we need to bring on new functionality. It's not just you know, incremental change anymore. To help us make some sense of this. I'm really happy to have Jenna Gillis to chat with today. Jenna is the manager of distribution system integration at hydro Ottawa and is leading this major project that we're calling at a high-level grid modernization, or more specifically, our advanced distribution management system, or ADMS. Jenna has been with hydro Ottawa for 16 years and has held a number of different roles on the operations and systems side of our business and really knows how our grid operates, how it's been operating, how the humans in the mix control things. And what's necessary to get us to that next stage that we've been talking about. Jenna, welcome to the show.

 

Jenna Gillis  07:04

Great. Thanks, Trevor. excited to talk to about this today. 

 

Trevor Freeman  07:07

Yeah, I'm excited to. So let's start at kind of a high level here and help our listeners understand how we currently operate our grid today. So paint the picture for those of us who don't kind of get to see what happens behind the scenes. How do we control things today?

 

Jenna Gillis  07:23

Yeah, for sure. So what people might not realize that we actually have people sitting in a control room centralized control room that looks at our system 24/7 365. So we've got people monitoring the system all the time. And they look at the grid state, and they help direct field activities. They look at triaging outages as they become aware of them. And right now, we've got visibility to our control room to all of our substations, so all of our, you know, high level devices, but only down to about 8% of the feeders and not actually all the way out to our customer level. So what does that mean? That means that we still rely on customers calling us or reporting online when they experience an outage. And all of that information does make its way back into our control room operators. And it goes into a system we call the outage management system, which helps us track and identify where we might be seeing issues out on the grid. So the operators then use that information to help make decisions in terms of controlling the grid where they need to open up closed devices where they need to send field crews to restore power. So on top of that, most of these activities are done by field crews. So the system operators are in direct contact with our crews out in the field and providing direction on where to go, what devices to you know, have them physically open or close in the field. And we've got about 10% of our system right now that has remote capabilities. So that means that the operators can choose to open or close those devices, basically at a click of a button back in the office sitting at a computer. So most of what we do today really is human based and does take an expert control operator to be monitoring the systems and making the decisions.

 

Trevor Freeman  09:08

Yeah, so we've got this like really complex system. It's, you know, state of the art system, if you will, that requires, like you say experts to keep track of what's happening to identify problems and make decisions based on the information they're getting. I just want to pick apart a few things you said there. So when we're talking about our substations, just for our listeners, those are, you know, spots in our grid where we take higher voltage and step it down via transformers to a lower voltage, and then send that out on wires. That's what we call our feeders to our end customers. We know what's happening at that substation level, we can see whether the power is flowing or not whether switches are open or not. But once it gets past that we lose some of that visibility. That's kind of what I'm hearing from you

 

Jenna Gillis  09:57

Yeah, exactly. And so that's why I'm saying like we still rely on those notifications from our customers to let us know where they're seeing the problems. And, you know, it comes into a system that, that we can look at in conjunction with that visibility that we have on the substations to help us understand what's going on.

 

Trevor Freeman  10:12

Right. So obviously, it was such a, you know, an ordered and complex system, we're constantly in proving and renewing and upgrading. That's not new. That's not something that we're just starting. But as I've kind of hinted at in the opening there, we do need to change how we do things. So before we look into where we're going, how do we renew and upgrade today, what's our current process.

 

Jenna Gillis  10:36

So we do have a robust asset management framework. So that's basically a program that tells us and we look at all of our asset information. And that's whether that's poles, wires, transformers, switches, breakers, basically anything we have out on the distribution system, and we look at and prioritize where we need to invest and where we need to renew, replace, install, upgrade, all of that kind of stuff. So basically, as we do that, right now, we go through, and we'll incorporate new technologies, like these remote control switches, like these sensors to bring information back into the control room to help us continue to evolve, meet our customer or system needs. So this, this process has worked really well in the past in terms of keeping pace with technology and the requirements of the grid and our customers. But right now, we're seeing that it's we're falling behind, it's too slow to parallel installation of these new technological devices, with these asset renewals or installation. So I mean, if you think about it, you know, a pull out with wires on it can last over 50 years, we can't wait until we're replacing that 50 years from now to go in and add these new technological advancements. So what that means is now we're looking at a hybrid ap proach. So of course, we're going to continue to parallel activities where it makes sense with these asset renewals and upgrades and replacements. But we also need to strategically start placing these devices in areas that we're going to gain benefit from, and I'm talking about benefit from a control room operator perspective, benefit from a safety or field crew perspective, but also where we can provide value to our customers in terms of, you know, expediting restoration efforts, or, you know, providing more flexibility into the system to allow more customer connections, whether that be, you know, new residential developments, or whether that's, you know, the next solar panel or battery or something like that.

 

Trevor Freeman  12:25

Yeah, waiting for anybody who's familiar with kind of technological adoption curves and the pace of technological change, you talk about 50 years is the life of some of this equipment, the difference between technology and let's say, 1930, and 1980, wasn't a huge jump when it comes to poles and wires and transformers. But today, the difference of 50 years is night and day that we're not talking at all about the same technology. So we can't wait for that whole cycle to go through before we're getting some of the tech in today that we need today in order to upgrade the system. So that's helpful to understand what that looks like. So let's look forward then. And when we talk about where we want to go with grid modernization, how we want to change that, talk us through what we're trying to accomplish.

 

Jenna Gillis  13:14

Yeah, so I think I'm gonna paint a little bit of a picture here in terms of how I think about grid modernization, because that's really helped me contextualize the way that we need to do things differently. So I think of grid modernization, that program in entirety as like a stacked or a layer pyramid. At the bottom, you have field devices. So you have equipment that's remotely controlled, or providing data in the field. So you know, we're talking about sensors, or meters or switches, things like that. That's your foundation. On top of that, you then need a way to get that information back to back to systems back to people. So then you need a communication infrastructure. So you need to be able to take that data and funnel it where it needs to go, which is the third layer data management, you need to store, organize, create access to that field data. And then finally, the fourth triangle right at the very top is your applications and analytics later. So now you've got the data coming from the field, you're bringing it back, and you're managing it. So now what are you going to do with that information. So these are the applications and analytics. So really the tools that digest that data and ultimately help make decisions. So that is what I envisioned kind of as the grid modernization pyramid. And you need each one of those layers to unlock the value from the layer below it. So you can't really have one without the other all the way up to the top. So what we need to start doing is thinking about these layers in a programmatic fashion. What we've done historically is looked at the requirements on a project by project or program by program basis. So basically, you would unlock each one of those layers for that specific project or program requirements. What we need to start doing now is that grid moderization is going to be the foundation for everything we do. So basically, every project, every program is going to require some level of information, data management, analytics, communication. So the way we're looking at that is this is now becoming a foundation to everything we do. So we need to be programmatic, roll this out so that regardless of what we're doing in the future, we have this foundation to rely on. And we're not building it piece by piece as we work through, you know, project life cycles. So really, what's different when I talk about grid modernization assets, and I'm talking about meters, or sensors or remote control devices, is the integrated nature. So we talked about that pyramid, you can't use these devices without any one of those layers, whereas you think of a traditional asset like a pole, you can, you know, load it up at a truck, and somebody can go and put it in the ground. So it's really the the true convergence. Now we're seeing what we, you know, our information technology, our IT systems, our operational technology, or OT systems, and then operations and asset management. So we really need to be looking at these things together, as one, making sure we're all aligned to unlock each one of these layers.

 

Trevor Freeman  16:15

Yeah, it really highlights the, I guess, cascading impacts of projects and decisions and bringing on new technology across the entire distribution, business and how we do things and how we serve our customers. One is impacting the other in ways that hasn't really, truly been the case before. So that's that's a great way of of painting it. Thanks, Jenna. Let's talk about kind of the the why behind this, what are the benefits that we're going to see by taking this approach by taking this sort of accelerated upgraded process that we're doing? What are we going to gain from this.

 

Jenna Gillis  16:54

So our overall grid modernization strategy is guided by five key objectives. So I'll go through each one of those and give you kind of a high level blurb on on what it is that we're trying to achieve with grid modernization. So the first one is enhancing reliability. So the more monitoring devices you have in the field to understand the state of the grid, the more remote capabilities you have in order to operate. And you know, isolate and restore, the better reliability have the ultimate goal is moving towards an automated process, where you have all of the foundation of the equipment, the communication channels and the audit, the analytics to make decisions, you can get outages restored much more quickly. The next one is what we call flexibility. So adaptive grid flexibility. So we want to make sure that the grid is dynamic to all of these changing energy demands that we're seeing come online, so things like heat pumps, or electric vehicles, or solar generation or battery, we want to provide more options for the connections and be able to have the grid respond dynamically to these changing conditions. Next one we have is fortified resilience and robust security. So resilience is really about the ability to do to withstand disruptions. And I'm talking about that from, you know, a physical asset perspective, but maybe also a technology perspective, as well, we want to make sure that we have a good diversity, to be able to recover from disruptions. So we know there will always be disruptions, as we've seen, kind of with the weather and the little last little while. And then as we get more and more connected, we need to make sure we're safeguarding assets from cyber threats, core to everything we do, we want to make sure that we're thinking about the customer. And so we're looking towards strengthening customer engagement and empowerment. So we've talked about, you know, getting more data back from the field and being able to unlock new new ways of doing things, new tools, and providing some of this information back to the customers to help them be better informed about their energy uses, and their, their low profile and what they want to do with their equipment. And then finally, sustainable decarbonisation of renewable energy integration. So we really want to look at reducing our carbon footprint by optimizing our planning and operations processes. So we talked about it a little bit about automation, you know, that will reduce our need to roll trucks for crews to physically go out in the field and operate devices. And basically, everything above we talked about was, you know, being able to incorporate renewable energy sources. We want to make sure that we have the ability to bring these resources online and leverage them.

 

Trevor Freeman  19:34

Yeah, I mean, it really kind of, again, not to kind of reiterate the same things we're talking about, but it it's an all encompassing type of project like everything we're trying to do everything we talk about on this show, when it comes to the energy transition, whether that's having a more robust, sustainable, smart grid on the utility side of things, to enabling the kinds of things our customers want to do in terms of adding in more DER's, more self generation and storage, this project is kind of the foundation work. And that's going to support all of those efforts. And we're really only going to get so far without doing this kind of work, which stresses the importance of it. 

 

Jenna Gillis  20:19

Yeah, it really does unlock so much more by having this level of information and visibility into our system that we want to achieve.

 

Trevor Freeman  20:27

Yeah, that's great. Okay, so let's kind of dive in here you have this overall strategy that you and your team have outlined, which you're calling our grid modernization roadmap. Walk us through the main components of this and kind of the timelines that you've laid out? Is this a six months project? I say that kind of laughing, knowing is not a six month project? How long is this going to take? And what are the major components of this.

 

Jenna Gillis  20:53

So hopefully, I've done some justification in terms of, you know, mapping out how complex this actually is to deploy. And so our grid modernization roadmap is set out, basically a set of initiatives over the next 10 plus years. So we've kind of, you know, got got a good handle on the objectives we want to unlock over the next 10 years. And so we've laid out, what do we need to do to unlock those, and what's the timing of that. So we also need to understand that this is going to be dynamic and constantly evolving with, you know, technology or market drivers. So you know, this roadmap is only as good as it is today until you know, something changes tomorrow. And we recognize that this is going to have to be dynamic and evolving. So due to the complexity of it, we decided to basically bucket the program into six different component layers so that we can really get a sense of how one feeds into the next as I kind of talked a little bit about the pyramid before. So the first one is physical infrastructure. Number two is sensing and measurement. The third is communication. Fourth is data management and analytics. Number five is control and optimization. And then finally, the last number six is business and regulatory. And so all of our initiatives fit underneath one of those six components.

 

Trevor Freeman  22:12

Okay, so let's dive in and pull them apart that I'd love to kind of talk more about each of those. And just for our listeners, we're going to keep this fairly high level, because we don't have time to get into super detail on all six. But the plan is actually to take future episodes and maybe pull apart some of these in more detail. So if you're super interested in what we're talking about today, don't worry, we'll we'll dive into more detail. So let's start at the top with physical infrastructure. What does that entail?

 

Jenna Gillis  22:40

So the physical infrastructure component really targets the challenges and opportunities posed by electric vehicles electrification, climate vulnerability on the grid itself. So we talked a little bit about the fact that we need to start adapting, or continue to adapt our asset management practices to address these factors. So you know, what does that mean that that's things like I talked about before about increasing the rate that we add new technology or remote switches and sensors and things like that into the system. And I talked before about resiliency and flexibility. And a corporate part of this is, you know, incorporating an increased level of climate risk consideration into our, you know, acid assessments and our plan for renewal or replacement of those devices.

 

Trevor Freeman  23:28

Yeah, so this part of the strategy is really about, you know, the actual devices in the field that are going to be installed the new technology that we want to get out into the field on our grid. Let's let's pick apart that last piece a little bit, the climate vulnerability, how are we also trying to, you know, for lack of a better word, harden our grid, or make it a little more resilient to some of the the weather events we're seeing?

 

Jenna Gillis  23:52

Yeah, so I think everybody's probably well aware that it's not about, you know, if we're going to see, you know, another large weather round, it's about, it's about when. We've always incorporated those types of things into our asset planning. But now, the frequency and severity of these things is becoming higher and higher. So what we started looking at is, you know, reliability has always been a priority. But now we're shifting gears a little bit to resilience. So I talked about that before. And that's more about withstanding and recovering quickly from the events, like I said, we know they're going to happen. So how are we going to make sure that we can recover as quickly as possible. So with looking at that, we're looking at things like reviewing our design elements, like strengthening the poles that we install or doing strategic undergrounding and sections of overhead lines that we know have a high exposure, and like subsequent consequence of failure. So we are building all of these strategies now as well into that asset management in the deployment of what we're putting out into the field.

 

Trevor Freeman  24:50

Great. And again, just for our listeners, you know, I want to talk more about what we're doing and what can be done on that climate resiliency piece. So there, you know, keep your eyes open for further episode on that down the road. Okay, so the next piece you talked about is sensing and measurement at a high level, talk us through what that what that means and how that contributes to overall grid effectiveness.

 

Jenna Gillis  25:13

Yeah, so sensing and measurement is more than just installing the physical devices that we kind of talked about in the previous component. And its devices like sensors to detect faults and report back and where there might be disturbances or outages on the system. And it's more than just meters on customer homes, it's about integrating that data back into our grid management systems. So you know, our ultimate goal is to have real time access to all of the data from our customer meters, you know, that's over 350,000 meters. But to achieve this, we need to have a robust strategy to transfer that information store that information, at the right frequency, meaning in terms of, you know, how often do we get the information from this devices? And how often do we receive that information back in the office for all of the different use cases, and there's, you know, there's hundreds of use cases for that information. So this does represent a significant shift in the way that we're using our meters right now. Right now, when I talk about our customer meters, we take a reading from those once every 24 hours, with hourly level of granular data. So it's basically once every 24 hours, we get 24 points of data. You know, and we're talking about what we want to do with grid modernization, we're looking at, you know, reading those meters, you know, once a minute with more information. So you can see there is a huge shift in the way that we've got kind of the infrastructure set up around those things.

 

Trevor Freeman  26:43

When you talk about those numbers, so 24 data points every or every day, changing to potentially reading every minute. Remember, we're multiplying that by 350,000. So that's a huge amount of data. And, you know, Jenna and I are working for hydro Ottawa here, one of the sort of medium size utilities in the province of Ontario, we've got other utilities in the sector that have millions of customers. So the importance of data and how we handle that, and we'll talk a little bit more about that in a minute is certainly really high on the priority list. You know, some of what you mentioned there sounds a lot like what we call advanced metering infrastructure 2.0 or AMI 2.0. So for those kind of in the industry that know what that is, that's maybe the next generation of meters, we might be talking about, how does that differ from the existing smart meters that exist all across Ontario? And that doesn't mean they exist everywhere in North America, but at least in Ontario, we've got kind of what we call AMI 1.0. What does AMI 2.0 look like? And how does that change things?

 

Jenna Gillis  27:50

Yeah, so there's kind of one key critical factor, AMI 1.0 was rolled out with, you know, one main purpose, that's billing. And so our meters are set and our communication infrastructure is set up to again, report back on a frequency that makes sense for monthly billing. So like I said, in other words, that's a once a day reading. And so that data is stored and available the next day, so not, not what we would call real time. So this information is incredibly valuable. And we do use it for planning and supporting operational processes. But it doesn't allow us to respond real time to the conditions on the system, right down to that customer level. So AMI 2.0, which is basically fate. You know, the next step from that first level of having, you know, meters that we can read remotely from the office is more just about than, like I mentioned before about installing sensors, it's not just changing those meters, we talked about the data requirement. And so it's also a substantial upgrade to our communication infrastructure to get that higher volume of data back from the field. And what are we going to use that information for? Like, why is it important to have it real time as opposed to you know, the next day, it's because these meters will be able to give us things like a power off notification. So we talked before about the fact that we do still rely right now on our customers calling in to let us know that they are out of power in the future with AMI 2.0. The intention will be that these meters will report right back into that outage management system. And we will know as soon as that meter sends a signal, say, Oh, I've lost power. The second piece of that is we'd want to know when your power comes back on. So we're going through we're doing our restoration efforts, we want to make sure that we're picking everybody up. So we'd also be able to get a signal coming back on and say like yep, I just turned back on. So having this visibility right down to the customer level gives us so much more flexibility in terms of how we can respond to the system in real time. The other one it also opens a whole bunch of other future use cases such as you know, we talked about unlocking benefits for our customers as well but real time data but their energy uses and you know, providing additional tools or software to help them look at their consumption and overall save money on their bill. So I'm then that's a future step. We're not there today, but the work is on the way to achieve that. And that, you know, those are some of our guiding principles around what we're doing for grid modernization. Yeah really highlights how powerful it can be to know what's happening in real time at every, you know, end use of our entire grid, every customer knowing exactly where the issues are exactly when they get resolved or don't get results. So that's pretty powerful information. So, as we've kind of talked about, there's a natural tie over from having that sensing and metering equipment out in the field, gathering that data, and then getting that data back to our system office where we can use it. And that's where communication comes in. So tell us about the critical role that our communication technology will play.  So today, hydro has a communication network that we've spent our entire service to territory, and it uses a bunch of different technologies or different channels like cellular networks, radio, fibre phone lines, so we've got a diverse communication network that sees across our service territory. So again, kind of parallel in the way that we've been deploying some of these smart technologies. This strategy is very effective and accommodating the sensing and measurement control devices that we've been doing today. But again, we are talking about an increase in data we're talking about an increase of physical devices means that we need faster higher capacity methods to get that data from the field back into our systems. So again, this is all part of the strategy that we're focused on is making sure that we have this backbone communication infrastructure ready to connect these devices into. We don't have all the answers on that yet. But we know roughly where we need to get to. And again, it's part of this roadmap to make sure that we achieve those objectives. 

 

Trevor Freeman  31:47

So when we talk about communication and sending data over communication networks, increasingly, we all know, the challenges with cybersecurity. And people may be wondering, how are we going to protect all this data that's now flowing, that's giving real time information about you know, power use on our grid? How does cybersecurity fit in within this plan.

 

Jenna Gillis  32:08

So we do have a robust cybersecurity standards that we follow, and a dedicated team who looks after these things for us. So as we know, as the grid becomes more and more connected, cybersecurity becomes an even more crucial part of this. And it's a critical factor. And we you know, we mentioned it as one of the core objectives of the program is to, you know, maintain our security. So if you think about it in the past, when we went and you know, just installed a device that, you know, somebody could go in and control from a bucket truck, you didn't have to incorporate cybersecurity standards, you didn't have to, you know, have a device, go through the multiple levels of checks and validation that we have to do things today. So it is another another shift in the way that we operate, right is that and again, we need to keep pace on the technology standpoint of things, not just the physical device.

 

Trevor Freeman  32:58

Totally. Okay. So there's definitely a bit of a flow here, because we talked about the data in the field, we talked about communication. Now we've got that data coming into hydronic, into our system office, we kind of move into that next piece, you talked about data management and analytics. How does all this data help us transform our grid? What do we do with this data once we get it?

 

Jenna Gillis  33:22

Yeah, so raw data coming from the field isn't overly valuable, what you need to do is you need to have an established framework for that information to allow the users to access that in real time. And so when I'm talking users right now, you know I'm talking about it could be a number of different meanings. But today, we're really talking about our hydro Ottawa control room operators, I'm talking about, you know, our planning teams, our operations teams, and our maintenance systems information. So you need to make sure that you have a frame

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